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SE 045 759 '4

Yeomanst.Dpnald F. -'

. The Comet Halley Handbook: An Observer's Guide.

Second Edition.

Jet Propulsion Lab.,,.Pasadenalftalif.; National

Aeronautics and Space AdministratipnflOshillgton,

D.c.

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*Astronomy; Observation; Physical Sckencei; ResOurce

Materials; Science Education; Space Exploration;

*Space Sciences

*Comets; '*Halleys Comet

ABSTRACT r .,' 4 '- This 'handbook cohtains information on: (1) .the or it

of comet ,Halley; (2) the expected physical behav4orvof comet HalliY

in 1985-1986, considering brightness estimates, coma dialeters, and

tail lengths; (.3) observxng cohditions for comet Halley in 1985-5986;

and,(4):'obberving conditions for the dust tail of comet Halley in

1985-1986..AdditiOnal informationin appendices include's: historical,

physical, and orbital data; ephemeris data (with perturbations) at

5-day ,intervals fro July 24, 1982, to August 7, 1984; and ephemeris

In\\....

data (with pe-rturbat ons) at 1-day intervals from August 8, 1984 to

May 4,, 1987. (47N)- , o r 4

p

re **********************************************************i************

Reproductions supplied ky EDRS are the-best that can be made

* - from the original document. * *****************************************************************- ,** ,

(
34:\WE. DEPARTNIGNI OF EOUC.AT1ON

NATIONAL INSTitUTE OF EDUCATION

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AN oBSERVER'S GUIDE

SECOND EDITION i

cREATED FoR THE INTERNATIONAL. IIALLEY WATCH

BY

DONALD K. YEOMANS

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I 

1 
PREFACE TO THE SECOND EDITION

This second edition of the Comet itatiev)tandbook co ins an updated orbit that

Includes recovery observations of.the comet through Join' 14, P)8:i hnproved rnagni

t tide estimates for Cornet Halley have been added, as well as a section on the cornet's dust

by Dr. Zcieriek Sekanina.
4

As%

/

e se

1 CONTENTS

6 I. The Orbit of Comet Halley . ..... .. . ..... .. (71\

1

H. The Expected Physical Behavior of Comet Halley in 1985-1986 3

A. Brightness Estimates 3

(.1

H. Coma Diameters 5

C. Tail Lengths i 5

HI. Observing conditions for Comet Halley in 1985-1986 5

IV. Observin Conditions for the Dust Tail of

Comet Halley in 1985-1986 (b. Sekanina) 14

4References 17

Appendixes ig

Figures )

I. Angular Elements Of the Orbit of Comet:I tallev 2

4*. 2. Ec1iptic Plane Projection 'of Comet Hkllley's Orbit (1910 -1986)

Within the Solar System 2

3. RelJtive Pusitions of Comet Iialley and Earth, 1985-1986 :3 4 Path Of I',oinet I [alley on the Celestiid Sphere During

Noven4r 1985 -May 1986

Comet liallev Total Magnitude Estimates, 1909 1910;

Visual Estimates Only 4

f Ltv, Mot f 1909 1911 Visual Linear Coma lhameters Es Cornet f Volley near Tail Lengths Computed from

NAked e EstirnitteN Ei

:NrT4,t I 41 leV 1985 1986 G (mud Based Observing Conditions 8

Cornet lialley Observing Co iditions in 11fit; for ( thservers

to( dted it 411' Nurth LatittOfs

/

16,

I.

N.

vii

I
4!9

viii

10. COmet Halley Observing Conditions, in 1986 for Observers

Located ai 30° North Latitude 10

4

11. Comet Halley Observing Conditions in 1986 for Observers

Located at 20° North Latitude , 11

12. Comet Halley Observing Conditions in 1986 for Observers

Located at 20° South Latitude e

/ 12

13. Comet Halley Observing Conditions in 1986 for 0 ervers

Located at 30° South Latitude 13

14. Angle Between the Comet Halley-Earth Vector and the

Cornet's Orbit Plane Plotted Against Calendar pate

15. Predicted Brightness Profile of the Dust Tail of

Comet Halley on March 13, 1986 16

16. Predicted Brightness Profiles of the Dust Tail of

Comet Halley'on Apfil 10, 1986

ee 16

Tables

1. Times (U.T.) of New Moons, 1985-1986 .,. 5 f

- 2. Ground - eased, Observing Data, Comet Halley:1985-1986 : 7

3. The Orientation and Width of the Dust Tail of

Cc anet Halley in 1985-1986 15

, B-1. Ephemeris (with Pe.r4trriVionsl for Cothet Halley at Five-Day. Intervals frelin July 24, 1682, to August 7,.1984 23

B-2. Ephemeris (with Perturbations) for &riCi-est Halley at One-Day

Intervals from August 8, 1984, to May 4, 1987 , 27

ti

r

1'

r
,$

1 Theroinet Halley Handbook:

An Observer's Guide

I. The Orbit of Comet Halley

Considerable portions of the infoi-Imapon in this handbook

are based upon a previous wail( on Comet nalley's orbit, in

which the comet's path wag determined from observational

data in the apparitions of 1807, 1682, 1759, 1835-1836, and

1909 191 The observational data in 1607 began with a

rather crude naked-eye observation on September 28 by the

German astronomer Johannes Kepler. The required orbital determination computations were run over various observational

data intervals with perturbations from all nine planets taken

into account at each time step.

Forces other than gravity acting on a cometary nucleus

introduce an additional acceleration -in its motion. These socalled nongravitational accelerations are believed to be due to

the oirtgassing. rocket effect of the comet's icy nucleus.[21

The effects have been successfully modeled by Marsden,

Sekanina, and jeorrians.[3] YeomanS included them in his

c:orniputat ions fbr Comet Haliey.[11 Using the ancient Chinese

observations as Neonstraints upon the motion of the comet,

Yeomans Ad Kiang computed its motion back in time to 1404

B.C,[4] the Chinese records in 240 Bg. were found to be the

ffrst reliable observations of Comet Halley. To dale, there are no

convincing observations of 'the comet recorded prior to that

time.

To provide the sit ion predictions necessary for the recent

recovery of Comet Halley, an orbit Based upon. 885 obsbrvaHuns of the comet over the 1759-1911 interval was used. A

scHt4dule of predicted cometary positions, termed an ephe-

. meris, was published ittthe first edition:of this. handbook. The

recovery observations of October 16, 1982, fcitind the. comet

only 8 arc seconds west of the predicted position.[51 This

edition of the handbook .gives an ephemeris (see Tablet B-1

and B-2 in Aapendix B) that is based upon the observations of,

Comet Halley. made from 1835.until, January 14, 14183.

e The recently - updated orbital elements, which define

the comet's path, are given as follows:

Epoch 1986 Feb. 19.0 (RT.)

T 1986 Feb. 9.45175 (E.T.)

q 0.5871047

e . 0.9672760

111.84809

fi 58.14536

162.23928

'sr The nongravitationitl parameters, as defined in RaferenCe [3j,

' are A = 0.0565 and A2 0.0154 in units of 10-8 AU/day .

The move orbital elements ire strictly correct only km the

given instant of time (epoch). However, for many low-precision computations, they can be used for several months on

either side of perihelion paisage (T). The comet reaches its,

closest Approach to the Sun at perihelion and its,distance from

the Sun at that time (distance SP in Figure 1) 4.9 termed the

comet's perihelion distance (q) and is given in astionornical

units (AU): 1 AU is the mean -diAtance4of.the Earth from the

Sun. approximately 149.6 million km. The eccentricity (e) and'

the three angular elements:--the argument of perihelion (w),

the longitude of the ascending node (II), and the orbital inch-

.

4
a.

nation ( i)-- complete the description of the cornet's orbit. The

angular elements are referred to the mean ecliptic and equinox

of 19V.0 and are illustrated in Figure 1.

Figure 2 illustrates an ecliptic 'plane projection of Comet

lialley's orbit within the solar system. Figure 3 depicts the

relative positions of the-comet and Earth in the 1985-1986

2

time period. The prey- and poe-perihelion close approaches of

the comet and Earth occur on November 27,1985, and April 11,

,1.986, at minimum distances of 0%2 and 0.42'AU respectively.

The position of the vernal equinox on Figures 1, 2, and 3 is

denoted by the symbol T . Figure 4 shows the comet's path

through the constellations for the period Novernbe5 1985 until

May 198Q. a EARTH'S ORBIT

ORBIT OF

COMET HALLEY

Fig. 1. Angular Elements of the Orbit of Comet Halley. For Comet Halley. the orbital inclination i is

182°, the longitude of the ascending node 11 is mr, and the argtimene of perihelion w is lir.

1

#

a

ti

if

PLUTO'S

ORBIT

NEPTUNE'S

ORBIT

URANUS

ORBIT

COME

MAURY'S

POSITION

GIVEN

JUPITER'S

EARTH'S OfT13IT MARS' ORBIT ORB!?

SATURN'S

ORBIT 98,

19 83

1977

T AT

DATE

1948

,

C

ar

Fig. 2. Ecliptic Plane Projection of Comet Halley's Orbit (1910-1986) Within thin Solar System. Ile

planetary positions are indicated for the tirneaf the carnet's perihelion Assage.

12 44
c

7 SEPT

P PERIHEgt)N OF COMET HALLEY

E

1 POSITION OF EARTH AT Ng-PERIHELION CLOSE APPROACH OF COMET (NOV. 27; 1965)

E2 POSITION OF EARTH AT POST-PERIHELION CLOSE APPROACH 0F COMET (APR. 11, 1986)

0 - POSITION OF EARTH AT PERDIELION_OF COMET HALLEY (FEB. 9, 1986)

DEC

Fig. 3. Relative Positions of Comet Halley and Earth. 1985-1988.

II. The Expected Physical' Behavior of

Collet Halley in 1985'- i90

Like that of other active comets, Comet Halley's physical

behavior is likely to change markedly from day to day. The

connet:s detailed physical behavior cannot b4 predicted, but its

general features can be estimated from information gathered in

i$ past apparitions. In an effort to predict the comet's apparent

brightness, coma diretens, and tail lengths 14 1085-1986, an

analysis of existing data is presented ink the following.

subsections.

M1 = Mo + 5 lbg A + 2.5 n log r (1)

A. Brightness Estimates

An object's apparent brightness isnieasur4in astronomical magnifinles. A star of magnitude 6 is just Visible to the

naked eye, and a star of magnitude 5 is 2.5 times brighter. A star

of magnitude 7 is 2.5 6'1mA-fainter than a magnitude 6 star, etc.

The total apparent magnitude (M1) of a comet depends upon

the cornet's distance froth the Sun distance from the

Earth (a), and its absolute total magni (AV, i.e., its niagnitude at r ,= A AU. If heliocentric and geocentric distances of the comet are given in AU, then

,

Vre

.4

a.

where n indicates the. inverse power of heliocentric distance

with which the brightness varies.

Visual brightness estimates of a comet are made by comparing the comet to out-of-focus stars of known brightness': These

estimates depend upon the subjective judgment of the observer, thia brightness of the night sky, and the type and aper-

..ture size of the telescope employed. Ina recent study of Cornet

Halley in 1909-1910, Morris and Green reanc.e4 brightness

estimates made with refracting teleicopes, qpeiekasses, and

the naked eye to a stadtlard aperture of 8.78 cm.lui Froth the

pre-perihelion Observations out to 3.4 AU, Morris and Green

found Mo = 5,47 and n = 4.44. Post-perihelion out to 5 AU, the

corresponding values were Mo = 4.94, n = 3.07. Figure 5

reproduces the data and resultant fit to these data points. Accordingly, the pre- and post-perihelion magnitude predictions

used in 'rabies 2, B-1, and B-2, as well as in Figures 9-13, were

computed fiom the following equations:

M1 = 5.47 + 5 log A 11.10 log r (pre-perihelion)

I.

M1 = 4.94 + 51Irog A + 7.68 log r (post-perihelion) . For the same .heliocentric distance, the comet intrinsicakly

brighter post-perihelion.

13

UP*

3

0
%N.

.30

r

22 20

- PLEIADES

Nov i

20

NOV 21

.113 ALIVARAN

4;1 PEGASUS

a.

18 r 16 14 12 10 I

LEO

AQUILA

ALTAIR

OPHIUCHUS

VIRGO

30

- 20

REGULUS

- 10

4

ORION

4

ttf

E

of

).;

1

5

7

8

0

a 9

11

4

CENTAURUS

I _I 1 1 I 2i 0. 22 , 18 16 14 - 12 . TO

.. RIGHT ASCENSION,11OURS

..- Fig. 4. Path of Comet Halley on the Celestial Sphere During November 1985May 1986.

Pre-perihelion

1

Post-perihelion

IR

3 1

I 1' 0.6 1

r, 'AU

2 3 4 5

Fig: 5. Comet Halley Total Magnitude Estimates, 1909-1910 Visual Estiiiiates Only (after Morris and

GreenE6J).

14

- -20
. To be a uaked-ey -i object; the diffuse .image of Comet lialley

wo Have to he omewhat brighter than magnitude 6. Becai of its Unfavo hie positions with respect to the Earth and#

Sun. Cornet Halley will disappoint much of Ole waiting public

4 in the coming apparition. It may not be an obvious naked-eye

object and might in fail be invisible if the observer imlacated In

a- populous area with significant artificial lighting. successful

observers will have to equip themselves with binoculars, know

where and when to observe, and seek an observing location

free from light pollution.

.

. At great heliocentric distances, the cometary ices are not

.vaporized by the Sun and the brightness of the comet depends

only upon the reflected sunlight. We will define the nuclear

appar9nt magnitude of the comet (M2).as its brightness when

it is inactive at large heliocentric distances. The 1982 recov-.*

,ery magnitudes were used to determine the following

relationship': - ,

. 14.1 f 5 log + 5 log r (4)

Here we assume that the phase term can be neglected. The

predictions for M2 given in Tables B-1 and 13-2 are meaningful

only when the comer is inactive.

B. Coma Diameters

Figure Ei presepts the linear coma, diameters determined

from visual observations made. in 1909-1911. The observed

angular coma diameter, in each case, was multiplied by the

gPlocentriC distance of the cornet at the time 61 observation to

obtain the linear coma'diameter. Note that the coma diameter

reached a maximum value of approximately 200,000 km just

after perihelion. Because the actual coma diameters will depend on 'the optical instrument used to observe the comet, the

data given in Figure 6 are crude! Nevertheless, the curve does

indicate the general evolution of the coma diameter with heliocentric distanw,

C. Tail Lengths,

In general. an active cornet such as Halley will exhibit both a

dust tail and an ion tail. To a visual observer, the dust tail

appearii yellowish, the ion tail bluish-white. The km tail is

usually longer than the dust tail and is positioned in a direction

nearly opposite to the Sun.

To obtain some idea of Cornet Halley's tail evolution with

heliocentric distance. r. we collected apparent tail-length data

for the last three apparitions. Only naked- eye,'angular, taillength estimates were used in our analysis, and we made the

assumption that the tail was always directly antisolar. an adequate assumption considering the subjective nature of the taillength estimates. Ilting the comet's phase angle, 13, and the

geocentric distance of the comet, A, the actual, linear tail

length. s. may be computed front the apparent (foreshortened)

angular tail length, t, by

A sin t S sin (ft t) (5)

The linear tail lengths, s, plotted as a function of heliocentric

distTnce, are presented in Figure 7. While the actual tail

lengths' pbserved will depend upon the observing conditions

and the optical instrument used, the Shape of the curve in

Figure 7 is 'suggestive. Cpmparing the 1759, 1835, and 1910`

data, the comet's visual tail length appears to be longest after

perihelion.

III. Observing Conditions for Comet

Halley in 1185-1906

As is evident from Figures 3 and 4, the changing positions . of the comet and Earth in 1985-1986 will cause different,

observing conditions for the comet before and after perihelion.

In general, the pre-pe'lihelion positions of Comet Halley will(

allow better observing conditions for northern hemisphere

observers, while southern hemisphere observers will be favored post-perihelion,

Besides the seasonal variations, the observing conditions

depend'on the phase of the Moon. Usually the most favorable

times of the month are centered on the dates of new moon,

listed in . Table 1, Times (U.T.),of New Moons, 1885v-1981i.

hate (1985) a Date (1986)

Jan. 21.1

Feb. 19.8

Mar. '21.5

Apr. 20.2

May 19.9

June 18.5

July 18.0

Aug. 16.4

,Sep, 14.8

Oct. 14.2

.Nov. 12.6

Dec.. 12.0

Ian. 10.5

Fob.

Mar. 10.6

Apr. 9.3

May 8.9

June 7.6

July 7.2

Aug. 5.8

Sep. 4.3

Oct. 3.8

Nov. 2.3

Dec. 1.7

Dec. 31.1

4. For a given day, the comers ObsePvability'will depend upon

the observer's latitude. We have assumed that the comet will be

visible to an observer if the comet is above, and the sun is

simultaneously more than 18° below, the local horizon. This

condition assures that evening astronomical twilight has

ended and morning astronomical twilight has not yet begun

(i.e., the c:otnet is seen in a dark sky). The time interval for

which thillcondition holds is referred to as the number of

available ark hours. Figure 8 plots the available dark hours vs.

calendar date for an observer at 35°N and 35°S latitude:Also

plotted in Figure 8 is the total apparent magnitude, M1, vs.

calendar date. Table 2 lists the dark hours vs. calendar date for

observers located. at 45°N, 30°N: 30°S, and 45°S. Table 2 also

gives the predicted apparent total (MI Land nuclear (M2) magnitudes of the comet as a function of calendar date.

1 5

-4

5
re

re 200

180 20mat 160

Y

M. 140.-

0

col 120

Z

tn 100,-,

0

X 80 1 , ed

w

1 40

, 20

i

U

z

. 3

8

1,0

. le

: at oft

, . f-- PERIHELION

L i 7 t. T 1 0.

1 3.0 , 2.0 1.0, Orki 1.0 * 2.0

. - 11-1ELIQCENTRIC DISTANCE; AU

5

s

I 4

11% 1

MI

1

3.0 4.0

A.

`Fig. 6. Comsat Halley 1909-1911 Visual Linear Coma Diameters.

1 or,1 3

r NOTg;,',THE,QREA/TEST. HELIOCENTRIC DISTANCE

AT WHICH -THE TAIL. HAS BEV,Egt)TOGRAP.HED

WAS 2.3 AU (PRO-PERIHELIO Atm.

'AU (POSTPERIHELION)

1910 DATA

0.4

0,2

1835 DATA 0

1759 DMA b

1. INN 11111-m111111111116.-i a

1 . 0 0.9 6

HELIOCENTRIC' DISTANCE, AU

Fig. 7. Comet Halley Linear Tail Lengths Computed from Naked-Eye Estimates.

a t P 16

1.4 1.5 1.6
r Table 2. Grouudlliased Observing Data. Cain#t H 5-1386.

rt.

Dark hours

Apparent.

Magnitudes

. M1 Date (1986)

Dark Hours.

Apparent ' Magnitudes

M1

1,, Date (1985)

- North Let. ti South 'Let. North Lat. South! Lat.

45° 30° 30° 45° 45° Kr. 30° 45°

Jan. 1 r- t

31

Feb. 10

20

Mar: 2

12

iws 22

Apr. 1 11

21N/

M1ty 1 11

21

31

Jun. 10

20

30

Jul. 10

20

30

Aug, 9

19

29

Sep. 8

18

28

Oct. 8

18

28

Nov, 7

17

27

- Dec. 7

17

427

11.6

10,7

9.7

8.7

7.7

6.8

5.8

4.9

4.0

3.2

2.3

1.4

0.5

0

0

P

0

0

if

0

0

0.5

211

3.2

4.1

5.0

5.9

6.9

8.0

.9.2

10.7

11.1

10.6

7.7

i. q

3.9

4

.F

10.9

10.0

9.1

.8.1

7.2

6.4

1 5.5

4.7

4.0'

3.2

2.5

1.

1.0

0.3

0

0

0

0

"o

0

. j!.5

1.2

1.9

2.6

3.3

4.0

4.8

54

6.4

7.3

l'.': 8J5

10.0

10,6

9.8

7.

5.1

' 3.6

6.8 3.5

8.9 3.9

7.2 ,,4.6

5.6 5.3

5.0 3.7

4.4 3.3

3.9 2.9

3.4

2.9 .S 452.1

:2.4 '1.8

1-.9 1.4

1.5 1.0

34111 *- 0.4 ,0.5 0.2 / 0 a 0 0

0 AP 04.

0

r p

Q 0

0.3 0.1

0.8

1,3 0.1

0.5

1.7 1.3

2.1 -q 1.6

2.5 1.9

2.9 2.2

. 3.3 2.5

3.8 2.8

4.3 3.1

. 4,9 3.5

5.7 4.1

6.8 5.0

73 4.9

7,0 4.7,,,_

4.4 3.8

2.8 1.0

1.5 0

16,7

168

16.5

18.4

-16,4

16.3

16.2

16.2

16.1

16.0

15.9

L 15:9

15.7

15.6

15.5

15.3

15.1

14.9

14.7

14.5

14,2

13,9

13.6

13.2

12.8

12.4

11.9

11:3

10.7

10.0

9.1

8.2

7.2

6.5

(1.3

6.2

Jan.

Feb.

Mar.

Apr.,

May

Jun.

Jul.

Aug.

. Oct.

Nov.

6

16

26

5

15

25

7

17

27

6

16 r

26

6

16

t6

5

15°

25

5

15

25

4

14

24

13

23

3

13

23

2.

12

22

2.6

1.3

0

0

v.,

0

0.2

0.5.

0 7

0

6.0

6.2

\.5.5

2.7

1.9

1.0

0.2 .

0

0 1

0

0

0

0

0

0

0'

0

Q

A0 , 0,4

1.2,

2.0

2.7

r

ea

.

2.3

1.1

0

0

-0

0.3

0.9

1.5

2.3. Ilk

3.8

8.3

8.0

5.1

4.3

33

2.8

'2.1

145

0.9

Q.4

0

0

0 .

o

0

Q

0

0

0.1

0.8 r 1.i

2.2

2.8

0.5

0

0

0

0

0.7

2.0

*3.3

53

9.1

10.0

9.2

7.7

6.7

6.0

5.34

4.6

4.0

3,4

2.7

,21

1.5

0.9

0.3

0

0

0

0

0.41

Q.

1,2

1.7

2.3

.I

,

0

0

0

0

0

0.5

5.0

3.7

8.2

9.4

9.9

1#3.0

8.3

7.3

6.5

5.8

5/1;

4.5

3.9

3.2

2.5

1.9

'1.2

0.5

0/

0

0

0

0

0.4

0.7

1.4

.4

p

A

5.6

5.1

4.4

3.9

4.1

4.3

4.5

4.5

4,3

4.0

4.4

5.5

6.6,

7.5

8.3

9.

9.4

9.9

10.3

10.7

11.0

11.3

11.6

11.8

12-9

12,2

12.3.

12.5.

12.6

12.7

)2.8

12.9

13.0

'

Note 1) For a partic:ul observer's latitude, the number of dark hours is defined as.the tine interval during which the Sun is below the local s

horizon-hv at ITesBf 18° and the comet is siinulteneousy above the local horizon.

(2) Magnitude estimates are based upon the, comet's observed behavior in 19041-1910. Predictions are for ideal observing conditions.

; , /

Fjgures 9-13 are schematic representations as to how Comet

Halley may appear on various dates for observers locatesi at

latitudes of 40°N, 30°N, 20°N, 20°S, and 30 °S. The comet's

elevation above the local horizon and its azimuth (degrees east

of-north) are given foevari4us dates. For each date, the comet's

position is given for theijnd of astronomical twilight if the

(ompt. is in the evening sky, or the beginning of astronomical

twi !Mitt if the comet is in the morning sky, These positions

cori96ponci" to times approximately 70-g0 minutes after sunset or 70-90 minutes before sunrise..Very rough iniMations of

the comet's tail length and orientation are given for a few

representative dates along with the comet's dpparent total

magnitudg, M1, in parentheses. The tail-length est' ates presentee! in Figures 9-1'3 weir obtained by solving for I formula

(5) and using the data in Figure 7 and Appendix . e tail

orientation is always antisolar in Figures 9-13, which over the

period when the comet.is brightest (January -April mi);Note

that since the comet passes near Opposition in Ap 1986, it is

observable as both an evening and a morning object for some

latitudes.

17

7
12

10

6

4

2

12

10

8

6

4

2

PERIHELION

01411111, 1

OBSERVER AT

\ "Dr OBSERVER AT

k

1 35° N.

35° S.

LATITUDE -

LATITUDE

r-4

1L I

Ur-4 r-I-

:t2

si

'1985 1986

* NUMBER OF HOURS WHEN COMET IS ABOVE, AND SUN IS MORE THAN 18° BELOW, THE LOCA.k

Fig. 8. Comet Malley 1988-1988 Grinuld Based Observing Conditions.

18

1 0

C.)

ORIZON
f

-1(

g 39

25

O *1 Q

20 0

O

15

0Z n

W

a

19

1.1101/

COMET IN

MORNING SKY

'a

ofd iAPR 25 (5.4)

P

490 N.

COMET 1N EVENING SKY JAN 5 (5 .7)

1

*APR 2014,8)

MAR 16(4.5) _rMAR. /8.

MAR 6 (4.5)

(4.3)

d APR 18 (4.6)

: '

kJAN' 10 (5.4)

it JAN 15 ( 5.1r)

ft

DE

JAN 29 (4.0'

APR 5 (4.0), -

... -.num. t

/

...emintas. 1 48061

a, / 4 % /

I," I

1 ?AN 2$1( 44

I k / I of L.. IN. 1 I'-_ J I I if

110 120 130 140' 150 160 170 180 190 200 210 ' 220 230 240 250 260 '270 .280,

SOUTH WEST

AZIMUTH, DEGREES

Fig. ft Comet Halley Observing Conditions in tiMiti for ObserversLocated all WI North Latitude. Comet

,positions ye given for beginning of morning astronomical twilight or end of evening astronomical

twilight Approximate total visual magnitudes are given in parentheses following dates. Viewing with

binoculars and ideal observing conditions are assumed. .

q

.30

20

15

10

\

4'

I
rt

n'S 21

4

110

1 1 1

35 0

1 3°

APR-29 (5.9)

APR g (5.9)

-.IP APR 25 (.4)

1

O

U 111 APR 23 (5.2)

/ . 0

IAPR 21 (4.9)

5.. 20 COMET IN, O

...... 0 '..... MAR 31 (4.1) MORNING SKY -- V N ' l MAR 21 (4.4) -.... 6..

111 r,,ZN 15

... /

/MAR 16 (4.5) f --v APR 19 (4'7)

f

P:i * MAR 11 (4.5) 0

rf

1111114 APR 1; (4,5)

> o MAR 6 (4.5)

6 MAR 1 (4.4) 41, I' / / / . FED 24 (4,3)/ I 1 1 / 1 1 1 11 90 100 110 120 1,30 ,140

EAST

4

44.

....APRS (4.0)

'

4 COMET IN

EVENING SKY

AILA*61111'1110 (4.0)

ni \

I [1 'i 1 i ., i \. 1 150. 160 170 180 190 200 210 220

SOUTH

AZIMUTH, DEGREES

300 N . LATITUDE

45

40

25

lc

20

JAN 10 (5.4)

if JAN 15(5.1) -* 15

JAN 20(4.8) 10

1 5

1 1 JAN 25 (4.5)

230 240 250 260 '270

WEST

Fig. 10. Comet Halley Observing C.onditkins in 1988 for Observers Located at 30° North Latitude. Comet

positions are given for beginning of morning astronosulail twilight or imd of evening astronomical

twilight. Approximate total visual magnitudes are given in parentheses following dates. Viewing with binoculars and ideal observing apaitions are assumed.

22

4

*
4

N. a

COMET IN EVENING SKY

.

3 4

iir

riC

2 (4.

ma 16 (4.1

M 25 r'.

MAR 11 (4.51 Pt '' r - ,

0 /

"14i 15 \ mAR 6(4.1)

Lia

104. mAR 1 (4.4) V I

5

Pi \t,

;

' 4

r

RR X (4,8)

1 \', 4

, '' k a

f

31 (4,1 11

-.I':

APii 5 (4.0i

4.

20° N. LATITUDE

r

JAN 5 (5.7)

N JAN ID (5.4)

,; \ \

i \ a i Si '' 20 '

, s. , s dtt 4 4JAN 15 (5.11 APR 10(4.0) IS i x /

50

o

25

tir

mit 1

. t

I 4\ I .

.L. 4

1 4 \do, COMET IN' i JAN 20 44.8) i°

1 4

0

,-..°.

/ + MORNING SKY 1

t ..... \ t \ 11,1 APR.15

f° 120 130 \ 140 150 160

f

Fig. 11.

\, positions g

twilight. A pro

binoculars and

180

SOUTH' k

CiT1-4 DEGREES

e frilrtlahoorvers Located at go* NorthLatitude. Causal

or sad of availing, astronomical

following dates. %awing with

APR 5 (4.3) AN 2:444.

200 210 220 230 240 250 260 270

WEST
H

24

so

2

0

0

50

40 0

030

4§. 20

TO

'

S

I t I

-- \ /

`APR, 30 (6.0) N. I

II° \ MAR 26 (4.3) \

1. / \ / ...i.\ APR 20 (4 d)

. yr s:

MAR' 16 (4.5).N. viiir7 COMET IN WAVING SKY

/

,..- MAR 11(4.5)

(AAR 6(4.5) 1/644 APR 15 ('6)

i . \ I

MAR 31 (4.1)

1" :NM

t

00

T 1 2OrkTiTUDE

APR 5 (.4.0) 411101111111p. COMET IN WHINING SKY

i MAR .1 (4.4) -- 1 fr \- ",

i FEB 34 (4.3) ..4AAPR -10 (4.0} I A I .' I I I

100

. EAST

110 120 130 140 150 160

APR 10 (4.01044;ok

APR 15 (4.3)oIlit,

APR Z) (41.0)

CC4tET IN

EVENING SKY

. pri,1/4. 5 (se)

/JAN 10 (5.4r

I

tIAN 15 15.1)10

170. 180 190 2 0 0 210 2 2 0 2 3 0 2 4 0 2 5 0 260") 270 . 280

SOUTH WEST . ... AZIMUTH, DIGREIts is

. ow---

70

60

40

30 , 20

10

Fig. 12. Comet Halley Cmoditions is igets for Obeerress 1Axsted at ZV faith Latitude.

Comet positions era given for "" ' °traumas adiristiskal hviligld or sod of oven* astrowocw.

'cal twilight. Appraised* total viiiud magaibldse *re given la parewdmwes folknving dales. Viewing with bisocilimand ideal observing condi:films are awsuosd.

4

25
c

90

80

Og

cilia 70

0

50

1.0

0

`Ita 40 Zr-'

10

26

AR 30(6 0)

2:9 (5 .4) * PAM 26 (4.3)

at

1 1 .1 I 1- 1 T 1, I 1 I I

COO IN MORNING SKY

MAR 31 (4.1)

414144"' 'a 4% a' APR .8)

SAAR T6 (45) COMET IN EVENING SKY

soole-.4*."

4.

ilueet amasini .

APR 3,(4.0)

.4

1a

4 MARq1t 4.5) 44011. APR 15 (4.3)

MAR 6(4.5X .

Ot use 144)

APR 10 (4.0) , (*FEB 24 (4.3)' 4

r 11. 1 I_ 70 8Q , .100 '110 20: 130 .140 150 '1'69 170 180 190 200 210

EAST

& tar

APR 5 (11114741111%

a.

r. °

I

44. aa APR 10(4.0)

AN. 30° S. LATITUDE

a

APR IS (4.3)

t,

APR 20 '(4.8) 41;411e

L I

MMI

90

80

I.

a.

"

1

, SOUTH

AZIMUTH, DECREES

220

Fig. 7 ..Coniet Halley Observing Condition' in 1458 far Observers Located. 30° South latitUde.

CAM. lions are given for beginning of morning astronocnical twilight or end of evening astronomical twilight.`Approxissude total visUal magnitudes are gimes in parenthmess 6aluwivg dabs. Viewing'

with binoculan and ideal obeerviiis ionditione are onumed.

fsk re;

t

;94 11. e1r

4

27

240 .

60

38

20

10

25 .260

1.
IV. Observing Conditions for the Dust

. of.Comet Halley in 1985-1986

Since the dust tailerepresents a relatively thin layer of material extending in a comers orbit plane between the prolonged

radius vector and the direction behind the comet on the convex

side of the orbit, its appearance is affected by both the level of dust production and the projection conditions for the observer.

The amount of scientit* information that can be extracted by ' applying the existing methods of dust-particle ,dynamics in- creases generally with the tail's apparent width. Usuallymore

,prom3unced after perihelion due to cumulative effects of the

differential angular momentum, the projected width of the tail

in the sky is strongly dependent on the.Earth'scornetocentric

latitude, that is, on the angle that the comet-Earth vector makes

with the comet's orbit plane. The vaiiation of this angle during

the upcoming apparition of Comet Halley is displayed infig- ure 14.

