// -*- coding:utf-8-unix -*-

use proconio::{fastout, input};

#[fastout]
fn main() {
    input! {
        n: usize,
        q: usize,
        lrd: [(usize, usize, usize); q],
    }
    // (querynumber, value)
    let mut nowvalues: LazySegtree<ThisMap> = LazySegtree::from(vec![
        DataPair {
            nagasa: 1,
            atai: ModP(1),
        };
        n
    ]);
    for i in 1..=q {
        let (l, r, d) = lrd[i - 1];
        nowvalues.apply_range(l - 1, r, ThisMap::RewriteAll(d));
        println!("{}", nowvalues.all_prod().atai.0);
    }
}

#[derive(Clone, Copy)]
struct DataPair {
    nagasa: usize,
    atai: ModP,
}

impl Monoid for DataPair {
    type S = Self;
    fn identity() -> Self::S {
        Self {
            nagasa: 0,
            atai: ModP(0),
        }
    }
    fn binary_operation(a: &Self::S, b: &Self::S) -> Self::S {
        Self {
            nagasa: a.nagasa + b.nagasa,
            atai: b.atai + pow(ModP(10), b.nagasa) * a.atai,
        }
    }
}

#[derive(Clone, Copy)]
enum ThisMap {
    Identity,
    RewriteAll(usize),
}

impl MapMonoid for ThisMap {
    type F = Self;
    type M = DataPair;
    fn identity_map() -> Self::F {
        Self::Identity
    }
    fn composition(f: &Self::F, g: &Self::F) -> Self::F {
        match f {
            Self::Identity => *g,
            Self::RewriteAll(_) => *f,
        }
    }
    fn mapping(f: &Self::F, x: &<Self::M as Monoid>::S) -> <Self::M as Monoid>::S {
        match f {
            Self::Identity => *x,
            Self::RewriteAll(a) => {
                let n = x.nagasa;
                DataPair {
                    nagasa: n,
                    atai: ModP(*a) * (pow(ModP(10), n) - ModP(1)) / ModP(9),
                }
            }
        }
    }
}

//
// ac-library-rs copied-and-pasted start
//

#[allow(dead_code)]
pub(crate) fn ceil_pow2(n: u32) -> u32 {
    32 - n.saturating_sub(1).leading_zeros()
}

pub trait Monoid {
    type S: Clone;
    fn identity() -> Self::S;
    fn binary_operation(a: &Self::S, b: &Self::S) -> Self::S;
}

pub trait MapMonoid {
    type M: Monoid;
    type F: Clone;
    // type S = <Self::M as Monoid>::S;
    fn identity_element() -> <Self::M as Monoid>::S {
        Self::M::identity()
    }
    fn binary_operation(
        a: &<Self::M as Monoid>::S,
        b: &<Self::M as Monoid>::S,
    ) -> <Self::M as Monoid>::S {
        Self::M::binary_operation(a, b)
    }
    fn identity_map() -> Self::F;
    fn mapping(f: &Self::F, x: &<Self::M as Monoid>::S) -> <Self::M as Monoid>::S;
    fn composition(f: &Self::F, g: &Self::F) -> Self::F;
}

impl<F: MapMonoid> Default for LazySegtree<F> {
    fn default() -> Self {
        Self::new(0)
    }
}
impl<F: MapMonoid> LazySegtree<F> {
    pub fn new(n: usize) -> Self {
        vec![F::identity_element(); n].into()
    }
}
impl<F: MapMonoid> From<Vec<<F::M as Monoid>::S>> for LazySegtree<F> {
    fn from(v: Vec<<F::M as Monoid>::S>) -> Self {
        let n = v.len();
        let log = ceil_pow2(n as u32) as usize;
        let size = 1 << log;
        let mut d = vec![F::identity_element(); 2 * size];
        let lz = vec![F::identity_map(); size];
        d[size..(size + n)].clone_from_slice(&v);
        let mut ret = LazySegtree {
            n,
            size,
            log,
            d,
            lz,
        };
        for i in (1..size).rev() {
            ret.update(i);
        }
        ret
    }
}

impl<F: MapMonoid> LazySegtree<F> {
    pub fn set(&mut self, mut p: usize, x: <F::M as Monoid>::S) {
        assert!(p < self.n);
        p += self.size;
        for i in (1..=self.log).rev() {
            self.push(p >> i);
        }
        self.d[p] = x;
        for i in 1..=self.log {
            self.update(p >> i);
        }
    }

    pub fn get(&mut self, mut p: usize) -> <F::M as Monoid>::S {
        assert!(p < self.n);
        p += self.size;
        for i in (1..=self.log).rev() {
            self.push(p >> i);
        }
        self.d[p].clone()
    }

