• No results found

Selected Pages From Nautical Almanac 1992

N/A
N/A
Protected

Academic year: 2021

Share "Selected Pages From Nautical Almanac 1992"

Copied!
66
0
0

Loading.... (view fulltext now)

Full text

(1)
(2)

A Al.'J

l'J UDE CORRECTION

TABLES 10

°

-90

°

-SUN,STARS,PLANETS

()Cl', MAR.

SUN

APR.-SEPT.

App.

Lower

Upper I

App. Lower

Upper

Alt.

Limb

Umb.

Alt. Limb

Limb

I

-STARS AND PLANETS

App. Co n

1

. App.

Additional

Alt.

rr

Alt.

Corr"

1992

VENUS

Jan. ;-Dec. IO

0 ' 6o + 0·1

Dec.

!1-Dec.

31

4~

+

0~2

76

+ 0·1

"

MARS

Jan.

0

1-0ct.

24

~

+

O~I

Oct.

~5-Dcc.

31

4~

+

0·2

76

+

0·1

DIP Ht. of C Ht. of

I

Ht. ;f-Co

Eye orrn Eye Eye rr"

- - -

-

- -

---

-m ft. m

8·o

1·0

-

1·8

8·6

1·5

-

2·2

9·2

9·8

10·5

11·2

11·9

2·0-

2·5

2·5-

2·8

3·0

-

3·0

Sec table

12·6 ,

__

m

_ _

_

13·3

14·1

14·9

15·7

16·5

17·4

18·3

19·

1

20·1

21·0 I

2:1,·.o

22·9

23'9

24·9

26·0

27-·1

28·1

29·2

30·4

31·5

32·7

33·9

35·1

36·3

37·6

38·9

40·1

41·5

42·8

44·2

45·5

46·9

4s"4

49·8

51·3

52·8

54·3

55·8

57"4

58·9

60·5

62·1

63·8

65·4

67·1

68·8

70·5

20-

7·9

22--

8·3

24

-

.S·6

26

-

9·0

28

-

9·3

30

_

-

9·6

32

-

10·0

34

-

10·3

36

-

10·6

38-

10·8

40

-

11·1

42

-

11·4

44

-

11·7

46

-

11·9

48-

12·2

ft. 2.--

1·4

4

-

1·9

6

-

2·4

8

2·7

IO

-

3·1

See table

ft.

70

-

8·1

75

-

8·4

So-

8·7

85

-

8:9

90

-

9·2

95

-

9·5

100

-

9·7

105

-

9·9

p o- 10·2

11s.-10·4

120-

10·6

125-

10·8

130

-

11·1

v

135-

11·:(

140-

11·5

145 -

11·7

150-

11·9

155-

12·1

App

. Alt. -

Apparent

altitude

=

Sextant altitude corrected for index error

and

dip.

~ol\

NO

.'

tZt.3

A

ALTITUDECORRECTION

.