With the possible exception of a few days around November

1985, the dust tail will remain very narrow, straight, and

rather uninteresting until the comet disappears in the Sun's glare in kite January 1986. Shortly before perihelion the tail will begin to'broaden, but because of the proximity to the Sun

in the sky this development will be unobservable except possidst

bly with very sensitive infrared detectors. By the time the

comet emerges from the Surf's rays in the second half-of FebrUary, the dust ejecta' will discriminate into, two branches

bounded on their opposite sides by sharp boundaries: freshly- emitted microscopic dust will form an ordinary tail, whereas

large particles, 'released long before perihelion, will make up

an antitail. The antitail will be fainter and shorter and may not

be detected (especially by visual observers) until the comet's

elongation from the Sun has increased to the point that the

ambient sky is suff'i'ciently dark. In and near major.metrepoli"-

tan areas the antitail may never become visible. The tail's

width will decrease rapidly from mid-April on, reaching a

, nrinimum around May 20, When the Earth crosses the comers

v orbit plane. The most favorable projection conditions for.the

tail will occur in early April, as the Earth's cometocentric

latitude reaches a peak of 28° an April 7 Mrrifie copiet-Earth

distance reaches its minimumon April 11. Unlike the sunward

tail seete in April 1957 when the Earth.passed duoughlheokbit plane of Comet Arend- Roland, no sunward tail will be seen for

Comet Halley when the Earth crosses Halley:s orbit plane On

November 21, 1985, and May 20, 1986.

To demonstrate in a more quantitative fashion the expected

appearance of the dust tail on high-quality photographs under

near ideal conditioni, Table 3 lists for a number of dates: lithe

position angle (P.A., reckoned from th4 north through the east)

14 Fig. 14.. Angle Between the Cosset Halley-Barth vector and the Carnet's Orhit Plane Platted Against Calendar Date.

4
`Table 3. 'lib Orientation and Width of the Duat Tail of Comet Halley in 1983-1986.

Ds ht1985/6

o UT

Position. Angle

Tail's

Sector

Angle . Date 1988

ob isr

Position Angle

Tail's

Sector

Angle

Leading

Boundary

Trailing

Boundary

Leading

Boundary

. Trailing

Boundary

Nov. 2'1' 91° 91° 0° Feb. 14" 275e 82° ' 144°

26 79 81 2 19 268 60 152'

Dec. .1 73 75 2 24, . 283 57 154

Mar. 1 260 54 154

11 68. 70 2

21 66 69 3 11 258 48 150

31 64 69 21 258 43 1,45

ja . 10 61 7 31 287 48 141

20 56 87 ?....._ 11

Apr. 5 283 59 136

25 50 67 17 le 315 80 i25

30 39 27 15. 4 '101. 97

20 54 57

Feb. 1 30 68 36 25 113 32

3 16 65 49 30 93, 113 20

5.' .356 65

7 329' 64 95 May 10 103 144ii 7

9 307 64 117 20' 1.08 108 o . *;Fransit oi the comet's orbit plane by the Earth,

. of the prolonged Sun-comet radius vector, tialliiInfining

the tangent at the nucleus to the tail's shat':44 fug bilondaly,

2) the Plit the diffuse, trailing boundaii.(ofThe sharp

boundary e antitail), approximated, sointvell'ul air irarilY,

by an assumed onset of the production of detectable dust ejecta

at 2 AU before perihelion, and 3) the maximum expected tail

width, or sector angle, at the nucleugiven by the difference

between the two directions. A sector angle noticeably exceeding 90' implies the presence of an antitail.

The tail's calculated outlines are provided for two specific

times of particular interest: for March 13, theencounter date oT

the European Space Agency's Giotto spacecraft, and for April

10, around the time of the most favorable viewing conditions.

These predictions are based on the production curve of R. L.

Newbum, jr..171 on the assumption of negligibly smallejectioo

'velocities, and on an assumed dust size-distribution function,

which has a particle-radius cutoff at 0.1 em, peaks sluirply in

the submicron size range, and varies as an inverse 4.2 power of

the size for all particles larger thou several tens of microns.

The predicted brightness contours for March 13, 1986, are

shdinta in Figure 15 for an assumed peak particle size of0.41

pm. The ordinary tail is seen to point to the west, the antitail to

the northeast. jn the order of their increasing density, the three

hatched areas represent the portions of the tail calculated to be

brighter than, respectively, 10%, 20%, and 40% the intensity of

the "dark" sky. The 'Curves marked with nnsilb.scripred numbers are syndynames, or the loci of particles subjected to the

same repulsive accelerationil solar radiation pressure (0.15

means, for example, that th ccelerationamotmts to 15% of

the solar attraction). The curves marked with subscripted

numbers are synchrones, or the loci of particles ejected simultaneously from the comet at the indicated heliocentric distances: subscript b stands for the ejections before perihelion,

and subscript a for the ejections after perihelion (2.5b moans.

, for example, ejection at 2.5 AU before perihelion). The curve

marked q is the perihelion synchrone.

Figure 16 shows the calculated contours of the4ail for April

10, 1986. It illustrates the dependenCe of the brightness-distribution models On theassumed peak particle soak. Note the

decreasing width of the calculated tail as the peak size ekops

from 0.41 tun (Model 1)10 0.28 fan (Model 2). After March 13

the expected apparent length of the ordinary lad Will have

nearly doubled and it's curvature increased, but the antitail will

have became relkelvely less conspicuous. Note also that the

synchrone 0.9c, corresponding closely to the Giotto spacecraft

encounter date, runs through the densest part.of the tail, so that

the in situ dust measurements and the ground-based observe-,

tions of the tail will complement each other and facilitate the

.interpretation of the, comet's dust tail.

The dull-tail developmeht in early and mid-November,

1985, shortly before the Eagillh transits the comet's orbit plane

{Nov. 21.0 UT), deserves gspecial attention. Some three days

before the tfansit the comet will be at opposition with the Sun,

passing only 2°, north of the antisolar point in the sky. The

direction and appearance of th&&tst tail in the period of time

knmediately preceding the opposition should be very sensi

alive to.the comet's dust production rate at large heliocentric

distances. Assuming that the dust production rate varies as an

,inverse cube of the distance from the Sun (out to at least 4 AU),

the dust tail should show up on deep photographs taken at this

time. (A short, inconspicuous duSt tail may be detectable in

October or even sooner, pointing generally to the west of the

comet.) The tail will be directed slightly to the south of west irr

early November, until about' November 8. For the following

few days the comet may show two vary faint tails. one directed

to the west-southwest, the other developing in the southeast

and gradually growing in I . By November 14 the westerly

tail will dikpear, and theeasterly tall will rotate slowly to

'9

$ 15
4

1,8

R1 A

Rr

. 00

SCALE

f

sch

Fig. IS Predicted Brydrtries Piot* of tb Dust Tail of Ratio on March 13,1916, the Enconntar

gives a 10% coutrad 'evil ra pist/ to the ambialal

level, and the is contour 40*. ordinary tall

The curves marked with numbers, s

ItYnchOgage (11 146"

synchrone.

Date. of thoGiotto Spacecraft. The outermost

sky brightkee,,the hale gives

pointh toils won, the antiUdi tlm

eyndynaines, the curves with inbscripted

perihelion while a indicates **ion after tierihetiois). The curve labeled q is

'4.

6

NORTH

4.002 NUCLEUSJ

4 NORTH

vs

9.

SCALE .

2.5d

Lt. OM isniCtEUS

T TO SUN O SUN

Fig. 15. Predicted litiness Profiles of the Dust Tell

diagrams show the dependence on lbe easumed duet

particle radius of 0.41 pir for Model 4, but at 0.201.4m for

in Fig. 15.

V MODEL 2

6

of Canal Halley on April 10, 1988. The two

sir* distribution functims, which peaks at a

Model I. The curve labels ant the same as them
reach a P.A. of almost exactly 9(1° by the time of the transit on

November 21 (see Tables 3). If the dust production varies more

steeply at distances greater than 2 AD from the Sun pre-perihelion, the dust tail may not,show up until late November or

December.

To a .Visual obsempequipped with a small telescope, the

tail's sector-angle estimates in Table 3 and the calculated.

widths in Figures 15 andig6 will probably be mostly crude

upper limits. Sincethe perception of a nonstellar object by the

human eye is strongly contrast-dependent, the visually apparent features of Halley'sdust tail will, be the portions with a

steep trust gradient, primarily the 'leading boundary of the

ordi and possibly the trailing boundary of the antltail.

The two ches will appear detached from each other and

narrower than indicated by the isophotes. Because of thetail's

curvature after pfliihelion, it is imperative that visual

measurement of the tail's P.A. specify t6What angulligistance

from the nucleus it refers.

INA

I4 4 Paradoxically, the observing conditions fcw Halley's dust

tail will be more favorable in the upoeming apparition than

they were-ill 1910, although the tail's appearance will be considerably less impressiVe. It is essential that professional and

amateur astronomers who wish to contribute to the under -

standing of the nature of cometary dust exploit the opportunity

td the fullest by systematitally phigog,raphing the dust tail

with proper equipment. This includes a fast, wide-field camera, a: panchromatic eniulsion, a red filter (to block the Interference from the plasma tail), and a photometric calibrationof the

plates. If available, a charge-coupled device (CCD) detector can

"

A

be attached to a camera of short focal length (to avoid complicated mosaic exposures) to 'obtain tail images of considerable

value.

References

1. YeomanS, D. K. (1977). Comet HalleyThe Orbijal Motion.

Astronomical Journal, v. 82,ip..435.

2.. Whipple, F. L. (1950)."A Comet M odel. I. The Acceleration

of Co-met Encke. Astrophysical Journal, v. 111, p: 375.

'3. Marsden, B. G., Z. Sekanina, and D. K. Yeomans (1973).

Comets and Nongravitational Forces '4;t: Astronomical lournal, v. 78, p. 211.

4. Yeomags , D. K., and T. Kiang (1981). The Long Term

Motion of Comet Halley. Monthly Notices of the Royal

astronomical Society, v, 197, p. 633,

5. Dewitt, D. G., G. E. Danielson, J. E. Gunn, J. A. WastAal, D. P.

Schneider, A. Dressler. M. Schmidt, and B. A. Zimmerman

(1982): Periodic Comet Halley (19821), Internatidneti Astronotrival Union Circular, no.,3737, dated October 2i, 1982.

6. Morris;C. S., and. D. W. E. Green (1982).7-he Light.Curve al

PeriodiC,Comet Halley 1910 II. Astroncfnicai Journal, v. 87,

p. 918.

7. Newburn, R. In., Jr., (Ivan A Semi-emPirical Photometric

Theory of Cometary Gas and Dust Production; Application

to P/Halley's Gas Production Rates. In Comet ialley Dust

and Gas Environment Workshop. Paris:. European Space

Agency SP..174; -P. 3.

ear

31

.

^

4

.

17
APPENDM A. . HISTOIOCAL, PHYSICAL,, AND ORBITAL DATA

Historical Data

Earliest iFobalge recorded apparition

Number of recorded api3aritionsTrom

240 B.C. to 1986 A.D. (only the 164 B.0

apparition, w not'recorded).. i.

Shortest period between returns 'to

perihelion

Longest period between returns to

perihelion

Closest approach to the earth

Longest angular tail length recorded

(nucleus to end of tail) . Brightest apparent magnitude recorded

(approximate/I; . Phyiital tharatteristics`

Estimated diameter of nucleus

' Estimated density oLnucleus

Estimateciorotation peviodEA-11

Observed chemical species in

1910[A-21

Observed tails . Associated meteor streams

1 Orbital Characteristics

Location of orbit pole

Lc3cati i oferibelion

I

240

29

74.42'years (1835-101.0)

79.25 years (451-530)

t

0.033 AU (April 10, 837)'

150° (May 20, 1910)

3.5 (April 10, 837)

1 g/cm3,

10.3 hours, direct

CH, CN, C2, C3, Na, CO+, N2+

Type I ion aLii Type n dust

n &plied (early May) and

Orionid (late October)

A = 90° = 328.15°

ft - 90° 1 ri 72.24°

I [sin ca cos i

`k COS CY

= 305.31°

P = sinli(sin uu sin I) =16.450

4'

4

A

la

I'
L

20

tr

Heliocentric distance of orbit nodes

Distance of periheliontricl aphelion

above or beldw orbit p ane (in AU)

At

Orbital velocity (in

At perihelion r =

At aphelion r

Definitions

1 iwk. p

e,

q, Q.

a

R

t A

r(11) = q(i e)/(1 + e cos col 1.

.= 1.80 AU

r(1.1) = + e)/(1 eta, (6

at Q:85 AU

Z(q) g sin m i = 0.17 Aik

Z(Q) Q sin 6, sin i = 0.90 AU

V = 29.8 1.-.7

2 111/2

=. 29.8 {-1-2. 0:0471..

V 54.55 km/s

V =, 0.91 km/s

L ecliptic longitude, latitude

longitude of the ascending,descending node

argument of perihelion

'inclination of orbit plane'with respect to

the ecliptic

perihelion, aphelion distance in AU

'orbital eccentricity

seraimajoy axis in AU

Ref. y ces Alt A..1°. Whir/ F. L. (1980). Periodic met Halley. International A.stanomicaI UrAion

Circular, no. 3459, dated March 13, 1980. V

A-2. Bobrovnikoff, N. T. (1931). Halley's Comet in Its Apparition of 1909-1911. Publications of the,,fick Observotory,.v. 17, part II.

*or

,t
a APPENDIX B.

EPIIMIERIS DATA 1982-1987

EXPLANATION OF SYMBOLS

J.D. ' Julian Date (Ephemeris Tim;)

R.A. (1950.0) DEC. =4 Geocentric right ascension and declination referred to the mean ,

eqiiator and equinox of 1950.0. A light time correction has been

applied . R.A. (APPN) DEC. 3. Apparent geocentric right ascension and declination. Light time,

annual ab8rration, and nutation corrections have been applied,

anckR.A. end Deic. have been processed to .the ephemeris date.

DELTA = Geocentric distance of comet in(AU

R

ROOT

`t m1

a

c velocity of comet in kuris

= Heliocentric distance of comet in,AU

44.4 Heliocentric velocity Of comet iri km/s

TSl magnitude = 5.47 + 5.0 log (DELTA) + 11.1 log (R), (pre-.

perihelion). Posf-perihelion the corresponding equation is total

magnitude M 4.94 + 5.0 log (DELTA) + 7.68 log (R):

. M2 = Nuclear magnitude' = 14.1 + 5.0 log (DELTA) + 5.0 log (R)

NOTE: In castelathere M1 is not computed, the corresponding column is

filled with zeros (0.0).

THETA =Stin-Earth-Comet ankle in degrees

BETA. 'Sun-Comet-Earth angle in degrees

MOON Comet-Earth-Moon angle in degrees

i- NOTES: 1. These osculating oriiital elements are consistent with the following ephemeris:

Epoch 2446480.50 1988 Feb. 19.0 (E.T.)

Peribeifon.Passage 2446470.95175 1986 Feb. 9.45175 (E.T1

Perihelion Distance 0.5871047

in AU 1. 4

Eccentricity 0.9872760

Argument of 111.84809

Perihelion in deg.

a

Longitude of Ascaddins Node in deg.58.14536

Inclination in deg. 2.23928

S.

3 4 ,

N.)

.22
4

I

. . 2. TA, angular elements are referred to the ecliptic and equinox o1 1941.0.

3. The style ll nongravitational parameters (13.1( are:

(0.0888 ± 0.02133 x 10-8 AU/day2

Reference

, 24. IN, (0.0154 th 0.0001) x 10-8 AU/day2 . .._ i . II . B-1. Marsden, B.G., Z. Se !canine, and D. K. Yeomans (1973). Comets and Nongravitational

Afe" Forces V. Astronomical Journal, v. 78. p. 211.

1 A

4/11* kek

34 s

a.

A

0e
cable B-1. Eptuinairialwitia Perturbations) far Quiet

YR MN by HR

1982 7 24 .0 ?445174.5

1982 7 29 .0 2445179.5

1982 8 3 tO 2445184.5

1982. 8 8 .0 2445101'.5

1982 R 13 .0 2445194.5

1912 8 18. .0 2445199.5

1982 8 23 .0 2444204.5

1942 8 28 .0 2445209.5

1982. 9 2 .0 2445214.5

198 9 7 .0 2445219.5

4982 9 12 .0 2445224.5

1912 s9 17 2445229.5

1982 '9 22 .0 2445234.5

1982 9 27

1982 10 2 1982 ID 7 1902. 10 12

1982 20 17

1982 1022

1982 10 27

1982 tr .1

1982 11 6 1982 11 11

1902 11 16

1982 11 21

1982 11 26 .0 2445249.5

1982 12 1 .0' 2445304.5

1982 12 6 .0 2445509.5

1902 12 11 .0 2445514;5

1902 12 16 .0 244531°.5

1982 12 21 .0 2445324.5

1982 12' 26 .0 2445329.5

1982.12 31 .0 2445334.5

1983 1 5 .0 244533945

1983 I 10 .0 ,2445344.5'

1985 1 15 .0 2445349.5

1983 1 20 .0 24145554.5

1983 1 25 .0 2445359.5

1983 1 30 .0 2445364.5

1983 2 4 .0 2445369.5

1983 2 .9 .0 :445371.5

1983 2 14 .0 2445379.5

1983 2 19 .0 2445994.5

1983 2 24 .0 2445389.5

1983. 3 1 .0 245394.5

1983 3 6 9 .0 2445399.5

1983 3 11 .0 2445404.5

vise 3 16 .0 244540'3.5

1983 3 21 .0 2445414.5

1983 3 26 .0 2445419.5

1983 3 31 .0 2445424.5

1983 4 5 .0 2445429.5

1983 4 10 .0' 2445434.5

1983 4 15 .0 2445439.5

1983 4 20 .0 2445444.5

1983 4 25 .0 2445449.5

at Five-Day Inters

. 91050.0) DEC.

6 52.85. .10 52.85

7 '.218 10 49.85

7 1:541 10 46.49

7 2;819 10 42.74

7 4.044 910 38.78

7 5.205 #10 34.48

7 6.293 #10 29.91

I 7.949 10 25.12

7 8.214 +10 20.12

7 \9.029 *10 14.96

7' .73A .10 9'667

7 1.330 10 4.30

7 10.796 9 58.87

. 0 2445239.5 7 11.120 9 53.9.3

.0 2445244.5 7 11.32 9 48.04

.0 2445249.5 7 11.36 9 2.74

.0 2445254.5 7 11.259, 9 7.56

.0 2445259.5 7 10.992 "4. 9 2.57

.0 2445264.5 7 10.562 9 :80

. 0 12445269.5 7 9.964 * 2 .32

(2445274.5 7 9,199 9 1 18

'.0 2445279.5 7 8.265 9 at 40

.0 2445284.5 7 7.164 .9112 05

.0 2445289.5 7 59A9P 9 947

.0 .2414294.5 7 4.471 9 6.140

7 2.892 + 9 4.98

7 1.171 9 3.74

6 59.517 9 3.10

6 97.545 9 3.09

6 55.26P 9 3 2 6 53.109 9 5401

6 50.875 9 .94

6 49.549 9 9.52

6 46.297 9 12.72

E 43.989 + 5 16.52

6 41.691' q 20.90

6 39.447 9 25.93

6 37.257 6 31.26

6 35.147 9 37.14`

6 33.136 9 43.42

L 31.23° 50.06

6 29.474 9 57.00

6 27.854 +10 4.18

6 26.584 10 11.56

6 25.08° 10 19.06

6 23.959 10 26.64

6 23.004'+2034.25 34.

6 22.222 *10 41.83.~

f 21.632 *10 49.34

6 21.21! 10 56.72

6 20.974 *11 3.94

6 2c.180**411 10.95

E421.003 *11 17.71

6 21.269 *II 24.20

F .11 30.37

22.248 II 36.19

R.A. 7 .620 410

7 1.991 1

7 3.306 10

7 4.584 .10

7 5.809 +10

.10 1.49'9112.4

04.12443 19.

3. 2 12.73 2

9.87 1200 -24

.81 12.23 '*2

.7 6.971 10 3 .4 14.15 -24

7 8.060 +10 26185. 12b07 -2

7 9.066 10 22101'11.98 -3

T. 9.992 10 16.98 .11.84,-

7 10.799 10 11.78 11.79,

7 1.508 10 6.46 11.69 -

24, 1982, to August 7, 1984.

RDOT TMAG "NAG THETA BETA MOON

-9.8 .0 24.9 19.5 1.7 60

41.50.4.99.9 .0 24.4 23.1 2.0'123

1.48 99.8 .0 24.9 27.0 2.3 167

12 1245 .49.90 .0 24.8 31.1 2.6 114

10 11.42 -9.92 .0 24.8 35.2 2.9 50

01.39 99.94 .0 24.8 39.5 3.2 26 , 11.46 .9.9.96 .0 24.8 43.8 3.5 93

8 11.73 9.9.97 .0 24.8 46.2 3.8 152

.01 4.30---,9.91 .0 24.7 52.6 4'61 143

4.42 114,27 .01 .0 24.7 57.1 4.3 81

.69 11.25 -1 .03 .0 24.7 61.6 4.5 .17

7;12.101 10 1.06 1 .58 936.80 11.22 910.05 0 24.7 66.2 4.1 60

7.12.568 9 55.61 1 .48 937.72'11.19 -1

7 12.902 9 50.16 11.37 918.45 11.16

7 13.095 9 44'4,76 11.25 8.9%1143\910

7 13.142 9 39..44911.44 .39.31

'V 911

7 13.037 9 34.27 11.13 39.47 . .910

7 12.772 9 29.28 10.91 93.38 11.04940

6

7 12.343 9 2443 10.1 *39.04 11.01 *10.1

7 11.747 9 20.07.10. -38.48 10098'910.1

7 10.983 * 9 15.95, 10.54 837.498 10.95 9'10.213\

9 10.052 4 12.21, 10.47'936.66 10.92 '910.2

7 8.953 9 9.91 10.37 935. 4 10.89 910.25

7 7.699 + 9 6.07 10.27 -33.9 10.86 910.27

7 6.264 9 3.76 10.17 932.2 10.83 910.29

7 4.688 9 2.00 10.01 930.2 10.81 910.31

7 ,2.968 + 9 .83 10.00 928.1 10.78 910.33

7 1.118.* 9 .27 9.92 925.84 10.75 - 10,35

9.65 -23.40 10.72 910.,357 24.2 150.5' 2.6 104

9.78 -20.79 10.69 910.39 24.2 155.3 2.2 160

9.73 910.06'10.66 '-10.41 .6' 24.2 159.6 1.8 131

9.68 915,26 10.63 910.10 0,3 24.2,163.3 1.5 70

9.64 912.42 10.60 -10.45 .0 924.1 165.7 1.3 15

9.61 99.55 10.57 -10.47 .0 24.,1 166.1 1.3 78

9.58 96.67 10.53 910.49 .0 24.1 164,4 1.4 140

19.59 93.02 to a -10451 ;...0 44.1 161.0 10-153-

2.1 96

.16 0 24.6 700

9 .0 24.6 75.5

10 .W, 24.6 00.3

.0 ' 4.5 (39.9

40 4.5 94.8

2 00i4.6 R5.0

. 0 24.5 99.7

.0 24.4 104.7

.0 '24.4 109.7

.0 24.4 114.8

.0 24.4 11.44.9

. b 2403 125.0

0 24.3 130.2

0 2,0.3 135.3

0 24.3 240.4

24..2 145.5

4.9 124

5.8165

5.1 221

5.1. 45

54.2 30 1 5.2 95

5.1 154

5.0 139 . 4.9 76

4.7t 14

4.5 66

4.3.129

4.0 161

3.7 106

3.3 399,, 3.0 391 6 59.147 9 .34 .

6 57.073 9 1.05

6 54.912 9 2.43

6 52.604 9 4.46

6 50.410 9 7.13

6 48.110 9 10.44

b 45.803 + 9 14.34

6 43.515 4 '9 28.82

6 41.265 4 9 23.85

'6 35,076 9 29.38

6 3r.968 9'35.36

6 34.957 9 41.73

6 33,061 4 4845

6 31.297 9 55.48

6(.29.677.910 2.74,

6 28.214 +110 10.19

6 26.914 *IC 17.75

6 25.794 10 25.38,

9.56) 91.05 10. 910.53 .0 41'1560

9.56 1.61 10.

.9.5T, 4.13 10.4

9.59 6.52 10.38 910.59 .a 2

9.61 8.14 14.35 910.162 .0 44

9.64 10.77 10.32 -10.64 .0 29

9.67 12.58 10.29 -10.66 .0 24

9.71 14.16 10.26 910.68 .0 24

9.75 15.4,50 10.23 910.70, .0.

9.80 16.63 10.20. 910.72 .0 .1'

-10.55 20 :1 152.1 2.5 32

-10.57 .0 24.1 147.2 269 47

.2 142.1 3.3 116

1 137.0 3.7 166

131,8 4.1 120

126.6 4.4 59'

121.4 ,4.7 17

116.2 5.0 86

111.1 5.2 149

6,24.830 +10 33.04 9.85

6 24.054 10 40.66 9.90

6 23.458 +10 48.20 9.05

6 23.042 +10 55.60 10.01

6 22.800 1 2.83 10.06

6 22.731 II 9.84 10.11

6 22.830 +11 16.61 10.17

6 23.091 11 23.08 10.22

6 23,529 11 29.23 10.2t

6 24.075 +11 35.04 10.31

17.51 10.17 910.75 .0

11.15 10.14 -10.77

18.54 10.10 -10.79 .0

18.68 10.07 90.81 .0

18.61 10.94 -10.83 .0

18.33 10'.01 -10.86 .0

17.84 9.9 910.88 .0

17.1 9'.95 -10.90 .0

16.2 9.92 910.92 .0

15.13 9.89 910.95 .0

c #36 A

2 .11106.0 5.4 145

24.1'100.9 5.5 86

24.1 195.9 5.6 23

24.1 91.0 5.7 52

24.1 86.1 5.7 121

24.1 81.3 5.7 165

24.1 76.5 5.6 1,13

24.1 71.7 5.5 51

24.1 61.1 5.4 22

24.1 62.4 5.2 89
in

PO YR , 1983

1983

1983

1983

193

1983

1963

2913

1983

1983

1985

1983

1,83

1983

4983

1983

1983

1983

1983

1183

1963

1983

1983

1983

1943

1983

2983

1983

1983

1983

1983

1983

1983

1983

1983

1983

1953

1983

1983

t 1983'

1903

1983

1982

1983

1993

1993

1983

1983

1983

1993

1914

1984

1984

1984

1984

1984

DV Hk UP. (1050.(1) DEC

4 30 ' .2 2445454,5 6 21.953 *11 41.64 6

5. 5 .0 2445459.5 6 23.790 +11 46.70 6

1,10 .0 2445464.5 6 24.710 .11 11.34 6

5.15 .0 2445469.5 6 ;6.825 +11 55.55 6

5 20 .0 2445474.5 6 27.005 *11 59.30 6

5 25 .0 2445479.5 6 28.279 12 2.58 6

.5 10 .0 2445404.5 6 29.63,9 .12 5.39 6

6 4 .0, 2445499.5 6 31.074 12 7.71 6

6 9 .0 2445494.1 6 32.575 12 944 6

6 14 .0 *41499.5 6 34.13* *12 10.137 6

6 19 .0 21145504.5 6 35.738 +12 11.70

6 24 .0 2445509.5 6 37.379..12 12.03 6

6 29 .0 2445514.5 6 39.044..12 11.86 6

7 4 .0 2445519.5 6 40.727 12 11.20 6

7 9` .0 2445524.5 6 42.416 .1210:06 6

7'14 .0 2445529.5 6 44.102 +12 8.43 6

7 19 .0 2i45534.5 45.772 *12 6.35 6

7 124 .0 2/045539.5 6 47.417 +12 3.81 6

7 29 .0 2445544.5 6 49.027 1; .84 6

8 '3 .0 2445549.5 6,50.591 11 57.45 6

8. .0 2445554.5, 6 52.100 *11 53.67 6

8 13` .0 2445559.5 6 53.541 *11 49.52 6

8 18 .0 .2445564.5 6 14.902 *11 45.02 6

'8 23 .0 2445569'5 6 56..173 +11 40.22 6

8 28 .0 1445574.5 6 57.344 +11 35.13 6

.9 2 '40 2445579.5 6 58.404 *11 29.79 .41- 9 7 .0 2445584.5 6 59.340 111 24.24 7 9 12 .0 2445589.5 7 .140 11 18.52 7

9. 17 '4.0 244559445 7 .713 11 12.67 7 9 22 .0 2445599.5 7 1.289 +11 6.74 7

9 27, a 2441604.1 7 1.616 *11 .79 7 10 2 .0 4,45609.5 7 1.766 10 544,94 7

10 .7 .0 .2445614.5 7 1.725 +10 48.97 7 1D 1.2 ,o0 2445619.5 7 1.485 +10 43.22 7 10 17 '.0 g445624.5 7 '1.037 10 37.65 7

10 2 .0 2445629.5 7 .376 +10 32.33 7 10 2 .0 2445634.5 6 59.496 +10 27:31 7

11 1 .0 2445639.5 6 58.392 *10 22.64 7

'11 6 .0 2445644.5 6 57.061 +10 18.38 6

11.'11 .0 2445649.5 6 55.504 +10 14.60 6

11 16 .0 2445654.5 6 53.723 +1041.34 6

11 21 .0 2445659.5 6 51.727 .10 8.67' 8

11 26 ;0 2445664.1 6 49.524 10 6.61 6

142 1 .0 2445669.5 6 47.124 5.21 6

12 6 .0 24491.74.5

..10

f 44.542'1.0 4.51 6

12 11 .0 .24456711:5 6 41.799 10' 4.54 6

12 16 .0 24456b4.5 6 3k.'"1c? +10 5.32 6

12 21 .0 244SEPc.5 6 37.925 *40 6.94 6

1,2 26 .0 2445t.c.5 F 9.12' 6

12 31 .0 7445699.5 6 21.709 +10 12.15 6

1 5 .0 2445704. ( 26.547 1C 15.90 6

1 10 .0 244571.9.5 6 27.393 +10 20.37 6

1 15 .0 2445714.1 L 20.276 .10 25.52 6

1 20 ".0 2445719.9 6 172231 1G 31.30 6

1 29 .0 2445724.5 t 14.2°7 .10 37.66 6

1 30 .0 2445729.5 '6 11.477 410 44.56 6

.

, Table EI-1 (contd)

R.& (APPN, DEC. DELTA DELDOT R ROOT TMAG NMAG 'META BETA MOON

24.700 *11 40.45 10.35 13.90

25.618 .11 45.48.10.39 12.51

26.578 +11 50.08 10.42 10.98

27.653 11 54.23 10.45 9.30

28.834 .11 57.94'10.48 7.50

3,0.1 8 *1 6 10.1jk 5.62

31. 68 2 3. 1 10.51' 3.65

32. 03 12'. 6.17 10.52 1.61

34.

35.

3745

9.85 -10.97

9.82 -10.99

9.79 -11.02

9.76 -11.04

9.73 -11.07

9.69 - 11.09

9.66 -11.11

9.63 *11.14

.0 24.1

. 0 '24.1

.0 24.1

40 24.1

.0. 24.1

.0 24.1

.0 24.1

. 0 24.1

57.9 5.0 153

53.3. 4.7 141

48.9 4.5 82

44.5 4.2 48

404 3.8 58

35.8 3.5 124

31.6 3.2 165

27.5 2.8. 112

23.6. 2.4 50

19.8 2.1 23

16.3 1.7 93

.12 7.93 10.52. -.52 9.60 -11.16 .0 24.1

*12 9.19 10.52 +2.70 '49457'#11419 .0 24 41

.12 9495 10.50 -4.93 9.53 -11.21 .0 24.1

39.210' 10.20 10.49 -7.17

40.877 12 9.96 10.46 -9.42

42.560 *12 9.23 10.43 -11.69

44.250 .12 8.01 10.40 -13.97

45.936 *12 6.32 10.35 -16.24

47.607 #12 4.16 10.30 -18.47

49.253 .12 1.54 10.24#20%65

50.863 *11 58.51 101.18 -22.79

52.428 11 55.05 10.11 "24.87

53.938 +11 51.21 10.04 -26.90

5514j9 *11 46.99 9.96 #28.84

56.741 11 42.43. 9.87 - 30.67

58.013 *11 37.57 9.78 -32.39

59.185 +11 32.43 9.69 -34.00

.245 +11 27.04 9.58 -35.49

1.182 +11 21.45 9.48 .36.84

1.9E3 +11 15.69 9.37 -38.03

2.637.411 9.81 9.26 -39.05

3.133 11 3.87 9.15 -39.89

3.462 .10 57.89. 9.03 -40.55

3.613 410 51.94 8.91 -41.03

3.573 410 46.06 8.79 r41.29

3.334 .10.40.32 8.67 "41.31

2.889 410 34.77 8.56 -41.11

2.229 10 29.48 8.44 #40,68

1.351 +10 24.49 8.32 -40.02

.249 10 19.66 8.21 #39.12

58.919 10 15.66 8.09 - 37.96

57.364 +10 11.94 7.99 -36.55

55.586 *10 8.77 7.88 -34.90

53.591 +10 6.18 7.79 -31.04

51.390 +10 '442 7.69 -30.96

48.992 +10 2.93 7.61 -28.67

46.413 .10 ?.34 7.53 +26.18

43.673 .10 2.50 7.46 -23.52

40.794 +10 3.40 7.39 -20.74

37.003".11 5.07 7.34 #17.87

34.726 10 7.49 7.29 #14.92

31.51'1 .10 10.66 7.25 -11.41

28.431 *10 14.56 7.22 48.90

25.278 410 14.19 7.29 #5.93

22.166 +10 24.48 7.19 #3.03

2.1.125 +10'20.40 7.18 #.25

16.193 .10 36.91 7.1P 2.40

13.36° 410 43.94 7.20 4.91

37

9450 -11.24 .0 24.1 13.4 1.4 154

9.47 .11.26 .0 214 1144 1.2 141 9.44 .1129 .0 24.1 10.9 1.2 83

9.40 .11.31 .0 24.1 12.1 1.3 19

9.37 -11.34 .0 24.0 14.5 1.6 60

9.34 -11.36 .t .t 17.6 1.9 126

9.30 -11.39 .0* 24.0 21.2 2.3 165

9.27 -11.41 .0 24.0 25.0 2.7 112

9.24 11.44 40 24.0 29.0 34 51

9.21 -11.47 .0 23.9 33.1 3:5 24

9.17 -11.49 .0 23.9 37.3 3.8 94'

9.14 -11.52 .0 '23.9 41.6 4.2 155

9.11 -11.55 .0 23.5 45.9 '466 139

9.07 -11.57 .0 23.8 50.3 4.9 81'

9.04 -11.60 .0 . 23.8 54.7 5.2 20

9.01. -11.63 .0 23.8 59.2 5.5 58'

8.97 -11.65 .0 23.7 63.7 5.8 127

8.94 - 11.68 .0 23.7 68.3 6.0 162

8.90 -11.71 .0 23.7 73.0 6.2.109

8.87 -11.74 .0 23.6 77.7 6.3 48

8.84 -11.77 .0 23a4 82.4 6.4 _25

8.80. -11.80 .O 23.5 870 6.5 94

8.77 -11.82 .0 3.5 92.2 6.5 157

8.73 -11.85 .0 2 .5 97.1 6.50135

5470 '"11.85. *O. 23,4 .102.1..