    pub fn prod(&mut self, mut l: usize, mut r: usize) -> <F::M as Monoid>::S {
        assert!(l <= r && r <= self.n);
        if l == r {
            return F::identity_element();
        }

        l += self.size;
        r += self.size;

        for i in (1..=self.log).rev() {
            if ((l >> i) << i) != l {
                self.push(l >> i);
            }
            if ((r >> i) << i) != r {
                self.push(r >> i);
            }
        }

        let mut sml = F::identity_element();
        let mut smr = F::identity_element();
        while l < r {
            if l & 1 != 0 {
                sml = F::binary_operation(&sml, &self.d[l]);
                l += 1;
            }
            if r & 1 != 0 {
                r -= 1;
                smr = F::binary_operation(&self.d[r], &smr);
            }
            l >>= 1;
            r >>= 1;
        }

        F::binary_operation(&sml, &smr)
    }

    pub fn all_prod(&self) -> <F::M as Monoid>::S {
        self.d[1].clone()
    }

    pub fn apply(&mut self, mut p: usize, f: F::F) {
        assert!(p < self.n);
        p += self.size;
        for i in (1..=self.log).rev() {
            self.push(p >> i);
        }
        self.d[p] = F::mapping(&f, &self.d[p]);
        for i in 1..=self.log {
            self.update(p >> i);
        }
    }
    pub fn apply_range(&mut self, mut l: usize, mut r: usize, f: F::F) {
        assert!(l <= r && r <= self.n);
        if l == r {
            return;
        }

        l += self.size;
        r += self.size;

        for i in (1..=self.log).rev() {
            if ((l >> i) << i) != l {
                self.push(l >> i);
            }
            if ((r >> i) << i) != r {
                self.push((r - 1) >> i);
            }
        }

        {
            let l2 = l;
            let r2 = r;
            while l < r {
                if l & 1 != 0 {
                    self.all_apply(l, f.clone());
                    l += 1;
                }
                if r & 1 != 0 {
                    r -= 1;
                    self.all_apply(r, f.clone());
                }
                l >>= 1;
                r >>= 1;
            }
            l = l2;
            r = r2;
        }

        for i in 1..=self.log {
            if ((l >> i) << i) != l {
                self.update(l >> i);
            }
            if ((r >> i) << i) != r {
                self.update((r - 1) >> i);
            }
        }
    }

    pub fn max_right<G>(&mut self, mut l: usize, g: G) -> usize
    where
        G: Fn(<F::M as Monoid>::S) -> bool,
    {
        assert!(l <= self.n);
        assert!(g(F::identity_element()));
        if l == self.n {
            return self.n;
        }
        l += self.size;
        for i in (1..=self.log).rev() {
            self.push(l >> i);
        }
        let mut sm = F::identity_element();
        while {
            // do
            while l % 2 == 0 {
                l >>= 1;
            }
            if !g(F::binary_operation(&sm, &self.d[l])) {
                while l < self.size {
                    self.push(l);
                    l *= 2;
                    let res = F::binary_operation(&sm, &self.d[l]);
                    if g(res.clone()) {
                        sm = res;
                        l += 1;
                    }
                }
                return l - self.size;
            }
            sm = F::binary_operation(&sm, &self.d[l]);
            l += 1;
            //while
            {
                let l = l as isize;
                (l & -l) != l
            }
        } {}
        self.n
    }

    pub fn min_left<G>(&mut self, mut r: usize, g: G) -> usize
    where
        G: Fn(<F::M as Monoid>::S) -> bool,
    {
        assert!(r <= self.n);
        assert!(g(F::identity_element()));
        if r == 0 {
            return 0;
        }
        r += self.size;
        for i in (1..=self.log).rev() {
            self.push((r - 1) >> i);
        }
        let mut sm = F::identity_element();
        while {
            // do
            r -= 1;
            while r > 1 && r % 2 != 0 {
                r >>= 1;
            }
            if !g(F::binary_operation(&self.d[r], &sm)) {
                while r < self.size {
                    self.push(r);
                    r = 2 * r + 1;
                    let res = F::binary_operation(&self.d[r], &sm);
                    if g(res.clone()) {
                        sm = res;
                        r -= 1;
                    }
                }
                return r + 1 - self.size;
            }
            sm = F::binary_operation(&self.d[r], &sm);
            // while
            {
                let r = r as isize;
                (r & -r) != r
            }
        } {}
        0
    }
}

pub struct LazySegtree<F>
where
    F: MapMonoid,
{
    n: usize,
    size: usize,
    log: usize,
    d: Vec<<F::M as Monoid>::S>,
    lz: Vec<F::F>,
}
impl<F> LazySegtree<F>
where
    F: MapMonoid,
{
    fn update(&mut self, k: usize) {
        self.d[k] = F::binary_operation(&self.d[2 * k], &self.d[2 * k + 1]);
    }
    fn all_apply(&mut self, k: usize, f: F::F) {
        self.d[k] = F::mapping(&f, &self.d[k]);
        if k < self.size {
            self.lz[k] = F::composition(&f, &self.lz[k]);
        }
    }
    fn push(&mut self, k: usize) {
        self.all_apply(2 * k, self.lz[k].clone());
        self.all_apply(2 * k + 1, self.lz[k].clone());
        self.lz[k] = F::identity_map();
    }
}