T ABLES

0°-10°-S

~

~~~~

~

r°1""

OCT.-MAJI.

SUN

APR.-,,BPT.

App.

STARS

OCT.-MAJt.

SUN

APR.-,,BPT.

App.

STAR~

Alt.

t:b

Y.f:b"

ti:b"

'i~~

PLANETS

Alt.

ti:b"~~

t'~~r

YI:;

PLANETS

0

,

,

0

0 00

-18·2

-50·5

-18·4

-50·•

-34"5

3 30

+

3·3

-•9·0

+

3·1

-•87

-13·0

03

17·5

49·8

17·8

49·6

33·8

3S

3·6

:z8·7

3·3

:z8·5

12·7

o6

16·9

49·2

17·1

48·9

33·2

40

3·8

:z8·5

3·5

:z8·3

12·5

09

16·3

48·6

16·5

48·3

32·6

45

4·0

28·3

3·7

. 28·1

12

·3

I:&

157

48·0

15·9

47·7

32·0

so

4·2

28·1

3·9

27·9 12·1

IS

15·1

47·4

15·3

•1·1

31·4

3 SS

4·4

27·9

4·1

27·7

11:9

0 18

-14·5

-46·8

-14·8 -46·6

-30·8

4 00

+ 4·5

-27·8

+

4·3

-27·5

-u·8

21

14·0

46·3

14·2

46·0

3•n

34

13·5

45·8

13·7·

45·5

29·8

os

4·7

27·6

4·5

27·3 .

u

·6

JO

4·9

27·4

4·6

27·2

II·4

27

12·9

45·2

13·2

45·0

29·2

IS

5·1

27·2

4·8

27·0 11·2

30

12·4

44·7

12·7

44·5

28·

7

20

5·2

27·1

5·0

26·8

11·1

33

II·9

44">

12·2

44·0

28

·2

2s

5·4

26·9

5·1

26·7

10·9

0 36

-11·5 -

4]"8

-11·7 -43·5

-

21:8

39

11·0 43·3 11·2 43·0

27·3

4 30

+

5·6

-•6·7

+.

.s·3

-26·5

-10

·7

3S

5·7

26·6

5·5

26·3

10·6

42

1''5 42·8

10·8

42·6

26·8

40

5·9

26·4

5·6

·26·2

10·4

4S

10·1 42·4

10·3

42·1

26·4

4S

6·o

26·3

5:8

:z6·o

10·3

48

9·6

41·9

9·9

41·7

25

·9

so

6·2

26.·1

5·9

•$·9

10·1

SI

9·2

41·s

9·5

41·3

25

·5

4 SS

6·3

.:16·0

6·o

25.·8 10·0

o S4

-

8·8

-41"1

-

9·1 -40·9

-25·1

s 00

+

6·4

-2s·9

+ 6·2

-•5:6 -

9·9

o S7

8·4

407

8·7

4o·s

24·1

.

I 00

8·6

40·3

8·3

40·1

24·3

os

6·6

2s·1

6·3

25·s

9·7

JO

6·7

2s·i

.6·4

25·4

9·6

03

7·7

40·0

7·9

39·7

24·0

IS

6·8

2s·5

6·6

25·2

9·5

o6.

7·3

39·6

7·5

39·3

23·6

20

6·9

25·4

6·7

25·1

9·4

09

6·9

39·2

7-2

39·0

23·2

2s

7

·1

25·:z

6·8

25·0

9·2

I 12

-

6·6

-38·9

-

6·8

-38·6

-22·9

-

s 30

+

7·2 -25·1

+ 6·9

-24·9

-

9·1

IS

6·2

38·5

6·5

38·3

22·5

18

5·9

38·2

6·2

38·0 22·2

3S

·7·3

25·0

7·0

24·8

9·0

40

7·4

24·9

7·2

24·6

8·9

21

5·6

37:9

5·8

37·6

21·9

4S

7·5

24·8

7·3

24·5

8·8

24

5·3

37·6

5·5

.37-3

21·6

so

7·6

24·7

7·4

24·4

8·7

27

4·9

37·2

5.z

.37'0 21·2

SSS

7·7

24·6

7·5

24·3

8·6

I 30

-

4·6

-36-9

-

4·9 -36·7

-20·9

., 00

+ 7·8

-34·5

+

7·6

-•4"2

-

8·5

3S

4·2

36·5

4·4

36·2

20·5

40

3·7

36·0

"4·0

35·8 20·0

10

8·o

24·3 .

7·8

34·0

8·3

20

8·2

24·1

8·o

23·8

8·1

4S

3·2

35-5

3·5

3S"3

19·5

30

8·4

23·9

. 8·1

23·7

7·9

so

2·&

35·1

3·1

34·9

19·1

40

8·6

·23·7

8·3

23·s

7·7

I SS

2·4

34·7

z-6

34·4

18·7

6 so

8·7

23·6'

8·5

23·3

7·6

2 00

-

2·0

-34·3

-

2·2 -34·0

-18·3

7 00

+

8·9

-23·4

+

8·6

-•3·2

-

7·4

OS

1·6

33·9

1·8

33·6

17·9

JO

9·1

23·2

8·8

23·0

2

JO

1·2

33·5

1·5

33·3

17·5

20

9·2

23·1

9·0

22·8

7·1

IS

0

·9

33·2 J·I 32-9

17·2

30

9·3

23·0

9·1

22·7

7·0

20

0·5

3:z·8

o·8

32·6

16·

8

40

9·5

2j·8

9·2

22·6

6·8

2S

-

0·2

3:z·s

0·4

32·2

16·5

7 so

9·6

22·7

9·4

22·4

6·7

2

30

+

0·2 -32·1 - O·I _-31·9

-16·1

3S

0·5

31·8

+

0·2

31·6

15·8

8 00

+

9'7

-22·6

+

9·5

-n·3

-

6

·

6

JO

9·9

22·4

9·6

22·2

6·4

40

o·8

31·5

0·5

31·3

15·

5

4S

1·1

31·2

o·8

31·0

15·2

20

10·0 22·3

9·7

22·1

tic3

30

10·1 22·2 9·8 I 2:1"0

6·2

so

1·4

30·9

1·1

. 30·7

14·9

2 SS

1·6

30·7

1·4

·30·4

14·7

40

10·2 22.-1 10·0 2118

1

8 so

10·3

22·0 ~ 10·1 21·7

6·0

3

00

+

1·9 -30·4

+

1·7 -30·1

-14·4

os

2"2

30·1

1·9

29·9

14·1

9 00

+

10·4 -21·9

+10·2 -21·6

-

9

JO

10·5

21·8

rn·3

21·5

5·8

10

2·4

29·9

2·1

29·7

13·9

20

10·6

21·7

I0·4

21·4

5·7

IS

z-6

29·7

2·4

29·4

13·7

30

rn

·7

21·6

10·5

21·3

5·6

20

2·9

29·4

2·6

29·2

13·

4

40

10·8

:21·5

10·6

21·2

5·s

2s

3·1

29·:z

2"9

28·9

13·2

9

so

I0·9

21·4

10·6

21·2

5·4

3 30

+

3·3

-29·0

+ 3·1

-•8·7

-1

3·0

10 00

+11·0 -21·3 +10·7 -21·1

-

5·3

Additional corrections for

temperature

and pressure are given on the following page.

For

bubble sextant observations ignore dip and use the

star

corrections for Sun, planets, and stars.

(3)

A4

ALTITUDE CORRECTION TABLES-ADDITIONAL CORRECTIONS

ADDITIONAL REFRACTION CORRECTIONS FOR NON-STANDARD CONDITIONS

Temperature

-20°F. - 10°

o

0 +10° 20°

30

°

40

°

50

°

6o

0

70

°

80

°

90

°

roo

°

F.

j

~

1030

.9

IOIO

~

E

Po. App. Alt. 0 00 0 30 I 00 I 30 2 00 2 30

3

00 3 30

4

00

4

30 5 00 6

7

8

9

IO 00 12

14

16 18 20 00

2s

30 3S 40

A

B

c

D

E

F

-5·7 4·4 3·5 2·9 2·5 -4·6 -3'4 -2·3 -I·I 0-9 0-7 o-6

0

·

5