8067 .11.91 .0 23.4 107.2 '6.3 17

8.63 .11.94 ..D 21.4 112.3 6.1 62

8.60'.11.97 .0 23.3 117.4 5.9 130

8.56 -12.00 .0 23.3 122.7 51,6 158

8.53 -12.03 .0 23.2 127.9 5.2 103

8.49 -12.06 .0 23.2 133.2 4.9 41

8.46 .12.09 .0 23.2 138.5 4.4 34'

8.42 -12.12 .0 23.1 143.8. 4.0 102

8.3° -12.15 .0 23.1 149.0 3.5 161

8.35 -12.19 .0 23.1 154.1 3.0 127

1432 12.22 .0. 23.0 158.0 2.4 60

8.28 #1245 .0 23.0 163.0 2.0 )1ir

8.25 412.28. .0 23.0.166.0 I.?

1.21 -12.31 .0 23.0 166.9 1.6 141

8.11 -12.35 .0. 23.0 16544 1.7 149

8.14 -12.38 0 22,9 162.0 .92

8.10 -12.41 .0 22.9 157.6 2.6 31

8.07 -12.45 .0 22.9 152.7 302 46

8.03 #12.48 .0 22.9 147.5 3.8 117

8.00'.12.52 .0 22.9 142.2 4.3 165
Table B-1 (could)

1VR MN DY HR RA. (1450.0) DEC. . RA. (APPN) DEC DELTA DELDOT R 'RDOT TMAG NMIG THETA BETA MOON

It984 2 4 .0 2445734.5 6 9.81! .10 51.9.5 6 10.709 410 51.46 7.21 . 7..22 7.96 612.55 .0 22.4 136.9 4.9 114

1984 2 9 .0 2445739.5 6 6.331 +10 59.76. 6 R.225 +10 59.40 7.24 4.31 7.92 412.58 .0 22.9 131.4 5.4'36

1984 2 14, .6 2445744.5 f .4.043 +11 7.95 6 5..938 +11 7.69 7.27 11.15 7.99 1.2.02 .0 22.9 126.0 5.8 17

14444 2 114 .0 2445749.5 6 1.467 *11 16.43 6 3.8(3 411 16.26 7.30 12.76 7.45 -r2.65.0 22.9 120.7 6.2 $7

1984 2 24 .0 2445754.5 6 .114 411 25.16 6 2.01C +11 25.10 7.34 14.13 7.81 412.59 .0 22.9 115.3 6.6 154

1984 2 29 .0 2445759.5 r 56.493 .11 34.07 6 .391 411 34.09 7.38 15.25 7.78 412,7$ .0 22.° 110.0 .6.4 138,

1484 3 5 .0 2445764.5 19 57.113 *11 43.12 A 59.010 *11 43.20 7.43. 16.10 1.14 -12.76 .0 22.9 104.5". 7.1 80

1984 3 10 .0 2445769.5 " 55.975 11' 52.23 57.874 +11 52.37 7.47 16.69 7.70 -12.90 .0 22.9 99.7 7.3 22

1984 3 15 2445774.5 R 55.091 +12. 1.3.5 5 56.980 +12 1.54 7452 17.00 7.67 -12.93 .0 22.9 94.6 7.4 52

1984 3 20 '4.0 2445779.5 E 54.427 412 10.42 5 56.326 *12 10.64' 7.57 17.06 7.6'3 -12.87 .0 22.9 89.5 7.5 125

1984 3 25 .0 2445794d5 5 E4.008 +12 14.40 5 55.908 +12 19.64 7.67 1.605 7.59, 412.71 .0 22.9 84.6 7.5 lei

1984 3 30 .0 244E769.5 51.A20 +12 28.24 5 55.720 +12 28.5r 7.57 16.58 7.56'-12.95 .0 422.9 79.6 7.5 105,

198 4 4 .0 2445794.5 5,#3.8tE 12 36.90 5 55.757 +12 3715 7.72 15.98 7.52 412.95 .0 22.9 74.9 7.14 47

1984 . 4.

1984 4 914'

.0

.0

2445764.5 5754.10 +12 45.32"

24450:04.5 t 540564 *12 53.46

5

5

56.010 *12 45.56

56.467 4.12 53.69

7.76

/1.01

15612

14.17

7.48, 13.02 .0 22.,9

7.44.-13.04 .0 22.9

70.0

65.3

7.2 22

7.0 90

. 1984 4 19 24458C9.5 4 55621t 13 1.24 5 51.114 *13 1.49 ;7.64 13.02 7.40 -13.10 .0 /2.9 60.9' 6.8 258

1984 4, 24 .0 2445814.5 t 56.044 +13 8.70 5 57.90 413 9.94, '7018 11.70 7.37 413.14 .0 22.9 56.1 6.5 132

19P4 4 29 .0 2345919.5 ". 57.056 413 15.90 .5 58.961 +13 16.01 7.91 15.23 7.33 -13.16- .0 42.9 51.6, .6.2 75

1984 5 4 .6 2445824.5 ' 5'1.225.13 22.60 6 .131 *13 22.66 7.94 8.61 7.29 13.22 .0 22.9 5.4 17

1984 5 9 244"624.5. 4 54.544 *13 28.87 1.051 +13 28.87 7.96 ..6.86 7.25 -13.26 .0 '22.9

,47.2

42.4 5.4 '56

1984 '5 14 oG 2445834.5 A .996 +13 .68 2.906 +13 34.60 7.98 5.02 7.21 13.30 .0j 22.9 38.4. 5.0 124

4984 5 19 .0 .24459.5 4 2.577 413. 3.00. 4.4P6 +13 39.55 7.99 3.10 7.18 -13.34 .01.22.9 34.2 4.5 140

1984 '5 24 .0 2445044.5 k 4.269 13 4.63 6 6.179 13 44.60 8.00 1.09 7.14 -13.49 4 22.9 30.0 14.1 104

1984 5 29 .0 2445849.5,4...5.063, *13 6. 7.974 +13 40.83 8.06 -1.01 7.10 -13.43 -J0 22.9 25.9 3.6 45

1444 6 3 .0 2445054.5 704613 52.92 6 9.850 .13 52.51 7.99 -3.17 7.06 413.47 .0 '22.9 21.9 3.1 24

R .0 2445859.5 6 9.905 *13 56.15 6 11.819 13 55.65 7.98 -5.37 7.02 - 13.51 .0 22.8 19.1 2.6 42

'19 6

1 P4 6

I!, .0 . 2445864.5 A 11.928 +13 58.92

2445884"5 6 14.004 *14 .94

6

6

13.843 +13 54.23

15.920 +14

7.96

7.93

47.59

-9.84

6.98 ...13.56 .0 22.8

6.94 -13.60 .0 22.8

14.6

11..7 2.1. 158

v2.7 13$

1484 6 23 .0 24459.74.5 4 16.120 *14 2.5.0 6 16.037 414 1.72 7.90 412.11 6.90 4.13.65 .0 242.6 9.7 1.4 75

1984 6 28 .0 2445879.5 6 16.266 14 3.49 6 20.1E4 +14 2.60 7.86 -14.39 6.66 ..13.69 .0 22.8 9.4' 1.4 17

1964 7 3 .0 ,2445694.5 A 20.428 14 3.92 6 22.346 414 2.9 7.82 -16.67 6.82 -13.74 .0 22.7 10.4 1.6 '56

_:._1984 7 P '.0 '2445049.5 4 22.594 14 7 6 24.514 414 2 P 7.77 416.92 6.76 413.79 .0 22.7 13.6 42.0 126

;964 7 71984 '.7

13.

1.

.0.a 2445994.5 6 24.749 +14 .08

244s999.5 4 26.884 +14 1.64

6

6

26.671 +14 41.86

28.686 414 .55

7.71

7.65

-21.13

-23.31

6.74 -13.93 .0 22.7

6.70'413.88 .0 22.6

, 160

,20.6

2.5 162

.3.1 105

19P4 7 23 .0 2445'04.5 *I* .06 6 30.907 13 59.67 7.59 -25.45 6.66 -13.92 .0 22.6 24.4 3.6 47

1984 7 26 .0

411r"1.984 2445904.5 91.039 13 57.76 6 32.962+13 56.27 7.5.0 ..21.55 6.62 413.97 .0 22.60' 24.4 4.2 23

1984 6 2 .0 2445514.5 33.030 13 54.95 6 34.955 413 53.37 7.41 429.57 6.55 414.02 .0 22.5 32..5 4.8 45!

1984 K 7 2445919.5 6 34.944 *1351.65 6 36.870 13'49.98 7.33 -31.50 6.54 -14.07 .0 22.5 36.6 5.3 15116

38
Table 11-2. Ephemeris (with PAturbatioila) for Comet Halley at Oue-Day likarvals &um August 8, 1984, to May 4.1987`.

YR MN OY HR I.D. : R.A. (1950.01 DEC. R.A.. (Apinv) DEC. DELTA DELDOT ROOT 1114AG NMAG THETA SETA 1140034

.s 2984 8 8 .0 2445920.5

.:6.35.317 013 5104 6374 43 013 49.25 7.31=31.87 6.53 -14.08 .0 22.5 '37.5 5.4 166'. 1984 8 9 .0 2445921.5 :6 35:685 *13 50.20 .6 37.612 013 48.50 7.29 -32.24 6.53 - 14.09 .0 22.5 38.3 5.5 165;.

1984 2 10 .0 2445922.5 ;6 36.050 443 49.45 6 370917 .13 47.73 7.27 +32.61 6.52 +14.10 .0 22.5 39.2 5,6 156

1,84 8 11 '.10 2445423.5: 6 36.411 *13 48.64 6 '38.33$ +13 46.95 7.24 -32.98 6.51'014.11 .0 22.5 40.0 5.7 145'

(1984 A 12 .0' 2445924.5: 6 36.768 01.3 47.90 6 38.695 *13 46.14 7.23 -33.34 6.50 -14.12 .0' 22.5 40/.8, :5.8 134

1984 8 13 .0 2445925.6i' 6 37.121'013 47.09 6 39.048 +13 45.32 7.24'33.69' 6.49 -14.13 .0 22.5 41..1.'"IF.0123

1984 4 14 .0 2445926.5 6 37.464 *13 46.27 6 39.39E +13 44.49 7.20 +34.05 6.49 .14.14 .0 22.4 42.5 6.1 111

29844, 8 15 .0 2445927 4 6 37.813 *13 45.43 6 39.740 +13 43.63 7.18 +34.40 4.48 "14.15 .0 22.4 43.4 6.2..100

1984 8 16 .0 24345928. 6 38.152 413 44.56 6 40.079 013 42.76 7.16 -34.74 E.47 -14.16 Ott* 22.4 44.2 64 81

1944 8 17 .0 2445929:

!

6 38.487 *13 43.71 6 40.414 *13 41.97 7.14 35.09 6.46 +14:17 .0 22.4 45.1 6.4 47.

1984 8 14 .0 2445930. 6 38.816 *13 42.82 6 40.744 +13'40.97 7.12 +35.42 6.45 6.14.18 '00 22.4 46.0 6.5 65 1984 .8.19 .0 2445951:5 6 34.141 +13 41.92 6 41.069 +13-40.05' 7.10 -35.76 6.44 +14.19 .0 '22.4 46.8 6.6 53, '1904 8 20 .0-1445932:85 6 39.461 .13 41.00 6 41.389 +13 39.22. 7.07 -36.09 6.44 +14;20 .0. 22.4 47.7 A6,7 424

1984 8 21 .0 2445933.5 6.34.77E 013 40.06 6 41.703'013 38.26',.7.05 +36.41 6.43 14.21 .0 22.4 4815 6.8 30

1984 8.22 .0 2445934.5 6 49.085 *13 39.11 6 42.013 +13 37.2Q 703 136.74 6.42 -14.22 4 22.4 49.4 6.9 19, 1984 8 23 00 2445935.5 6 40-;39 *15 38.15 fi 42.317 +13 36.22 7.01 -37.05 6.41 -1$.23 .1 22.4 50.3 7.0 12

1944 8 24 0 1'445936.5 6 40.687 +13'37.17 6 42.615 013 35.22. 1.99 +37.37 6.40 +14.24 .0 22.4 51.1 7.1 17

1984 8 25 .0 2445937.5 6 40.979 *13 36.11 6 42.908 +13 34.22 6.97 +373.67 6.40++14.25 .0 22.3 -5200 7.2 29'

1984 8 26 .0 2445938.5 6 41.265 013 35.16 6 43.194 +13 33.19 6.95 -37.97 6.39 -111.0-...o 22.31152.9. 1.2 42.

1984 8 27 .0 2415939.5 6 *1.546 +13 34.14 6 43.475 013 32.16 6.92 -38.27 6.38 m.14.21 .0 22.31(53.8 7.3 57

1984 A 28 .0 2445940.5 6 41.820 *15 33.10 6 43.744;013 31".11 6.37 -14.28 .0 'A22.3 d4o7 17.4 71

1184 8 29 .0 "'4445941.5 6 42487 013 32.05 6 44.01 .13 30.05 6.e8 +38044 6.36 -14.29 .0 22.3 55.5 7.5 86

1984 A 30 .0 i445942.5 6 42.346 +1330.99 6 44.276 +13 28.97 6.86 +39012 6.35 -14.30 22.3 5604 -7.6 10.0, 084 8 31 ..0 2445943.5 6 42.603,013 29.91 6 44.532 013 27.88 6.83 39.39 '6.35 -14.31 .0 22.3 57.3' 7.7 114

1984 9 1 .0 2445944.5 6 42.850 .13 28,82 6 44.780 013 26.78 6.81 -39.66 6.34 -14.32 .0 22.3 58.2 7.8 128

1984 9 2 .0 2441945.5 6 43.041 *13 27.72 6 45.022 +13 25.67 6.79 +39.92' 6.33 -14.33 tO 22.3 59.1 7.9 141

1984 9 3' .0 249'5946.5 6 43.325 *13 26.61 6 45.255 01.124.55 6.77 +40.17 6.32 +14.14 .0 22.3 60.0 7.5 153

1984 9 4 .0 2445947.5 6 43.551 .13 25.49 6 45.421 013 23.41 6.74 -40.42 6.31 -14.35 .0 22.2 60..9 8.1163

1984 9 5 .0 2445948.5 6 43.770 .13 24.36 6 45.701413 22.27 4.72 - 40.66 6.30 -14.36 .0 22.2 61.8 8.1 166

1984 9 6 .0, 2445944.5 6 43.942 013 23.21 6 45.912 *13 21.11. 6.70 ...40.84 6.30 +14.37'80 22.2 4207 8.2 160

1944 9 r7 .10 2445°50.5 6 44.186 013 22.06' 6 460116 013 19.95 6.67 -41.12 6.29 +14438 .0 22.2 63.6 8o3 150

1984 9 .8 .0 2445451.5 6 44.382 013'20.90 6 46.313 013 18.78 6.65 +41.34 6.28-+14.40 .0 22.2 64.5 8.3 139

1984 9 9 ' .0 2445952.5 6 44.570 013 19.72, 6 46.501 .13 17668 6.62 -41.6 6.27 -14.41 .0 22.2 65.4 40,4 127

1984 9 10 .0 2445453.5 6 44.750 413 16.54 6 161681 013 16.41 6.60 -41.77 6o26 -14.42 .0 22.2 66.3 8e5 126

1984 9 11 '.0 2445954.5 6 44.422 013 17.35 6 46.854 013 15.21 6.58 +41.97 6.25 44.43 .0: 22.2 47.2 8.5 104

1984 '9 12 .0 '2445955.5 6 45.086 013 16.15 6 4 .017 .13 14.01'. 6.55 -42.17 4425 -14.44 .0! 22.2 68.1 8.6 .93

1984 9 13 .0 2445956.5 6 45.241 413 14.95 6 * 172 013 12.79 6.53. 6.24 -r4.45 .0 69.1 8.7. 81

11:4 9 14 .0 2445457.5 6 45.387 413 13!73 .4.'47 319 +13.11.57 6,50 -42.55 6.23 -14.46 .0 -22.1 70.0 80 70'

1974 9 15 .0 2445956.5 6 45.525 *13 12.51 6 47. 57 013 10.34 6.48 -42.73 6.22 -14,47 .0 22.1 70.9, 8.8 58

1984 9.16 .0 2445959.5 6 45.654 443 11.29' 6 *7. 86 +13 9.11 6.45 -42.90 6.21 014.48 .0 2201 -71.8,8.8 47

'19144 9 17 .0 2445960.5 6 45.7474 .)3, 10.05 41 796- *13 7.87 6.43 -43.06 6,20 +14.49..0 .22.1 72.8 8-.9. 35

1984 4 IF .0 2445961.5 6 45.8841413 8.81 6 47 816 +13 6.62 6.40 -43.22 6.20 -14.50 .0 22.1 7301 9.0 2.4 1984 4 19 .0 2445962.5 A 45.485 413 7.57. 6 47 917 +13 5.37' 6.38 -43.37 6.19 +14.51,60 22.1 74.6 9.0 15

1984 9 20 .0 2445963.5' 6 46.07E 013 6.32 6 4 009 413 4.12 6.35 -43.52 6.1.8 -14.52 .0 22.1 75.6 ,9.1 14

1944 9 21 .0 2445964.5 6 46.157 *13 5.06 6'4 8_091 013 2.86 6.33 -43.65 6.17'+14.53 .0 22.1 76.5 9.1 23

1984 4 22 ..0 2445965.5 6 46.224 +13 .3.80 6'48.162.013 1.60 6.30 +43.78 6.16 14.55 .11 22.0 77.5 $.1 sb

1984 9 23 .(1' 2445966.5 646.290 013 2.54 6 48.224 413 .33 6.28 -43.90 6.15 +14.56 .0 22.0 78.4 9.2 49

1984 9 24 /..t 2445967.5 6 46.541 *13 1.27 A 48.275 012 59.06 6.25 -44.01 6.15 +14.57 .0 22.0 79.4 9.2 63

1.984 9 25 ,S.0 2445966.5 46.381 +13 .00 6 48.316 +12 57.79 6.23 -44.11 6.14 +14.58 .0 22.0 80.3 9.3 7d

1984 9 2f/ .a 2445969. 6 46.411 012 58.73 6 48.36 +12 56.52 6.20 +44.21 6.13.+14.59 .0 22.0 81.3 9.3 93

14444 9,27 .0 2445970.5 ty 46.43C .12 57.46 6 48.364 +12 55.24 6.18 - 44,29' 6.12 ...14060 .0 22.0 82.2 9.3 108

.1.9484,......,"44 28.

29

.0

.0

2445971.5

2445972.5

66 461343A

46.1435

441 *12

56.18

54.91

66 48.372 +12 53.97

48.369q.12.52.69

6.15 +44.37'

6.12 "154.43

4.11

6.10

+14.61 .0

°14.62 .0

22.0..

22.0

83.2

84.2

9.4122

9.4 136

,1984 9 30 .0 2445973.5 A 4b1.42r .12,53.63 6 08.115 .12 51.41 6.10 -44.49 6.10 +14.63).44 22.0 85.1 9.4 249

198.4 10 1 .0 2445974.5 h 46.344 *12 52.35 6 48.319 412 50.14 6.07 ."44.54 6.09 .0 21.9 86.1 9.4 160

39 0
'..114 DY

1,904 10 2 ..0. 2445975,5,

1984 10 3 .0 ?4415916.5

1984 10 1' 00 2445%7715

''$98144,01 ' 5 .0 2445974;5'

2984 10 6 2445979.5

1984 10 7 .' .0 2445900.15

29" 10: 8. "; 2.9959P1o5 1984.15 9 .0 2445982:5

19861 20 10 .0 2445983.5

4984 1 0.Th12 .0 2445:984.5

::1981 10 12," C 2445985:P

;984 10 14 .0 2445986.5

'246410 1441..0 244598765

1944_10 15: '.0 2495988:5"

119.4e 30 16 .0 2445989.5

179 '10.17 '180 -2445990.5

1984 10 19 d.14 2445°92.5

1984.'10 18 Y.0 2445951.5

1984 10"2)0 g! 2445993.5

lir** 10 ?1 .0 2445994.5

1984 10-22 0 24459°5.5

1984 10'.23 .0 24459965

1184 10' 24 0 2445957.5

1984 10 0'1'2445952i

1084 10 26 g 2445 4

1004 10 27 .0 2446000.5

1984.10 '28 .0 2446001.5

'1984 40 29 .0, 2446002.5

1984 10 30 .0 2446003.5

2984 HI 31 .0 2446,004.5.

1984 11 1 - .0 2446005.5

1484 11 2. .0 2446006.5

1984 11 3 .0' 2446007.5

if1 ' 4 12446008.5

;984 11, 5 :41.0' 2446004:5

1984 11 . 6 0 2446010.5

190: i 7 .0 2'446011.5

1984'..1 1 8. .0 2446012.5

4184 11 9 .0 24 46013.5

1984 11 10 .0 24460445

1%84 61 14 ".0 ;* 2446015.5

'-1984 11 12 .0 ,'2446016.5.

Ilk, '11 '13 2446017.5

1984' 11 14 .0 2446616.5

1984 11 15 A21480601q.5

1984 11 .16' 4 9 2f460.0.5

11113,4 II IT .0 -2446421.5

984 .0. 4440022,5.

1904 11 20 .0 2446024.5

f244642.1.5

1984 i1 21 .0.0.114602'.!.5

1 984 11 22 0 2446026.5

-.1,984 11 23 2446027.5

'1904 11 24 /.0 2446028.5

19 1 25' .0 ,2446029.5

1984 1 26 .3 244400.0:5

Tag* 84 (Ceiltd)

W.A. ,(1940 In DEC R.A. LAPIN) 111611., '06LTA11202500T 111101T TMAG WAG 11.1ETA BETA J4100N

. 6 464356 +12 51.08 6 48.29210.12 48.86 '6.05 -44.58 .1008 14.66 .0 21.9 87.1 9.8 166 6 46.307 12- 49.81 6 40.243..12 47.59 6.02 44.61 6.07 '44.67 .0 21.;9 88.0 9.5 262 6 46.445 42 4844_ .6 40:182 +12 46.33 6.00 .44:63 6.0644.68 '.0 21.9 89.0. 9.5 252' 6 16.172 2 67.27 48.7104 12 '45.06 .5.97 +44.'65 6.05 -14.69 .0 21.9 90.0 9.5 142 ; 6 46.05 22)4 6.00 6.18.023 +12 43.80 5.94 -44.65, 6.04..14.70 .0 21.9 91.0 9.5 130

6 45.584 .12 44.74 6'176526 12 42.54 5.92 .44.65 6:04' '44.71 .0 21.9 92.0'9.5 A.19

t 4548712' 43.48 6 47.815 +22 41.29 5.89 +4443 6.03. -14.72 .0 21.9 93.0 9:4 707' 45.15c +.12 42.22 6 47.692 12 40.04 5.87..4401 6.00,2, ,0,14:74 .21.8 94.0 9.5. 96' 4; 45.61'9 12 40.9P \ ¢ 47.557 12 39.79 5.84 :,114.58 671* -14.15 .0 21.8 95.0 9.5 84

A67:4/0 +.12 39.4 3 '0"-47.40;6 12 37.56 5.8Z ".4.54 5 .00 414.76 .0 21.8 , 96.0 9.5 7.3 45.309.1 12 -384.492 4k.94.61-+.12 3,16.32 5.79 +44.41' 5.91 .14.77 .0 21.8 "7.0 9+5 61- 6 45.133 '44.2 37.26 6 41.071 +12,35.113 5:7-6-+44:4 5.944.44718- .0 22.8 ; 98.0 4.5 50 %. 6 44604E .12 36.03 6' 46.883 12.3348 5.74%.44:36 5.98 -14.79 .0 21.8 '9941.9.5 38 6 44.743 lk 34.82 6 46.04 .12 32.67 5.71 .44.24 5.47 -14.80

.6 44.527 +12.33.61 6 46.466 412 31.4 5.69 .44:20 5.96 -14.82

417 .0

214

1104:11 71; 6 44.297 +22 32.40 611.236 +12 30.28 5.66 '.44.144. 1415 44.83 .0 21.7 102.1 9.4 14 6,4414.053 .12 31.21 6 .593 +12 29.10: 5.64 .L43.:9, 5:91 +14.84 .0 21.7 103.1 9.4 20 6 43.79,5 12 4 .735 .12 27.93 5.61 .43. 7 5.93 .14.85 .0' 22.7 104.2 9.4 "31 6 43:513 2 1895 6 45.463..12 26;.77 5.59 .43415 5.43 .14.86 .0 21'67 1.05.2 9.3 44 43.236 +12.27.69 6 45.177 .12 25.62 5.56 .43.61 ;8142....1487 0 2147 10603 9.3 58. 6 42.534 +12 26.54 6 .14.875: .12 24.48 5.54, -43.4e- 5.91 .44.89 .0 21:7 107.3 9.3 73

6 421.61 8 +12 25.40 '; 6' 44.559. .12 23,35 5.51 .13.29 5.90 -14.90 .0 21.7 108.4 .9.2 -87' 6 42.287 12 "24.271 6 44228 "4.12 22.24 '5.48 .4 43.12 ;414.91 7.0 21.6 109.4 9.2 102

'6 41,9411..12 23.15 6 43.863 412 21'4.14 5.46 .112.94 *Os +14.92 .0 21.6 110.15 9.1 117 6 41.57'9'42 22.05 643.522 .12 20.05 0144 7...42'74 '5'7 .14.93 .0 21.6 111.5 9.1 131 6 42.203 +12 20.96 643.146 412 1498 5.41 -42.34 .8 -14.95 .0 21.8 112.6 9.4 144

6 40.811_ +12 19.89. 6 42.754' 22 17.93 5.39 «42.31 .86' 14.96 .0 21.6 113.7 11:9 156 6 40.404 +1' 18.8.3 ... 6 2.348 +12 16.89 5.36..42.08 .85.4407 .0 21.6 114.8 8.9' 164

6 39.982' .12 17.79 6 41.926 412 15.87 5.34 -41.84 5.84 - 14.98 .0 21.6 115.9 9.18 263 6 39.544 +12 I601 41:498 12 14.86 .5:31 - 41.59' 5083-.2409 .0 21.6 116.9 8.7 154

6 39.090 +12 15.761i. je 41..035 .12 13.88. 5.29 +41036, 5.82 .15.01 .0 21.5 118.0' 8.7.143 4 '6 314.62141 2 14.72' 6 40066 ,+12. 12.91 5.27 -41.06 2e8t ,15602 .00 21.5 119.1 8.6 101' 6 38.13f .12 13.79 90,411t2-040 11.96 5.24 .40017.5;80 - 15.03 .0 21.5 120.2 8.5 120 6 37.636 +12 12.84 6 39:582 .12 11.03 5.22 .40:40 5.80 +15.04 .0 21.5 121.3 8.4. 08

6 3,7.120 .12 11.41 6 39.966 +12 10.12 5.20 ' .5:11+1 5.05 .0 21.5 122.4 8.3. 97

. 6. 3f .588. +12 10.99 6 38.534 412 9.23 5.17 .39.00 5.4.79" +15.07 .0 21.5 123.5 8.2 85

6 30:04 0 '1,2 10.09 37.917'442 8.36 5.15 +3905r :15.71.45.08 '.0 21.5 1241.6 8.1 74 6 31.477 42 '9.22 6 37.42.4 +12 7.51 5.13' +31i20 5.76 -15.09 .0 21.5 125.7 8.0 62

6 34.897 +12 8.36 .0 36.1445 .12 6.68 5.10 -38185 pe 5.75 -15.10 .0 21.4 12648 7.9 e06 6 344302 .12.7.53 6 36.250 22 :5:74.15.12 .0 21.4 127.9 7.8 39 6 33.691 2 8.72. 6 '35.634 +12 506-18.13 5.73..15.13 .0 21.4 129.0 7.7 27

6 33.064 412 5.93 6 35.013 '22 4.33 5, ... 37,15 -15.r3 -15.14 :() 21.4 130.1 7.6 10 6 32.421 42 5.46' 6 34.370 +12 3:65 5.02 .37.36 5.1i12 -15.15 .0 21.4 .131.3 7.5 24 6 31.762 12 4.4.2 ,6 33.142 2.88 f .409 .36:96: 54411 -15.17 .0 21.4 132.4 7.4 24

6 31.088 11,12 3,69' "16 33.038 .12 2.0; .4.97 -36.5 5.7b - 15.18. .0 21.5 133.5 7.2 31

6%30.3°94 *12 3.00 6 Sgi.340.1/ f.53 '%.95^.36.13f 15.69 - 15.19 .0 21.3 134.6 7.1 44 6+.29.692 42 202 6 32V643' .12 .89 4.93 .35.69 ,.5.68 '.15.20 .0 21.3 135.8 7.0 57

6 28.970:42 ,1.68 1 6 30.9'22'442 .28 4:91 .35.25'. 5.67 - 15.22 00 21.3 236.9 6.8 71

.64°.4233 '42 1.05 ' 30.19541 59.69 ,489 - 34.80' 5.66 -15.23 .0 21.3 138.1 6.7 '85

f-; 7.48)**12 .46 6 29.433 +11 5°.13 8681 .34.33 5.66 .15.24 .0 21.3 239.2 6.6 100.

6 2F .14f 41 59.88 6 280666 +11 50.60 4.85'.33.85 4.65 .15.25 .0 21.3 140.3 6.4 124 b 25.530 44.59.34 6 27.883 13. 58.09 4.83.,.33.37 5.64 -15.27 .0 21.3 141.5 6i3 120

'6, 25.132 +11 ,5982. 6 27.095 .11 57.61 4.81 .32.87 5.63 -15.28 Z1.3 142.6 6.2 142

6. 24314 s11 k5833 6 :26.273 '61.1 57.16 4.79 -32.36 5.62 +15.29 .0 213 143.8 6.0 155 23:492 tY.57.87 ,6 25.446 .11 56.74 4.78 -31.84 5.61 15,31 .0 21 .2 144.9 5.8 164

22:650 411. 57044 6 24.608.411 56.35 4.76 :31.32 5.60 15.32 .0 21.2 146.0 5.4 163

401`)
YR MN DY HR

1954 11 27 .0 .2446031.5

1984 11 28 .0 2446032.5

1934 11 29 .0 2446033.5

1984 11 30 .0 24460 4.5

1984

'1984

12° 12

12

1.0 'fo02446"

244 036.5 41

1934 12 3 .0 2446037.5

1984 12 4 .0 2446030.5

1584 12 5 .0 2446039.5

1934. 12 6 .0 2446040.5

TA hi 13-2 (contch '

R.A. (1860.0) R.A. (APPN) DEC. DELTA DELHOT R 'ROM 751456324,AWTHETA BETA 5590,54-

.6 21.794 .11 57.03 6 23.749 *15.90 4.74 -30.78.

6 20.92! 11 56.66 6 22.879 +11 55.65' 4.72 -30.24

6 20.059 11 56.31 6 21.996 .11 55.35 4.70 -29.69

6 14.142 *11 55.99 6 21.0Q9 +11 55.00 4.69 -29.12

6 114.251 111 55.10 6 20.188 +11 54.83 4.67 -28.56

h 17.30P #11 65.45 6 15.265 4011 54.62 4.65 -27.98

8 16.371 .11 55.22 -4 6 18.32.. +11 54.44 4.64 +27.40.

615.423,411 55.02 6 17.381 +11 54.29 .4.62 -26.81

6)4.462 11 54.96 6 16.420 411 54.17 4.61 +26:21

6 63.410 +11 54.72. 6 15.448411 54.08 4.59 -25.61

A!.01_12_ .0.2,?.404I.R5.___E.,.12.5 6 *11-54.46---644.4-65 4.4/444-02-.

