Sergey and Chen are locked in a rectangular box of Dimension L*W*H. Evil Larry has put a machine which is located at a point inside the box (p,q,r) which starts shooting balls in every direction (dx,dy,dz) where 

-N ≤ dx, dy, dz ≤ N except (0, 0, 0) 

such that the ball goes through (p, q, r) -> (p + dx, q + dy, r + dz) -> (p + 2dx, q + 2dy, r + 2dz) and so on. 

so, a total of (2N + 1)^{3} - 1 balls are fired. Sergey is standing at (a,b,c) and Chen is standing at (d,e,f). Provided all the balls follow reflection property and have constant velocity and gravity is not taken into account, can you tell how many balls are caught by Sergey and Chen? Sergey and Chen can catch the ball if it passes through the point at which they are standing. 

Input Format 

The first line contains the number of test cases, T lines follow, each containing a testcase. 

Each testcase contains 13 integers in the following order 

L W H a b c d e f p q r N

Output Format 

For each test case please output two integers indicating the number of balls that are caught by Sergey and C, respectively.

Constraints 

T = 1 

1 ≤ L, W, H, a, b, c, d, e, f, p, q, r, N ≤ 50  

Sample Input

1
3 3 3 1 1 1 1 1 2 2 2 2 1

Sample Output

8 4

Explanation

Here, L, W, H  = (3, 3, 3), Sergey is at (1, 1, 1) and Chen is at (1, 1, 2) and the machine Larry put is at (2, 2, 2). 

Balls are thrown at -1 ≤ x, y, z ≤ 1 from (2, 2, 2).  

(-1, -1, -1): (2, 2, 2)->(1, 1, 1) Sergey
(-1, -1, 0): (2, 2, 2)->(1, 1, 2) Chen
(-1, -1, 1): (2, 2, 2)->(1, 1, 3)->(0, 0, 2)->(1, 1, 1) Sergey
(-1, 0, -1): (2, 2, 2)->(1, 2, 1)->(0, 2, 0)->(1, 2, 1)->(2, 2, 2)->(3, 2, 3)->...
(-1, 0, 0): (2, 2, 2)->(1, 2, 2)->(0, 2, 2)->(1, 2, 2)->(2, 2, 2)->(3, 2, 2)->...
(-1, 0, 1): (2, 2, 2)->(1, 2, 3)->(0, 2, 2)->(1, 2, 1)->(2, 2, 0)->(3, 2, 1)->...
(-1, 1, -1): (2, 2, 2)->(1, 3, 1)->(0, 2, 0)->(1, 1, 1) Sergey
(-1, 1, 0): (2, 2, 2)->(1, 3, 2)->(0, 2, 2)->(1, 1, 2) Chen
(-1, 1, 1): (2, 2, 2)->(1, 3, 3)->(0, 2, 2)->(1, 1, 1) Sergey
(0, *, *): x-coordinate never changed
(1, -1, -1): (2, 2, 2)->(3, 1, 1)->(2, 0, 0)->(1, 1, 1) Sergey
(1, -1, 0): (2, 2, 2)->(3, 1, 2)->(2, 0, 2)->(1, 1, 2) Chen
(1, -1, 1): (2, 2, 2)->(3, 1, 3)->(2, 0, 2)->(1, 1, 1) Sergey
(1, 0, -1): (2, 2, 2)->(3, 2, 1)->(2, 2, 0)->(1, 2, 1)->(0, 2, 2)->...
(1, 0, 0): (2, 2, 2)->(3, 2, 2)->(2, 2, 2)->(1, 2, 2)->(0, 2, 2)->...
(1, 0, 1): (2, 2, 2)->(3, 2, 3)->(2, 2, 2)->(1, 2, 1)->(0, 2, 0)->...
(1, 1, -1): (2, 2, 2)->(3, 3, 1)->(2, 2, 0)->(1, 1, 1) Sergey
(1, 1, 0): (2, 2, 2)->(3, 3, 2)->(2, 2, 2)->(1, 1, 2) Chen
(1, 1, 1): (2, 2, 2)->(3, 3, 3)->(2, 2, 2)->(1, 1, 1) Sergey

Difficulty: MEDIUM_HARD

Solutions:
from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')


from math import gcd

def solutionExists(L, x, dx):
	if dx == 0:
		return x == 0
	return x % gcd(L, dx) == 0
diafant_cache = {}

def diafantSolution(a, b, c):
	key = f'{a},{b},{c}'
	if key in diafant_cache:
		return diafant_cache[key]
	(a1, b1) = (1, 0)
	(a2, b2) = (0, 1)
	while b:
		d = (a - a % b) // b
		(a, b) = (b, a - d * b)
		(a1, b1) = (b1, a1 - d * b1)
		(a2, b2) = (b2, a2 - d * b2)
	(x0, y0) = (a1 * c // a, a2 * c // a)
	(x1, y1) = (b1, b2)
	if x1 < 0:
		(x1, y1) = (-x1, -y1)
	while x0 < 0:
		x0 += x1
		y0 += y1
	while x0 - x1 > 0:
		x0 -= x1
		y0 -= y1
	diafant_cache[key] = (x0, y0, x1, y1)
	return (x0, y0, x1, y1)