3·5 2·6 1·7 2·8 2·1 1·4 2·4 1·8 1·2 2·0 -2·5 -2·1 -1·6 2·2 1·8 1·5 2·0 1·6 1·3 1·8 1·5. 1·2 1·6 1•4 l·I -1-5 -1-3 1·3 l·I 1·1 0·9 1·0 o·8 0-9 0·7 -0·8 -0-7 0·7 o-6 0·6

0

·

5

0·5 0·4 0·4 0•4 l·O -1 ·2 -0•8 -0'4 l·I 0·7 0'4 1·0 0•7 0·3 0·9 0·6 0·3 o-8 0·5 0-3 -o-8 o-6 o-6 0·5 0-4 -0-4 0·3 0·3 0-3 0·2 -0·2 0·2 0·2 0·2 0·1 -0·1 0·1 O·I" O·I O·I -0·4 -0·3 -0·3 -0·2 -0·1. -0·1 ~3 ~3 ~2 ~2 ~1 -~1

0·3 0·2

O·i

O·I O·I 0·0 0·2 0·2 O·I O·I O·I O·O

0·2 O·I O·I O·I -0·1 O·O

G

O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O O·O SO 00 -0·1 -0·1 -0·1 -0·1 O·O O·O O·O

H

J

K

L

M

N

App.

Alt.

+I·I 0·9 0-7 o-6

0

·

5

+2·3 +3·4 +4·6 +5·7 +6-9 5-2 4-3

3'5

3·0 0 00 0 30 I 00 I 30 2 00 1·7 2·6 3-5 4·4 1·4 2·1 2·8 3·5 1·2 1·8 2·4 2·9 l·O 1·5 2·0 2·5 +0-4 +o-8 +1·2 +1·6 l·I 1·5 0'4 0-7 0-3 0-7 1·0 1·3 0-3 o-6 0·9 .1·2 0·8 I·I 0·3 0-5 +0·2 0·2 0·2 0·2 O·I tO·l O·l O·l O·l O·I +0-5 +o-8 0·4 0·6 0·4 0·6 0-3

0

·

5

0·3

0·4

+0·3 +0·4 0·2 0-3 0·2 0-3 0·2 0-3 0·2 0·2 t2·1 1·8 1·6 1·5 1'4 +2·5 2·2 2·0 I·8 1-6 2 30 3 00

3 30

4

00

4

30 +1·3 tI·S 5 00 I·I 1·3 6 0·9 l·I 7 o·8 l·O 8 .0-7 0-9 9 +0·7 t0·8 IO 00 0·6 0·7 IZ

0-5

o-6

14

0-4 0-5 16 0-4 0•4 18 +0-1 +0·1 +0-2 +0·3 +0.-3

+

0

-

4

zo

00 0-3

25

+O·I O·I 0·2 0·2 0-3 o-~

30

0·2 3S O·O O·I O·O O·I O·I 0·2 0·2 O·I O·I 0·2

O·O tO·I O·I O·I O·I 0·2 40

O·O O·O tO·l +O·l +o·I +O·l so 00 The graph is entered with argwnents temperature and pressure to find a zone letter; using as arguments this zone letter and apparent altitude (sextant altitude corrected for dip), a correction is taken from the table. This correction is to be applied to the sextant altitude in addition to the corrections for standard conditions (for the Sun, stars and planets from page A2 and for the Moon from pages xXxiv and xxxv).

\

'

SELECTED PAGES FROM

{

I

THE

NAUTICAL ALMANAC

1992

(4)

Re

-

Pri

n

t

ed by V

i

jay

a

Pub

licati

o

ns, 2.

Chai

tr

a 55

0, 11th R

o

ad,

Chem

b

u

r

•.

Bo

mbay

-

400

0

71, at Th

e Bo

ok Centre ltd,, S

ion

( E),

B

om

b

ay-4

00 0

22 w

i

th the kin

d

Permis

sio

n of th

e

Go

v

t

.

of

.

I

ndia.

CALENDAR, 1992

DAYS OF THE WEEK AND DAYS OF THE YEAR

JAN. FEB. MAR. APR. MAY JUNE JULY

Doy of Mood

t

~

~

~

t

~

t

~

~

~

·

t

~

t

~

"

,_

,_

"

,_

"

"

"

I

w.

1 Sa. 32 Su. 61

w.

92 F. 122 M. 153 W

.

183

2

Th.

2 S

u

.

33 M

.

62

Th.

93 Sa. 123 Tu

.15

4

Th.

I84

3 F

.

3M.

34 Tu.63

F.

94 S

u

.

I24 W

.

I55

F.

I85

4 Sa

.

4 Tu.35 W. 64 Sa. 95 M. I25 'I:h.

I56

Sa. I86

s

Su

.

5

w.

36 Th.65 Su. 96 Tu. I26 F.

I57

Su.

I87

6 M. 6 Th.37 F. 66

M.

97 W. I27 Sa. I58 M

.

I88

7 Tu.

7

F. 38 Sa

.

67 T

u

.

98 Th. 128 Su. I59 Tu

.

I89

8

w.

8 Sa.

39 S

u

. 68

w.

99 F. I29 M

.

I6o

w.

I90

9 Th.

9 Su.

40 M. 69 Th.

IOO S

.

a. I30 Tu.

I6I

Th. I9I

IO

F.

IO

M. 4I Tu.70

F. IOI Su.

I3I W

.

I62

F. I92

I I

Sa.

II Tu.42 W

.

7I

Sa

.

I02 M.

I32

Th

.

I63 Sa

.

I93

I2 Su.

I2

W. 43

Th

.

72

Su. I03 Tu.

I33

F.

I64 Su. I94

I3 M.

I3 Th.44

F.

73

M. I04

W. I34

Sa.

I65

M

.

I95

I4 Tu.I4 F. 45 Sa.

74

Tu

.

I05

Th. I35 Su

.

I66-

1,;,Ll.

I96

IS

w.

I5 Sa

.

46 S

u

. 75

W. Io6 F.

I36 M. I67

w.

197

I6

Th.I6

Su. 47 M. 76

Th

.

I07 Sa

.

I37 Tu.

168 Th:I98

I7

F.

1

7

M.

48

T

u

.77

F.

I08 Su.

138

w.

0

169 F. 199

I8 Sa.

18 Tu.49

w.

78 Sa.

109

M. 139

Th

.

110 Sa. 200

I9

Su

.

I9

W.

50

Th

.

7

9

Su.

IIO Tu.

140

F.

I7I Su. 20I

20

M

.

20

Th.5I

F. So M. III W.

I4I

Sa. 172 M. 202

2I

Tu.2I

F.

52 Sa.

8I Tu. II2 Th. I42 Su

.

I73 Tu.

203

22

w.

22 Sa.

53 Su

.

82 W.

II3

F.

I43 M.

I74

w.

204

23

Th

.

23

Su. 54 M.

83 Th.

II4 Sa. I44

Tu

.

I75 Th. 205

24 F. 24

M.

55

Tu

.

84

F

.

II5

Su.

I45

W. I76

F.

206

25 Sa. 25 Tu.56 W

.

85

Sa. I16 M.

I46 Th.

I77

Sa

.

207

26 Su

.

26

w.

57

Th.86

Su. 1I7

Tu

.

I47

F.

I78 Su. 208

27

M

.

27 Th.58

F.

87 M. II8 W

.

I48 Sa. I79-

M. 209

28 Tu

.28

F.

59 ~a.

88

Tu. II9 Th

.

I49 Su. I8o Tu.2Io

29

w.

29 Sa. 6o Su. 89 W

.

I;?O F. I50

M. I8I

w

.

21I

30 Th.30

M

.

90 Th

. I,2! Sa. I5I

Tu

.

I82

Th.

212

3I

F.

3I

Tu

.

9I

S

u

.

I52

F. 213

ECLIPSES

There are

five

eclipses, three

of

the Sun and two of the Mo

on

.

AUG. SEPT.

t

"

~

t

"

~

Sa. 2I4 Tu

.

245

.

Su. 2I5 W. 246

M.

_2I6

Th

.

247

Tu.2I7

F.

248

W. 2I8 Sa

.

249

Th.2I9 Su

.

250

F

.

220

M

.

25I

Sa. 22I Tu

.

252

Su. 222

W

.

253

M.

223 Th

.

2s4

Tu. 224 F

.

255

w.

225

Sa. 256

T

h

.

226

Su. 257

F.

227

M.

258

Sa. 228

Tu.25<?_

Su. 229

w.

26o

M.

230 Th.261

Tu.23I F. 262

W. 232 Sa

.

263

Th.

233

Su.

264

F. 234 M