1984 12 P. .0 2446042.5 A 11.511 11 54.54 6 13.470'441 54.00

1984 12 49 4984 12 10

1984 1211

4984 12 12

19P4 12 13

.0 2446043.5 6 10.505 +11 54.50 6 12.465 +11 54.00

.0 2446044.5 6 9.490 +11 54.48 6 11,450 +11 54.04

.0 2446045.5 6' P.464 #11 54.50 6 10.425 *11 54.11

. 0 2446046.5 6 7.428 11 54.55. 6 9.390 +11 54.21

. 0 2446047.5 6 6.384 11 54.63 6 6.345 11,11 54.35

1984 12 14 .0

1954 12 15 .0

1984 12 16 ,.0

19114412 17 .0

1984 22 18 .0

1984 12 19 .0

1.984 12 20 '440 1984 12 21 4.0

4954 12 22 .0

198t612 23 .0

19P0512 24 .0

1904 12 25 .0

1984 12 26 .0

1984 12 27 .0

1484 12 2P .0

1984 12 29 .0

1984 12 30 . .0

1984 12 11 .0

1985. 1 1 60

2446048.5 6 '5.350 .11 04.75

244604°4.5 b *#.264 #11 54.59

24_46050.5 6 3.195 11 55.07

2446051.5 6 2.122 +11 55.28

2446052.5 6 1.03c .11 55.52

2446053.5 5 55.94P 11 55.80.

2446054.5 5h.852 +11 56.10

2446055.5 5,57.751 *11 56.44

2446056.5 5 56.644 11 56.92"

24460574.5 5 55.533 +11 57.22

2446058.5 5 54.410 +11 57.66

2446059:5 5 53.301 .111 58.13

21.46063.5 5 52.190 +11 58.64

2446061.5 5 51.05P 411 59.17

2446062.5.'5 49.934 11 59.74

2446063.5 5 *8.605 *12 .34

2446064.5 5 7.683 .12 .98

2446065.5 5 46.558 *12 . 1.65

2446066.5 5 45.435 +1? 2.35

6 74.292 +11 54.51

6 6.231 *1.U.54.71

6s 5.152 *11 54.94

6 4,085 *11 55.21

6 3.002 611 55.50

6 1.912 +11 55.86,

6 .816,+11)56.19

5 59.115 *1056.59

5 55608 11 57.01

5 57.498 +11 57.47

5 56.384 .11 57.97

5 55.266 #11 58.50

5 54.146 +11 59.56

5 53.024 *11 54:65

4.56. 4-0 4.56 -24.38

4.55 -23.76

4.54 -23.13

4.52 -22.50

4.51 +21.86

4.50 021.22

4.49 +20:57

4.47 +19:91

4.46 -19.26

4.45 +18.60

4.44 +17.93.

4.43 +17.26

4.42 16.59

44.44015.92

4.40 +15.25

4.39 -14.57

4.39 -13.89

4.38 -13.22

4.37 +12.54

4.36 -11.87

5 51.900 #12 .28 4.36 °11.20

5'50.775 +12 .94' 4.35 -10.53

5 49.650 12 1.63 4.34 -9.86

5 45.524 412 2.35 41.39.20

5 47.400 12 3.11 4. 3 +8.54

1985 1 .2 .0 244606245 5 44.310 +12 3.08 5 46.276 +12 3.89 4.337.88

1985 1 3' .0 244608K.5 5 43.146 .12 3.84 5 45.155 +12 4.71 4.32 -7.23

1985 1 4 40 2446#6°.5 5 42.068 *12 4.64 5 44.036 +12 5.57 4.32 -6.59

1985 1 5 .0 2446070.5 ' 40.952 *12 5.47, S 42.91° 12 6.45' 4.32 -5.94

1985 1 6 .0 2446071.5 5 -.574830 +12 6'.33,4* 5 41.806 #12 1.31 4.31 .5.30

1945 f1 7 .0 2446072.5 5 39.725 #12 7.22 5 40.697 *12 P.31 4.31 +4467

1995 1 P .0 24%607341 5 37.624 +12 8.15 5 3;65°2 12 9.29 4.31 -4.05

1985 1 9 .0 2446074.5 !8.524 .12 9.10 .5 ie2 +12 10.30 4.31 03.42

1935 1 10 .0 2446075.5 5 35.42c .1; 10.04 5 37.398 1 11.35 4.30 -2.81

1985 1 11 .0 2446076.5 5.34.340 +22 11.10 5 36.3011- *12,12.42 4.30 -2.20

1985 1 12 0' 2446077.-5 5 33.25P *22 12.15, 5 35.227 +12 13.52 4.30 -1.60

1985 1 13 .0 '2446078.5 h 32.102 +12 13.25 5 34.151 12 14.66 4.30 51.00

1945 1 14 .0 244607°.5 5 31.114 +12 14.34 5 35.083 +12 15:02 4.30 541

1985. 1 15 .0 2446050.5 5 501.0.54 *12 15.45 5 32.023 +12 17.01 4.30 ' .17

1985 1 16 .0 24460E1.5 5 29.00, +12 16.66 5 30.971 *12 18.24 4.30 .74

1°35 1 17 .0 2446002.5 5 27.955 +12 17.66 5 29.928 +12 19.49 4.30 1.30

1985 1 30 .0 2446083.5 5 26.°25 12 194.10 5 219.895 12 20.76 4.30 1.86

1985. 1 19

1985 1 20

1985 1 21

4

e t 2446084.5 5 25.902 +1

.0 2446085.5 r 24.888

'24460'5.5 5 23.655

20.36 ,5 27.871 12 22.10 4.30 2.40

2 21.66 5 26.858 *12.23.44 4.31 2.94

2 22.95 5 2544855 +12 24.142 4.31 3.47

5.59 -15.33 .0 21.2 147.2

5.59'915.34 .0 21.2 148.3

5.58 -15.36 .0 21.2 149.5

5.57' -15.37 .0 21.2 158.6

5.56 - 15.38 .0 21.2 151.7

5.55 215.40 ..0 21.2 152.8

5.54 -15.41 .0 21.1 153.9

5.53 -15.42 .0 21.1 155.1

5.52.+15044 .0 21.1 156.2

5.51.+15.45 .0 21.1 157.2

5.5 154

5.3 1'42

5.2.131

'5.0 3,19

.4.8 107

4.7 96

4.5 84

4.3' 72

4.1 60

4.0 49

usit_,11.15x74_21.1_158.3 5.8 37

5.50 -15.48 17.0 21.1 15943' 3.6' 26

5.49 -15.49 17.0'21.1 160.4 3.5 17

5.48 +15.50 17.0 21.1 161.4 3.3* 15

.5.47 -15.52 16.9 21.1 162.4 3.1 22

5.46 - 15.53 16.9 21.1 163.3 3.0 34

5.45 -15.54 16.9 21.0 1694 2.8 47

5.44 -15.56 16.9 21.0 165.0 2.7 60

5.43 +15.57 16.9 21.0 165.8 2.5 74

5.42+15,59 16.9 21.0 164.5 g.4 he

5.42 -15.60 16.9 21.0 467.1 2.3 102

5.41 +15.6416.8 21.0 16'47 2.2 116

5.40 -15.63 16.8 21.0 168.1 2.2.130

5.39 -15.64 16.8 21.0 18.3 2.1 143'

5.38 +15.65 16.8 21.0 16844 '241 156'

5.37 +15.67 16.8 21:0 168.5 2.1 164

5;36 +15.68'16.8 21.0 168.3 2.1 160

5.35 +15.70 6.8 21.0 168.1 2.2 153

5.44 -15.71 6.8 20.9 167.7 2.3 141 1,

5.33 15.72 1 .4 20.9 167.3 2.4 129(

5.32 -15.74 ; .7 20.9 166.5 2.5 117

5:02 +15.75 1 .7 20.9 165.8 2.6 104

5.31 -15477 16.7 20.9 165.0 24.1 93

5.30 -15.78 16.7 20.3 164.2,"2.9' 81

5.29 -15.80 16.7 20.0.163.3 3.1 69

5.28 -15.81 16.7 20.9 162.3 3.2-4;57

5.27 -15.82 16.7 20.9 161.3 3.4 ..415-

5.26 -15.84 16.7 20.9 160.3 3.6 34

5.25 15.85 16.6 20.9 159.2 3.8 23

5.24 -15.87 16.6 20.9 158.1 4.0 15

5.23 - 15.88 16.6 20.4 157.0 4.2 15--

5.22 20.9 155.9 4.4 24

5.22

5.21

5.20

5.19

5:18

5.17

5.16

5.15

5.14

5.13

5.12

641

5.10

5.09

+15.50 16.6

-15.91 16.6

+15.94 16.6

-15.94 16.6

+15.96 16.6

+15697 16.6

+15.96 16.6

+16.00 16.5

-16.01 16.5

-16.03 16.5

-16.04 15.5

+16.06 16.5

-16.01 16.5

-16.09 16.5

+16.11 16.5

20.9 154.9 4.6 37

20.9 153.6 4.8' 50

20.8 152.5 5.0 64.

20.8 151.3 5.2 78

20.8 150.1 5.4 92

20.8 149.0 5.6 106

20.8 147.8 5.8 120

20.8 146.6 6.0 133

20.8 145.4 6.2 147

20.8 144.2 6.4 159'

20.8 143.60 6.6 166

20.8 141.8 6.8 162

20.8 140.6 7.0 152

20.8 139.4 7.2 149
4 Table B-2 (cook') t.. YR MN DV HR ID. R.A. 11850.0) DEC. (APPNOIDEC. DELTA

1985 1 22 .0 24460b1.5 5 22.693 *12 24.34 5 24.863 12 26.22 4.31 3. '8

1985 1 23 .0 2446088.5 5 21.913 112 25.75 5 23.883 12 27.66. 4.31 4.48;

1985 I 24 .0 2446004.5 5 20.945 *12 27.14 5 22.915 12 29.12 4.31 4.98

1985 1 25 .0 2446090.5 5 19.189 *12 28.59 5 21.959 *12 30.62 4.32 5.46

1985 1 26 .0 2046091.5 5 19.045 12 30.06 5 21.015 *12 32.14 -4.52 5.93

1985 1 27 .0 2446092.5. 5 ie.tts 12 31.56 5 20.085 *12 33.69 4.32 6.30

1985 I 2P .0 2446093.5 5.17.190 +12 33.09 549.168 12 35.26( 4.33 6.83

1985 1 29 .0 2446094.5 5 16.294 *12 34.65 5 18.264 #12 36.87 4.33 7.26

1985 1 30 .0 2446095.5 5 15.405 *12 36.24 5 17.375 *12 38.50 4.34 7.68

1985_1 31 .0 244'6096.5 5 14.529 12 37.86 5 16.499 *12 40.16 4.34 8.09

1985 2 .0, 2446047.5 S 13.669 12 39.50 5 1506311 12 41.84 4:35 ,:8.49

1985 2 2 .0 1446098.5 5 12.822 *12.41.1* S 14,792 *12 43,56 4.35 .11.87

1985 2 3 .0 2446094.5 5 11.990 *12 *2.87 5 13.960 *12 45.29 46.36 9.24

1985 2 4 .0 2446100.5 5 111414 +12 44.54 5 13.144 12 47.06 4.34 9.60

1985 2 5 .0 2446101.5 5 10.372 .12 46.34 5 12.344 012 48.85. 11.3.7 9.95

'1985 2 6 .0 2146102.5 5 9.586 *17 40.12 5(11.557 *12 50.66 4.37 '.10.28

14851 2 7 .0 2446103.5 5 9.816 *12 49.91 5 10.797 .12 52..50 4.38 10.61

1985 2 8 .0 2446104.5 5 9.061 *12.51.74 5 10.032 012 54.36 4.39 10.92

1985, 2 9' .0 2446105.5 5 7.323 12 53.51 5 9.293 *12 56.25 4.39 : 11.22

1985 2 10 .0 2446106.5 5 6.600 12 55.47 5 8.571 4142 58.16 4.09 11.51

1985 2 11 .0 2446107.5 5 5.094 12 57.36 5 7.664 +13 .09 4.41 11.78

1985 2 12 .0 2446108.5 5- 5.204 *12 59.29 5 1'6174 13 2.05 4.41 12.04

1985 2 13 .0 2446109.5 5 8453,51.13 1.24 5',6.50/ 13 4.03 4.42 12.29

1985. 2 14 .0 246110.5 5 5.873,413 3.21 5 15.844 013 6.03 4.43 12.53

1985 2 15 .0 2446111.5 -3.233':13 5.20 5 5.803 15 8.06 4.43 12.76

1985 2 16 .0 2446112.5 5' 2.609. 11 7.22 5 4.580 .13 10.11 4.44 12.91

1985 2 17 .0 2446113.5 5 2.002 +11 9.26 5 3.973.415 12.18 4.45 13.17

1985 2 18 .0 2446114.5 5 1.412 *13 11.32 5 3.383 *13 14.27 4.46 15.45

1985 2 19 .0 2446115.5 5 .844 13 13.41 5 2.811 13 16.38 4.46 13.53

1985 2 20 .0 2446116.5 5 .285 +15 15.51 5 2.255 +13 18.52 4.47 13.68

1903 2 21 .0 2446117.5 4 59.744 *13 17.64 5 1.716 13 20.67 4.48 13.83

1985 2 22 .0 2446118.5 4 59.222 *13 19.79 5 1.194 *13 22,84 4.49 13096

085 '2 23 .0 2446119.5 4 58.717 13 21.95 5 .689 45 25.04 4.50 14.08

1985 2 24 .0 ,2446120.5 -4 58.229 .13 24.14 5 .201 415 27.25 4:50 14.19

1985 2 25 .0 2446121.5 4 57.756' ..13 26.34 4 59.730 *13'29.47. 4.51 14.29

1985 2 26 .0 2446122.5 4 57.304 11 28.57 4 59.275'413 31.72 4.52 14.37

1985 2 27 .0 2446123.5 4 56.667 .13 30.01 4 58.838 *13 33.98 4.53 14.44'

1985 2 29 6..0 2446124.5 4 56.446 13 33.07 4 51.112.8 13 36.26 4.54 14.50

19.85 3 1 .0 2446125.5 4 56.043 +13 35.35 4 587514 +13 38.56 4.55 14.54

-1905 3 2 .0 2446126:5 4.55.656 13 37064 4 57.628 *13 40.87 4.55' 14.58

1985 3 3 .0 2446127..5 4.55.285 *13 39.95 4 51.257 .13 43.20 4.56 14.60

1905 '3 4 .0 247120.5, '4 54.931 13 42.24 4 56.903 *13 45.55 4.57 14.61

1985 3 5 .0 24 129.5 4 54.541 13 44.62 4 56.566 *13 47.90 .4.58 14.61

2985 3 6 .0 2446130.5/ 4 54.272 .13 46.98 4 56.245 *13 50.28 4.59 14.60

1985 3 7 .0 2440131.5 4 53.967 .13 49.35 4 55.940 413 52.66 4.60 14.58

1985 3 A .0 '2446132.5 4 53.678 23 51.73 4.55.651 +1355.06 4:60 '14.15

1985' 3. 9 .0 2446133.5 4 53.404 *13 54.13 4 55.377 *13 57.47 4.61 14.51

1985 3 10 .0 2446134.5 4 53.147 *13 56.54 4 55.120 *13 59.89 .4.62 14.46.

1985 3 kl .0 2446135.5 4 52.90E .13 58.96 4 54.874 +14 2.33 4.63 14.40

1985 3 12 .0 2446116.5 4 52.68C .14 1.40 4 54.653 +14 4.77 4.64 14.33

1985 3 13 .0 2446137.5 4 52.44Ft '14 1.840. 4 54.443 14 7.23 4.65 14.25.

1905. 3 14 .0 2446138.5 4 52.275, 24 6.30 4 54.249 614 9.70 4065 14.16

1985 3 15 GT.. 2446154.5 4,52.096 *14 d.77 4 54.070 .44 12.18 .4.66 14.06

1985 S 16 2446140.5 4 51.432 14 11.26 4 54.406 +14. 14.67 4.67 13.95

1985 3 17 .0 2446141.5 4 51.783 14 19.15 4' 53.758 +14 17.17 4.68 13.82

1985 3 10 .0 2446242.5 4 51.649 *14 16.25 4 53.624 14 19.68 4.69 13.69

RDOT TMAG NMAG THETA BETA MOON

5.09 *A.1216.5 20.8 138.2 7:4 127

5.08 - 16.1416.5 20.8 137.0 7.6 114

5.07 - 16.15 16.5 28.8 135.8 708;102

5.06 *16.17 26.5 20.8 3734.6 8.0 90

5.05 -16.18 16.5 20.8 133.4 8.1 78

5.04 -16.20 16.4 20.8-132.2 8.3 66

','5.03 - 16.21 16.4 20.8 151.0 8.5 54

5.02 #16.23 16.4 20.8 129.8 11./ 43

5.01 -16.24 16.4 20.8 128.6 8.8 31'.

5.08 *16426 16.4 20.8'127.4 ,60 21

4.99 116.28 16.4 20.8 226.2 -9.2 13

4.98 -16.29 16.4 20.8 125.0 9.3 141

4.91 -16.31 16.4 20.8 123.9 9.5° 24

4.96 *16.32.16.4 20.8 122.7 .9.6 37

4.95 *16.34 16.4.20.8 12105. 9.8 50

4.04 .4663616.4 20.8 120.3 9.9 65

4,94 *16.3716.4 20.8 119.2 10.1' 79

4.93' -16.39 16.4 20.8 218.9. 10.2 93

'4.92 - 16.40 16.4i20.8 .114.5" 10.3 108

4.91 -16.42 16.4 20.8'1150 10.4 122'

4.90 "16.44 1603 20.8 114.5 10.6 236

4.89 16.45 16.3 20.8 113.4-10.7 150

4.88 16.47 16.3 20.8 112.2 10.8 262

4.87 #16.49 16.3 20.8 111.1 100 168.

'4.86 -16.50 1643 20.8'189.9 11.0 162

4.85 016.5216.3 20.8 108.8 11,61 150

4.84 -16.54 164'20.8 107.6 11.2 130

4.83 .16.5516.3.20.8 126.5 11.3 326-

402 *16.57 16.3 20.8 105.4 11.4 113

4.81 16.59 16.3 20.8 104.3 11.5 101.

4.80 *16.60'16.3 20.8 10301 11.6 89

4.79. - 16.6216.3 20.1 102.0 11.6 77

'4.78 "16.64 16.3 2008.100.9 11.7 65'

4.77 -16.65 16.3 2068, 99.8 11.8' 53

4.76 -16.67 16.3 20.8 .98.7 11.9 42 ,)

4.75 -16.69 16.3 20.8 97.4 1109. 31

4.74 *16.70 16.3 20.8 96.5 12.0 .20,

4.73 16.7216.2 20.8 95.4 12.0 12

4.73'.*

4

6.7416.2 20.8 94.3 12.11 13

4.72 4676 1652 -20.8 93.3 12.1 23---

4.71 *16.7746.2 20.8 92.2 12.2 35'

4.70 - 16.7916.2 20.8 91.1 12.2 45

4.69 -16,81 16.2 20.8 90.1 12.2 62

4.68. *16.83 16.2 20.8 89.0,12.2 76

-4.67 *16.8416,2 20.8 87.9 '12.3 ' 90

4.66 *16.8616.2,20.8 8609 12.3 105

4.0 *16.8016.220.8 05.8 12.3 120

.61 *16.90 16.2 20.8 84.8 12.3 135

4.63 *16.921602 2.0.8 83:7 12.3 149.

4.62 -16.93 16.2 20.8 82.7 12.3 162

4.61 *16.9516.2 20.8 81.7 1263 169

4.60 *16.9716.2 20.8 80.6 12.3 163

4.59 16.9916.1 20.8 79.6 12.3 151

4.58 -17.01 16.2 tta 78.6 12.3 139

4.57 -17.02 16.1 20.1 77.6 12.3 127

4.56 *17.0416.1,20.7 76. 12.3 17,4
t

. Table (cantd)

YR NON nv

Tt

IR R.A. (1950.0) DEC. R.A. (ANN) DEC. DELTA. DEMENT R ROOT 114AG :WAG 'THETA BETA ,NBN3IN

4 1985. 3 19 .0 2446143.5 4 51.530 .14 18.76' 4 53.505 .14 22.19 4.69 13.55 4.55 -17.06 16.1 20.7. 75.6 1442 102

#.1905 3 20 .0 2446144.5 4 11.426 .14 21.28 4 53.401 +14. 24.72 400' 13.40. 4.54 -17.08 16.1 20.7 74.5 12.2. 90

1985 3 21 .0 2446145.5 4 51.336 14 23.40 4, 53.312 3,4 27.25 4.71 13.24 4453 .17.10 16.1 20.7 73.5 12.210 7$'

1985 1 22 .0 2446146.5 4 51.261 +14 26.34 4 '53.237 +14 29.79 4.72: 13.0A 4.52 +17012.16.1,20.7 .72.5 141a 67.

1985 3 23 .0 2446147.5 4 51.2047414 28.88 4:53.176 '14 37.13 ...4o13 12.89 4.51 +17.14 16.1 20.7 7146 12:174'15

1985 3 24 .0 42446148.5 4 51..154 4.14 31.43 4:53.130 +14 34.88 4.43 12.70 4.50 - 17.15 16.1.20.7 70.6 12.1 44

1985 3 25 00° 2446149.5 4 51.121 .14 33.99 1 53.098 14 37.41 4.74 12.'60 ;4.49 -17.17 16.1 20.7 t9.6j2.0 32

1985 3 26 .0 2444190.5 4 51.102 14 36.5* 4 53.079 14 40.00 4.73 2.30 4.48 -17.19 16.1,204* 68.6 11.0 210'

2985 3 27 .0 2446151.5 4 51.897 ^14 39,11 53.075 #14 42.57 4.75 12.00 4447 '.+11.4 1641:2047 67.6 11.9 12

1985 3 28 .0 2446152.5 4 51.106 .24 41.69 4. 53.021-14 45.14 4.75 .11.86 44442,17,41 AC,140,1". 46.6 14.9 40.

1985 3 29 .0 2446151.5 4 516127 +14 44.26 4 53.106 +14 41.71 4.77 '11.63. 4.45 -..1.29. 16.1. 20

' 7 4 65.7 P1.8 24

' 1985 a 30. .0 74463154.5 4 51.162_014 46.8* ,4 53.141 14 50.29 4.77 11.390 4.44 +11.27 16.1 20.7 64.7. 41.7 31

1985 3 31 .0 244615561 4 51,211 .0.14 49.42 4 53.190. +14 4.18 11.1a 4.43 -.47.29 16.0 20.7' $3.7 '11.1 .43'

1985 4 1 .0 2446156;5 4 511.271 +14 52400 "4 53.211 '4'14 55.445 4.7.9 10.89 4.42..017.31 16.0 20.7 .62.06,4106

1985 4 2 .0 2446157.5 ,4 51e345 .14 54059' 4.53.37S it 58.04-'4.19 10.63 4.41 -17.33 16.0.20.7 61.841.5 70'

1985 4 S . .0 2446158.5 C51.431 .44 57.18 4'53.41"1 415 .62 4100 '1046 '4.40 '!..4,7.35 16.0 20.7 60..9 11.4 84

1485 4 4 .0 24.46159.5 4 '51.585+414'698/7 4 53.510,415 3.21. 4.01 10.09 *4.39:...17.37-16.0 20.1 59.9 11.4 99

1985 4 5 .0 1446160.5 ' 51.64C .15 2.36', 4 53.671..15 5.79 401, 4.38..47.30..16.0 20.7 59.0 11.3 114

1985 4 b .0 24481E1tA 4 51.782,+15 4.95' 4 53.744' 15 8.38 4.82 . 9.55' 4.31 ..11.40 1140 20.7 58.0 11.2 129

1985 4 7 aQ 2446162.5. 4 51.149f 415 1.64 4 53.879 15 10.96- .82 9.24 4.36 - 11.42 16.0. 204 57.1114 143

1985 4 8 .0 ' 2446163.5 4 52.043'41110.1A 4 51.025, 415 13.55 445' 8.174 4.35 -17.44 16.0 20.7 56.2 11.0 157

1985 4 9 .b 74,40,164,4 4 52.201 415 12.13 4 54.184 #15 16413 4.81 8.64 4.34 -17.46 16.0 20.7 55.2 10.9'169.

1985 4 10. '1%0 2446165.5 4 52.370'415 15.32 4 54.353 .15 1.8.71 4.8,4 8:33. 4.33 -11.48 16.0,20.7 54.3 104 167

1955 4 11 .0 2446166.5 '4 524551 +15.17.91 * 54.535 .15 21.29 4.04 '8:01 4.32.+17.50 15.9 20.7 53.4110.7 155

2106, 4 12 .0 2446167.5 4 52./43415 20.50 4 54.727 #15 23.87 4.65 .7.69. .31 -17.52 15.9 20.1. 52.5 10.6443

,f985 4 13 .0 244668.5 4 52.9459+15 23.08 4 54.931 #15 26.45 4.85 7.36 4.30 .41.54 15.9 20.1 5145 104 130

2985 4 14 .0 2446169.5 1 53.159 015 25.67 ' 4 55.145 15 29.02 4.86 7.03 4.29 ...14.16 15.9 20.7 50.6 10.4 110

4985 4,15 .0 2446170.5 4 53.364 .15 29.25 4 +15 31.60 4.86 6,69 4.28 17.50 15.9 204 49.7 10.3 106

19.85 4 16' .0. 2446171.5 4 53.61° +15 30.82 4 5 06.415'34.16 .486 6.34' 447 17.6%. 15.9200 48.8 10.2, 94. 1385 14 17 14 2446172.5 4 53.2165-015 33.40' 4 55 2 .15 36473' 4.87 '5.99.%4.26 -1.7.6V. 15.9 20.7 47.9 10.1 42

'y1985 4 19: .0 24461'73.5 4 54.121,0.15 35.0 4 56.108 +15 39.28 4.67 405.63 4.25 -17.65 15.9 20.7 47.0 10.0' 70

1985 4 19 ".c," 24461'14.5 4 54.34r t45 38.54 4 56.375 +15 41.84 4.87' 6.27 -4.24..17.67 15.9 20.7 46.1 9.8 59

2985 4 20 .0' 244617'0 4 54.663 .15 41419 4 56..652 015 44.30' '4.88 4.96 4.23 17.64 15.9 20.7 45.2 .907' 47

1985 0 21 :0 2448174.5 "4 54.950 +15 41.65 :4 56:938 +15 46.93 4.88 4.53 4.22 +17.71 15.9 20.7 44. 9'46 36

1985 4 42 0 '14461717.5 4 55.24E, .15 46.20 4 57.2,35'415 49.46 4.88 4.15 4.21 +17.73 15.8 20.7 43.4 9.5 25

1985 4 23 .0 ` 2446178.5 4 5f:551. +115 48.75 4 57:541 .15 51.99 4.88 3.76 4.20 -17.75 1548 20.7 42.5 903. 14

1985 4 24 .0 2"446179.5" 4 65.1.1,6.015 5G29 4 57..$56 +45 54.51 4.89 3.38 4.19 ...17.77 15.8 20.7 41.7 9.2 ,9

1985 4 25 .0' 24461°0.5 4 56.1740 +15 53.42 4 50.181 0.0 57.03 4.89 2.98 4.18 +17.79 15.8 2016 40.8 9.0 -15

1985 4 26, .0 2446181.5 4 56.523 015 56.34 4 584514 #15 59.54 4.89 2.59 4.17-.017.81 15.8 20.6 39.9 8.9 26

1911 4.27 .0 2444182.* 4 5606' .15 58.86 4 '58.8'51 '16 2.04 4449" '2419 4.14 +17.84 15.8 20.6 39.0 '8.8 38

1985 4 221 .,0 2446183,5 4 57.21! 416 1.34 4 59.208 415 4.53 4.89 1'.78 4.15 +17.86 15.8 20.6 38.1 8..6 50

1985 -.4 29 b 2446184.5 41'67.975 +16 3.46 4 19.568 18 4.89. 1.38 4.14 +17.80 15.8 20.6 3f.3 8.5 45

1985'' 4 30 , .0 2446129.5 57.94:" +16 6.35

,7.01

4'59037 +16. 9.48 4.89' .97 4.13 -17.90 15.7 20.6 56.4 8.3 77

1985 5 1 .0 2446166.5

,4

'4'56.318 16 8.83 5 .313 #16 11.95 4,89 .55 4.12 17.92,15.71210.6 35.5 La 91

1965 5 2 .0 24461S7.5 4 513.703 .16 11.31 5 .692 +16 14.40 4.89 .14 4.11 -17.94 15.7 201 34.7 0.t 1tW

1485 5 3 .0 2446182.5, 4 59.095 +16 13.77 1.091 +16 16.84 4.89 -.28 4.09 +17.97 15.7 20'.6 33.8 7.9 120

1 85 5 4 .0 2446189.5 4 59.495 16 16.22 , ..5, 1.491 +16 19.28 4.89 -.70 4.08.+17.909 15.7 20.6 33.0 7.7 135

29 5 5 ,5 .0 2446190.5 4 59.903 .16 18.66 5 1.900 +16 2100' 4.89 -1.13 4.07 -18.01 15.7 20.6 32.1 :166 149

19 5 S 6 ,40-2444191.5 5 .3I8 .16 21.10 5 2.316 416 14.11 4.89 4.06 - 1403 15.7 20.6 31.3 7.4163,

198 5 7 .0 24461°7.5 5 .741 *If 23.52 5 2.740 .16 26.51 4,89 +1.98 4.05 - 18.05 15.7 20.6' 3404-, 1.2 171

'19 5 5 8 *10- 2446193.5 5 1.172 017 25.93 5 3.171 +16 28.90 4.89 -2.41 4.04 +18.08 15.7 20.6 29.6 7.1 .162

1985 5 9 :0,, 2446194.5 5 1.609 416 28.33 5 .3.610 +16 31.28 4.84 +21185 4.03. 18.10 15.640.6 .7 6.0 149

1985 5 10 .0 2446195.5 5 2.054 .16 30.72 6 4.056'4.16 33.65 4.89' -3.29 4.02 -18.12 15.6 20.6 9 6.7 137'

1985 5 11 .0 2446186.5 5 2.50E .16 33.09 5 4.508 416'3&.01 4.88 -3.73 r4.01 -18.14 15.6 20.6 1 .6.6124

1985 5 12 2446197.5 5 2.965 .16 35.46 5 4.968 .16 38.35 4.88 -4.17 4.00 -18.17 15.6 20.6. 2 6.4 112

1985 5 13 .0 2446190.5 5 44431 0016 37.81 5 6.434 +16 40.68 4.08 -4.62- 3.99 -18.19 15.6 20.5 2 4 6.2.100
Table W2 (maid)

A. YR MN HR. R.A. (1250.0) DEC. R.A. (APPN) DEC. DELTA HOOT R IIDOT .7MAG NMAG TIIETB 'BETA MOt'

1985

1985

5:14

5 15

:0 240199.5 3.904 .1.6 *0.15 5 5.908 16 43.00 4.08 4.07 3.91 -18.21 15.6 20.5 24.6 6.1610,

1085, 5 16

.0 2446200.5 5 4.383 .16 42.48 5 6.387 16 46..50 4.87 -5.52 47, -18.24 15.6 20.5 23.7 -15.6 .0 2446201.5 5 4.1469-'4,4 44.00 5 6.074 16 47.59 4.87 -5.98 3496 *18.26 15.5 2005. 22.9 5.7 84 1985.

