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Laplace - Œuvres complètes, Gauthier-Villars, 1878, tome 3.djvu/179
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153
SECONDE PARTIE. — LIVRE VI.
+
(
1
+
μ
v
)
{
65
″
,
961045.
sin
(
n
v
t
−
n
vı
t
+
ε
v
−
ε
vı
)
−
13
″
,
027691.
sin
2
(
n
v
t
−
n
vı
t
+
ε
v
−
ε
vı
)
−
2
″
,
660850.
sin
3
(
n
v
t
−
n
vı
t
+
ε
v
−
ε
vı
)
−
0
″
,
754350.
sin
4
(
n
v
t
−
n
vı
t
+
ε
v
−
ε
vı
)
−
0
″
,
247564.
sin
5
(
n
v
t
−
n
vı
t
+
ε
v
−
ε
vı
)
−
0
″
,
089294.
sin
6
(
n
v
t
−
n
vı
t
+
ε
v
−
ε
vı
)
−
0
″
,
033731.
sin
7
(
n
v
t
−
n
vı
t
+
ε
v
−
ε
vı
)
−
0
″
,
012801.
sin
8
(
n
v
t
−
n
vı
t
+
ε
v
−
ε
vı
)
}
,
{\displaystyle +\left(1+\mu ^{\mathrm {v} }\right)\left\{{\begin{aligned}&\,\quad 65'',961045.\sin \ \ \left(n^{\mathrm {v} }t-n^{\text{vı}}t+\varepsilon ^{\mathrm {v} }-\varepsilon ^{\text{vı}}\right)\\&-13'',027691.\sin 2\left(n^{\mathrm {v} }t-n^{\text{vı}}t+\varepsilon ^{\mathrm {v} }-\varepsilon ^{\text{vı}}\right)\\&-\ \ 2'',660850.\sin 3\left(n^{\mathrm {v} }t-n^{\text{vı}}t+\varepsilon ^{\mathrm {v} }-\varepsilon ^{\text{vı}}\right)\\&-\ \ 0'',754350.\sin 4\left(n^{\mathrm {v} }t-n^{\text{vı}}t+\varepsilon ^{\mathrm {v} }-\varepsilon ^{\text{vı}}\right)\\&-\ \ 0'',247564.\sin 5\left(n^{\mathrm {v} }t-n^{\text{vı}}t+\varepsilon ^{\mathrm {v} }-\varepsilon ^{\text{vı}}\right)\\&-\ \ 0'',089294.\sin 6\left(n^{\mathrm {v} }t-n^{\text{vı}}t+\varepsilon ^{\mathrm {v} }-\varepsilon ^{\text{vı}}\right)\\&-\ \ 0'',033731.\sin 7\left(n^{\mathrm {v} }t-n^{\text{vı}}t+\varepsilon ^{\mathrm {v} }-\varepsilon ^{\text{vı}}\right)\\&-\ \ 0'',012801.\sin 8\left(n^{\mathrm {v} }t-n^{\text{vı}}t+\varepsilon ^{\mathrm {v} }-\varepsilon ^{\text{vı}}\right)\end{aligned}}\right\},}
∂
r
vı
=
(
1
+
μ
ıv
)
{
0
,
0063473160
+
0
,
0048914790.
cos
(
n
ıv
t
−
n
vı
t
+
ε
ıv
−
ε
vı
)
+
0
,
0000236184.
cos
2
(
n
ıv
t
−
n
vı
t
+
ε
ıv
−
ε
vı
)
+
0
,
0000030669.
cos
3
(
n
ıv
t
−
n
vı
t
+
ε
ıv
−
ε
vı
)
+
0
,
0000005044.