.

265

Sa. 235 Tu.

266

Su. 236

w.

267

M

.

237 Th. 268

Tu

.

238 F. 269

w.

239

Sa. 270

Th.

240 Su.

27I

F.

24I M. 272

Sa.

242 Tu. 273

Su.

243

w.

274

M. 244

5

OCT. NOV. DEC.

t

~

t

il

~

ii

"

,_

"

,_

,_

Th. 275

Su.

306 Tu

.

336

F.

276 M. 307 W. 337

Sa

.

2

77

Tu. 308

Th.338

Su. 278

w.

309

F.

339

M. 279

Th.3Io

Sa.

3~

Tu

. 280

F. 3II Su

.

341

W.

28I

Sa.

3I2 M. 342

T

h

.

282

Su.

3I3 Tu.34)

F.

283 M. 3I4

w.

344

Sa

.

284 Tu

.

3I5

Th.34s

Su

.

285 W. 3I6

F

.

346

M.

286

Th

.3

I7

Sa. 347

Tu.

287 F. 3I8 Su. 348

w.

288 Sa. 3I9

M.

349

Th. 289 Su.

320 Tu. 350

F. 290

M. 32I

W.

35I

Sa

.

291

Tu. 322

Th.

352

Su.

292 W

.

323

F.

353

M .. 293 Th.

324

Sa.

354

Tu.294 F.

325

Su. 355

W. 295 Sa.

326

M. 356

Th

.

296

Su

.

327 Tu. 357

F.

297 M. 328 W

.

358

Sa. 298 Tu.

329

Th.

359

Su.299

w.

330

F

.

360

M.

300 Th.33I

Sa.

36I

Tu.30I F.

332

Su.

362

w.

302 Sa.

333

M.

363

Th. 303 Su.

334

Tu.

364

F. 304

M. 335

W

.

365

Sa. 305

Th. 366

t.

An Annular Eclipse of the Sun,

January 4-5

.

See map

on

page 6

.

The

eclipse

begins on January 4

at

20• 04m

and ends

on

January

5

at

02• o6m;

the annular phase

begins on

January

4 at

21•

I6m

and

ends on

January

5 at oo•

53m. The maximum

duration of

the

annular phase

is

IIm

36

'.

2. A

Partial Eclipse

of the

Moon,

June

I5. The

eclipse

begins at 03•

27m and

ends

at

06• 27m. The

time

of

maximum

eclipse

is

04•

57m when 0·68

of

the Moon's diameter

i

s obsc

u

red. It

i

s

v

i

sib

l

e

from

Antarctica,

eastern

Africa,

southern tip

of

Greenland, South America,

North

Americ~

except

the n

o

rth-w

est,

Central America,

part

of

the

Pacific

Ocean

and east

New

Zealand

.

3.

A

Total Eclipse of

the Sun,

J

u

ne 30. See map on page

7

.

The

ecl

i

pse begins

at 09•

5Im

and ends at

!'i

14•

3om; the tota

l

phase begins at IIh

02m

and ends

at

13• I9m

·

The maximum duration

of

totality is 5m 26

'.

4.

A

To

t

al Eclipse of the Moon,

Dece

m

ber 9-IO. The

eclipse

begins

on

December

9 at 22•

com and

ends on

December

10

at 01• 28m; the total phase

begins

on December

9 at 23•

07m and ends

on December IO

at

oo•

21m

.

It

is

v

i

sible from Asia except

th

e extreme

east,

Europe includ

i

ng the British Isles, Africa, Atl

anti

c Ocean, Iceland,

Greenland, South

America

except

the

south,

Centra

l

America

,

North Ameri

.ca

except the

western coast.

5.

A Partial Eclipse of the Sun,

December

23-24.

The

ecli

pse begins on December 23

at 22• 21m

and

ends

on December 24

at 02•

41m; at t

i

me of maxim

u

m

eclipse

0·84 of the Su

n

's

diameter i

s

obscured. It

is visible from

(5)

8

PLANET

NOTES, 1992

VISIBILITY OF PLANETS

VENUS is

a

brilliant object in the morning sky from

the beginning of the year until the second week in May

when it becomes too close to the Sun for observation.

During the

second

half of July it reappears in the

evening sky

where it

stays

until the end

of

the

yea

r.

Venus

is in conjunction with Mars on February I9,

with Saturn on February 29 and December 2I, with

Mercury

on April 5

and July

25 and

with Jupiter on

August 23.

MARS can be

seen

at the

very

beginning

of January

in

the morning

sky

in

Ophiuchus

then it passes through

Sagittarius,

Capricornus,

Aquarius, Pisces, briefly into

Cetus and back into Pisces,

on to

Aries and Taurus

(passing 5

°N

of

Aldebaran

on August II), Gemini

(passing 5

°

S of

Pollux on November 4 by which time it

can be seen

for

more

than half the night), Cancer and

back

into

Gemini

in mid

December

where it remains

for

the rest

of

the

year (passing

3°S

of

Pollux on

December 22).

Mars

is in conjunction with Mercury

on

January

IO,

with Venus

on

February

I9

and

with Saturn

on

March 6.

JUPITER

can be seen

in January

for more than half

of

the night in Leo, its westward

elongat

ion

gradually

increases

until it

is at oppos

ition on February

29 when

it

can

be

seen

throughout the night. Its eastward

elonga-tion then

gradually decreases until by early June it can

be seen only

in the evening

sky. In

early September it

becomes too

close

to the Sun

for observation

until

the

beginning of

October when

it reappears in the morning

sky in Virgo in which

constellation it

remains for the

rest of the

year

.

Jupiter is in conjunction with Venus

on

August 23.

SA

TURN can be

seen

in the evening

sky in Capricornus

until mid-January then "it becomes too

close to

the

Sun

for observation