1985

5 17 .0 2446202.5. 5 5.361 1647.10 5 7.366 +16 49.87 4.87 -6.43 3.95 18.28 15.5 20.5. 22.1 5.5 53 6 18 .0 2446203.5 5 5.859 146 49.39 5 7.865 16 52.14 4.86 -8.89 3.94 wq1.30 15.5 20.5 21.3 5.4 41 1985 5 19 .0 2446204.5 5 6.363 16 51.66 5 8.370 *16 54.39 4086 -7.35 3.93 -18.33 15.5 20.5 20.5 502 30 1985 5 20 ' .0 2446205.5 5 6.873 *16 53.92 5 P.051416 56.62 4.85 -7.82 3.92 +18.35 15.5 20.5 19.7 5.0 19 i ."11185. 5 21 .0. 2446206.5 5 7.385 16 56.17 5 9.390 *16 58.84 4.85 -8.28 3.91 -18.38 15.5 204 18.9 401 10,. 1985 5'22 .0 2446207.5 5 7.911 .16 58.40 5 9.920 *17 1.05 4.84 8.75 3.90 *188,0'15.5 20.5 48.1 1446 10 1905- 5 23

1985

.0 2446208.5 5 8.438 *17 .61 5 10.44i'..117 3.24 4.84 .9.22 3488'"18.42 15.4 20.5 17.3 4.4 20 5 2, ,.0 2446209.5 5 8.971 417 2.91 5 10.982 *17 '5.41 4.83 -9.69 3.87 -18.45 15.4'20.5 16.5 4.3 32 '1985 5 25 .0 2446210.5 5 9.508 .17 5.00 5 11.520 017 7.57, 4.83 -10.16 3.86 -18.47 15,4 20.5 15.7 4.1 44' 1985 .506 .0 2446211.5 5 10.051 17 7.17 5 12.964 *17 9.72 4.82 -10.63 3.135 .41.49 15.4 20.4 14.9 3.9 57 1985 52/ .0 2446212.5 5 10.599 .17 9.32 5 12.613 17 11.85 4.82 .11.10 3.84 -18.52 15-.4 20.4 14.2 3'.7 70, 1985 5 28 .0 2,t46213.5 5 11.15f .17 11.46 5 13.166 *17 13.96 4.81 -11.58 3.83 -11.54 15.4 20.4 13.4 :3.5 13 1905 5 29 0 4446214.5 5 11.710 13 13.58 5 13.724 *17 16.05 4.80 -12.05 3.82 -11.57 15.3 20.4 120.7 3.3 97 1985

1985

5 30 .0 2446215.5 12.272 *1/ 15.69 5 14.267 .11 14.13 4.80 - 12.52. 3.81 -18.59 15.3 00.4 1109 3.02 111

31985

5 31

6 ."1

.0 2446216.5 S 12.839 17 17.78 5 14.855 17 20.19 4;79 -12.99 3.80 ...18.62 15.3,20.4' 11.2 3.0 125 .0 2446217.5 5 13.410 .17 19685 5 15.426 *17 22.24 4.78 -13.47 3.79 -18.64 15.3 20i4 10ri5 208 140 1985, 6 2 0 2446218.5 S 13.949 17 21.91 5 16.003, *17,24.26 4.17 - 13.94 3.78 .18.67 15.3 20.4 9.8 2.6 154 .190 6 3 2446219.5 5 14.565 .1025.95, 5 16.503'.17 26.28 4.76 -14.41 3.77 -18.69 15.3 20.4 9.1' 2.5 157 1985 6 4 .0 24.6220.5 S 15.148..27 245.97 5 17.168 .17 28.27 4.16 -14.89 3.76 -18.72 15.2 20.4 8.5 2.3 17,0 1985 6 5, .0 2446211.5 5 15.736 .17 27.98 5 17.757 17 30.25 4.75 .15.36 3.15 -18.74 15.2'20.3 7.9 2.1 158 1985. 6 6 .0 2446222.5 5 16.32. .17 29.97, 5 18.349 17 32.21 4.74 .15.83 3.73 *18.77 15.2 20.3 7.3 2.0 145

1985

1985 6 7 4.0 2446223.5 5 16.924 +17 31.94 5 16./46 *17 34.15 4.73 .16.31 3.72*18.79 15.2 20.3 6.8 109 232 . 1985

6 8 .0 '2446224.5 t217.524 .17 33.89 5 19.546 +17 3'6.08 4.72 -16.79 3.71 -18.82 15.2 20.3 6.3 1.7219 6 .49 .0 24462250 5 16.12'6 *17 35.13 5'20.150 .17-37.99 4.71 -17.26 3.75.'18.84 15.1 20.3 6.0 1.6 107 1985 6 10 .0 2446226.5 5 11-.732 *17 37.75 5 20.757 .17 39.88 4.70 - 17.74 3.69 -18.87 15.1 20.3 5.7 1.6 05 1985 6 11 .0 2446227.5 5 19.342 717 39.66 5 21.367 .17 41.75 4.69 .18:22 3.68 - 18.90 15.1 20.3 5.5 1.5' 83 4985 6 12 ./0 2446228.5 5 19.956 *17 41.54 5 21.90i *17 43.61 4.68 - 18.70, 3..67 *18192 15.1 20.3 5.4 1.5 71 1985 6 13 .0 2446229.5 S 20.572 *17 43.41 5 22.598 *17 45.44 4.67 -19.17 3.66 *18.95 15.1 2005 5.5 1.5 60 .1985 6 14 .0 2446230.5 '5 21.192 .17 45.26 5 23.2° .17 47.26 4.66 -19.65 3.65 .1807 15.0 20.2 5.6 4061 48 1985 6 15 .0 2446231.5 .5 21.814 .17 47.09 5 23.012 .17 49.06 4.65 *20.13 3.64 -19.00 15.0 20.2 5.9 1.6 37 1965 6 16, 2446232.5 5 22.140 *17 48.90 5 24.468..17 50.84 4.63 -20.61 3.63 -19.03 1.5.0 -20.2 6'.3 1.8 26 1985 6 17 .0 446233.5 S 23.066 .14 50.69 5 25.097 *17 52.61 4.62 -21.09 3.61 -19.05 15.0 20.2 6.7 1.4 45'

6 18 .0 2446234.5 S 23.691 *17 52.47 5 25.729 .17 54.35 4.61 -21.56 3.60 -19.08 15.0, 20.2 7.2 2.0 8

.1985

985 6 19 2446235.5 5 24.331 *17 54.23 5 26.363 .17 56.08 4.60 -22.04 3.59 -19.11 14.9 20.2 1.8 2.2 14 1985 6 20 0 24 236.5 5 24;,967 *17 55.97 5 26.999 +1/ 57679 4.58-.22.52 3.58 -19.13 14.9 20.2. 143 2.4 25 .1985 6 p. ' 2 462.37.5 5 25.60 *17 51.69 5 27.638 *17 59.A8 4.57 .22.99 5:57 -19.16 14.9 20.2 9.0 2.5 37 1065 6 22

19e'5 6-23 .0

46230.5

2446239.5

5 26.244 .17 59.39

5 26.886 +IP 1.07

5 28.278 *18 1.15

5 28.921 IR 2.80

4.54 .23.47

4.54 -23.94

3.56 -19.19 14.9 20.1 9.6

3.55,-.19.22 14.9 20.1 10.3

2.7 50

2.9 '63 1/85 6 24 .0 2446240.5 5'21.5S0-418 2.74 5 29.565 +18 4.43 4.53 -24.41 3.54 -19.24 14.6`.20,1 11.0. 51 78 1985, 6 25 .0 2446241.5 5 26.175 .16 4.31 5 30.211 .19 6.04 4.51 -24.88 3.53 -19.27 14.920.1 11.7 303' 90

1985 6"26 .0 2446242.5 t, 2x.82:. +18 6.01 5 30.858 .18 7.64 4.50 -25.35 3.5 -19.30 14.8 20.1 ,12.4 3.6 103 1985 6 27 .0 2446243.5- 2ce47C *16 7.61 5 31.507 +16 9.22 4.49 -25.81 5:50".19.33 14.8 20.1 13.1 305,147 1985 6 28 .0 2946244.5 S 10.120 '4.18 9,70 5 32.158 18 10.77 4.47 -26,028 3049 19.35 14420.1 13.8 440 X131 1985 6 29 :0 2446245.5 5 30.771 +28 10677 5 32.809 418 12.31 4.46 -26.74 3.48 *19.38 24.1 20.1- 14.6 4.2 105 4985 6 30 .0 2446246.5 5 31.423 .18 12.33 S 33.462 11 13.83 4.44 -27.20 3.47 -19.41 14.7 20.0- 154.3 4.4 159 1985/ 1 .0 2446247.5 5 32.076 +18 13.86 5 34.116 .18 15.33 4.42 -27.66 3.46 *19.44 14.7 20.0 16.1 4.7-170: -1985 7 2 .0 2446248.3 32.770 *18 15.38 5 34.771 .14 16.81 4.41 -28.12 3.45 .19447 14.7-20.0 16.s 4.9,167 . 1965 7 3, .0 2446249.5 5 33.385 +18 16.87 5 35.427 .18 18.28 4*39 -28.57 '3.44 .19.50 14.6. 20.0 171.6 5.1.155 '1985 7 4 .0 2446250.5 5 34.040 +18 18.35 5 36.083 18 19.73 4.37 *29.03 3.42 19.53. 14.6 25.0 18.3 5.4 142; 1985 7 5 .0 2446251.5 5 34.697 .1P 19.82 5 36.741 .18 21.15 4.36 29.48 3.41 - 19.55 14.6 200:1901 BO 129'4. 1995 7 6 :2 2446252.5 5 35.353 *18 21.26 5 37.398 *16 22.57 4.34 -29.94 3.40 -19.58 14.6 1.9.9 19.9 5.8 116 1945 7 7 .0 2446253.5 5.36011 +1$1 22.68 5 38.056 *11 23.96 4.32 -30.39 3.39 -19.61 14.5 19.9 20.6, 6.1 103 c 1985 7' .0. 2446254.5 5 36.669 *18.24.09 $ 30.715 *18 25.33 4.31 *30.84 3.38 -19.64 14.5 19.9 21.4 6.3 91

44
TAUB-2 (pautd)

YR MN DV HR RtA. (1040.0) DEC. likrift0 DEC ' DELTA DELDQT :113/7T110i11G NMAG THETA BETA MOON

1985' .7 .0 2446255.5 5.37.326 015 25.44 5 39.373 418 26.69 4.29 31.2 3:37's-49.67 '14.5 0.9 22.2 6.5 79

14985 7 0 .0 2446256.5 t 37.984 .28 26.85 5 40.032 +18 28.03 4127 -31.73 3.36 -19.70 14.1.19.9 22.9 6.3 68

1955 11, .0 2446257:5 '5 34.642 10 28.20 5 40.05 18 29.35 4..25 -32.18 3.35 +19.73'14.4 .29.9 23.7 7.0 56

.1985 7 12 .0 2446258.5 5 39.300 .18 29.54 5 41.349 4.10 50:66 4.23 +32.624 3.33 19.76 14,1,4 19.8 24.5 7.3 45

`1985. 7 13 .0 2446459:5 5 39.957 4.18.5e.86 5 42.007 .10'31.99 . 4.21 +33.07' 532 +19..79 14.4 19.8 21.3 7.5 33

,19135 7 14 .0 2446260.5 5 40.614 14 32.16 5 42.664 .10 33.21 4.19 -33.51 3.4.1.+19062 14.4 19.8 26.0 7. 22

'1945 7 15 .0 .2446261.5 5 414270,0'28 33.45 5 43.321 .18 34.46 4.17 +33.94 3430 +19.85 14.3 19.8 26.8 8.0 12

49105. 7 16 .0 246262.5 5 41.Q26 18 34.71 5 43.978 .18 35.69 4.15 +34.38.A.29'+19.88 14.3 19+8 27%6 3.2

1985 '7 17 .0 2446263.5 5 42.580 18 35.96 S 44.633 +18 36.91 4.13 +34.82 1.48,+1901 14.3 19.8 28.4 0.5 17

1985' 71418 .0 24462649. 5 43.234 .18 37.20 5 45.287 .18 34.11 4.11 +35625 3.27 -19.95 14.2 19.7 29.2 8.7 29

1945 1 19 .6 2446265.5 5 43.886 0/9 38.41 5 45.940 .141 39.39 4.09.-35,e68 3.25 +19.88 1442 19.7 30.0 9.0 42

1905 7-20 .0' 2446266.5 5.44.537 14 39.61- 5 46.592 .28 40.47 4.07'+36.10 3.24 -20.01 14.2 19.1 30t7 9.2 55

1985' 7 21 .0 444626705 5 45.186 .18 40.80 5 47.241 .18 41.'82 .4.85 +46.52 3.23 +20.0424.2 ;9.7 31'05 9.5 69

1985 7 22' .0 2446268.5 5 45.43? +18 41.96' 5 *7.889 18 42.76 4.03 -36.94 3.22 -20.07 14.1 19.7 32.3 9.7 82

1985 7 /3 .0 2446269.5'.15 46.479 .18 43.12 5 48.135 .18 43.88 4.01 +37.36 3.21 .40.10 14.1 19.6 33.1 10.0 96

1905 7 24 .0 24462705 5'4%122 *18'744.25 5 49.219 .18 44.98 3.99 +37.77 3.20 +20.13 14.1 19.6 33.9 104 110

1905 7 25. .0 2446211.5 5 47.763 41E 45.37 5.4°6821 +18 46.07 3.97 +58.10 3.18 -20.17 14.0 19.6 34.7 10.5 124

1985 -7 2F .0 2446272.5 5 404402 +IF 46.48 5 50.461 +18 47.14 3.94 +38.59 '3.17 -20.20 14.0 19.6 35.5 10.7 137

4905 7'21 .0 2416273.5 5.49.-030 +10 47.57 5 51.094 .18 48.20 3.92 -38.99 3.16 -20.23 14.0 19.6 36.3 11,0 151

1905 7 20 .0 2444274.5 .15 4^06724'10 48.65 5 51.732 .14 49:25 3.90 +39.39 3.15 -20.26 1400 19.5 37.1 11.2 164

'1985 7 29 .0' 24.6275.5' 5 540303..26 44472 5 52.364 +18 50.28 3.88 -39.79 3.14 -20.30 13.9 19.5 37.9 11.5 171

1985 7 30 .0 2446276.5 5...50493E .18 50,77 5 52.992 .18 51.30 3.85 +40.18 3.13 -20.33 130 19.5 38.7 11.7 163

194 7 31 .0 2446i77.5 5 514555 1.0 51.81 5 53.614 +18 52.31 3.83 -40.57 3.11 +20.36 13.9 19,5'59.5 12.0 151

1955 1 40 2446272.5 5.52:176 IF 52.45 5 54.240 0.10 53.31 3.8% -40.95 3.10 - 20.40 13.8 19.5 40.3. 12.2 138

1985 A 2 .0 /44076.5 5, 52.7°4 .18 53.45 . 5 54.45° .18 54.2Q 3.78 +41.154 3.09 -20.43 13.0 19.4 41.1 12.5 125

1905 0 3 .0 2446280.5 5'53.40° 1.5 544d5 5 55.474 .18 55.26 3.76 41.72 3.08 -20.46 13.9 19.4 41.9 12.7 112

1485 8 4 .0 2446241.5 F. 54.02° .18 55.04 5 56.065 114 56.22 3.73 -42.10 3.07 +20.50 13.7 19.4 42.7 13.0 100'

1'9e5 8 5 .o /446282.5 5 54.626 .1856.92 S 56.692 .18 57.17 3.71 -42.47 3.05 -20.53 13.7 19.4 43.5 13.2 88

1985 A 6 .0 2446201.1 S 55.220 018 57.79 5 57.295 18 50.11 369 +42.85 3.04 720.57 15.7 19.3 44.3 13.5 76

1985 0 7 .0 2446284.5 S 55.024 .10 58.75 5 57.893 +18 59.04 3.66 -43.22 3.03(+20.60 13.6 19.3 45.1 13.7 64

1985 4 A :11 2446245.5 5 56.42,0 .11(-59.70. 5 60.407 18 59.96 3.64 +43.51 3.02 -20.63 13.6 19.3 45.9 14.0 53

1955.- 8 9 .0 "/446286.5 t 57.00? .64 5 59.076 +II .07 3.61 +43.95 3.01 +20.67 13.6 19.3 46.714.2 41

1905 840 .0 244626745 5'57.54: +19 1.51 5'59.661 +19 1.77 3.58 +44.31 3.00 +20.70 13.5 19,3 47.6 14.5 30

1445 8 11 .0 2446248.5 5 54.1t0 '4e1° 2.49 6 .239 19 2.66 3.56 +44.66 2.98 +20.74 13.5 19.2 48.4 14.7 J9

1985 9 12, .0 2446284.5 5 58.742 .1° 3.40 6 813 +19 3.55 3.53 +45.02 2.9T -20.77 13.5 19.2 4902 15.0 9

1905 8 13 .0 .2446290.5 59.30.9 4.31 6 10380;+19 4.42 3.51 +45.36 2.96 +f0.81 13.4 19.2 50.0 15.2. 10

1.05 8 14 4'0 2446261.5, S 54.862 .19- 5.2.1 6 1.941..19 5.30 3.40 -45.71 '2.95 20.85 13.4 19.2.50.5 15.5 21

1985 P 1'5 .0 2446262.5 F .424 .16,6.11 6 2.466 .19 6.16 3.45 +46.05 2.94 -20.88 13.4 19.1 51.7 15.7 34

1985 8 16 .0 2446293.5 E. .971 .19 6.49 6 3.045 +19 7.03 3.43 -46.39 2.92 -20.92 13.3 19.1 52.5 15.9 47

1985 8 17 .0 2416294.5 6 1.512 +19. 7.88 6 3.586 +19 7.84' 3.40 -46.72 2.91 -20.95 13.3 19.1 53.3,16.2 60

1985 F 18 .0 2446265.6 .6. a.e.#! .16 8.76 6 4,120 *19 8.74 3.37' -47.04 2.90 +20.99 13.2 19.1 541 16.4 74

1985 P 19 .0 7446296.5 6 '2.571 .19 9.64 6 4.646 019 9.59 3.35 -47.36 2.89 21.05 13.2 19.0 55.0 16.7 88

1985 8 20_ .0 2446297.5 F. 3:688 019 10.51 6 5.164 .19 10.44 3.32 +47.64 2.87 -21.07 13 19.0 55.8 16:4 102

1985 0 21 .0 2446268.5 6 '3.D9t".19 11.38 6 5.674 .14 11.28 3.29 +47.99 2.86 +21410 13..1 19.0 56.7 17.2 117

1985 8 22 .0 2446299.5 6 4.096 .19 12.26 6 6.176 *19 12113 3.26 -48.30 2.85 -21.14 13.1 18.9 57.5 1704 131

1925 8 23 .0 .2444;100.5 6 4.591101S 13.13 4.14 42.98 3.24 48.60 2.84 -21.18 13.0.1404.1403 1707-144

1955 8 24 .0 /446101.5 6 5.074 19 14.0'0 6 1712152 +19 13.83 3.21 +48.49 2.83 -21.22 13.0'18.9 59.2 17.9 158

pm r 25 .0 2446302.5 6' 5.547 1° 14.88 6 7.627 .19 14.68 3.18 49.18 2.81 "21025 13.0 34.9 0.0 10.1169

1985 18 26 .0 244530305 6 6.0.11-0.1.6 15.76. 6 8.091 +19 15.53 3.15 +4047 2.80, -21.29 12.9 14O 60.9 1064' 169

1985 8 27 40 2446304.5 C 0.465 .19 16.64 6 0.545-.18 18.39 3.12 +49.75 2.79 -21.33 12.9,48.8 61,4 1806 150,

1985 ,p 2p .0 244630545 6 64908.14 17.53 6 84969 +19 17.26 3.09 -50.03 2.78 -21.37 1.2.13 18.8 021.6 18.8 145

19 'S A 29 .0 2446306'.1 6 7.540 19 18.442' 6 9.422 19 10.13 3.06-750.30 2.16 +21.41.12.8 18,,,7.'63.5 19.k/.132

1905 e 30 .0 2446307.5 6 7.7(.0..19 19.32 6 9.643 .19 18.01 3.0 +50.57 2.75 +21.46'12.8 18.7 64.3 39.3 120

1945 A 31 A.0 2446308.5 6 6.169 +19 20.23 6 10.253 *19'184.98 ..S.01 +50.83 2.74 +21.49 1267 180 65.2 19.5 107

1985 9 I .0 2446501.5 6 P.56( .19 21.15 6 10.450 .19, 20.50 2.98 +51.09 2.7,5,+21.53 42.7 18.6 66.1 19.0 95

1985 .9 2 .0 2446310.5 6 k.951 .16'22.07 6.11.035. +19 21170 2.95 +51.34 2.72.7'7+21.5T 12.6 1844 66.9 20.0 84
Ya MN .17Y MR R.A. 1111508) DEC

Table 13-2*(contd)

1985 "11 3: 11115.:f9 4'

1985 9 5 .1985 9

1905 9, 7

1905 9 . 1985 q fie 1985 9 tO

.1985 9.11

1985 9 12

1985 ° 13

1985 9 14

1985 9 15

1985 9 16

1985 9 17

1965 9 10

1985 9 19'

1985 9 IC

1965 9 2k

1985 9122

1985 9 23.-

1985, 9 24

1945 9 25

1985 9 26

1985 9 27

1985 9 28

2985 4 29

1985 9 30

1985 10 1 1945 10 2 1905 10 3 1112 le 4' 10 54, f 5 10 ..6.1 1985 10, 7 1985 10 8 1485 10 9 1985 40 la

1985'10 II

11985 10 12

1985 10,0

1985 10.14

I11985 1 -0 15

....... R.A. 1AP0741 DEC DELTA 11ELDOT R 612X71 ;MAC, NM THETA BETA 1190004i

.0 2446311.5 6 9.322 19 23.01 6 21.40/....049--72.63

. 0 2446312.5 6. 9.679 *19 2 .97 ,6!11.41.-5.+19 23.56

.0. 2446315.5 ,6,10.021%*19 e4.93 .. 6 12.1E15 *19 24.51

. 0 2446314.5 6 10.351 19 5.92 6 12.14S8 +19 25.47

.0 2446315.5 10.665 .19 26.92 6 12.753 .19 26.46

.0 2446316.5 6 10.962 *19 27.93 6 13.051 019 27.46

.0 2446317.5 6 11.243 *19'2007 6 13.332 419, 28.48

.0 2446328.5 6 11.506 .146 30.03 6 13.597 019 29.52

.0 2446319.5 6.11.752 *19'31.11 6 13.843 019 30.59

.0 2446320.5 '6,11.974 .19 32.22'- 6 14.071 .19 31.69

.0 2446321.5 6 12.186 :1933,35 6 14.279 *14 32.81

.0 2446322.5 6 12,373- +11 34.51 6 14.46? *19 33.96

2.92 -51.59 2.70 -21.61 0.6 18.6 67.8 20.2 71

2.89 +51.83 2.69-11.65 12.5 16.6 68.7 20.4 60

2.86 *52.07 2.68 -21.69 12.5 18.5 69.6 20.7 48

2.83 752.30 2.66 -21.73 12.5 t8.5 70.5 20.9 36

2.80"52.52 2.65 -21.77 12,4-18.5 .71,4 21.1 25

2.77 -52.74 2.64 21.81 12.4 141.4 72.3 21.3 14

*.53.17 2.61 -21.89 12.3 18.3 79 .1 21.7 14

2.74 -21.85 12.3 18.4 - 1.2 21.5

2.70

2.67 - 53.37 2.60 -22.93 12.2 1 .3 75.0 21.9 26

2.64 -53.57 2.59 -21.98 12.2 18 3 75.9 22.1 39

2.44 053.75 '2.58 -22.02 12.1 19. 76.8 22.4 52.

2.58 *53.94 2,56 -22.06 12.1 18. 77.7 22.5 MI .0 244632305 642,539 +19 35.70 6 19.633 .19 35.14 205 *54.11 2.55 -22.10 12.0 18.2 78.7 224/ al .4 2446324.5 8 12.643:*19 36.92' 6

.0 2446524.5 "012.804 *19 58.17 6 1

.0 2446326.5' 6 12.901 19 39.47::.' 6 1

.0 '2446327.5 C12.973 44 40.40' 6 1

.0' 2446328.5 E 13.019 *PI 42.17 6 1

.0 2446329.5 6 13 39 29 43.58 6 15

.0 2446330.5 6 13.030

.0 2446331.5 t 12.992

.0 2446332.5 '6 12.92

19 45.04 6 15

19 46.55 6 15

19 48. L,1 . 6 1

.778 *19 36.36 2.52 -54.28 2.54 -22.15 12.0 18.1 79.6 224.9 95

.899 *1937,61 2.49 -54.44 2.53 -22.19 11.9 18.1 80.6 13.1 110

.070 019 40.22 '2,42 -54 2.50 - 22.28 11405.0 82.5 23.5 1

.997 +19 39.89 2.46 2.51 *22.24-11.9 18.1 81.5

118 2q 41.59 2.39 +54,0 2.49 -22.32 110r18.0 83.4 23.7 3 138 19 43.00 2.;36:*54.99 2.47 *22.37 11.7 17.9 84.4 23.8 165

131 +19 44.46 2.33 -55.11 2.46 -22.41 11.6 17.9 85.4 024.0 171'

044 *19 45.97 2,30.- 55.22 2.45 -22.46 11.6 17.9 86.4 24.1 162

027 +19 47.53 2.27 -55.32 2.43 -22.50 11.5 17.8, 82.4 24.3 150 .0 2446315.5, 6 12.8 5 +19 99.72 92-8 +19 49.15 2.23 -55.41 2.42 22.5511.5 17.8 81.4 24.5.-13 .0 -2446334.5 6 112.692',019 51.39 6 24:797 .19'50.82 2.20 56050 2.41 -22.59 11.4 17.7 89.4..24.6 129 .0 2446335.5. 6 22.525'419 53.11 6 14.630 +19 52.56 2.17 -55.58 2.40 -22.64 11.4 17.7 90.4 24.7 112 . 0 744036.0 6 1

. 0 24V63370. k

. 0 2446330.

.0 2446339.5 t. .0 2446340.5

.321 +19 54.90 6 14.428 19 54.35 2.14 *55.45 2.38 -22.69 11.3 11.6 91.4 29.9 100 .090 15 56.75 6 14.186 19 56.21 2.10 0.55.41 2.37 *22.73 11.2 17.6 92.5 25.011,...117 1.806 +19 58.66 6 13.908 .19 58715 2.07 55.96 2.36 *22.78.1102 17.5 93.5 25.1 .115 11.479 20 .65 6 13.587 020 .15 2.04 *55.817 2.3 -22.83 11.1'17.5 94.6 25.2 63 11.113 20 2.71 b 13.223 *20 2.22 2.01 -55.83. 2.33 *22.8e 11,1 17115 9546 25.3 52 0. /446361.5. f 10.702 *20 4.84

.0 244654215 6 10.245 *20 7.06

.0 2446343.5 1.' 9.737 20 9.35

.0 2446344.5 '6 R.176. 20 11.43

. 0 2446345.5 6 6.561 20 14.2N

.0 2448346.5 6 7.687 *20 16.76

.0 24463'47.5 6 7.153 +20 19.4Z

.0 2446348.5 6 6.354 20 22.17

.0 2446349.5. 6 5.48 2(1 25.02 . 0" 244635'.5 6 '4.550 20 27097

-41:1 .244635 .5 6 3.536 20 31.04

10 24463! .5 f 2:444 .20 34.21

0 24463 3.5 6 1.267 *20 37.49

24463 4.5 6 .002,20 40.88

24463 .5' 5 5)4.643 *20 44.39

24463 6v5 5 57.18E +20 46.02'

2446 7.5 5 55.623..20 51.76

44 58.5 5 550249 *20 55.61

'A945 10 16

2985 0 17

1985 10 18

1985 10 19

1985 10 20

1985 10N81

31985 10 22.

19

.0

.0

.0

.0

6 12.41.4 *20 4.38 1.98 *55.85 2.32 -22.92 11.0 17.4 96.7 25.4 40-

6 12..357 +20 6.61 1.94 *55.86 2.30 *22.97.10.9 17.4 "97.8 25.5 28

6 11.851 *20 8.94 1.91 -55.86 2.29 -23.02 10.9 17,3 98.9 25.6 17

6 11.292 20 11.34 1.98 *55085 2.28 -23.07 10.8 17.3 100.'0 25.6

.6 10.678 +20 13.84 1.85 - 55.83 2.26 -23.12 10.7 17.2 101.1 25.7 11

6 10.006 *2046.44 1.81 *55.79 2.25 ...23.17 10.7 17.2 102.3 25.7 22

6 9.272 20 19.13 1.78 *55.74 2.24 *23.22 10.6 17.1 103.5 25.7, 35

6 8.475 .20 21.92 1.75 *55.68 2,22 -23.26 10.5 17.1 104.6 25.8 48

6 7.610 .20 24.82./1,72 - 55.60 2.21 -23.31 10.5 17.0 105.9 25.8 62

6 6.673 *20 27.83 1.69 -55.50 2.20 *23.36 10.4 16.9 107.0 25.8 76

6 5.661 *20 30.94 1.65 -55.39 2.18 - 23.42.10.3 16.9 1011.3 25.7 1114_

6 9.570 *20 34.17 1.62 *55.26 2.17 *23.47 10.3 16.8 109.5 25.7 106

6 3.395 *20 37.51 1.59.*55.12 2.16 -23.52 10.2,16.8 110.8 25.6:121

6 2.1:61 20 40.97 41.56 *54.95 2.14 -23.57 10.1 16.7 112.1 25.5 136

6 .774 *20 44.55 1.53 -54.77 2.13 23.62 10.0 16.7 113.4 25.5 151

5 59.318 0'20 98.24 '1.50 -54.56 4.12 *23.67 10.0 16.6 114.7 25.3 166

5 43.1.757 ;20 52.06 .71.46 *54.33401.10 -23.72 9.9 16.5 116.1 25.2 172

5 5E7066 +20 56.00 1.43 -54.08 2.09,*23.78 9.8 16.5 114.4 25.0 262

105905 S 52.159 20 59.57 5 54.297 +21 .06 1.40 *53.81 2.07 *23.83 46360.5 5 50.244 21 3.65 1 5 52.383 +21 4.24 1.37 -53.51 2.06 :123.88

26;96361.5 5 414.1'97 +21 7.83 5 0.321" +21 62.52 1.34 -53.19

4 .152 +21 12.91 41.31 *52%84

4 .818 *21 17.40 1.28 -52.45

4 .325 +21 21.98 1.25 - 52.0.4

.5 34.517 *21 25.43 5 0.6E4 21 26.61 1.22 -51.59

.5 3'.675 +21 29.99" 5 37.824 *21 31.3. 1.19 -51.10

85 10 24 .0 8446362.5 5 4640094.21 12.11 5 1 85 10 25 .0 2946363.5 S 43.673 +22 16.47 5

19 5 10 26., .0 2446369.5 5 41.179 +21 20.92 '5

19 10'27 .0 2446305,

19'5 10 24 .0 240,366.

46

205 -23.94

2.03 -23.99

2.02 *24.04.

2.00 - 24.10

1.99 -24.15

1.98 -24.20

9.7 16.4 11869 24_t9 148

9.6 16.4 120.3 24.7 135

9.6 16.3 121.8 24.4 122

9.5 16.2 123.3 24.2 109

9.4 16.2 124.0 231.9 96

9.3 1601 126.4 23.5 83

9.2 16.0 128.0 23.2 71

9.1 16.0 129.7 22.8 SS
Tabse B-2 (conk')

YR MN 1)Y -1111 1.11. je, R.A. (1830.0) DEC. uumn 1126c.

1985 10'29, .0 2446367+54'5 32.644 21 34.57 5 34.794 .21 36.07

1905 10 30. .0 244636P-.5 5 29.404 21 39.16 5 31.461 21 40.82

1985.10 31 .0 2446369.5 5 25.960 21 43.71 5 28.113 '21,45.55

.19P5'11 1 .0 2446370.5 5 22.281 .21 48.18 S 24.435 21 50.22

1985 11 2 .0 2446371.5 5 18.359 22 52.55 5 20.513 21 54.78

14115 11 3 .0 2446372.5 5 14.11t 21 56.73 5 16.331 21 59.16

1985 11 .0 2446373.5 5 9.711 22 .64- 5 11.874 22 3. 1985 11 5 .0 2446374.5 ! 4.468 22 4.33 S 7024 12 7 5

1985 11 6 .0 2446375.5 4 59.559 22 7.57 5 2.065 22 10 74

1985 11 7 .40 2146076.5 4 54.527 22 10.30 4 56.679 22 13175

1985 11 9 .0 2446377.5 4 4P.791 22 12.41 4 50.948 22 16.11

1985 11 9 .0 2445375.5 4 42.702 .22 13.77 4 44.854 *22 11.80

195 11 10 .0 2446370.5 4.36.232 22 14120 4'34.362 022 10:56

199 11 11 .0 2446350.5 4!20.36° 22 13.56 4 31.516 22 13.25

1985 11 12 .0 2446361.5 4 22.049 22 11.63 4 24.241 22 16.67

1985 13 .0 2446382.5 4 14.410 22 P.21 4 16.547 22 13.62

1955 11

19115 11

14

15

.0

.0

2446363.5

2440384.5

4 6.2q5

3 57.750

22

4021 3.0855.99

4

3

5.426

59.575

22 8.86

022 2.16

1965 11 16 .0 2446385.5 3 10.774 21 46.68 3 50.895 .21 53.26

:1995 11 17 .0 2446344.5 3 '9:307 21 34.93 41.443 021 41.91

1985 11 18 .0 2446367.5 3 25.86C 21 20.46 3 31486 21 27.66

;985 11 19' .0 2446388.5 3 1°.411 21 3.08 3 21.495. 21 10.89

1955 11 20 .0 244638°4 3 cofel '20 42.57 3 10.952 20 50.80

1985,0L1 21 .0 2446390.5 2,5E0040 2C 16.00 3 .096 20 27.44

1905'11 22 .0 2446391.5 46.93r 614 51.67 2 46.975 20 .71

1955 11 23, .0 2446352.5 4 35.621 .19 21.16 2 37.64519+,30.59

1985 11 24 .0 2446393.5 2 24 161 .19 47.34 2 26.16e .ls 57.13

1985 11 25 .0 2446344.5 2 1214° 18 10.35 2 14.609 '18 20.48

1985 11 26 .0 2446395.5 2 1.0 5 17 30.42 2 3.037 17 40.86

1985 11 27 .0 2446346.5 1 40.566 16 47.86 "1 51.522 16 54.58

1985 41 2P 11 .0 2446397.5 1 3948° 16 3.02 1 40.129 16 14.01

1985 11 29 .0 2446399.5 1 26.996 15 16.35 1 28.920 15 21.56

51995 11 30 .0 244639°,51 1 16.043 .14 26.29 1 17.953 14 39.69

1985 12 1 .0 2446400.5 1 5.57* +13 39.29 1, 7.275 .13 50.87

1985 12 2 oC 4446401.5 0 '5.G43 .12 443.03 0 56.926 .13 1.54

1985 12 3 .0 2446402.5 0 45.067 12 .33 0 46.940 .12 12.14

1485 12 4 . C 2446403.5, C 35.476 11 11.18 0 37.339 #11 23.07

1985 12 5 .0 2446404.5 C 26.284 .10 22.72 0 29.138 10 34.68

1985 12 6S .0 2446405.5 C 1/.500 9 35.26 0 19.347 9 47.25

1445 12 7 .0 2446406.5 0 9.121 F 49.03 0 10.967 9 1.04

1995 12 P .0 2446407.5 0 1.161 P' 4.22 '. 0 2.9% t3 16.23

1905 '12 9 .0 2446408.5 23 53.5°5 7 20.97 23 55.425 7 32.97

1985 12 10 .0 2446409.5 23 46.417 6 39.58 23 48.244 6 51.36

1485 12 11 .0 2446410.5 23 39.614 5 59.50 23 41.439 40 6 11.45

1985 12,12 .0 206411.5 23 33.172 5 21.37 23 34.994 5 33.27

1985 12 13 aft 2446412.5 23 21.012 4 44.97 23 28.293 4 56.83

1985 12 14 $0 2446413.5 23 21.296 4 10.29 23 23.118 4 22.09

1985 12 15 .0 2446414.5 23 15.832 3 37.27 23 17.652

1995 12 16 .0 '244641N.5 2; 10.056 . 3 5.88 23 12.475 4 17.57

1985 12 17 .0 2446416.5'23 5.752 2.36.04 23 7.572 4 2 47.67

1985 12 18 .0 2446417.5 23 1.404 2 7.64 23 2.924 2 19.25

1985 12 19 10 .2446418.5 22 561645 1 40.75 22 5,8.515 1 52.25

1985 12 20 .0 2446419.5 22 52.509 1 15.15 22 54.,30 1 26.58

1945 12 21 .0 2446420.5 22 48.532 C 50.82 22 50.353 1 2.18

1985 12 22 .,p7" 2446421.5 22 44.74F 0 27.67 22 46.571 0 38.46

j

RELTA !swim RD(Yr TMAG NMAG THETA BETA MOON:

1.16 -50.58

1.13 - 50.01

1.10 - 49.40

1.07 -48.73

1.05 -48.02

1.02 "47.24

.49 +46,40

.96 '4:45.50

.94 -44.52

.91 +43.46

.895.4202

.86 -41.09

.84 "39.76

.82 "38.33

1.96 -24.26 9.0 '15.9 131.4 22.5 46

1.95 "24+31 9.0 15.8 133.1 21.8 33

1.93( "24.37 8.9 15.7 134.9 2153 21

1.92 "24.42 8.8 15.7 136.8.20.7 9

1.91 -24.48 8.7 15.6 138.7 20.1 6

1.89 -24.54 8.6 15.5 140.6 19.4 18

1.88 "2449 8.5 15.4 142.7 18.7 '31

1.86 "24.65 8.4 15.4 144.7 170' 44

1.85 "24.70%8.3 15.3 1 .9 17.0 58

1.84"24.16 8.2 15.2 14 .2 16r1 72

1.82 -24.82 8.1 15.1 151 5 15.1 87

1.81 "24.87 8.0515.1 153 14.0 103

1.79 *24.43 7.9 15.0 156. 12.0 119

1.78 -24.99 708 14.9 158. 11.5 135

. 80. -36.79 1.76 -25.04 .7 14.8 1614.6 10.2 152

.78 - 35.13 1.75 -25.10 7.6 14..8 164.4 8.8 169

. 76 -33.36 1.73 -25.16 7.5 14.7 147.2 7.3 173

.74 *31.47 1.72 - 25.21 7.4 14.6 170.1 5.7 156

.72 -29.45 1.71 -25.27 7.3 14.5 173.1 4.0 139

. 70 -27.30 1.69 -25.33 7.2 14.5 176.0 2.4 123

.69 -25.03 1.68 -25.38 7.1 14.4 1770, 1.4 107

.67 "22.64 1.66' -25.44 7.1 14.3 175.9 2.4 02

.66 -20.13 Alle65 -25.50 7.0 14.3 172.8 4.3 76

.65 "17.52 ii63 -25.55 6.9 14.2 169.3 6.4 61

.64 "14.81 1.62 .25,41 6.8 14.2 165.7 8.7 47

. .63 -12.03 1.60 -25.67 6.8 14.1 162.0 11.0 32

. 63 "9.19. 1.59 "25.72 6.7 14.1 156.3 13.3 .0

.52 -6.31 1.57 "25.76" 6.6 14.1 154.5 15.7 5

.62 "3.43 1.56 "25.83 6.6 14.0 15(1.7 18.2 12

.62 "4,55 1.54 "25.89 6.5 14.0 146.9 20.5 26

.62 2.29 1.53 - 25.94 6.5 14.0 14 22.5 41

.62 5.(7/ 1.51 -25.99 6.4 14.0 1 25.2. 55

.63 7.77'.1.50 -26.05 6.4 14.0 1354 27.5 70

.63 .10.37 1.48 "26.10 6.4 14.0 131.7 29.7 85.