def step(L, x, dx):
	start = 0
	while start <= L and start * dx % L != x:
		start += 1
	if start == L + 1:
		return None
	step = 1
	while (start + step) * dx % L != x:
		step += 1
	return (start, step)

def dxAndSteps(L, xs, xm, N):
	result = {}
	for dx in range(-N, N + 1):
		if dx % L in result:
			continue
		r = []
		if solutionExists(L, xs, dx):
			r.append(step(L, xs, dx))
		if xs != xm:
			if solutionExists(L, xm, dx):
				r.append(step(L, xm, dx))
		if r:
			result[dx % L] = r
	return result

def hit(nxs, nys, nzs):
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					return True
	return False

def shortestPath(nxs, nys, nzs, limit):
	result = limit
	for nx in nxs:
		(startX, stepX) = nx
		for ny in nys:
			(startY, stepY) = ny
			if stepX == stepY and startX != startY:
				continue
			for nz in nzs:
				(startZ, stepZ) = nz
				if stepX == stepZ and startX != startZ:
					continue
				if stepZ == stepY and startZ != startY:
					continue
				(x0, _, x1, _) = diafantSolution(stepX, -stepY, startY - startX)
				m14 = stepX * (startZ - startY)
				m24 = stepY * (startZ - startX)
				m34 = stepZ * (startY - startX)
				gcd123 = gcd(stepX * gcd(stepY, stepZ), stepY * stepZ)
				if m14 % gcd123 == m24 % gcd123 == m34 % gcd123 == 0:
					(z0, _, _, _) = diafantSolution(-stepZ, stepX * x1, startZ - startX - stepX * x0)
					newRes = startZ + stepZ * z0
					result = min(result, newRes)
	return result

def solve(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N):
	L += L
	W += W
	H += H
	(x1s, x1m) = ((x1 - x0) % L, (L - x1 - x0) % L)
	(x2s, x2m) = ((x2 - x0) % L, (L - x2 - x0) % L)
	(y1s, y1m) = ((y1 - y0) % W, (W - y1 - y0) % W)
	(y2s, y2m) = ((y2 - y0) % W, (W - y2 - y0) % W)
	(z1s, z1m) = ((z1 - z0) % H, (H - z1 - z0) % H)
	(z2s, z2m) = ((z2 - z0) % H, (H - z2 - z0) % H)
	DX1 = dxAndSteps(L, x1s, x1m, N)
	DY1 = dxAndSteps(W, y1s, y1m, N)
	DZ1 = dxAndSteps(H, z1s, z1m, N)
	DX2 = dxAndSteps(L, x2s, x2m, N)
	DY2 = dxAndSteps(W, y2s, y2m, N)
	DZ2 = dxAndSteps(H, z2s, z2m, N)
	result1 = 0
	result2 = 0
	limit = L * W * H
	cache = {}
	for dxx in range(-N, N + 1):
		for dyy in range(-N, N + 1):
			gxy = gcd(dxx, dyy)
			for dzz in range(-N, N + 1):
				if dxx == dyy == dzz == 0:
					continue
				g = gcd(gxy, dzz)
				(dx, dy, dz) = (dxx // g % L, dyy // g % W, dzz // g % H)
				key = (dx * limit + dy) * limit + dz
				if key in cache:
					(r1, r2) = cache[key]
					result1 += r1
					result2 += r2
					continue
				(firstHit, secondHit) = (False, False)
				if dx in DX1 and dy in DY1 and (dz in DZ1):
					firstHit = hit(DX1[dx], DY1[dy], DZ1[dz])
				if dx in DX2 and dy in DY2 and (dz in DZ2):
					secondHit = hit(DX2[dx], DY2[dy], DZ2[dz])
				if firstHit and secondHit:
					N1 = shortestPath(DX1[dx], DY1[dy], DZ1[dz], limit=limit)
					N2 = shortestPath(DX2[dx], DY2[dy], DZ2[dz], limit=N1 + 1)
					if N1 < N2:
						result1 += 1
						cache[key] = (1, 0)
					else:
						result2 += 1
						cache[key] = (0, 1)
				elif firstHit:
					result1 += 1
					cache[key] = (1, 0)
				elif secondHit:
					result2 += 1
					cache[key] = (0, 1)
	return (result1, result2)
input()
(L, W, H, x1, y1, z1, x2, y2, z2, x0, y0, z0, N) = list(map(int, input().split()))
(r1, r2) = solve(L=L, W=W, H=H, x1=x1, y1=y1, z1=z1, x2=x2, y2=y2, z2=z2, x0=x0, y0=y0, z0=z0, N=N)
print(f'{r1} {r2}')