.

It

reappears in the morning

sky in

mid-February still

in

Capricornus in

which constellation it

remains throughout the

year. I

ts

westward elongation

gradually increases until

it is at opposition on

August

7

when

it is

visible

throughout the night. Its eastward

elongation

then gradually decreases until from

early

November

it can

only

be

seen

in the

evening sky.

Saturn is in conjunction

with Venus on

February 29

and

December

2I

and with Mars on March 6.

MERCURY can only

be

seen

low in the

east

before

sunrise, or

low in the

west after sunset (ab0:ut

the time

of

the beginning

or end of civil

twilight). It

is

visible in

the

mornings between the

following approximate dates

:

January

I

(-0·3)t0January 30

(

-

0·7);Apr

il

3 (+

2·8)

to May

24 (-

I·3); August

11

(+2·4)

to September 6

(-

1

A)

and November 28

( +

1

·4)

to December 3

I

(

-

o· 5).

The

planet is brighter

at

the

end

of

each

period

.

It is

visible

in the

evenings

between

the

following

approximate

dates: February

23

(-

1

·3)

to March

19

( + 2·I);June 8

(

-

IA)

to July 26(

+

2·9) and September

27 (

-

o·8) to November 16

( +

r ·8). The planet is

brighter at th

e

beginning

of

each period.

The

figures

in parentheses are the

magnitudes.

PLANET DIAGRAM

General Description. The diagram on the opposite page

s

how

s,

in graphical form for any date during the year,

the local mean time of

meridian passage of

the Sun,

of

the five planets Mercury, Venus, Mars, Jupiter and

Saturn, and of each 30° of S

.

H.A.; intermediat

e

lines,

corresponding to particular stars, may be drawn in by

the user if he

so

desires. It is intended to

provide

a

general pi_cture of the availability of planets and

stars

for

obse

r

va

tion.

On

each side

of the line marking the time of meridian

passage

of

the Sun a band,

45

m wide, is

shaded

to

indicate that planets

and

most stars crossing the

meri-dian within 45m of the

Sun

are too close to the Sun for

observat

ion.

Method

of use and

interpretation.

For any date-

the

diagram

provides immediately the iocal mean times

of

meridian passage

of

the

Sun,

planets. and

stars,

and

thus the

following

information:

(a)

whether a

planet

or star

is too close to the Sun

for observation;

(b)

some indication of

its pos

iti

on

in the

sky,

es-pecially

during twilight;

(c)

the proximity of

other

planets.

Whe

n the meridian passage

of

an outer planet 9ccurs

at

midnight the body is in

opposi

ti

on

to the Sun

and is

v

i

sible

all night;

a

planet may

then

be observable during

both

morning

and

evening

twilig

ht

s.

As the time

of

rrie-ridian passage decreases, the body

eventua

lly ceases

to

be observable in th"e morning, but its altitude above

the

eastern

horizon

at sunset

gradually increases; this

continues

until the body is on the meridian during

evening twilight. From then

onwards

the body is

ob-servab

le above the

wes

te

rn

horizon

and

its altitude at

sunset gradua

lly

decreases;

event

uall

y

the body

becomes

too close to the

Sun for observa

t

ion.

When

the body again

becomes

visible

it i

s

seen low

in the

east

during

morning twilight; its

altitude

at

sunrise

increases

until

meridian passage occurs during morning twilight.

Then,

as the time

of

meridian passage decreases to

o",

the body

is

observable

in the

west

during morning

twilight

with

a

gradually decreasing altitude, until

it

once

again reaches opposition.

DO NOT

CONFUSE

Mercury with

Mars during

the first half of January,

the

reddish

tint

of Mars should ass

i

st

in its identific

a-tion.

·

Venus with Mars from mid-February

to

early March,

with

Saturn

from

late

February

to

early March and

mid-December to

late

December, with Mercury in

early April and in the third

week

of May and

w

ith

Jupiter late August, on

all occasions

Venus

i

s

the

brighter object.

Mars with

Saturn

for

the

first half

of

March

when

Mars is the brighter object.

PLANETS, 1992

9

LOCAL MEAN TIME OF MERIDIAN PASSAGE

(6)

20

1992

JANUARY 16,

17, 18 (THURS., FRI., SAT.)

1992 JANUARY 16, 17, 18 (THURS., FRI., SAT

.

)

21

ARIES

V,ENUS

-4.0

MARS

+1.4

JUPITER

-2.4

SA

TU

RN

+

0

.

6

STARS

i

UT (GMT)

G.H.A G.H.A. Dec. G.H.A. Dec. G.H.A. Dec. G.H.A. Dec. Nome S.H.A. Dec.

~~

.

'

'

.

.

.

'

.

.

'

.

'

.

114 41.7 216 54.7 521 21.9 199 19.7 523 57.8 308 45.5 N 7 21.5 164 32.7 518 57.l Acomar 315 30.2 540 20.3 1601 129 44.2 231 53.9 22.3 214 20.2 57.8 323 48.l 21.6 179 34.8 57.l Achernar . 335 38.5 557 16.8 02 144 46.6 246 53.l 22.6 229 20.6 57.7 338 50.7 21.6 194 37.0 57.0 Acrux 173 27 .2 563 03.2 03 159 49.l 261 52.3