. 64 1/185 1.47 26.15 6,3 14.0 128.1 31.9 100

\I...2

.65 15.20. 1.45 " .20 6.3 14.0 124.5.34.0 115

.66 17.40 1.44 "2 5 6.3 14.0 121.0 36.0 130

.67 '19.47 1.42 - 26.30 6.3 14.0 117.6 37.9 145

.68 21.30 1.41 -26.34 6.3 14.0 114.3 39.7 159

. 69 23.14 1.39 -26.39 6.3 14.0 111.1 41.3 169

.70 24.75 1.38 -26.43 6.2 14.0 108.0 42.9 162

. 72 26.22 1.36 -26.48 6.2 14.1 105.0 44.3 147

.73 27.55 1.35 -26.52 6.2 14.1,102.1 45.7 131

.75 28.75 1.33 -26.56 6.2 14.1 99.2 46.9 114

.77 29.81 1.32 -26.59 6.2 14.1 96.5 48.1 9

:79 30.76 .1.30 - 26.63 642 14.1 93.9 49.1 8

.80 31.59 1.28 -26.66 6.2 14.2 91.3 50.0 65

. 82 32.31 1.27 "26.69 6.2 14.2 ,88.8 50.8 50

.94 32.94 1.25 -26.72 6.2 54.2 86.4 51.6 35

. 86 33.47 1.24 -26.74 6.2 14.2 84.1 52.2 2 .88 33.92 1.22 *26..76 6.2 14.3 81.8 52.8

. 90 34.24 1.21 "26.78 6.1 14.3 79.6 53.

.92 34.50 1.19 -26.79 6.1 14.3 77.5 53.

.94 34.80 1.18 -26.80 6.1 14.3 75.4 54.0 36

.96 34.96 1.16 "26.81 6.1 14.3 73.4 54.3 48

47
Tab/8 04 (Wad)

YR MN DY HR -

(11150.0) DEC.. R.A. (APPN) DEG DELTA DW)O'T "11 RDOT TMAG NM G THETA BETA 14cro1l

1985 12 23 .0 2446422.5 22 41.145 0 '5.63 22 42.989 0 16.86 .98 35.06 1.15 -26.81 6.1 14.3 71.4 54.5 61 1985 12' 24 .0 2446423.5.22 37.710 0 15.36 22 39.535 0 4.20 1.00 35.10 1.13 -26.80 6.1 14.4 69.5 54.6 73

,1905 12 25 .0 2446424.5 22 34.431 0.35137 22 36.257; 0 24.20 1.02 35.09 1.11 -26.79 6.0 14.46. 67.6 54.7 86

1985 12 26 .0 2446425.5 2'2 32.296 0 54.48 22 33.124 - 0 43.45 1.04 35.02 1.10 426.77 6.0 14.4 65.7 54.7, 98

1985 '12 27 .0 2446426.5 22 28.296' 1 12.74 22 30.125 - 1 1.77 1.06 34.91 1.641.M.74 6.0 14.4 63.9 54.6 111

1905 12 29 .0 2446427.5 22 25.410 - 1 30.22 '22 27.251 - 1 19.31 1.08 34.16 1.076.4.10.060 14.4 . 62.1 54.5 124.

1985 12 -29 .0 2446428.5 22 22.660 1 46.96 22 24.492 4 1 36.12 1.10 34.56 1.05 -26.67 5.9 14.4 60.4 54.3 136

1985 12 30 .0 2446429.5 22 20.006 2 3.03 22 21.8,9 - 1 52.25 '4.12 34.31. 1.04 +26.62 '5.9 14.4 58.7 54.1 149

1985 12 31 .0 2446430.5 22 17.450 2 18.48 22 19.A - 2 7.75 1.14 34.03 1.02 426:56 5.9 14.4 57.0 53.8 160

1906 1 1 .0 2446431.5 22 14.465 - 2 33.34 22 16:822 - 2°22.68 1.16 33.71 1.01 -26.49 5.8 14.4 55.3 53.4 167

1986 1 2 .0 '2446432.5 22 12.60;t: 2,47.6° 22 14;442 - 2 37.08 1.18 33.35 .99 -26.41 5.8 14.4 53.7 53.0 162

1986 1 3 .0 2446433.5 22 10.vir- 3 1.54 22 12.138 - 2 50.99 1.20 32.96 .98 -26.32 5.7 14.4 52.0 52.6,150

1986 1 4 '.0 2496434.5 22 4.064 3 14895 22 9.905 3 4.46 1.22 32.52 ..96 *26%22 5.7 14.4 50.4 52.1 137

1986 1 5 .0 2446435.5 22 5.894 3 2/.96 22 7.737 - 3 .17.521 1.24 32.05 .95 424410 5.7 14.4 48.9 51.5 123

2986 1 6 .0 244E436.5 22 3.783 - 3 400.60 22 5.627 - 3 30.22 1.25 31.55 093 425.96 5.6 14.4 47.3 50.9 108

1986 1 7 .0 2446437.5 22 1.726 3 52.90 22 3.571 - 3 42.58 1.27 31.01 .92 4i5.81 5.6 14.4 45.7 50.3 94

1906 1 M .0 2446438.5 21 5°.71.6 4 4.92 22 1.564 4 3 54.65 1.29 30.43 .9 q 425.64 5.5 14.4 44.2 4945 79

2986 1 9 .0 244645415 21 57.750 - 4 16.66 21 59.599 - 4 4.45 1.31 29.81' -25.46 5.5 14.4 42.7 48.8 64

1986 1 10 .0 2446440.5 2+-55.823 428.18. 21 7.674 - 4 18.02 1.32 29.16 .87 *25.25 .5.4.14.4 41.2 40.0 49

1906 1 11 .0 2446441.5 21 53.930 4 39.50 21 5 7E3 + 4 29.39 1.34 28.47 .86 -25.02 5..4 144 39.7 47.1 35

1986 1 12 .0 21 52.06P - 4 50.184 21 .923 4 40.58 1.36 27.75 .84 424.76 5.3 14.4 .3802 46.2 22. 1986 1 13 .0

,2446442.5

2446443:5 21 50.232 5 1.64 52.088 - 4 51.64 1,.37 26.99 .83 - 24.48 5.3 14.4 36.7 45.2 12

1486 1 14 2446444.5 21 48.419 5'1243 21 50.277 - 5 2.58 1.39 26.19 -81 -24.17 5.2 14.4 354 44.1 15

1986 2 15

,.0

.00 2446445.5 21 46.624 - 5 2304 21 48.484 - 5 13.44 1.40 25.35. .8e -23.83 5.1 14.4 '33.7 43.0 25

1986 1 16 .0 2446446.5 21 44.84F.. 5 34.08 21 46.707 - 5 24.23 1.42 24.40 .79' -23.46 5.1 14.3 32.3 41.9 37

1986. 1 17 .0 .2446447.5 21 43.000 5 44.78 21 44.943 - 5 34.99 1,43 23.56 .77 -23.06 .0 14.3 30.8 40.7 50

1986 1 18 .0 2446448.5 21 41.3'23 7 55.47 21 43.108 5 45.74 1.44 22.6.0 .76 -22.62 4.9 14.3 29.4 39.4 62 . 1986 1 19 .0 2446449.5 21 19.574 - 6 6.18 2 41.440 - 5 56.50 1.46 '21.60 .75 4224(4 4.9 14.3 27.9 38.' 74

1986 1 20 .0 244450.5 21 37.820 6 1 2 39.697 - 6 7.29 1.47 20.56 .73 -21.62 4.8 14.3 26.5 36.7 86

1986 1 21 .0 12446451.5 21 36.085 6 .72 21 3/.956 - 6 18.14 1.48 19.47 .72 -21.05 4.8 14.211225.1-35.3 98

1986 1 22 .0 2446452:5 21 34.342 21 31,214 - 6 29.07 1.49 18.34 .71 -20.44 4.? 144 3.6 33.8 110

1986 1 23 .0 2446453.5 21 32.556 4 :::; 21 34.471 - 6 40.10 1.50 17.17 .71 -19.78 4.4 14.2 22.2 32.2'122

1986 1 24 .0 2446454.5 21 30.847 .66 21 32.724 - 6 51.25 1.51 15.94 .69 -19.07 40444.2 20.8 30.6 134

1906 1 25 .0 2446455.5 21 2°,49 7 11.89 21 30.972 - 7 2.54 1.52 14.67 .68 418.31 4.5 14.2 19.4 28.9 147.

1986 1 26 .0 244P456.5 21 27.'331 7 23.27 21 29.213 7 13.98 1.53 13.35 .67 - 17.49 4.4 14.1 18.0 274 151

1986 1 27 .0 2446457.5 21 25.562 - 7 34.83 21 27.446 - 7 25.59 1.54 11.99' .66 -16.61 4.4 14.1 16.7 25.5 167

1986 1 24 .0 2446450.5 21 23.184 - 7 46.57 21 25471 - 7 37.40 1.54 -10.57 .65 *15.48 .1 15.3 2307 164

1986 1 29 .0 244645905 21 21.°9P 7 58.51 21 23.887 - 7 49.40 1455 9.11 4.3 14.1 14.0 21.9 153

1986 1 30 .0 2446460.5 21 2-8.203 - A 10.67 21 22.094 8 1.§2 1.55- 7.61 .63 .-13.65 4.2 14.1 12.7 20.0 140

1986 1 31 .0 2446461.5 21 10.398 - A 23.05 21 20.282.... 8 14.06 1.56 6.06 .62 -12.55 4.1 14.0:-11.4 18.2 427.

1906 2 1 .0 2446462.5 21 16.545 - 8 35.66 21 48.482 0 26.74 .1.56 4.47 .62 -11.39 4.1 14. 10.2 16.5 113

1986 2 '2 .0 2446463.5 21 14.74.3 8 48.52 21 16.663 . 8 39.66 1.56 2.84 .61 -10.18 4.114 9.114.8 99,

1986 2 3 .0 2446464.5 21 12.934. 9010.64 21 14.837 8 52.83 1.56 1.18 .60 48.93 4.0 14.0 8.1 13.3 84

1986 2 4 .0 2446465.5 21 11.0°9 9'15.00 21 13.004 - 9 6.27 1.56 -.52 .60 7.62 4.0 14.0 7.3 12.1 70

1986 2 5 .0 24464 6.5 21 °41258 4 28.63 21 11.167 9 19.96 1.56 -2.24 .60 *6.28 3.9 13.9 6.8.21.2.55

1986 2 6 .0 24464 7.5 21 7.413 r 9 42.52

i

21 9.326 4,9 33.92 1.56 -3.98 .59 44.91 3.9 13.9 6.5 1009 41

1986 2 7 .0 24464 8.5 21 5.566 906.68 21 7.482 4 9 48.14 1.56 5.73 .59 .*3.50 3.9 13.94 6.6 11.1 27

1986 2 8 .0 2446469.5 21 3.714 -10 11.11 21 5.638 -10 2.63 1.55 -7.48 .59. *2.08 3.9 13.9 '7.0 11.8 15

1986 2 9 .0 2446478.5 21 1.872 -10 25.80 21 31.794 -10 17.39 1.55. 9.24 .59 -.65 4.1 13.9 7.7 13.1 11

1986 2 10 .0 2446471.5 21 .026 A10 40.75 21 1.95# -10 32.42 1.54 -10.99 .59 .7944.1 13.9). 0.6 14.6 20

1986 2 11 .01 2446472.5 20 5P..188 ..10 55.97 21 .110 -10 47.12 1.54 ...12.72 .59 2.22 4.2 13. 9.7 16.4 .32

1986 2 12 .0 2448473.5 20 56.554 .-11 11.46 20 5P.208 -11" 3.26 1.53 .59 3.64 4.1 13.9 10.9 18.4

1986 2 13 .0 :446474.5 2G 54.42h "11 27.20 20 56.466 ..11 19.07 1.52 -16.12 .59 5.04 4.1 13.9 12.1 20.5

1906 2 14 .0 2446475.5 20 52.711 ^11 43.21 20 54.65,2 11 35.15 1.51:17077 .60 6.41 4.1 13.9 13.4 22.6 70

1906 2 15 .0 2446476.5'20 50.044 -12 59.47 20 52.849 -11 51.44 1.50 19.58 .60 7.75 4.1 13.9 14.7 24.8 83

1986 2 16 .0 2446471.5 20 486107 -12 16.00 20 51.076 -12 8.08 1.49 -20.95 "440 9.05 4.1 13.9 16.1 26.9 95.
.

'

Table:B-2 (amid)

Y18 MN DY !IR R.A. (1950.0) DEC. R.A. (APPN) DEC OliTADELOOT IR Boca MAC; NMAO THETA BETA MOON

1986 2 17

. AO 2446476..5 20.22.322 +12 32.90 20 49.275 -12 24.94 1.48 -22.46 .61 10.30 4.1 13.9 27.5 29.1 101

1986 2 IR .0 2446479).5 20-.403.546 '1244.86 20 47.5C6 '1242.09 1.46 -23.93 .62 11.51 4.2 13.9 18.9 31.2 119

1986 2 19 .0 2446480.5 . 0 4x.786 -13 7.21 20 45.748 -12 59.49 1.45 - 25.35 .62 12.66 4.2 13.9 20.3 33.3 132

1986 2 20 .0: 2446481.5 Ca 412:03r5 -13 24.83

i

20 44.002 -13 17.18 1.43 '26.70 .63 13.75 4.2 13.9 21.7 35.4 144

1986. 2 21 .0 2446442.5 0 40.244 "13 42.76 20 42.266 -13 35.17 1.42 -28.01 .64 14.79.4.2 13.9* 23.1 37.4 156

1986 2 22 .0 2446,483.5 20 384562 -14 .99 20 .46.534 '13 53.48 1.40 -29.25 .65 15.78 4.2 13.9 24.6 39.4 167

1986 2 23 .0 2446484.5 20 36.838 '14 19.55 20 3.8.812r14 12.10 1.38 -30.44 .66 16.70 4.2, 13.9 26.0 41.3 169

1986 2 24 .0 2446415.5 20 38,11r -14 38.46 20 37.106''14 311.06 1.37 '31.57 ,67 17.57 4.3 13.9 27:4 4301 t59

1946 2 25 .0 2446486.5 20 33.404 -14 57.73 20 35.396 -14 50.42 1.35 '32.65 'i69 18.38 4.3 13.9 28.9 44:9 146

1986 2.28. .0 2446407.5 20. 31.696 -15 17.40 20 33.687 -15 10.16 1.33 '33.67 69 19.14 4.3 13.9 30.13 46.6 132

1986 2 27 .0 2446488.5 20 24.474 "15 37.49 31.676.'15 30.32 1.31 -34.64 .70 19.85 4.3 13.9 32.8 48.2 118

1986 2 29 .0 2446489.5 20 2.252 "15 58.03 Po. 30.259 -15 50.93 1.29 -35.56 .71 2040 4.4 13.9 33.3 49.8 103.

1986 3 1 .0 2446440.5 20 26.520 16 19.0k 20 28.534 -16 12.03 1.27 -36.42 .72 '21.11 4.4 13.9 34.7 51.3 00

1986 3 2 .0 2446491.5 241 24.775 -16 46.63 20' 26.794 '16 .33.67 1:25 -37.24 .74 21.67 4.4 1309 36.2 52.7 74'

.f986 3 3 .0 2446442O5 26 23.012 "17 2.7 20 25.037 -16 55.87, 1.22. -38.01 .75 22.19 4.4 13.9 37.1 54.1 59

1986 3 4 .0 2446493.5820 21.225 -17 25.5 20 23 257 -17 18.70 1.40 -38.73 .76 22.66 4.4 13.9 39.2 55.3 45

1986 3 5 .0 24464°4.5 20 1°.4011 "17 48.95 20 21 447 -17 42.21 1.18 -39.40 .77 43.10 4.4 13.9. 40.7 56.6 31

1966 3 6

1986 .3 7 .0 2446445.5 20 17.556 -18 13.12

20 15.662 -18 38.04

20 19 602 -18 6.45

20 ; .714 - 18,31.49

1.16

1.13 -40.62

.79

.80

23.50 4.5

23.81 4.5

13.9

13.9

42.2 57.7 17

43.7.58.8 .6

rit

1986 3 10

.0 2446447.5 20 13.717 "19 3.90

.0 2446,49 .3.5 20 11.717 "1° 30.66

.0 2446499.5 20 4.642 -19 58.45.

20 15.777 +18 57.48

20 13.781 -19 24.25

20 11.718 '19 52.12

'1014

1.09

1.06

'414.16

-41.65

...42.10 .82

.83

.94

24.20 4.5

24.51 4.5

24.79 4.5

13.9

13.9.

13.9

45.3 59.8 13' 46.8 60.7 27

48.4 61.6 40

1966, 3 11 .0 2446500.5 26 7.493 -20 27.34 20 9.578 -20 22.10 1.04 -42.51 ' .86 25.04 4.5 13.8. 50.0 62.4 54. 1986 3 12

1986 3 13

.0 744601.5 20 5.251 '21 57.44

.0 2446102.5 20 2.916 -21 28.84

20 7.348 -20 51.30

20 5.018 -21 22.80

1.01

.99

-42.8T

'45.18

.87

.89

25.27 4.5

25.47 4.5

13.8

13.8

51.6 63.1 67

53.2 63.8 80

1986 3 14 .0 2446503.5 20 .461 -22. J.67 '20 2.573 -21 55.74 .96 -43.44 ,.90 25..66 4.5 13.8 54.9 64.3 13' 1986 3 15 OVA:2.00,4.5 lc 51.87! Aga 36.05 19 59.947 -22 30.23 .94 -43.65 .92 25.83 4.5 13.8. 56.6 644'1135

1986 3 16 .0 r 5.5 IS 55.149'913 12.10 19 57.274 -23 6.40 .91 -43.81 .93 25.98 4.5 13.7 58.4 65.3 118

1986 3 17 .0 446506.5 15 52.737 '2.1. 49.97 19 54.384 -23 441.40 .89 '43.92 .95 26.11 4.5 13.7 60.1 65.6 131

1966 3 IR .0 2446507.549 44.144 '24 218.81 19 51.303 -24 24.38 .86 -43.97 .96 26.23 4.5 13.7 62.0 65.9 143

1986 3 19 .0 2446508.5 19 45.836 '25 11.79 19 48.009 -25 6.50 .84 -43.95 .98 26.33 4.5 13.7 63.8 66.1 156

.1986 3 20 .0. 2446504.5 14 41.242 -2' 56.04 19 44.470 -25 50.96 .81 -43.87 .99 26.42 4.5 13.6 65.8 6641 VIM

1986 3 21 .0 24465I9.5 19 38.451 -26 42.86 19 40.655 -26 37.92 .79 -43.71 1.01 26.50 4.4 13.6 67.8 66.1 176

1966 3 22 .0 2446511.5 1' 34.305 -27 32.33 19 36.526 -27 27.58 .16 -43.41 1.02 26.57 4.4 13.6 69.8 6e.0 163

1986 3 23 .0 2446512.* 19 24.798 -2R 24.68 19 32.038 -28 20.14 .73 -43.14 1.04 26.63 4.4' 13.5 71.9 654 149

1986 3 24 .0 2446513.5 14 24.882 -29 20.11 19 27.142 -29 15.80 .71 -42.72 1.'05 26.68 4.4 13.5 74.1 65.5 134.

1986 3 25 .0 '2446514...5 19 14.445 -30 18.79 19 21.777 -30 14.74 .69 -42.18 1.07 26.72 4.3 13.4 76.5 65.0'119

1986 3 26 .0 2446515.5 I4 11.571 -31 20.90 19 15.876 -31 17.14 .66 -41.52 1.09 26.75 4.3 13.4 78.9 64.4 103

1966 3 27 .0 2446516.5 lc 7.028 -32 26.57 19 '4.359 -32 23.12 .64 -40.73 1.10 26.77 4.30 13.3 81:4 63.7 87

1486 3 2R .0 2446517.5. 1 59.774 -33 35.86 19 2.133 -33 32.77 .61'39.78 1.12 26.79 4.2 13.3 84.9 62.0 71

1986 3'29 .0 2446514.1 IF 51.700 -34 48.75 18 54.089 -34 46.06 .59 -38.66 1.13 26.80 4.2, 13.2 86.8 61.8 55,

1986. 3 30 .0 2446514.K IR 42.681.'36 18 45.102 -36 .57 -37.33 1.15. 26.81 4.2 13.2 89.7 60.5 39

1966 3 31

.5.09

.0 2446520.5 le 32:57! -37 24.52 18 35.029 '37 2.80 .55 '35.79 1.16 26.81 4.1 13.1 92.7 59.1 23

1986 4 1 1988 4 2 .0 2446521.5 IR 21.216 -38 46.42

2.446522.5 Its ',434 "#(.. 9.82'.

IR 23.704 '38 :..;; 18 16064 '

.53

.51

-34.01

-31.95

1.18

1.19

26.80 4.1

26.79 4.1

13.1

13.0

96.0 57.5 11

99.4 55.7 16

1986 4 3 . 2446523.5 17 54.041 -41 33.29 17 56.600 -41 33.57 .49 -29.59 1.21 26.78 4.0 13.0 102 53.7 30

1986 .4 4 .0 2446524.5 17 37.454 '42'54.83' 17 40.460 -42 55.96 .48 -26.92 1.22 26.76 4.0 121.9 106 7 51.5 46

1986 4 5 .0 24461250k 17 1'.738 -44 11.82 17 24.367 -44 13.89 .46 -23.90 1.24 26.74 4.0 12.9 110 6 49.1 61' 1986. :4 6 .0 244652F.5 IF 59.5°2 '45 21.01 17 2.240 -45 24.1)1 .45 -20.55 1.26 26e12 4.0 12.8 1 7 46.4 77

1986 4 7 .0 2446521.5 16! 37.44", +46 18.61 16 40.0 h '46 22.83 .44 -16.87 1.27 26.69 3.9 12.8 118.8 43.6 93

1986 4 g se 2446518.5 16 13.440 -47 .62 16 16. 19 '47 6.01 -.43 '12.87 1.29 26.66 3.9 1208 123.1 40.7 108

1986 4 9 .0 244652 °.5 l' e.072 -47 23.32 15 50.6761 ..41 24.88, .42 -8.61 1.30 46.63 Y.9 12.8 127.3 37.7 123'

198641..4 10 .0 244653C.5 11 21.78! -47 23.42 15 24.332 -47 31.52 .42 -4.14 1.32 26.59 4.0 12.8 131.5 34.8 137-

1986T 4.11 .0 2446531.5 14 55.313 -47 473 14 57.785 '47 4.47 :42 .45 1.35 26.55 4.0 12.8 135.5 31.8 147

1986 4 12 a-0 2446532.5 14 29.382 -46 14.43 14.31067 -46 24.08 .42 5.08 1.35 26.51, 4,180 12.9 139.2 29.1 2.82

1986 4 13 .0 2446533.5 14 4.63° '41 7.06 14 6.938 -45 174.48 .42 9.65 1.36 26.47 CA 12.9 142.4 26.7 148
Table 13-2 (contd)

YR INN Y HR J.D. R.A. (1060.01 DEC, (AP1IN) DEC DELTA DaDDT R SWOT IITMAG 804AG nimi BETA MOON

1986 ?I. .0 2446534.5 13 41.560 +43 42.13 13 43.765 -43 53.15 .431 14.08

1906 4 11.! .0 2446535.5 13 00.433 -42 3.87 13.22.556 +42,15.33 .44 18.31

1986 4 16 .0 2446536.5 13 1.35° -40 16.62 13 3.412 +40 28.40 .45 . 22.27 1986 .4 17 .0 2446537.5 12 44.308 -38 24.30 12 46.302 -38 36.30 .4,7. 25.94 1906 10 .0 2446534.5 12 29.154 -3E 30.52 12 31.105 +36 42.66 .440 29.29 1986 4 19 .0 2446539.5 12 15.744 +34 31064 12 17.651 +34'49.90 .56', 32.34 1986 4 20 .0 2446540.5 1' 3.880 +32 47.80 22 5.757 +33 .05 .52' 35.07

1986 '4 21 .0 2446544.5 11 53.366 +31 2.20 11 55.239 +31 14.45 .54i 57.53

1186 4.22 .0 Z446542.5.11 44.091 +29 21.71 11 45.926 +29 33.93 .56 39.71

1986 4 23 .0 2446543.5 11 35.643 "27 46.77 11 37.664 +21 51.95 .59 41.66 1986 4 24 .0 2446544.5 11 26,50E -26 10,55 11 30.318 -26 29.67 .61 43.39 1986 4 25 .0 2446545.5 11 21.96 ;7,24 53.9$ 11 23.770 -2S 6.06 .64 44.94 1956 4 26 .0 2446546.5 10 2 IL-23 35.94 11 17.918 +23 47.97' .66 46.31 1986 4 27 .0 244654.5 11 1 .583 -22 23.17 11 10.676 -72 35.14 .69 47.52

1906 4 2 .0 2446544.5 11 6.176 -21 15.39, 11 7.966 -21 27.30 .72 48.61 1986 4 29 .0 2446549.5 11 1.943 +20 12.27 11 3.731 +20 24.13 .74 49.58 1986, 4 30 .0 2466350.5 10 50.123 -1° 13.50 10 59.910 -19 25,30 .77 50.45 1906 5, 1 .0 2446551.5 10 54.611 +10 18.77 10 56.457 -18 50.52 .80 51.22 1986' 5 2 .0 2446552.5 10 51.546 +17 27.7$ 10 5..3.1333 -17 39.48 .83 51.92 1906 5 3 .0 2446553.5 10 40.715...+16'40.24 10 50.1502 -16 51.89 ..A6 52.54 1986 5 .4 .0 244654.5 10 46.145 +15 55.89 10 47.933 +16 7.49 9' 53.10.

3956 5 5 .0 ;446555.5 10 43.812 -15 14.48 10 45.600 -15 26.04 .92 55.60'

1986 5 6 .0 2446556.5 10 41.611 +14 35.79 10 43.480 +14 47.31 .96 54.05

1986 5 7 .0 2446557.5 10 39.762 +13 59.61 10 41.5'52 +14 11.09 .99. 54.45

1916 5 8 .0. 2446558.5 10 38.008 +13 25.74 10 39.799.+13 37.19' 1.02 '54.81

1986 5 9 .0 2446559.5 IQ 36.413 +12 54.03 10 31.205,+13 5.44 1.05 55.13. 1986 s 10 .0 2446560.5 10 34.962 +12 24:29 10 36.756 -12 35.67 1.08 55.41

1986 5 11 40 2446561.5 10 33.644 +11 56.39 10 35.439 -12 7.75 1011 55.66

1986 5 12 .0 2446562.5 10 32.447 +11 30.20 10 34.243 -11 41.53 1.15 55.89 1986 5 13, .0 2446563.5 10 31.361 -11 .5.60 10 33.159 -11 16.90 1.18 56.09

1986 5 14 .0 2446564.5 IC 30.378 -10 42.46 10 32.177 -10 53.75 1.21 56.26

1186 5 15 .0 2446565.5 10 21.490 -10 20.70 10 31.290 "10 31.97 1.24 56.41

1986 5 16 .0 2446566.5 10 28.6116 -10 .22 10 30..490 +10 11.46. 1.25 56.54 1986 V 17 .0 2446567.5 10 27.968 - 9 40.93 10 29,771 - 9 52.15 1.31 56.65

1986 5,18 .0 2446568.5 10 27.323 - 9 22,75 10 29.127 - 9 33.96 1.24 56.74

1986 5 19' .0 2446569.5 10 26.748 - 9 5.62 10 28.553 - 9 16.81 .37 56.81

1986 5 20 .0 2446570.5 A0 26.237 8 49.46 10 28.043 9 .64 141": 56.87

1986 5 21' .0 2446571..5 IC 25.767 - 8 34.22 10' 27.594 - 8 45.39 1.44 56.91

1986 5 22 .0 2446572.5 10 25.353 - 1 19.84 101271.201 - S 31.00 1.47 56.94

1946 5 23 .0 2446573.5 10 25.05! 6.26 10 26.661 - 4 17.41 1.51 56.95

1186 5 24 0 .0 '2446574.5 IC 24.141 - 7 53.45 10 26.571 - 8 4.59 1.54 56.96

1986 5 25 tO 2446575.5 ID 24.8416 - 7 41.35 10 26.327 + 7 52.49 1.57 56.95

1986 5 26 .0 2446576.5 00 24.314 - 7 29.93 10 26.126 - 7 41.06 1.60 56.9;3

1986 5 27 .0 2446577.5 IC 24.154 - 7 19.15 10 25.966 7 30.27 1.64 56.90

1986 20 .0 2446578.5 10 24.032 7 6.97 10 25.845 - 7 20.09' 1.67 56.87

1986 5 121 "244E57..5 10 23.946 - F 59.36 10 25.760 - 7 10.48 1.70 56.82

1956 5 30 .0 2446566.5 1C 23.0°5 - 6 50.29 10 25.710 - 7 1.41 1.74 56.76

1986 5 31 .0 24465)11.5 IC 2!.876 41.74 10 25,692 - 6 52.85, 1.77 56.69

1966 6 1 .0 244656205 10 21.609 - 6 33.66 10 25.705 6 44.79 1.50 56.62

1986 6 2 .0 *2446503.5 10 23.930 - 6 26.06 10 25.7,7 - 6 37.1% 1.83 56.53

1986 6 3 .0 2446564.5 10 24.000 - 6 15.93- .10 25.517 - 6 30.04 1.87 56.44

1986 6 4 .0 2446565.5 IL 24,696 - 6 12.20 10 26.913 - 6 23.31 1.90 56044

1986 F 5 .0 24465S6.5 10 24.216 6 4 10 26.034 - 6 16.98 1.93 56.22

19865 6 6 .0 244656/.5 10 2 % 361 - 9 .93 10 26.179 - 6 11;04' 1.96 56.11

1986 6 .7 .0 2446°08.5 ID 24.52P - 5 54.35 10 26.347 - 6 5.46 2.00 55.98

1986 6 B 244656'7.5 ID 24.717 - 5 49.12 10 26.536 - 6 .24 2.03 55.54

1.38 26.43 4.2

1.39 26.38 4.3

1.41 26.34 4.4

1.42 26.29 4.5

1.44 26.24 4.6

1.45 26.19. 4.7

'1.47 26.14 4.8

1.48 26.09 4.9

1.50 26.04 5.0

1.51 25.99 5.2

1.53 25.93 5.3

1.54 2/.88. 5.4

1.56 25.83 5.5

1.57 25.77 5.6

1.59 25.72 5.8

1.60 25.66 5.9'

1.62 25.6 1 6.0

1.63 25.55 6.1

1.65 25.49 6.2

1.66

25.44 6.3

13.0 245.2 24.6'137

13.0 147.3 22.4 125

13.1. 148.7 21.7 111

13.2 149.3 21.1 97

13.3 149.3 2069 83

13.4 1404y 24.0 69

13.5 147.7 ?1.4 56

13.6 146.4,22,0 43

13.7 1440822.8 33

13.8,143.0,234 2$

13.9 141.2'24.5 34

14.1 139.3 25.1 '44

14.2 137.5 25.9 57

14.3 135.626.6, 72

14.4 133.8 27.2 86

14.5 132.0 27.8'100

14.6 130,2 28.4 114

14.7 128.5'280 2g7

14.8 128.8 29.3 tVIP

14.9112502 2907 14e

1. 8 25.38 6.4 15.0 123.7 30.0 Ise

1.69

:1.171

.1.72

1.74

1.75

1.76

1.78

1.79

1.81

1.82

1.84

1.85

1.87

1.88

1.89

1.91

1.