//
// ac-library-rs copied-and-pasted end
//

use num_traits::{pow, One};
use std::ops::{Add, Div, Mul, Sub};

const MODULUS: usize = 998244353;

#[derive(Clone, Copy, PartialEq, Debug)]
struct ModP(usize);

impl One for ModP {
    fn one() -> Self {
        return ModP(1);
    }
}
impl Add for ModP {
    type Output = Self;
    fn add(self, rhs: Self) -> Self {
        return ModP((self.0 + rhs.0) % MODULUS);
    }
}
impl Sub for ModP {
    type Output = Self;
    fn sub(self, rhs: Self) -> Self {
        return ModP((self.0 + MODULUS - rhs.0) % MODULUS);
    }
}
impl Mul for ModP {
    type Output = Self;
    fn mul(self, rhs: Self) -> Self {
        return ModP((self.0 * rhs.0) % MODULUS);
    }
}
impl Div for ModP {
    type Output = Self;
    fn div(self, rhs: Self) -> Self {
        if rhs.0 == 0 {
            panic!("Tried to divide by ModP(0)!");
        }
        let rhs_inv = pow(rhs, MODULUS - 2);
        return self * rhs_inv;
    }
}

// Number-theoretic transformation
// The length of f must be a power of 2
// and zeta must be a primitive f.len()th root of unity
// start and skip should be 0 and 1 respectively for the root invocation
// The inverse can be calculated by doing the same
// with the original zeta's inverse as zeta
// and dividing by f.len()
#[allow(dead_code)]
fn number_theoretic_transformation(
    f: &Vec<ModP>,
    start: usize,
    skip: usize,
    zeta: ModP,
) -> Vec<ModP> {
    let n = f.len() / skip;
    if n == 1 {
        return vec![f[start]];
    }
    let g0 = number_theoretic_transformation(f, start, skip * 2, zeta * zeta);
    let g1 = number_theoretic_transformation(f, start + skip, skip * 2, zeta * zeta);
    let mut pow_zeta = ModP(1);
    let mut g = Vec::new();
    for i in 0..n {
        g.push(g0[i % (n / 2)] + pow_zeta * g1[i % (n / 2)]);
        pow_zeta = pow_zeta * zeta;
    }
    return g;
}

// BIT from https://github.com/rust-lang-ja/atcoder-rust-base/blob/ja-all-enabled/examples/abc157-e-proconio.rs
// It requires commutativity so that "plus" operation works
use alga::general::{AbstractGroupAbelian, Additive, Operator};
use std::marker::PhantomData;
use std::ops::{Range, RangeInclusive, RangeTo, RangeToInclusive};

struct FenwickTree<A, O> {
    partial_sums: Vec<A>,
    phantom_operator: PhantomData<O>,
}

#[allow(dead_code)]
impl<A: AbstractGroupAbelian<O>, O: Operator> FenwickTree<A, O> {
    fn new(n: usize) -> Self {
        Self {
            partial_sums: vec![A::identity(); n],
            phantom_operator: PhantomData,
        }
    }

    fn operate_to_index(&mut self, i: usize, x: &A) {
        let mut i1 = i + 1;
        while i1 <= self.partial_sums.len() {
            self.partial_sums[i1 - 1] = self.partial_sums[i1 - 1].operate(x);
            // add "the last nonzero bit" to i1
            i1 += 1 << i1.trailing_zeros();
        }
    }
}

trait RangeQuery<T> {
    type Output;
    fn query(&self, r: T) -> Self::Output;
}

impl<A: AbstractGroupAbelian<O>, O: Operator> RangeQuery<RangeToInclusive<usize>>
    for FenwickTree<A, O>
{
    type Output = A;
    fn query(&self, range: RangeToInclusive<usize>) -> A {
        let mut sum = A::identity();
        let mut i1 = range.end + 1;
        while i1 > 0 {
            sum = sum.operate(&self.partial_sums[i1 - 1]);
            i1 -= 1 << i1.trailing_zeros();
        }
        return sum;
    }
}

impl<A: AbstractGroupAbelian<O>, O: Operator> RangeQuery<RangeTo<usize>> for FenwickTree<A, O> {
    type Output = A;
    fn query(&self, range: RangeTo<usize>) -> A {
        if range.end == 0 {
            return A::identity();
        } else {
            return self.query(..=range.end - 1);
        }
    }
}