..

23.0 244 21.0

.

.

57.7 353 53.2

.

. 21.7 209

39.1

. .

56.9 Adhara 255 24.7 528 57.1

~

174 51.6 276 51.5 23.4 259 21.4 57.6 8 55.8 21.7 224 41.3 56.8 Aldebaran 291 07.5 Nlo 29.7 189 54.0 291 50.7 23.7 274 21.8 57.6 23 58.4 21.8 239 43.5 56.8

Ot

204 56.5 306 49.9 521 24.l 289 22.3 523 57.5 39 01.0 N 7 21.9 254 45.6 518 56. 7 Alioth 166 34.4 N55 59.7 07 219 59.0 321 49.2 24.4 304 22.7 57.5 54 03.6 21.9 269 41.8 56.6 Alkaid 153 11.4 N49 20.8 T 08 235 01.4 336 48.4 24.8 319 23.l 57.4 69 0.6.l 22.0 284 50.0 56.5 Al No'ir 28 04.0 547 00.l H O'l 250 03.9 351 47.6

.

.

25.l 334 23.5

..

57.4 84 08.7

. .

22.0 ·299 52.l

.

.

56.5 Alnilam 276 02.3 5 l 12.4 u 10 265 OM 6 46.8 25.5 349 24.0 57.4 99 11.3 22.l 314 '54.3 56.4 Alphard 218 11.5 5 8 37.6 R 11 280 08.8 21 46.0 25.8 4 24.4 57.3 114 13.9 22.2 329 56.4 56.3

s

12 295 11.3 36 45.2 521 26.2 19 24.8 523 57.3 129 16.5 N 7 22.2 344 58.6 518 56.2 Alphecca 126 24. 7 N26 44.2 D 13 310 13.8 51 44.4 26.5 34 25.2 57.2 144 19.l 22.3 0 00.8 56.2 Alpheratz 358 00.3 N29 03.0 A 14 325 16.2 00 43.6 26.9 49 25.7 57.2 159 21.6 22.3 15 02.9 56.l Altair 62 24.2 N 8 50.8 y 15 340 18.7 81 42.8

..

27.2 64 26.l

..

57.l 174 24.2

. .

22.4 30 05.l

.

.

56.0 Ankoa 353 31.5 542 21.l lt )55 21.l % 42.0 27.6 79 26.5 57.l 189 26.8 22.5 45 07.2 50.0 Antares 112 46.2 526 24.9 17 10 23.6 111 41.3 27.9 94 26.9 57.0 204 29.4 22.5 60 09.4 55.9 lS 25 26.l 126 40.5 521 28.3 109 27.4 523 56.9 219 32.0 N 7 22.6 75 11.6 518 55.8 Arcturus 146 10.3 Nl9 13.l l~ 40 28.5 141 39.7 28.6 124 27.8 56.9 234 34.6 22.7 90 13.7 55.7 Atria · ioe 02.9 569 ·00.1 20 55 31.0 156 38.9 29.0 139 28.2 56.8 249 37.l 22.7 105 15.9 55.7 Avior 234 24.0 559 29.l 21 70 33.5 171 38.l

. .

29.3 154 28.6

..

56.8 264 39.7

. .

22.8 120 18.l

.

.

55.6 Bellatrix 2.78 48.9 N 6 20.6 22 85 35.9 186 37.3 29.6 169 29.0 56.7 279 42.3 22.8 135 20.2 55,5 Betelgeuse 271 18.3 N 7 24.3 23 100 38.4 201 36.5 30.0 184 29.5 56.7 294 44.9 22.9 150 22.4 55.4

17~

115 40.9 216 35.7 521 30.3 .199 29.9 523 56.6 309 47.5 N 7 23.0 165 24.5 518 55.4 Canopus 264 02.7 552 41.6 130 43.3 231 34.9 30.7 214 30.3 56.6 324 50.l 23.0 180 26.7 55.3 Capella 280 57.7 N45 59.6 02 145 45.8 246 34.l 31.0 229 30.7 56.5 339 52.7 23.l 195 28.9 55.2 Deneb 49 42.9 N45 15.2 03 160 48.3 261 33.3

.

.

31.3 244 31.2

.

.

56.5 354 55.2

.

.

23.2 210 31.0

. .

55.l Denebola 182 49.7 Nl4 36.7 04 175 50.7 276 32.5 31.7 259 31.6 56.4 "57.8 23.2 225 33.2 55.l Diphda 349 12.0 518 01.9 05 190 53.2 291 31.7 32.0 274 32.0 56.3 25 00.4 23.3 240 35.4 55.0

S

U

N

MOON

lot. Twilight Sunrise Moonrise

UT

(GMT) Naut. Civil

16

17

18

19

G.H.A. Dec. G.H.A. v Dec. d H.P.

.

h m h m h m h m h m h m h m d h 0 '

.

'

.

'

'

.

'

'

'

N 72 07 58 09 46

-CJ CJ CJ CJ

16~

177 38.8 521 06.9 56 19.8 5.2 N23 38.2 4.8 59.2 N 70 07 43 09 14 12 06 CJ CJ CJ CJ 192 38.6 06.4 70 44.0 5.0 23 43.0 4.7 59.3 68 07 32 08 50 10 27 CJ CJ CJ 13 37 02 207 38.4 06.0 85 08.0 5.0 23 47.7 4.5 59.3 00 07 22 08 32 09 49 CJ Cl 11 47 14 17 03 222 38.l'

.

.

05.5 99 32.0 4.8 23 52.2 4.3 59.4

04

07 13 08 17 09 23 10 11 11 01 12 43 14 45 04 237 37.9 05.0 113 55.8 4.8 23 56.5 4.2 59.4 o2 07 06 08 04 09 02 10 50 11 45 13 16 15 06 05 252 37.7 04.6 128 19.6 4.7 24 00.7 4.1 59.4

60

07 00 07 53 08 46 11 17 12 15 13 40 15 23 00 267 37.5 521 04.l 142 43.3 4.5 N24 04.8 3.8 59.5 N 58 06 54 07 44 08 32 11 38 12 37 14 00 15 37 07 282 37.3 03.6 157 06.8 4.5 24 08.6 3.8 59.5 56 06 48 07 36 08 20 11 56 12 56 14 16 l!; 49 T 08 297 37.0 03.2 171 30.3 4.4 24 12.4 3.5 59.6 ·54 06 43 07 28 08 09 12 11 13 11 14 29 16 00 H 09 312 36.8

..

02.7 185 53.7 4.3 24 15.9 3.4 59.6 52 06 39 07 21 08 00 12 24 13 25 14 41 16 09

u

10 327 36.6 02.3 200 17.0 4.2 24 19.3 3.3 59.~ 50 06 35 07 15 07 52 12 35 13 36 14 52 '16 18 R 11 342 36.4 01.8 214 40.2 4.2 24 22.6 3.0 59.7 /45 06 25 07 01 07 34 12 59 14 01 15 14 16 35 5 12 357 36.2 521 01.3 229 03.4 4.0 N24 25.6 2.9 59.7 N 40 06 17 06 50 07 20 13 18 14 20 15 32 16 50 D 13 12 36.0 00.8 243 26.4 4.0 24 28.5 2.8 59.7 35 06 09 06 40 07 07 13 34 14 37 15 47 17 02 A 14 27 35.7 21 00.4 ·257 49.4 3.9 24 3l.3 2.6 59.8 30 06 01 06 31 06 57 13 48 14 51 16 00 17 13 y 15 42 35.5 20 59.9 272 12.3 3.8 24 33.9 2.4 59.8 20 05 47 06 14 06 38 14 12 15 15 16 22 17 31 lo 57 35.3 59.4 286 35.1 3.7 24 36.3 2.2 59.9 N 10 OS 33 05 59 06 22 14 32 15 35 16 41 17 47 17 72 35.l 59.0 300 57.8 3.7 24 38.5 2.1 59.9 0 05 18 05 44 06 06 14 52 15 55 16 59 18 02 18 87 34.9 520 58.5 315 20.5 3.5 N24 40.6 1.8 59.9 s 10 05 02 05 28 05 51 15 11 16 14 17 17 18 16 19 102 34.7 58.0 329 43.0 3.6 24 42.4 1.8 60.0 20 04 42 05 10 05 34 15 32 16 35 17 36 18 32 20 117 34.5 57.5 344 05.6 3.4 24 44.2 1.5 60.0 30 04 16 04 48 05 15 15 56 16 59 17 58 18 50 21 132 34.2