1.94

1.95

1.96

1.98

1.99

2.01

2.0

2.

22.

2.0

2.09

2.10

2.12

2.13

2.14

2.16

2.17

25.32 4.5 1501 122.1 30.3 1,5,

25.27 6.6 15.2 120.6 30.6 147

25.21 6.7 15.3 219.2 30.8 135\

25.15 6.8 15.3 117.8 31.0 127

25.10 6.9,15.4 116.4 11.1 116

25.04 7.0 15.5 115.0 31.2 105

24.98 7.1 15.6 113.7 31.3 94

24.92 7.2 15.7 112,4 31.4 62

244? "714 15. 111.1 31,4 71

24.81 1.4 15. 109.9 31.4 60

24.76 .4 15.19 108.7 31.4 49

24.7 7.5 16.0 107.5 31. 38

24.64 7.6 16.0 106.3 31.4 2$

24.59.7.7 16.1 105.1 31.3 22

4 21.53 7.8 16.2 104.0 31.2 22

24,410 7.8 16.2_102.4 31.1 29

t .42'7.9 16.3'101.8 31.0 40

.36 8.0 16.4 100.7'300 53

24.31.8.1 16.4 99.6 30,8._67_.

24 8.1 5 98.6 30.7 .81

.20 6.6 97.5 30.5 9*

24.15 8.3 16.6 96.5 30.3 lle

24.09 8.3 16.7 95.5 30.2 124\

24.04 8.4 16.7 94.0 30.0 137N

23.2A 8.5 16.8 93.5 29.8 148'1

23:93'8.5 16..9 92.5 29.6 157

23.88 8.6 16.9 91.5 29.5 160

23.82 8.1 17.0 90.5 29.3 155

23.77 40 17.0 89.6 29.0 146

23.72 8.8

23.67'8.5

23.62 so

23.56 8.9

23.51 9.0

23.46 9.1

17.1 88.6 28.8 136

17.1 87.7 28.6 125

17.2 86.7 28.4 114.

17.2 85.6 28.2 103

17.3 84.9 27.9 92

17.3 83.9 27.7 81
vi Mit 1W HR I c R.A. lissa.a)

Table B-2 (contd)

R.A. (AWN) DEC.

P

DELTA OUDOT R G NMAG *THETA BETA iMOON

1906

,1986

-1984

1986

1986

1986

1986

1986

6 9

6 10

6 11

6 12

6 13

6 14

6 15

6 116

.0

.0

.0

.0

.0

.0

.0

.0

1966 K 17 .0

1986 6 18 .0

1986 6 19

1986 6 20

1986 6 21 oC

1986 6 22 .0

19%6 6 23 .0

1986 6 24 .0

19 86 6 75 .0

1986 6 26 .0

1986 6 27 .0

1986 6 28 .0

1.986 6 2.9 .0

1986 6 30 .0

-1986 7 1 .0

1986 7 2 .0

1986 / 3 .0

1986 7 4 .0

1986 7 5 .0

1986 7 6 .0

1986 7 7 .0

1986 7 8 .0

1986. 7 9 .0

1986 7'10 .0

1986 7 11 .0

1986 7 12 .0

1986 7 13 1.0

1986 7. 14 .0

1986 7 15 '.0

1986 7 16 .0

1986 7 17 .0

\,,1986 7 18 .0

'1986

7 19 .0

19\46 7'20 .0

1016 7 21 .0

986 7 22 .0

86 7 23 '.0

I 86 7 24 .0

6 7 25 .6

1 7 26 .0

1 7 27 .0

3986 7 24 .0

1986 7 29 .0

1986 7 30 .0

1986 7'31 .0

1986 )3 1986 P 2 .0

1906 A 3 .0

4

2446590.5 10 24.928 - t A.24

2446591.5 10 25.154 - 5 39.67

2446592.5.10 25.401 - 5 35.41

2446593.5 10 25.666 - 5 31.45

2446594.5 10 25.947 5 27.77

2446595.5 it 26.24 - 5 24.36

2446596.5 10 26.557 - 5 21.20

2446597.5 IC 2V.R64... 5 14:32

2446548.5 10 27.225 5 15.67

2446599.5 10 27.579 - 5 13.24

2446600.5 10 27.946 - 5 11.04

2446611.5 10 28.325 - 5 9.05

2446602.5 10,24.715 - 5 7.27.

2446603.5 10 .29.116 5 5.69

2446604.5 10 29.527 - 5 6430

2446605.5 10 2Q.949 - 5 3.10

2446600.5 10.30.381 5 2.07

2446607.5 10 30.421 - 5 1.21.

2446608.5 10 31.271 - 5 .53

2446609.5 I4 31.125 - Y .00

2446610.5 10 32.198 - 4 59.63

24466115 10 32.670-6 4 59.42

2446612.5 10 33.16.2 4 59.35

7496613.5 10 33.641 + 59.43

2446514.5 10 34.134 - 4 59.64

2446615'.6 IC 34.641 + 4 59.99

2446616.5 10 3 .150 5 .48 2446611 + 47.5 10 3 .666 - 5 1.09

2446619.5 10 36.188.911.' P 1.82

2446619.5 10 36.715'- 5 2.68

2446620.5 10 37.247 - 5 3.65

2446621.5 10 37.785 - 5 4.73

2446622.5 10 34.327 - 5 5.93

2446623.5 1C 34.874 9 7.23'

2446624.5 10 .39.42E - 8.64

2446625.5 10 39.981 - 5 10.15

2446628.5 10 40440 - 5 11.75

2446627.5 10 41.f04 - 5 13.46

2446626.5 10 41.670 - 5 1425

2446629.5 10 42.240 - S 1101%.1". 24466304 10 49.413 - 5 19.11

2446631.5 10 43.3E° .05 21.17

244663.5 ip 43.966 - 5 23.

Z4.64.33.5 IC 44.550 -

2446634.5 40 45.134 -

2446635.5 10 45.72D - C 2446636.5 10 46.304 - t

2446637.5 10 46.900 - 5

2446639.5 IC 47.493 6-'5

10 26.746 - 5 55.36

10.26.975 5 50.79

1C 27.222 - 5 46.54

10 27.0447 - 5'42.58

10 27.769 5 38.91

IQ 214.066. 5'35.50

10 28.379 - 5 32.36

10 28.706 5 29.47

10 29.047 - 5 26.02

'10 29.401 - 5 24.40

10 29.768 - 5 22.21

10 30.147 5 20.23

10 30.538 5 18.46

10 30.939 - 5 16.88

10 31.351 - 5 15.50

10 31.773 5 14.30

10.32.205 5 13.28

10 32.645 5 12.43

10 33.095 605 11.76

10.33.553 - 5. 11.24

10. 34.020 - 5 10.88

10 34.494 - 5 10.67

10 34.976 - 5 10.61

10 35.466 - 5 10.766

10 35.962 - 5 10.92

10 36.465 5 11.28

10 36.975 5 11.77

10 .37.441 - 5 12.39

10 38.012 5 13.13

10 38.535..6 5 14.00

10 39.072 ,6 5 14.98

10 39.610 6 5 16.07

10 40.152 - 5 17.27

10 40.699 - 5 18.59

10 41.250 - 5 20.00

10 41.406 - 5 21.52

10 42.365 5023.13

10 42.924 - 5 24.85

10 43.495 - 5 26.65

10 44.065 - 5 28.55

10 44.638 - 5 30.53

10 45.214 - 5 32.60

10 45.743 4 5 34.75

53 10 46.375 6 5 36.98

.84 0 46.959 5 34.29

.22 10 47:545 5 41.68

.67 10 48.134 S 44.15

5.20 10 48.724 - 5 46.68

7.40 10 49.317 - 5 49.29

2446639.5 10 44.089 - 5 40.47

2446640.5 10 4..684 - 43.22

2446641.5 10 49. 6 t 46.03

2446642.5 010 *3P .6 S. 48.90

2446643.5 10 .0.483 - 5 51.44

2440644.5 10 51.086 5 54.95

2446645.5 10 51.689 5 57.91

10 49.912 5 51.97

10 50.509 5 54.72

10 51.107 - 5 57.54

10 51.707 - 6 .43

10 52.308 6 3.38

10 52.910 6 6.39

30 53.514 - 6 9.47

2.06 55.70 2.18 '23.41 9.1 17.4 83.0 27u5 69

2.09 55.55 2.20 23.36 9.2 17.4 82.1 27.2 58

2.13 55.39 2.21, 23.31 9.2 17.5 81.2 27.0 47

2.16 55.'23 2.22 23.26 9.3 17.5 8001 .26.7 36

2.19 55.06 2.24 23.21 9.3'17.6 79.4 26.5 26

2.22 54.88. 2.25 23.16 9.0.17.6 78.6 26.2 19

2.25 54.69 2.26 23.11 9.4 17.6 77.7 264 18

2.28. 54.50 2.28 23.06 9.5 17.7 76.0 25.7 25

2.32 54.31 2.29 23.02 9.5 17.7 76.0 25.5 35

2.35 54.10 2.30 22.97 9.6 17.8. 75.1 5.2 48

2.38- 53.90 2.32 22.92 9.6 17.8 74.2 25,0 61 . 2.41 453.68 2.33 22.87 9.1 17.8 73.4 24.7 754,

2.44 53.46 2.34 22.82, 9.7 17.9 72.5 24.4 90

2.47 53.24 2.36 22.78 9.8 17.9 71.7 24.2 104

2.50 53.01 2.37 22.7; 9.8 18.0 70.8 23.9 118

2.53 52.78 2.38 22.68 9.9 18.0 70.0 23.6 132

2.56 52.55 2.40 22.64 9.9 18.0 69.2 23.3 145

2.59 52.30 2.41' '22.501 9.9 18.1 6803 23.1 156

2.62 52.06 2.42 22.55 too 18.1 674.5 22.8 162

2.65 51..80 2.44 22.50 10:0 18.2. 66.7 22.5 160

2.68 51.55 2.45 22.45 10.1 18.2 44.8 22.3 151

2.71 51.28 2.46 22.41 10.1 18.2 65.0. 22.0 141

2.74 51.02 2447 22.36 10.2 18.3 64.2 21.7 130,

2.77 .50.74 2.49 22.32 10.2 18.3 63.9 21.9:119

2.80 50.46 2.50 22.28' 10.2 18.3 '62.4 21.2 108

2.83 50.18 2.51 22.23 10.3 18.4 61.8 20.9 97

2.86 49.89 2.53 22.19 10.3 18.4 61.0 20,6 85

2.89 49.60 2.54 22.14 10.4 18.4 60.2 ?0.3 74

2.92 49.30 2.55 22.10 10.4'18.5 59.4 20.0 63

2.9.4 49.00 k.56 22.06 10.4 18.5 58.6 19.8 52

2.97' 48.69 2.58 22.02 10.5 18.5 57.8 19.5 40

00 48.37 2.59' 21.97 10.5 18.6 57.0 19.2

3.03 48.06 2.60 21.93* 10.5 18.6 56.2 18.9

3.06 47.73 2.62 21.89 10.6 18.6 55.4 18.7 15

3.08 47.41 2.63' 21.85 10.6 18.6 54.6 18.4' 19,4. 3.11 47.08 2.64 21.81 10.6 1A.7 53.8 18.1 29

3.14 46.74 2.65 21.77 10.7 18.7 53.0 17.8 4r

3.16 46.40 2.67 21.72 10.7 18.7 5244 17.5 54

3.19 46.06 2.68 21.68 10.7 18.8 51.4 17.3 67

3.22 45.72 2.69 21.64 10.8 1p.8 50.7 17.0 et 3.84 45.37 2.70 21.60 10.8 18.8 49.9 16.7 15

3.27 *45.02 2.72 21.56 10.8 18.8 49.1 '16.4 109

3.30 44.67 2.73 21.52 10.9 18.9 48.3 16.2 123

3.32 44.31 2.74 21.48 10.9 18.9 47.6 15.9 137

3.35 43.95 2.75 21.44 10.9 18.9 46.8 15.6 150

3.37 43.58 ,2.77 21.4Q 11.0 18.9 46.0 15.3 160

3.40: 43.22 2.78 21.37 11.0 19.0'45.3 15.1 164

3.42 42.85 2.79 21.33 11.0 19.0 4445 14.8 158

3.45 42.47 2.80 .21.29 11.1 19.0 43.7 1445 140

3.47 42.09 2.81 21.25 11.1 19..0 43.0 14.2 137

3.50 41.71 2.83 21.21 11.1 19.1 42.2 14.0 126

3.52 41.32 2.84 21.17 11.2 19.1 41.4 13.7 115

3.54 40.93 2.85 21.14 11.2 19.1 40.7 13.4 104

3.57 40.54 2.86 21.10 11.2 19.1 39.9 13.1 92

3.59 40.14 2.80 21.06 11.2 19.2 39.2 12.9 81

3.61 19.74 2.89 21.03 11.3' 19.2 38.4 12.6 70
Table 8-2 (maid) .^ YR MN DV DR ID. R.A. (1050.0) DEC. R.A. 1APPINti DEC. 146'10 k

1986 P 5

1986 S 6

2986

1986 8 R 1986 8 9 1986 8 10

1986 '9 11

1986. 8 12

1986 8 13

1986 R 14

1986 8 15

1986 8 lb

1986 8 17

1986 8 18

1986 8 19

1986 4 20

piss p 21

1286 8 22

1986 23

1986 8 24

1986 8 25

1986 8 26

1186 8 27

1986 P 28

1986' 8 29

1906 8 30

1986 8 31

1986 9 1 1986 9 2 1996 0 3 1986 9 4 1986 9 5

1986 9 E 1,86 9 7 1986 9 8 1986 9 9

1986 9 10

1986 .9 11 19ft 9 12

1.986 9 13

1986 9? 14. 1986 9 15

1986 9 16

1986 4 17

1986 9 IP

1986 9 19

1986 9 20

1986 9 21

1986 9 22

1986 9 23

1998 9 24

1986 9 25

1986 9 26

1986 9 21

1986 9 28

.0 2446646. \I 0 520,294. 6... 1.04

.0 2406647.5 0 52. °00 C 4.22

.0 2446646.5 10 53.506 . 6 7.47.

.0 2446649.5 10 54.112 6'12.77

.0 2446650.5 10 54.720 6 14412

.0 2446651.5 10 55.328 - 6 17.53

. 0 2446652.5 10 55.936'. 6 20.99

.0 2446653.5 10 56.544 6 24.51

.0 2446654.5 10 57.152 - 6 28.07.

. 0 2446655.5 10 57.760 6 31.68

.0 2446656.5 10 56.367 6 35.34.

.0 2446657.5 10 58.974 6 39.00

.0 2446658.5 10 59.501 6 42.79"

.0 2S46651.5 11 .187 6 46.58

.0 24'46660.5 11 .793 « L 50.41

.0 2446661.5.11 1.398 - 6 54.29

..0 2446662.5 11 .2.001 6 58.20

.0 2446663.5 11 2.604 7 2.16

.0 24,6664.5,11 3:206 7 6.15

.0 2446665.5 1.1 3.807 7 10.28

.0 2446666.5 11 4.407 7 14.25

.0 2446667.5 12 5.005 7 18.36

.0 2446668.5 11 5.603 .7 22.50

. 0 2446669.5 11 6.198 1 7 26.68

.0, 2446670.5 11 6.793.1%7 30.89

.0 2446671.5 11 /.38.-7- 1'. 35.14

'.0 2446672.5 11 7.976 7 39.42

.0 2446673.5 11 -8.565 7 43.73

.0 2446674.5 11 c.152 7 441.07

. 0 2446675.5 12 °.718 « 7 52.44

.0 2446676.5 11 10.321 7 56.84

.0 2446677.5 11 10.902 P 1.28

. 0 2446678.5 11 11.480 P 5.73

.0 2446679.5 11 12.056 A 10.22

.0 2446680.5 11 12.629 6 14.73

.0 2446681.5 11 13.200 8.19.27

.0 2446602.5 11 1.766 8 23.83

.0 2446683.5 11'14.313 A 28.42

.0 2446694.5 11 14.995 8'33.02

.0 2446685.5 11 15.454 8 57.65

.0 2446686.5 11 16.010 Es 42.30

.0 2446687.5 11 16.162 P 46.97

.0 2446646.5 11 17.111- P 51:66

. 0 2446689.5 11 17.656 8 56.31

.0 2446600.5 11 10.149 « 9 1.10

.0 24466°1.5 11 18.736 9 5.84

.0 24466°42.5 11 1r'.272 9 10.60

.0 2446693.5 11 19.801 9 15.38

.0 2446694.,5 11 20.328 9 20.18

.0 2446695.5 11 20.851 -.4 24.98

.0 2446696.5 11 21.369 9 29.81

.0 2446697:5 11 21.893 9 34.65

.0 2446648.5 21 22.393 9 39.50.

.0 2446695.5 11 22.899 9 44.36

.0 2446700.5 11 23.400 9 49.24

.0, 2,446701.5 11 23.896 - 9 54.13

10.54.119 6 12.60

10 54.724 « 6 15.80'

10 55:331 - 6 19.05

10 55.937; 6 22.36

10 156.545 6 25.72

10 57.152 6 29.14

10 57.760 6 32.60

io 58N568 hi. 6 36.12

10 58.976 6 59.69

10 59.584 6 43.31

11 .19? 6 46.98

11 .799 6,50.69

IA 1.406 b. 54.4'S.

1111 2.012 6.59.25

11 2.610 7 2.09

11 3.223 1 5.97

11 3.827 - 7 9.89

11 4.429 7 13.86

11 5.031 7 17.86

11 5.632 7 21.90,

11 6.232 7 25.97

11 6.830 7 30.08

11 7.428 7 34.23

11 8.024 7 38.42

11 .8.618 7.42.64

11 9.211 7 46.89

11 9.802 * 7 51.18

11 10.391 7 55.49

11 10.978 7 59.64

11. 11.564 8 4.22

11 12.147 + 8 8.63

11 12.728 8 13.07 . 11 13.306 8 17.53

11 13,802, 8 22.02

11 14.456" A- 26.54

11 15.027 8 31.08

11 15.595 a 35.65

11 16.160 8 40.24

11 16.722 :8 '44.86

10 17.281 -8 49.49

11 17.1437 13 54.15'

11 114.390 9 58.82

11 18.939 19 3.52-

11 19.485 1 A:23

11 20.027 1 12.96

.11 20.565 9 17.74

11 21.100 9 22.48

11 21.630 9 27.26

ogE22.157

- ?,32.06

22.680 .9 36.87

11 23.199 .. 9 41.70

11 23.713 - 9 46.54

12 24.224 9 51.40

11 24.730 9 56:27

11 25.231 -10 1.15

11 25.428 -ld 6.04

52

DELTA IDELDOT it 3.64 39.34

3.66. 38.93

3.68 38.52

3.70 38.10

3.73 31:69

3.75 37.27

3.77 36.84

3.79 36.42

3.81 .35.99

3.83 35.56

3.85 35.13

3.87, 34.69

3.89 34.26

3.91 33.82

3.93. 35.38

3.95 32.94

3.97. 32:49

3.99 32.05

4.01 31.60

4.02 31.15

4.94 30.70

4.06 30.25

4.08 29.79

4.09 29.33

4.11 28.87

4,13 28.41

4.14 27.94

4.16 27.48

4.17 27.01

4.19 26.54

4.21 26.06

4.22 25.59

4.24 25.11

4.25 28.64

4.26 24.16

4.28 23.66

4.29 23.20

4.30 22.72

4.32 22.24

4.33. 21.76

4.34 '21.28

4.35 20.80

4.37 20.12

4.38. 19084

4.39 19.36

4.40 18.81

4.41 18.39

4.42 17.91

4.43 17.43

4.44 16.95

4.45 16.47

4.46 15.98

4.47 15.50

4.48 15.02

4.49 14.53

4.50 14.05

ROOT TMAG NMA 'TA BETA MOON

2.90 20.99 11°.3 19.2'37.7 12.3 58

2.91 20.95 11.3 19.2 3609 12.1 47

2092 20.92. 11,3.19.3 36.2 11.8 36,

2.94 20.88 11.4 18.3 35.4 11.6 25

2.95 20.84 11.4 19.3 34.7 11.3 17

2.96 20.81 11.4 19.3 34.0 11.0 63

2:97 20.77 11.5 19.3 33.2 10.6 23

2.98 20.74 11.5 19.4 32.5 10.5 .34

3.00 20.70 11.5 19.4 31.8 0.3 46

3.01 20.67 12.5 19.4 31.0 10.2 59

3.02 20.63 11.6 19.4 30.3 9.7 /3

3.03 20.60 11.6'19.4 29.6 9.5, 58

3.04 20.56 11.6 19.5 28.9 9.2 1b0

3.06 20.53 11.6 19.5 28.2 9.0 114

3.07 20.50 11.7 19.5 27.4 8.7 129

3.08 20. 6 11.7 19.5 26.7 8.5 141

li 3:09 20 3 11.7 19.5 26.0 8.3 153

3.10 20. 9 11.7 19.6 25.3 8.0 163

3.12 20.36 11.7 19.6 '24.7 7.8 164

3.13 20.33 11.8 19.6 24.0 7.6 156

3.14. 20.29 11.8 19.6 23.3 7.3146

3.1 20.26 11.00 19.6 2.6 7'.2 134

3.1 20.23 11.8 19.7 22.0 6.9 123

3.1 20.20 11.9 19.7 21.3 6.6 112,

3.19 20.16 11.9 19.7 20.7 '1$4 100

3.20 20.13 11.9 19.7 20.Q 6.2 89

3.21 20.10 11.9 19.7 19.4 6.0 78

3.22 20.07 11.9 19.7 18.8 5.8 66

3.23 20.04 12.0 19.8 19.2 5.6. 55

3.24 20.01 12.0 19.8 17.6 5.4 43

3025 19.97 12.0 19.8 17.1 5.2 32

3.27 49.94 12.0 19.8. 16.5 5.0 22

3.28 19.91 12.0 199.8 16.0 4.9 15

3,29 19.88 12.1 19.8 15.5 4.7 17

3.30 19.85,12.1 19.8 15.1 4.6 27

3.31 19.82 12.1 19.9 14.6 4.4 39

342 19.79 12.1 19.9 14.2 4.3 52

3.34 19.76 12.1 19.9 13.8 4.1 65

3.35 19.73 12.1 19.9 13.5 4.0 79

3.36 19.70 12.2 19.9 13.2 3.9 92

3.37 19.67 12.2 19.9 13.0 3,8 106

3.38 19.64 12.2 19:9 12.8 3.8 119

3.39 19.61 12.2 20.0 12.6 3.7 132

12.2 20.0 12.4 ,.3.6 156

3.40 1908 12.2 20.0 12.5 3.7 145

3.41 19755 12

3.43 19.52 12.3 20.0 12.4 3.6 164

:::: 19.50 12.3 20.0 12.5 3.6 163

19.47 12.3 20.0 12.6 3.6 154

3.46 19.44 12.3 20.0 14.8 3.7 143

3.47 19.41 12.3 20.0 13.0 3.7 131

3.48 19.38 12.3 201#1 13.2 3.8 120

3.49 i9.35 12.4 20.1 13.5 3.9 109

3.50 19.33 12. 20.1 13.9 3.9 97

3.52 19.30 12.4 20.1 14.3 4.0 86

3.53 19.27 12.4 20.1 14.7 4.1 75

3.54 '19.24 12.4 20.3 .45.2 4.2 63

4
.

,T11111.132 (could)

1/11 JD. (1240.0) DEC. (APPN) DEC DELTA D61110T

2986 129 .0 2446702.5 11 24.308 9 59.03 ii 26.2;0 -10 10.95 4.50 13.56 '3.55

1 9 30 .0 2446703.5 11 24.875 -10 3.9, 11 26.707 -10 15.06 4.51 13.08 3.56

19 10 1. :0 2446704.5 11 25.35E -10. 8.816 11 27.149 -10 20.79 4.52 12.60 3.57

19 10 2 .0 2446705.5 11 25.833 -10 13.79 11 27.665 -10 25.72 4.53 1242 3.58

198 10 3 .0 2446706.5 1i 26.304 -10 18.72 11 28.157 -10 30.66 4.53 11.63 3.59

198 10 4 2446707.5 11 26.770 -10 23.67 11 28.603 -10 35.62 4.54 11.15 3.60

198 10 5 .0 2446708.5 11 ,27.230 -10 28.6 11 '29.064 -10 40.56 4.55 10.67 4.62

1198 10 6 .0 2446704.5 11 27468! -10 33.5 11 29.51° *10 45.52 4.55 10.20 :3.63

196 10 7 .0 2446710.5 11 22.134 ..10-38.53 11 29.968 -10 50,4 4.56 9,72 3.64

198 10 8 .0 2446711.5 11 20.571 -10 43.50 11 30.411 -10 55..03 4.56 9.24 3..65

148 10 9 .0 2446712.5 21 2 °.014 - 10'48.46 11 30.848 -11 .42 4.57 8.77 3.66

198 10 11, .0 2446713.5 11 29.444 -10 53.43 11 31.271 -11 5.40 4.57 800 3.67

198 10 11 .0 2446714.5 11,24.868 -10 58.40 11 .31.704 -11 10.37 4.58 7.83 3.68

198. 10 12 .0 2446715.5 11 30.286 -11 3.38 11 32.122 wo /1 15.35 4.58 7.37 3.69

190 10. 13 .0 2446716,5 11 30.697 ."11 0.35 11 32.534. 20.32 4.59 6.91 3.70

198 10 14 .0 2446717.5 11 31.102 -Si 13.32 11 32.939 *41 25.29 4.59 6..45 3.71

148 10 15 ,0 2446710.5 11 31.500 -11 18.28 11 33.337 -11 30.26 4.59 5.99 3.72

198 10 16 .0 2446710.5 11 31.091 .11 23.25 11 p33. 728 -11 35.23 44,60 5.53 3.74

198 10 17 .0 2446720.5 11 32.274 -11 28.21 11. 34.112 -11 40.20 4.60 5.08 3.75

19, 20 18 .0 24467,24.5 11 32.651 -11 33.17 11 34.489 -11 45.16 4.60 4.63 3.76

198 10 19 .0, 2446722.5 11 33.02 ...11 38013 11 34. e 5'9 -11 50.12 4.61 4.18 3.77

1486 10 20 .0 2446721.51 11 31.343 1 43.06 11 35.221 -11 55.01 4.61 3.73 3.78

1986 10 21 .0 2446724.5 11 33.737 148.03 11 35.576 -12 '.02 4.61 3.29 3.79

1986 10 22 .0 2446725.5 11 34.004 1 52.96 11 35.924 -12/ 4.97 4.61 2.84. 3.80

1986 fe 23 .0 2446726.5 11 34.423 7.90 11 36.263 g 9.90 4.61 2.40 3.81

1986 10 24 .0 2446727.5 11 34.754 2 7.82 11 36.5°5 2 14.83 4,61 ."1.97 3.82

1946 10 25 .0 ,24146728.5 11 35.077 I 7.74 11 36.919 12 19.75 4.61 6.,_1053 3.83

1986 10 26 .0 2446724.5 11 35.392 -1 12.65 11 37. 234 -12 24.6 6 41.62 1.10 3.64

1986 10 27 .0 2446730.5 11 35.69r, -12 17454 11 37.541 .12 29.56 4.62 .67 3.85

1986 10 28 .0 2446711.5 11 35.997 ...12'22.43 11 37.839 34.45 4.62 .24 3.86

1986 10 29 .0 2446732.5 11 36.286 -12 27.30 11 38.129 -12 39.32 4.62 -.19 3.88

1986 10 30 .0 2446733.5 11 36.56 ..12 32.16 11 38. 410 -12 44.19 4.62 -.60 3.89

1986 10 31 .0 2446734.5 11 36.83e -%12 37.01 11, 38.681 -12 49.04 4.62 -1.01 3.90

1986 11 1 .0 2446735.5 11 37.100 -12 41.84 31 38. 944 -12 53.117 4.62 3.91

;986 11 2 .0 2446736.5 11 37,352 -12 46.66 11 3.91 -12 59.69 4.61 -1.8 3.92

1986 11 3 .0 2446737.5 11 37.596 -12,51.46 11 39.441 -13 3.49 .4.61 -2.23 3.93

1986 11 4 .0. 2446738.5 11 37.82 -12 56.24 11 39. 675 -13 8.27 4.61 -2.63 3.94

19 11 5 .0 42446734.5 11 34,053 -13 1.00 11 34.899 -13 13.04 4.61 -3.02 3.95

116 6 .0 2446740.5 11 36.266 -13 5.74 11 40. 113 -13 17.78 4.61 -3.41 3.96

'19 6 11 7 .0 2446741.5 11 3k.470 -13.10.46 11 40.327 -13 22.50 4.61 -3.79 3.97

19 6 11 .0 .2446742.5 11 3T.613 156.15 11 *0.510 -13 27.20 4.60 -4.16 3.98

19 6 11 9 .0 2446743.5 11 38.845 -13 19.82 11 40. 693 -13 31.88 4.60 3.99

19 11 0 0.0: 2446744.5 11 3°,417 +13 24.47 11 40.866 -13 36.53 4.60 -4.90 4.00

19 6 11 1 .0 2446745.5 11 39.170 -13 29.09 11 41.027 -13 41.15 4.60 -5.26 4.01

86 11 2 .0 2446746.5 11 34.32; 33.69 11 (4I. 177 -13 45.74 4.59 ..5.61 4.02

986 1.1 3 .0 2446747.5 11 32.467 -13 38.25 11 41.31 -13 50.31 4.59 5.96! 4.03

1986 31 .0 2446746.5 11 34.594 -13 42.79 11 111 -445 -13 5485 4.59 -6.30 4.04

1946 11 5 .0 2446740.5 11 3'3.711 -13 47.29 11 A1.562 -13 59.36 4.58 -6.63 4.05

1906 11- 6 .0 2446750.5 11 34.81e".17 51.77 11 41. 667 -14 3.84 4.58 -6.96 4.06

1986 11 17 .0 2446751.5 11,3c.906 13 56.21 11 141.760 -14 8.28 4.57 .4.29 4.08

1906 11 1 .0 2446752.5 11 34.989 14 .62 11 41.842 -14 12.70 4.57 -7.60 4.09

1986 11 1 .0 2446753.5 11 40.054 -14 5.00 11 1.911 -34 17.07 4.57 -7.92 4.10

1986 11 2 .0 2446754.5 11 4G.M -14 9.34 11 1.969 -14 21.42 4.56 -8.22 4.11

1986 11 2 2446755.5 11 40.160 -14 13.64 11 2.013 -14 25.72 4.56 -8.52 4.12

1486 11 2 .0 2446756.5 11 40.192 14 17.91 11 2.046 -14 29.99 4.55 .4.82 6.13

1486 11 .0 2446757.5 11 40.211 -14 22.13 11 2. 0'65 34.22 4.55 -9.10 4.14

.c 53

R1X)T TMAG NMAG THETA BETA S443082 1941 12.4 20.1 15.6

191.19 12.4 20.1 16.2

19.16 12.5 20.1 16.7

19.13 12,5 20.1 17.3

19.11 12.5 20.2 17.9

19.08 12.5 20.2 18.5

19.05 12.5 20.2 19.1

19.03' 12.5 20.2 19.8

19.00 12.5 20.2 20.4

18.97 12.6 20.2 21.1

18.95 12.6 20.2 2C.8

18.92 12.6 20.2 22.5.