impl<A: AbstractGroupAbelian<O>, O: Operator> RangeQuery<RangeInclusive<usize>>
    for FenwickTree<A, O>
{
    type Output = A;
    fn query(&self, range: RangeInclusive<usize>) -> A {
        return self
            .query(..=*range.end())
            .operate(&self.query(..*range.start()).two_sided_inverse());
    }
}

impl<A: AbstractGroupAbelian<O>, O: Operator> RangeQuery<Range<usize>> for FenwickTree<A, O> {
    type Output = A;
    fn query(&self, range: Range<usize>) -> A {
        return self.query(range.start..=range.end - 1);
    }
}

use std::cell::Cell;

#[derive(Debug, Clone)]
struct EquivalenceRelation {
    parent: Vec<Cell<usize>>,
    rank: Vec<Cell<usize>>,
}

#[allow(dead_code)]
impl EquivalenceRelation {
    fn new(n: usize) -> Self {
        let mut parent = Vec::with_capacity(n);
        for i in 0..n {
            parent.push(Cell::new(i));
        }
        let rank = vec![Cell::new(0); n];
        return Self { parent, rank };
    }

    fn make_equivalent(&mut self, a: usize, b: usize) {
        let volume = self.parent.len();
        if a >= volume || b >= volume {
            panic!(
                "Tried to make {} and {} equivalent but there are only {} elements",
                a, b, volume
            );
        }
        let aa = self.find(a);
        let bb = self.find(b);
        if aa == bb {
            return;
        }
        let aarank = self.rank[aa].get();
        let bbrank = self.rank[bb].get();
        if aarank > bbrank {
            self.parent[bb].set(aa);
        // self.rank[aa] = aarank.max(bbrank + 1);
        } else {
            self.parent[aa].set(bb);
            self.rank[bb].set(bbrank.max(aarank + 1));
        }
    }

    fn find(&self, a: usize) -> usize {
        let volume = self.parent.len();
        if a >= volume {
            panic!("Tried to find {} but there are only {} elements", a, volume);
        }
        let b = self.parent[a].get();
        if b == a {
            return a;
        } else {
            let c = self.find(b);
            self.parent[a].set(c);
            return c;
        }
    }

    fn are_equivalent(&self, a: usize, b: usize) -> bool {
        return self.find(a) == self.find(b);
    }
}

// Segment tree for range minimum query and alike problems
// The closures must fulfill the defining laws of monoids
// Indexing is 0-based
// The code is based on that in C++ in the 'ant book'
#[derive(Clone, PartialEq, Debug)]
struct SegmentTree<A, CUnit, CMult> {
    data: Vec<A>,
    monoid_unit_closure: CUnit,
    monoid_op_closure: CMult,
}

#[allow(dead_code)]
impl<A, CUnit, CMult> SegmentTree<A, CUnit, CMult>
where
    A: Copy,
    CUnit: Fn() -> A,
    CMult: Fn(A, A) -> A,
{
    fn new(n: usize, monoid_unit_closure: CUnit, monoid_op_closure: CMult) -> Self {
        let mut nn = 1;
        while nn < n {
            nn *= 2;
        }
        let this = Self {
            data: vec![monoid_unit_closure(); 2 * nn - 1],
            monoid_unit_closure,
            monoid_op_closure,
        };
        return this;
    }

    fn update(&mut self, k: usize, a: A) {
        let n = (self.data.len() + 1) / 2;
        let mut k = k + n - 1;
        self.data[k] = a;
        while k > 0 {
            k = (k - 1) / 2;
            self.data[k] = (self.monoid_op_closure)(self.data[k * 2 + 1], self.data[k * 2 + 2]);
        }
    }

    fn query_internal(&self, a: usize, b: usize, k: usize, l: usize, r: usize) -> A {
        if r <= a || b <= l {
            return (self.monoid_unit_closure)();
        }
        if a <= l && r <= b {
            return self.data[k];
        } else {
            let vl = self.query_internal(a, b, k * 2 + 1, l, (l + r) / 2);
            let vr = self.query_internal(a, b, k * 2 + 2, (l + r) / 2, r);
            return (self.monoid_op_closure)(vl, vr);
        }
    }
}

#[allow(dead_code)]
impl<A, CUnit, CMult> RangeQuery<Range<usize>> for SegmentTree<A, CUnit, CMult>
where
    A: Copy,
    CUnit: Fn() -> A,
    CMult: Fn(A, A) -> A,
{
    type Output = A;
    fn query(&self, range: Range<usize>) -> A {
        let n = (self.data.len() + 1) / 2;
        return self.query_internal(range.start, range.end, 0, 0, n);
    }
}


Measured memory_bytes: 25224