..

57.l 358 28.0 3.4 24 45.7 1.4 60.0 35 03 59 04 35 05 03 16 10 17 13

is

11 19 00 22 147 34.0 56.6 12 50.4 3.3 24 47.l 1.2 60.l 40 03 39 04 19 04 50 16 26 17 30 18 25 19 12 23 162 33.8 56.l 27 12.7 3.3 24 48.3 1.0 60.l 45 03 13 03 59 04 35 16 46 17 49 18 43 19 26

17~

177 33.6 520 55.6 41 35.0 3.-2 N24 49.3 0.8 60.l

s

50

02 37 03 34 04 15 17 10 18 14 19 04 19 43 192 33.4 55.2 55 57.2 3.1 24 50.l 0.7 60.2 52 02 17 03 21 04 06 17 .)2 18 25 19 14 19 51 02 207 33.2 54.7 70 19.3 3.1 24 50.8 0.4 60.2 54 01 ·51 03 07 03 56 17 36 18 39 19 26 20 00 03 222 33.0

..

54.2 84 41.4 3.0 24 51.2 0.3 60.2 56 01 11 02 50 03 44 17 52 18 54 19 39 20 09 04 237 32.8 53.7 99 03.4 3.0 24 51.5 0.1 60.3 58 Ill/ 02 28 03 30 18 10 19 13 19 54 20 21 ·05 252 32.5 53.2 113 25.4 2.9 24 51.6 0.0 60.3

s 60

Ill/ 02 00 03 14 18 34 19 35 20 12 20 33

Ot

205 55.6 306 30.9 521 32.3 289 32.4 523 56.3 40 03.0 N 7 23.3 255 37.5 518 54.9 Dubhe 194 10.6 Nol 47.3 07 220 58.l 321 30.l 32.7 304 32.8 56.2 55 05.6 23.4 270 39.7 54.9 Elnath 278 32.5 N28 36.l Oii 236 00.6 336 29.3 33.0 319 33.3 56.2 70 08.2 23.5 285 41.8 54.8 Elton in 90 54.l N51 29.2 F

09

251 03.0 351 28.5

. .

33.3 334 33.7

..

56.l 85 10.8

. .

23.5 300 44.0

.

.

54.7 Enif 34 03.l N 9 50.4 R 10 266 05.5 6 27.7 33.6 349 34.l 56.l 100 13.4 23.6 315 46.2 54.6 Fomalhaut 15 41.8 529 39.9 I 11 281 08.0 21 26.9 34.0 4 34.5 56.0 115 16.0 23.7 330 48.3 54.6

00 267 32.3 520 52.8 127 47.3 2.9 N24 51.6 0.3 60.3 Twilight Moon set

07 282 32.l 52.3 142 09.2 2.8 24 51.3 0.4 60.4 Lat. Sunset

16

17

18

19

08 297 31.9 51.8 156 31.0 ?.8 24 50.9 0.6 60.4 Civil Naut. F 09 312 31.7

..

51.3 170 52.8 2.8 24 50.3 0.8 60.4 R 10 327 31.5 50.8 185 14.6 2.7 24 49.5 l.O 60.5 0 h m h m h m h m h m h m h m I 11 342 31.3 50.4 199 36.3 2.7 24 48.5 1.2 60.5 N 72

-

14 34 16 23 CJ CJ CJ CJ D 12 2% 10.4 36 26.l 521 34.3 19 35.0 523 55.9 130 18.5 N

7

23. 7 345 50.5 518 54.5 Gacrux 172 18. 7 557 04.0 A 13 311 12.9 51 25.3 34.6 34 35.4 55.9 145 21.l 23.8 0 52.6 54.4 Gienah 176 08.7 517 30.0 y 14 326 15.4 66 24.5 34.9 49 35.8 55.8 160 23.7 23.9 15 54.8 54.3 Hadar 149 10.9 560 19.9 15 341 17.8 81 23.7

. .

35.3 64 36.2

.

.

55.8 175 26.3

. .

23.9 30 57.0

. .

54.3 Hamal 328 18.8 N23 25.7 lt 356 20.3 % 22.9 35.6 79 36.6 55.7 190 28.9 24.0 45 59.l 54.2 Kaus Aust. 84 05.4 534 23.) D 12 357 31.l 520 49.9 213 58.0 2.7 N24 47.3 l.4 60.5 N 70 12 15 15 07 16 37 CJ CJ CJ CJ A 13 12 30.9 49.4 228 19.7 2.6 24 45.9 1.5 60.6 68 13 54 15 30 16 49 CJ CJ CJ 10 09 y 14 27 30.7 48.9 242 41.3 2.7 24 44.4 1.7 60.6 00 14 31 15 49 16 59 CJ CJ 09 46 09 28 15 42 30.5

..

48.4 257 03.0 2.6 24 42.7 2.0 60.6 64 14 58 16 04 17 07 06 54 08 16 08 50 09 00 16 57 30.2 47.9 271 24.6 2.5 24 40.7 2.1 60.7 o2 15 18 16 16 17 14 06 16 07 32 08 16 08 38 17 11 22.8 111 22.l 35.9 94 37.l 55.6 205 31.5 24.l 61 01.3 54.l 17 72 30.0 47.4 285 46.l 2.6 24 38.6 2.3 60.7

60

15 35 16 27 17 21 05 49 07 02 ·01 51 08 20 lS 26 25.2 126 21.3 521 36.2 109 37 .5 523 55.6 220 34.l N 7 24.l 76 03.5 518 54.0 Kochab 137 19.5 N74 10.9 19 41 27.7 141 20.5 36.5 124 37.9 55.5 235 36.7 24.2 91 05.6 54.0 Markab 13 54.5 Nl5 09.9 20 56 30.l 156 19.7 36.9 139 38.3 55.4 250 39.3 24.2 106 07.8 53.9 Menkar 314 31.7 N 4 03.6 21 71 32.6 171 18.9

.

. 37

.2 154 38.8

.

.

55.4 265 41.9

.

.

24.3 121 09.9

. .

53.8 Menkent 148 26.6 536 19.8 22 86 35.l 186 18.l 37.5 169 39.2 55.3 280 44.5 24.4 136 12.1 53.7 Miaplacidus 221 42.3 569 41.0 18 87 29.8 520 46.9 300 07.7 2.5 N24 36.3 2.4 60.7 N 58. 15 49 16 36 17 27 05 28 06 40 07 32 08 05 19 102 29.6 46.5 3L4 29.2 2.5 24 33.9 2.7 60.7 56 16 01 16 45 17 32 05 11 06 22 07 15 07 52 20 117 29.4 46.0 328 50.7 2.6 24 31.2 2.8 60.8 54 16 11 16 52 17 37 04 56 06 06 07 01 07 41 21 132 29.2

..

45.5 343 12.3 2.5 24 28.4 3.1 60.8 52 16 20 16 59 17 41 04 44 05 53 06 49 07 31 22 147 29.0 45.0 357 33.8 2.5 24 25.3 3.2 60.8 50 16 29 17 05 17 46 04 32 05 41 06 38 07 22

23

101 37.5 201 17.3 37.8 184 39.6 55.2 295 47.l 24.4 151 14.3 53.7 23 162 28.8 44.5 11 55.3 2.5 24 22.l 3.4 60.8 .45 16 46 17 19 17 55 04 09 05 16 06 15 07 03

18~

116 40.0 216 16.5 521 38.1 199 40.0 523 55.2 310 49.7 N 7 24.5 166 16.4 518 53.6 Mirfak 309 03.l N49 50.3 131 42.5 231 15.7 38.4 214 40.4 55.l 325 52.2 24.6 181 18.6 0 53.5 Nunki 76 18.5 526 18.4 02 146 44.9 246 14.9 38.7 229 40.9 55.0 340 54.8 24.6 1% 20.7 53.5 Peacock 53 44.8 556 45.7 03 161 47.4 261 14.l

.

.

39.l 244 41.3

..

55.0 355 57.4

.

. 24.7

211 22.9

. .

53.4 Pollux 243 46.8 N28 02.7 04 176 49.9 276 13.3 39.4 259 41.7 54.9 11 00.0 24.8 226 25.l 53.3 Procyon 245 16.l N 5 14.7

05