18.89 12.6 20.2 23.2

18.87 12.6 20.2 23.9

18.84 12.6 20.2 24.7

18.82 12.6 20.3 25.4

18.79 12.6 20.3 26.2

18.77 12.6 20.3 26.9

18.74 1207 20.3 '27.7

18.72 12.7 20.41C 28.5

18.69 12.7 20.3' 29:3

18.67 12.7 20.3 30.1

18.64 12.7 20.3 30.9

18.62 12,7 20.3 31.7

18.59 12.7' 20.3 32.5

18.57 12.7 20.3 33.3

18.54 12.7 20.3 34.1

18.52 12.6 20.3 34.9

18.49 12.8 2004 35.8

18.47 12.8 20.4 36.6

18.45 12.8 20.4 31.4

18.42 12.8 20.4 38.3

18.40 12.8 20.4 39.1

18.37 12.8 20.4 40.0

18.35 12.8 20.1 40.4

18.33 12.8 40.4 41.7

18.30 12.8 20.4 42.6

18.28 12.8 20.4 43.4

18.26 12.8 20.4 44.3

18.23 12.9 20.4 45.2

18.21 12.9 20.4 46.1

18.19 12.9 20.4 47.0

18.17 120 20.4 47.9

181.14 12.9 20.4 48.7

18.12 12.9 20.4 49.6

18.10 12.9 20.4 50.5

16.08 1209 2004 51.5

18.05 12.9 20.4 52 .4

28.03 12.9 20.4 53.3

16.02 12.9

17.99 12.9 20.5 55.1

17.97 12.9 20.5 56.0

17.94 12.9 20.5 57.0

17.92 13.0 20.5 57.9

17.90 13.0 20.5 58.8

17.88 13.0 20.5 59.8

4.4 52

4.5 40

4.6 29

4.12 19

4.9. 14

5.0 lo.

5.2 31

5.3 44

5.5 98

507 71

5.8 85.

4.0 99

6.1 112

6.3 225

6.5 138,

6.6 150

6.6 160 .

ri . 17±5

7.4

7.6

7.7

7.9

8.1

8.2 82 , 8.4

8.5

8.7

8.8

9.0

9.1

9.3.

9.4

1.5

9.7

9.6

9.9 7$

10.1 92

10.2 106

10.3 1.1.9

10.5 .132

10.6 144

10.7 155

10.8 162

1009 162

11.0 154

11.1 144

11.2 133

11.3 122

11.4 110

11.5 99

11.6 83

11.7 76

11.8 65

11.9 54

150

139--;

127

116

105

93

71

59

48

37

2.6 17

16

24.

36

50
t r.

Table 11-2 (maid).

41'

YR ,MN DY 1411 (1850.0. ) DEC. Q.A1 1A11PN) DEC. DELTA DIXDOT . 1i KM: TMAG NMAG THETA BETA MOON

1086 11 24

1946 11 25 .0

.4

,24.467595 11 40.210 -14 30.46

2446758.5 11 40.217 4..14 26.32 111..42072 -14 38.40 4.54 *.938 4.15 17486 13.0 20.5 60.7 12.0 43

198411 '26 2446760.5 11 40.190 -14 .34.56 11 42.066 -14 42.55 4.53 '09.66 p16 17.84 13.0 20.5 61.7 12.1 32.

1986 11 2/ 2446761.5'11 4C156 -14 38461 11 42.046 -14 46.65 4253 -9.92 4.17 17.81 134 20.5 62..6' 12.1 22

1986 11 28. .0 ,,2446762.5 11 .46409 11 42.0/3 14 50.70 4.52 .40.18 4.18 17.79 13 0 2.0.5 63.6 12.2 17

1966 11 9 24 42.62 '11 41.966 -14 5441 4.52 *.10.43 4.19 17.77 13.0 20.5 44.5 22.3420..

'19116 11 -3.0'

.0

.0 .2446183.5 11 40.546

24467(4:5 46157 11 41.905 -14 59.6* 2451 10.67 4.20 1745 13.0 20.5' 65.5 12.3 30

.4986,12, 1 L.0 2446745.5 11/39.604 .14'54.34 39.973 -14 50.461 11 41.830 -15 2.58 465.0 *1501 4.21 17.73 13.0 0.5 66.5 12.4 42

19'(1'12 -2 , .0 244676645 1139.761'414 58.14' 11 41.742 .15 11 41.639,.1510.24 6.44 4.50 41.13 .4.22 17.71 13 .0J20.5 67.4 12.A5 56

' '1 12 3 2446'747..5 11 39.662 '15. 4449,*.1.35 '4.23 1/.69 13.v 20.5 6864 12.5 70

1986 12,;-' 4. .0 %.2.11,26768.5.21 39.53C *15 5.57 .11 41,889..15 17.68 .

148.9 .-11 41.521 15 13.99 .4.44 .11.2.,.,56 4.24 17.67 134 2063 69.4 12.6 85

1986 44 5 .0 241167695 11 39.382 -15 4,48 .4106.4.25 17.65 13.0 20.5 70.4 12.6 90

1966 12 6 .0 14211. 11 /14242 .15 21432 4.47 111.94 4.26 17.63 13.0 20.5 .11.4 1267 113

19E16 12 7 .0 2446770.5 11 .3c.220 -15-12.7

2446771.5i. 11 37.042 .*15 16.2,6'' 111 41.4090 -15 24.89 4.46 '.12,1,12 4.27. 17.61 13.0 20.5 72.3 12.7 127

1986 ;,12 .0 2446772.5 11 31.84° 11 40.902. -IS 2400 4.46 -12.29 4.28, 17.50 13.0 2005 73.3 12.7 140

1.966' 12 2446773.5 .11 34.641 *.15 19.72 11 40.718 -15 31.84 4.45 "12.4t 4.29 17.56 13.0 20.5 74:3 12.8 151,

1141.86 22 ,. 7.0 2446774.5 11 24.10, 11'40.302 .15 354.22r 4,84,"12..60` 4.30 17.54 13.0 20.5.975.3 12.8 160

111941140.42 13 et 244671h.5 11 32.178 :30.411 ..11.!. 26.414, 11 40.279 -15 15 29.65 381.53 4;44 41204.. 4.31 17.52 13.0, 20.5076:3 12.6 190

1-986 12 12 '2446,7765. 11. 37.923 -15 32.82 11 40.039 -15 41.7; 4.43'12.87 '442 1T.50 13.1 20.5 77.3 12.8 156

1986 12 13 '.0 11,39.784 -15 44.94 4.42 ...12.99 4.33 17.48 13.1 20.5' 7844 1209`.146

.4986 12 14 '2446.777.5 1/ 37.652 *15: 35,29

244677415 11 37.36!.( -15 38,94 11 39.514 15 48.04 4.41 .43.10 4.34 17.46 13.1 20.5 79.4 12.9 135

1986 12 15 .0 2446777.5 11 11 39.227 (...15 51.86 4.41 -13.gc, 4.35 17.44 13.1 20.5 80.4 12.9 124

1966 12 16 .0 2446.7HC. 11 36. 7440, 15 '44.75 .1: 4109 *11 38.925 -15 54.01 4.44:1-3211 4.36 17.42 13.1 20.5 81.4 12.9 113

1,466 12 17 40 2446783.5 .11 34.406 15 471054 11 38.606 .*.15 56.88 4.39 ,...13437 4.37 17.40 13.2 2005 82.4 120 102

4986 12 18 20 2446782A 11 36057 11:26271 -15 59.67 4.38;43.44 _ 4.38 17.38 13.1 20.5 83.5 12.9' 91

.1986 12 19 - .0 2446783.5 11 '50.25' 11 37.P2Q ..16 2.38 4.38 .13.50 4.39 17.36 13.1 20.5 84.5 12.9 800

/P96 )2 20' .0 35.688 52.68 11 37.552 -16 5.01- 4.37 -13.55 .4.40 17.35'13.1 .241:5 85.5 12.9 68

1986 12 21 C 2846784.5 11 35.304 '45 55.41 2446785.5 12 44902....15 57.67 II 37.167 -16 7.55 4.36 -13.59 4.41 1733 13.1 20.5 86.6 12.9 A 57

1986 12 22' .0 244678,64,5 11' 344c 12 36.766 -16 10.00 4.35 -13.62 4.42 17.31 13.1 20.5 87.6 12.8 46

3486 12 23 G 2446767.5 11 34.049 23 . .11 36.348 -16 12.36 4.34 -13.64 4.43 17.29 13.1 20.5 58'0 35

1986 12 24 0

-16 2.50 11 35.913 -16 14.63 4.34 - 13.64 4.44 17.27 13.1 20.5 89.7 .12 26

' 1956 12 25 0

244618P.5.11

24467895 11 33.128

33.11127.16 4.6#- 11 35.461 16 16.81 4.33 -13.64 4.45 17.25 13.1 20.5 90.8 le. 15

1986 12 26 0. 2446790.5 11 32642

16 645 13 34.992 1689 '4;32 7.13.62 4.46 17.23 13.1 20.5 91.8 12.7 20

1966 12 27 .0 .14.74 11 34.506' -16 20:87. 4.31 13.60 4.47 17.21 13.1 20.5 92.9 12.7 27

1986 12 24 .0 2446771.5 If 32.13° *46 10.62 11 34.003 -16 22.75 4.30'.13.56 4.48 17.19 13.1 20.5 94.0 2206

1986 12 29 .0 2446712.5 11 31.61° -16 12.40

2446753.5. 11 31.082 ..16 14.01 11 33.423 -16 24.,53 4.30 -13.50 4.49 17.17 13.1 20.5 95.1 12.6 51

1966 12 30 .0 11 32.945 -16 26.21 4.21".4143.44 4.50 17.15 13.1..20.5 9601 22.5 65

1986 12 31. Ck .2446795..5 11 29'75!

2446794.5 11 30.527 -16 15.64 '11 .32.391 *16 21.78 4.28 *43.36 4.51 17.14 13.1 20.5 97.2 12.5 79

1987 1 1 0 2446796.5 11 29.366 -16 17.10 11 31..819 -16 24.23 4.27 -13.27 4.52 17.12 13.1 20.5 95.3 12.4 94

1987 1 2 .0 2446797.5 11

18.44 11 31.230 - 16.30.58 4.27 -13.17 4.53 17.10 15.1 20.5 99.4 12.4 100 28.76.0 -16 19.67 11 30.624 -16 31.11 4426 -13.05 4.54 47.08 13.1 20.5 100.5 12.3 123 1967.13,024467.91..51126.136048 20.79 1987 I 4 .0 11 30.000 *16 32.93 4.25 12.92 4.55 17.06 13.1 20.5 101.5 12.2 136

1987 1 45 .0 ,24468 005 11 2446799.5 11 67.4n6 *46 21.78 11 29.360 ,-16 33.92 4.24 ..12.78 4.56 17.04 13.1 20.5 102.6112.1 148

1967 26./138 -.1,6 22.66 11 28.702 -16 34.80 4.24 12.62 4.57 47.02 134- 2005! 103.7 124 137

1987\ 11 6 a

7 .0' 4..0 24461401.5

2446f. 02.5 31, 26.164 *16 23.42 11 29..027, *46 35.55 4.23 -12.45 4.58 1t.01 731 20.5 104.8 12.0 160

107/ 1 P .C. 2946803.5 11.24.76! 16 24.55 11 25.473 ..16 24.05 11 27.336 *46' 36.18 4.22 ..1221.. 4.59 16.99 :2'204,5 105.9 11.9 155

19617 1' 9 1.1 26.628 -16 3646. 4.21 *42.08 4.60 16.97 3.2 20.5.107.6 12.8 196

P981 1 10 .0 2446804.5- 11, 24.04.1 -146,, 24.93 11 25.904 *16 37.06 4.21 ..11.87 4.61 '16.95 3.2 20.5 108.1 11.7 135

19e7 1 14 .0 2446805.5 11 23.300 2 5.18 11 25.163 -16 37.31 4.20 11.66 '4.62 16.93 .2 20.5 109.3'11.6 124

2987 12. 0 2446807.5 13 21.770 -16 25.29 244'6806.5 11 2.2.543 -it 25.30 11 24.406 -16 37.43 4.19 -11.43 4.63 16.92 13.2' 20.5 110.4 11.5 123

1987 1 14. Cr 11 23.632 ...16 37.41 4.19 -11.18 4.64 16.90 1,3.2 20.5 111.5 11.4 102

1987 1 14

24168065 11 20.901 -16 25.14 11 22.84.3 -16 37.26 4.18 .1.0.93 4.65 16881 13.2 20.5 212.6 11.3 92

'1987 1

.0 .24468000 11 20176 -16 24.86 11 22.039 -16 36.98 4.18 -10.66 4.66 16.86' 132 20.5 113.7 11.1 79

1947 1,16* 2446.61*2.5

24401.1.5

11. 19.3E -16 24.43 11 21.21R 16 36.55 4.174.*10.38 ;4.67. 16.84' 13.2 20.5 f14!8 11.0 .1/8. . 1987 1 IT II 18.520 -16 232 11 .20.382 -16 35.99 4.18 10.49 4.68 16.83 13.2 20.5 116.0 10.9 ,57

4987 1 18 a

'2446812.5'11 17.669 -16 23.119.53U -16 35.29 4.16 4.49 16.81 13.2 20.5 117.2 10.8 46 2446813.5 11. 16803 -16 22. 5 11 1,8.4664 16 34.45 4.15 ..9.447 4.70 tp79 13.2 20.6 118210.6 36

.

01, 54

11

rti
Yli1 MN 131r

41967 1 19

1941 f 20

1987 1 21

1487 1 22

1947 1 23

1987 1 24

1947 1 25

1987, 126

1987 1 27

1187 1 28

1987 1 2)

1 987 1 30

147 1 31

1987 2 I 1987 2 2

1.9017 2 3 1927 4 1981....2 5

19874" 2 6

1-987 2 7 1987 2 1907 2 9

1987 '2 10

1987 2 11 1987. 2 12

1987 2 13

1987 2 14

6987 2 15

987 2 16

1487 2 17

1987 2 18

1987 2 19

1987. 2 20

1987 2 21

1987 222

3987 7

1987 2 2

1987 2 25

1987 2 2

1981 2 2 1987 2 2P

1987 3 1 1987 3 2 198T 3 3 1987 3 4 198T 3 5 1987 3 6

1987 3 7 1487 3 8 1987 3 9 1987 3 IC

1987 3 1987 3 12

19.87 3 13

198/ 3 14

1987 3 15

4r TaNe 13+2 (COW)

V,

HR. f-D (11160.0), DEC. RA. (A191) DEC. DELTA MOOT M RDO'T 'MAO NMAG THETA BETA MOON

, .0 244814.5 fl 15.923 -16 21.36 11 L7.783 -16 33.46_ 4.15 -9.14 4.71 16.77 13.? 20.6 119.3 10.5 27

.0 244 415.5 11 15.020 -16 20.24 11' 16.888 -16 32.32 4.14 -8.80 4.7Z 16.76 13.2 20.6 120.4 10.4 21

2446816.5 11 14.135 -16 10.47 11 15.978 -16 31.05 4.14 -8.45 4.73 16.74 13.2 20+6 122.6 10.2 22 ,..0 .0 244681745 11 13.196 -IC 17.55 12 15.055 -1629.62 4.13 -8.09 4.74 16.72 13.2 20.6 122.? 10.1 29

.0 2446818.5 11 12.259 -16 15.98 11 14.118 -16 28.05 4.13 -1.71 4.75 16.70 11.2 20.6 12308 9.9 39

.0

.0 2446819.5

24468110.5

11

II 11.31012.347

-16

416

14.27

12.40

21

11

13.168

12.205

-16

-16

26131

24.45

4.12

#.12

-7.32

-6.92

4.76

4.76

16.69

16.67

13.2 20.6

13.2 20.6

124.9

126.1

9.8

9.6

51

64

.0.0

2446821.5

2,446822:5

11119.371

9.38i

41(

416,

10.38

P.22

fl

11 11.229

I2.242

-16

-16

22.43

20.26

4.11

4.11

-6.51

6.08

4.77

4.78

16.65

16.64

13.2 20.6

13.2 20.6

12702.

128.3

9.5

9.3

78.

92

.0 2446823.5 11 7.38 -16 5.90 11 9.242 -16 17.93 4.11 -5:64 4.79 16.62 13.2 20.6 129.4 4.1 106

.0 2446824.5 11 6.374 41L 3.42 11 8.231 416 15445 4,10 -5.19 4.80 16.60 13.2 20.6 113086 9+0 120:

.0 2446825.5 11 5.351 -16 .80 11 7.209 416 12.82 4:10 -4.73 4.81 16.59 13.2 2066 131.7 8.8 134

.0 2446P26.5 11 4.320 41! 58.07 11 6.176 -16 10.03 4.10 -4.26 4.82. 16.57 15.3.20. 132.8 8.4 146

.0 2446827.5 11 7.278 - 15.55.09 11 3.133 416 7.09 4.10 43.77' 4.83 .55 13.3 20.6'1'33.9 8.5 455

.0 2$46628.5 Al 2.228' -15 52.01 11 4.041 :16 4.00 4.09 43.28 4.84 .54 13.3 20.6 1354' 8.3 158

.0 2446829.5 11 1.165 415 4808, 11 3.020 -16 .76 4409 +2.77 4.85 6.52 13.3 20.6 136.1 8.1 152

.0 2446830.5 11 10°6 4I5 45.39 411 1.95C -15 57.36 4.09 -2.26 4.86 6.50 13.320.6 137.2/ 7.9 143

.0 2446831.5 10 59.018 -15 41.86 11 .872 415 53.82 4.09 -1,74 4.81 16.49 13.3 20.6 138.3 7.7 132

.0 2446832.5 10%57.433 -15 38.18 20 59.786 -15 50+12 4.09 -1.20 4.88 16.47 13.3'20.6 139.3 7.6 121

.0. 2446835.5 IC 56.841 -15 34.35 1 58.694 415 46.28 4.09 +.86 4.89 16.45 13.3 20.6 140.4 7.4 110 , .0 2446834.5 IC 55.743 411 30.37 57.595 -15 42.29 4.09 -.11 4.90 16.44 23.3 20.6 141.5 7.2 99

oC L44685 .5. 10 54.639 415 26.25 56.441 415 38.16 4.09. .44 4.91 16.42 A144.3 20.6 142.5 7.0 88

.0 2446836.5 10 53.52r -15 21.99 1 55.350 -15 33.88 4.09 1.01 4.92' 16.4.0 13.3 20.6 143.5 6.8 76

.0 2446837.5 10 52.414 -15 17.5P I 54.265 415 29.46 4.09 1.58 4.93 16.39 13.3 20.6.144.6 6.7 65,

.0 2446836.5 1C 5.295 -15 13+03 1 53.1146 -15 24.90 4.09 2.16 4.94 16.37 11.3 20.6 145.6 6.5 .54

.0 2446839.5 ID 50.172 -15 8.35 10 52`.023 -15 20.20 4.09 2.74. 4.95 16.36 13.3 20.6 146.6 6.3 44

.0 2446840.510 4".047 41! 3.53 10 50.897 -15 15.37 4.09 3.33 4.96 16.34 13.3 20.6 147.5 6.1 34

.0 2446841.5 AC 41.91b 414'58.5$ 1.0 49.768 415 10.40 4.10 3.93 4.96 16.32 13.3 20.6 148.5 6.0 26

.0 2446642.5 10 4*187 -14 53.49 10 46.636 -15 5.30 4.10 .53 4.97 16.31 13.4 20.6 149.4 5.8 22'

.0 2446843.5 10 45.655 414 48.28 10 47.504 -15 .07 4.10 .5.14 4.98 16.29 3.4 20.7 150.3 5.6 25

.0 2446844.5 10 44.527 -14 42.93 10 46.370 414 54.71 4.10 5.76 4.99 16.28' 13.4 20.7 151.2 5.5 33

.0 2446845.5 IC 43.388 -14 37.47 10 45.236 414 49.23 4.11 6.38 5.00 ;16.28 13.4 20.7 152.0 5.3 44

.0 2446846.5 10 42.255 -14 31.88 10 44.102 414 43.62 4.M 1.00 5.01 16.44 13.4 20.7 152.9 5.2 55

.0 2446847.5 ID 41.122 414 26.17 10 42.969 -14 37.90 4.12 7.63 5.02 46.23 13.4 20.1 153.6 5.0 68.,

.0 2446848.5 10 39.990 -14 20.35 10-41.837 414 32.06 4.12 8.26 5.03 16.21 13.4 20.7 154.4 4.9 81

.0 2446845.5 ,10 38.861 414 14.42 10 40.708.'414 26.11 4.13 8.90 5.04 16.20 13.4 20.7'155.1 4.7 94

+0 2446850.5 10 37.732 414 8.37 10 39.680 -14 20.05 A.13 9.54 5.05 16.18 13.4 20.7 155.7 4.6 108'

.0 2446851.5 10 36.609 -14 2.22 10 38.456 414 13.88 4.14 10.19 5.06 16.17 13.4 200 154.3 4.5 121' .0 2446852.5 It 35.48F +11'55.97 ID 37.335 414 7.61 4.14 10.83 5.07 16.15 13.4' 20.7 156.9 ,4.4 134

-10 2446853.5 10 34.371 413 49.62 10 36.218 .'14 1.2! 4.15 11.48 5.08 16.14 13.4 20.7 157.4 4.3 146

.0 2048545 10 33.280.-13 4.3.18 10 35.106 41'3 54.78 4.16 12.13 5.09 16.12 13.5 20.7 157.9 4.2 154

.0

.0

2446P5r.5. 2446656.5IC

IC 32.153

31.052

413

-13

36.64

30.02

10

10

33.999

32.897

-13

-13

40.22

41.58

4.16

4.17

12.79

13.44

5.10

5.11

16.11

16.09

13.5 20.7

13.5 20:7

158.1

158.4

4.2

4.1

156

154

.O 824448 t7.5 IC 24.9'...1 113 23.31 10 31.8031'413 34.85 4.18 14.09 5.11 16.08 13.5 20.7 154.4 I4A'

.0 2446659.5 10 25.670 -13 16..51 10 30.1715 - 13.28.05 4.19 14.74 5.12 6.06 13.5 20.8 158.8 4.0 129

40 244665°4.5 10.27.789 -13 9.67 ID 29.634 -13 21.17 4.20 15.39 5.13 16.04 13.5 20.8 158.9 4.0 118

.0 244686045 10 26.717 413 2.75 10 28.562 413 14.23 5.20 16.04 5.14 16.03 13:5 20.8 158.9 4.0 106

.0 2446861.5 10 25.653 -12 55.76 10 27.498 -13 ,7.21 4.21 16.68 5.15' 16.01 13.5 20.8 158.8 4.0 95

.0 2446862.9 10 24.598 -12 48.71 10 26.443 -13 .14 4.22 17.33 5.16 16.00 13.5 20.8 158.6 4.0 84

.0 446863.5 ID 23.552 -12 41.60 10 25.397 412 53.02 4.23 17.97. 5.17 15.99 13.6 20.11 158.4 4.1 72

.0 446864.5 10 22.516 -12 34.44 10 24.361 -12 45.84 4.24 18.61 5.18 15.97 13.6 20.8.158.1 4.1 61

.0 446865.5

1

10 21.489 -12 27.23 10 23.334 -12 39.61 4.26 19.24 5.19 15.96 13.6 20.8 157.7 4.2 SI

.0

.0

446866.5

. 2446467.5 10 I .469

412-19.98

-12 12.69

10

10

22.319

21.314

-12

:12

31.34

24.03

4.27

4.28

19.87

20.50

5.20

5.21

15.94

15.93

13.6 20.8

13.6 20.8

457.3

156.8

4.2

4.3

41

31

.0 2446660.5 10 1p.476. 412 5.37 10 20.3211612 16.68 4.29 21.12 5.22 15.91 13,6 20.8 156.3 4.4 25 ,

.0 2446869.5 10 11.494 -11 58.01 10 19.339 412 9.30 4.30 21.73 5.23 15.90 13.6 20.9 155.T 4.5 23

or
Table II-2 (weld)

YR MN DY HR (1030.0) DEC R.A. (APPN) DEC DELTA umpor ROOT' TmAG NMAG THETA BETA MOON

1987 3 16 .0 244870.5 IL 0.524 -11 50.63 10.18.369 -12 1.90 4.32 22.35 5.23 15.88 13.6 20.9 155.1 4.6 28 1957 3 17 .0 2446871.5 10 1t.567 11 43.23 . 10 17.412 -11 54.48 4.33 22.95 5.24 15.87 13.6 2040 154.4 4.7 37. 1987 3 18 .0 24,6072.5 IC 14.622 35.141 10 160. 0.7 11 47.04 4.34, 23.56 5.25 15.85 13.7 20.9 153.7 4.8 48. 1987

1987

3 /9 .0 .1.407!.b 10 21.010 -11 28.38 10 15.535 -11 39.56 4.36 24.15 5.26 15.84 13.7 20.9 152.9 4.9 60 1 20 .0 2446070.5 ID 12.771 1-1 20.93. 10 14.616 -11 32.11 4.37 24.74 5.27 15.82 13.7 20.9 152.2 5.1 -73 '1987 S 21 0 240875.5 10 11.865 11 13.48 10 13.711 -11 24.64 4.381 25.33 5.28 15.81 13.7 20N,9 151.3 5.2 St

1987

1987 3 22 .0 2.46876.5 10-10.474 -11 6.02. 10 12.819 -11 17.17 4.40 25.91 5.29 15.80 13.7 20.9 150.5 5.3 99 3 23 .0 2446877.5 10 10.09f -10 58.57 10 13.942 -11 9.70 4.41 26.48 5.30 15.78 13.7 20.9 149.7 5.5'412 1907

1987

3 24

3 25

.0 2446878.510 ^4.232 -10 51.12 10 11.079 11 2.23 4.43 27.05 541 15.77 13.7 21.0 148.8 5.6 125

1987

.0 244E87°85 ID 4.383 -1C 43.69 10 10.230 10 51677 4.45 27.61 5.32 15.75 13.8 21.0 141.9 5.7 137 3 26 .0 2448880.5 IC 7.549 -10 36.26 10 9096 -10 47.32 4.46 28.16 5.33 15.74 13.8 21.0 147.0 5.9 148 1987 3 27 .0 2446801.5 ID 10 20.85 10 8.576 -10 39.89 4.48 28.71 5.34 15.72 13.8 21.0 146.0 6.0 155 1907

1907

3 28

3 29

.0 2446882.5 kit 5.425 -10 21.46 10 7.772 -10 32.48 4.50 29.25 5.34 15.71 13.8 21.0 145.1 6.1 155

1907

.0 2446861.5 1 0 "6135 -10 14.09 10 6.983 -10 25.10 4.51 29.78 5.10 21.0 144.1 6.3 148

4'1987

3 30 .0 2446684.5 ID' 4.361 ^10 -6.76 10 6.209 10 17.74 4..53° 30.30 5.36 15. 0 3.8 21.0 143.2 6.4 138

1987

3 31 .0 2446885.5 1r 3.60.3 9 59.45 10 5.451 10 10.41 4.55 30.81 5.37 15.6 13.8 21.0 142.2 6.5 127

1967

4 1 .0 244f886.5 IC 2.1467 ° 52.18 10 4.709 .10 3.12 .4.57 31.31 5.38 15.65 13.8 21.1 141.2 6.7 135, 2 .0 2446867.5 ii, 2.134 9 44.94 10 3.982. 9 55.86 4.59 31.80 5.39 15.64 13.9 21.1 140.2.6.8 104 1,87 4 3 .0 2446686.5 10 1.423 9 37.75 10 3.272 9 48.65 4.60 32.29 5.40 15.63 13.9 21.1 139.2 6.9, 92. 1987 . 4. 4 .0 '244688°4.510 .720 9 30.59 10 2.571 9 41.48 4.6,2 32.76 5.41 15.61 13.9 21.1 138.2 7.1 91 1987

1987

4 "

4 E .0

.0

400.,890.5 10 .04°

2446071.5 9 59.38

9 23.49

9 10.44

10 1.898 9 34.36

10 1.236 9 27.29

4.64

4.66

33.22

33.68

5.42

5.43

15.60 13.9 21.1 137.2 7.2 69

15.59 13.9 21.1 136.2 7.3 59 1987 '4 7 .0 2446892.5 *.J.739 9 9.43 , 10 .509 9 20.27 4.66 34.12 5.43 15.57 13.9 21.1 135.2 1.5 48 1987 4 R .0 2446697.5 9 56.104 ' 2.49 9 59.959 41 13.30 4020 34.56 5.44 15.56 14.0 21.1 134.2 7.6 38 1987 4 9 .C4 2446894.5 9 57.494 a 55.59 9 59.345 9 6.40 4.72 34.98 5.45 15.54 14.0 21.2433.1 7.1 29. 1987 4 10 .0 244685,5 9 56.495 A 44.76 9 58.747 8 59155 4.74 35.39 5.46 15.53 14.0 21.2 32.1 7.8 24 1987 4 11 .0, 2446896.5 7 56.313 P 41.99 9 58.164 8 52.76 4.76 35,80 5.47 15.52. 14.0 21.2 141.1 7.9, 23 1987 4 12 0 24461197.5 9 ¶5.740 Q 35.29 9 57.598 9 46.04 4.78 36,19 5.48 15.50 14.0 21.2 130.1 8.0 29 1997 4 13 .0 '2446899.5 9 r5.197 r. 28.65 9 57.048 8 39.38' 4.80 36.57 5.49 15.49 14.0 21.2'129.0 8.2 38 198.7 4 14 .0 2449899.11 9 54.661 R 22.07 9 56.514 8 32.79 4.82 36.94 5"1.'0 15.48 14.0 21.2 128.0 1:3 49 1987

190/

4 15

4 16

.0

.0

2446500.5 9 54.14

2446901.5 9 51:640

P 15.57

- A 9.13

9 55.196 8,26.27

9 55.494 8 19.83

4.819-

(4.87

37.31

37:66

5.51

5.52

15.46 14.1' 21.2 127.0 8.4 62

15.45 14.1 21.2 126.0 8.5 75 1987 4 17 .0 2446902.5 3 53.153 8 2.77 9 55.007 11 13.45 4.69. 394P1 6.52 15.44 14.1 21.3 125.0 8.6 88 4987 4 18 .0 2446903.5 41 52.692 7 56.48 9 54.537 8 7.15 4.91 334 5.53 15.42 14.1 21.3 123.9 8.7 101 1987 4 19 .0 2446904.5 9 52.227 7 50.27 9 54.002 8 .92 4.93 0167 5.54 15.41 14.1 21.3 122.9 8.8 114 1987 4 20 .0 2446905.5 r 51.797 X 44.14 9 53.643 7 54.78 4.95 38.98 5.55 15.40 14.1 21.3 121.9 8.8 127 1987 4 21 .0 2446906.5 51.363 7 38.08 9 53.219 7 44.70 4.98 39.29 5.56 15.38 14.1 21.3 120.9 8.9 139 1987 4 22 .0 Z446907.5 9 50.95* 7 32.10 -9 52.810 7 42.71 5.00 39.58 5457 15.37 14.2 21.3 119.9 9.0 150 1907 4 23 .0 2446908.5 9 50.61 7 26.20 9 52.417 7 36.80 5.02 39.87 5.58 15.36 14.2 21.3 118.8 9.1 156 1987 4 24 .0 244690".5 9 50.1P2 7 24138 9 52.03° 7 30.97 5.05 40.14 5.59 15.35 44.2 21.4 117.9 9.2 156 .1987 4 2' .0 2446910.5 ° 49.019 7 14.65 9 51.67f 7 25.22 5.07 40.41 5.60 15.33 14.2 21.4 116.9 9.2 149 1997 e4 26 .0 .446911.5 5 49.471 7 9.00 9 51.329 7 19.56 5.09 40.66 5.60 15.32 14.2 21.4 115.8 9.3 138 1947 4 27 .0 244691,2.5 9 49.138 7 '3.43 9'50.996 7 13.99 5.12 40.91 .,5.,61 15.31 14.2 21.4 114.8 9.4 127- 1987 4 28 0 24469154,5 9 48.020 t 6 57.95 9 50.679 - 7 8.50 5.14 41.14 5.62 15.29 14.321,t4 113.8 9.4 115 1987 4 211 .0 2446914.5 9 48.517 6 52.56 9 50.376 7 3.09 5.16 41.36 5.63 15.28 14.3 21.4 112.8 9.5 103 1987 4 30 .0 2446915.5 9 44.2241 6 47.25 9 50.087 .6 57.78 5.19 41.57 5.64' 15.2T 14.3 21.4 111.8 9.5 92 1987 5 1 .0 2446916.5 4 47.954 6 42.03 9 49.813 6 52.55 5.21 41.78 5.65 15.26 14.3 21.4 110.8 9.6 80 1987 5 2 .0 ;446917.5 9 47.694 6 36.90 9 49.554 47.41 5.24 41.47 5.66 15.24 14.3. 21.5 109.8 9.6 69 1987 5 3 .0 2446918.5 9 47.448 6 31.86 9 49.300 6 42.37 5.26 112.14 5.67 15.23. 14.3 21.5 108.8 WO SS 1987 5 4 .0 2446910.5 9 47.216 6 26.91 9 49.077 - 6 37.41 5.28 42.31 5.67 15.22 14.0 21.5 107.8 9.7" 40
National Aeronautics and

Space- Acimirlistration

Jot Propulsion Laboratory

California Institute of Tachnplogy

Pasadena. California

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4131 400 91 Rev t F.t83

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!EST CO AVAILABLE

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