191 52.3 291 12.5 39.7 274 42.1 54.8 26 02.6 24.8 241 27.2 53.2

18~

177 28.6 520 44:0 26 16.8 2.5 N24 18.7 3.6 60.9 N 40 17 01 17 30 18 04 03 50 04 57 05 56 06 48 192 28.4 43.5 40 38.3 2.5 24 15.l 3.8 60.9 35 17 13 17 40 18 11 03 35 04 40 05 41 06 34 02 207 28.2 43.0 54 59.8 2.5 24 11.3 3.9 60.9 30 17 24 17 49 18 19 03 21 04 26 05 27 06 23 03 222 28.0

..

42.5 69 21.3 2.5 24 07.4 4.2 60.9 20 17 42 18 06 18 33 02 58 04 02 05 04 06 03 04 237 27.8 42.0 83 42.8 2.6 24 03.2 4.3 61.0 N 10 17 58 18 21 18 47 ·, 02 38 03 41 04 44 05 45 05 252 27.6 41.5 98 04.4 2.5 23 58.9 4.6 61.0 0 18 14 18 36 19 01 02 20 03 21 04 25 05 29

Ot

206 54.8 306 ll.7°521 40.0 289 42.6 523 54.8 41 05.2 N 7 24.9 256 29.4 518 53.2 Rasalhague 96 21.6 .Nl2 33.8

01

221 57.2 321 10.9 40.3 304 43.0 54.7 56 07.8 25.0 271 31.6 53.l Regul r 208 00.2 Nl2 00.2 S OE 236 59.7 336 10.l 40.6 319 43.4 54.6 71 10.4 25.0 286 33.7 53.0 Rigel 281 27.1 5 8 12.7

A O'l 252 02.2 351 09.3

. .

40.9 334 43.8 . . 54.6 86 13.0

..

25.l 301 35.9

.

.

52.9 Rigil Kent. 140 13.8 560 48.0 T 10 267 04.6 6 08.5 41.2 349 44.2 54.5 101 15.6 25.2 316 38.0 52.9 Sabik 102 31.2 515 43.0 u 11 282 07.1 21 07.7 41.5 4 44.7 54.4 116 18.2 25.2 331 40.2 52.8 R 12 297 09.6 36 06.9 521 41.8 19 45.l 523 54.4 131 20.8 N 7 25.3 346 42.4 518 52.7 Schedar 349 59.l N56 30.0 D 13 312 12.0 51 06.l 42.1 34 45.5 54.3 146 23.4 25.4 l 44.5 52.6 Shaula % 44.0 537 05.9 A 14 327 14.5 66 05.3 42.4 49 45.9 54.2 161 26.0 25.4 16 46.7 52.6 Sirius 258 47.4 516 42.4 y 15 342 17.0 81 04.5

.

.

42.7 64 46.3

.

.

54.l 176 28.6

..

25.5 31 48.8

.

.

52.5 Spica 158 48.l 511 ·07.3 lo 357 19.4 % 03.7 43.0 79 46.8 54.l 191 31.2 25.6 46 51.0 52.4 Suhoil 223 03.8 543 24.0 17 12 21.9 111 02.8 43.3 94 47.2 54.0 206 33.8 25.6 61 53.2 52.3 00 267 27.4 520 41.0 112 25.9 2.6 N23 54.3 4.7 61.0 s 10 18 29 18 52 19 18 02 01 03 02 04 07 05 13 07 282 27.2 40~3 126 47.5 2.5 23 49.6 4.8 61.0 20 18 46 19 10 19 38 01 41 02 41 03 46 04 55

s

08 297 27.0 40.0 141 09.0 2.6 23 44.8 5.1 61.l 30 19 05 19 31 20 04 01 18 02 17 03 23 04 34 A 09 312 26.8

.

.

39.5 155 30.6 2.7 23 39.7 5.3 61.l 35 19 16 19 45 20 20 01 05 02 02 03 09' 04 22 T 10 327 26.6 39.0 169 52.3 2.6 23 34.4 5.4 61.l 40 19 29 20 01 20 40 00 49 01 46

oi

53 04 08

u

11 342 26.4 38.5 184 13.9 2.7 23 29.0 .5.6 61.l 45 19 45 20 20 21 06 00 31 01 26 02 34 03 52 R 12 357 26.2 520 38.0 198 35.6 2.1 N23 23.4 5.8 61.l 5 50 20 04 20 45 21 42 00 08 01 01 02 10 03 31 D 13 12 26.0 37.5 212 57.3 2.7 23 17.6 6.0 61.2 52 20 13 20 57 22 01 24 49 ·OO 49 01 58 03 21 A 14 27 25.8 37.0 227 19.0 2.8 23 11.6 6.1 61.2 54 20 23 21 12 22 26 24 35 00 35 01 45 03 10 y 15 42 25.6

. .

36.5 241 40.8 2.8 23 05.5 6.4 61.2 56 20 35 21 29 23 04 24 20 00 20 01 30 02 58· lo 57 25.4 36.0 256 02.6 2.9 22 59.1 6.5 61.2 58 20 48 21 49 Ill/ 24 01 00 01 01 11 02 43 17 72 25.2 35.5 270 24.5 2.8 22 52.6 6.7 61.2

s

60

21 04 22 16 Ill/ 23 37 24 49 00 49 02 26 18 27 24.4 126 02.0 521 43.6 109 47.6 523 53.9 221 36.4 N 7 25.7 76 55.3 518 52.3 Vega 80 50.2 N38 46.5 19 42 26.8 141 01.2 43.9 124 48.0 53.9 236 39.0 25.8 91 57.5 52.2 Zuben'ubi 137 23.3 516 00.6

20 57 29.3 156 00.4 44.2 139 48.4 53.8 251 41.6 25.8 106 59.7 52.l S.H.A. Mer. Posa.

21 72 31.7 170 59.6

.

.

44.4 154 48.9

.

.

53.7 266 44.2

.

.

25.9 122 01.8

.

.

52.0

.

' h .• 22 87 34.2 185 58.8 44.7 169 49.3 53.6 281 46.8 26.0 137 04.0 52.0 Venus 100 54.8 9 34 23 102 36.7 200 58.0 45.0 184 49.7 53.6 296 49.4 26.0 152 06.l 51.9 Mars 83 49.0 10 42 h m Jupiter 194 06.6 3 20 - · Poss. 16 14.6 v -0.8 d 0.3 v 0.4 d 0.1 v 2.b d 0.1 v 2.2 d 0.1 Saturn 49 43.7 12 56 18 87 25.0 520 35.0 284 46.3 3.0 N22 45.9 6.8 61.3 SUN MOON 19 102 24.8 34.5 299 08.3 3.0 22 39.1 7.1 61.3

20 117 24.6 34.0 313 30.3 3.0 22 32.0 7.2 61.3 Day Eqn. of Time Mer. Mer. Pan. IAge Phase 21 132 24.4

..

33.5 327 52.3 3.1 22 24.8 7.3 61.3 00 h 12 h Pass. Uccer lower

22 147 24.2 33.0 342 14.4 3.1 22 17.5 7.6 61.3 m

'

m h m h m • h m d 23 162 24.0 32.5 356 36.5 3.2 22 09.9 7.7 61.3 16 09 24 09 35 12 10 21 06 08 35 12

()

17 09 45 09 55 12 10 22 10 09 38 13 S.D. 16.3 d 0.5 S.D. 16.3 16.5 16.7 18 10 05 10 15 12 10 23 14 10 42 14

References

Related documents

[r]

[r]

[r]

[r]

[r]

The following figure illustrates the system flow for a SOAP Connector - Listen inbound operation using the Universal Event Monitor for SOA SOAP Connector.... The following

In this review, the research carried out using various ion-exchange resin-like adsorbents including modified clays, lignocellulosic biomasses, chitosan and its derivatives, microbial

* Note- Time of Sunrise, Sunset, Moonrise, Moonset and twilight is based on GMT/UT of the event at 0° (Greenwich) and can be condsidered as approximate LMT (Local Mean Time) with