cos
4
(
n
ıv
t
−
n
vı
t
+
ε
ıv
−
ε
vı
)
}
{\displaystyle \partial r^{\text{vı}}=\left(1+\mu ^{\text{ıv}}\right)\left\{{\begin{aligned}&\quad 0,0063473160\\&+0,0048914790.\cos \ \ \left(n^{\text{ıv}}t-n^{\text{vı}}t+\varepsilon ^{\text{ıv}}-\varepsilon ^{\text{vı}}\right)\\&+0,0000236184.\cos 2\left(n^{\text{ıv}}t-n^{\text{vı}}t+\varepsilon ^{\text{ıv}}-\varepsilon ^{\text{vı}}\right)\\&+0,0000030669.\cos 3\left(n^{\text{ıv}}t-n^{\text{vı}}t+\varepsilon ^{\text{ıv}}-\varepsilon ^{\text{vı}}\right)\\&+0,0000005044.\cos 4\left(n^{\text{ıv}}t-n^{\text{vı}}t+\varepsilon ^{\text{ıv}}-\varepsilon ^{\text{vı}}\right)\end{aligned}}\right\}}
+
(
1
+
μ
v
)
{
0
,
0023641285
+
0
,
0035433901.
cos
(
n
v
t
−
n
vı
t
+
ε
v
−
ε
vı
)
+
0
,
0004061682.
cos
2
(
n
v
t
−
n
vı
t
+
ε
v
−
ε
vı
)
+
0
,
0000889425.
cos
3
(
n
v
t
−
n
vı
t
+
ε
v
−
ε
vı
)
+
0
,
0000255870.
cos
4
(
n
v
t
−
n
vı
t
+
ε
v
−
ε
vı
)
}
.
{\displaystyle +\left(1+\mu ^{\mathrm {v} }\right)\left\{{\begin{aligned}&\quad 0,0023641285\\&+0,0035433901.\cos \left(n^{\mathrm {v} }t-n^{\text{vı}}t+\varepsilon ^{\mathrm {v} }-\varepsilon ^{\text{vı}}\right)\\&+0,0004061682.\cos 2\left(n^{\mathrm {v} }t-n^{\text{vı}}t+\varepsilon ^{\mathrm {v} }-\varepsilon ^{\text{vı}}\right)\\&+0,0000889425.\cos 3\left(n^{\mathrm {v} }t-n^{\text{vı}}t+\varepsilon ^{\mathrm {v} }-\varepsilon ^{\text{vı}}\right)\\&+0,0000255870.\cos 4\left(n^{\mathrm {v} }t-n^{\text{vı}}t+\varepsilon ^{\mathrm {v} }-\varepsilon ^{\text{vı}}\right)\end{aligned}}\right\}.}
Inégalités dépendantes de la première puissance des excentricités.
∂
ν
vı
=
(
1
+
μ
ıv
)
{
−
3
″
,
807443.
sin
(
n
ıv
t
+
ε
ıv
−
ϖ
vı
)
+
3
″
,
887493.
sin
(
2
n
ıv
t
−
n
vı
t
+
2
ε
ıv
−
ε
vı
−
ϖ
ıv
)
−
11
″
,
224270.
sin
(
2
n
vı
t
−
n
ıv
t
+
2
ε
vı
−
ε
ıv
−
ϖ
vı
)
−
0
″
,
685175.
sin
(
2
n
vı
t
−
n
ıv
t
+
2
ε
vı
−
ε
ıv
−
ϖ
ıv
)
}
{\displaystyle \partial \nu ^{\text{vı}}=\left(1+\mu ^{\text{ıv}}\right)\left\{{\begin{aligned}&-\,\ 3'',807443.\sin \left(n^{\text{ıv}}t+\varepsilon ^{\text{ıv}}-\varpi ^{\text{vı}}\right)\\&+\,\ 3'',887493.\sin \left(2n^{\text{ıv}}t-n^{\text{vı}}t+2\varepsilon ^{\text{ıv}}-\varepsilon ^{\text{vı}}-\varpi ^{\text{ıv}}\right)\\&-11'',224270.\sin \left(2n^{\text{vı}}t-n^{\text{ıv}}t+2\varepsilon ^{\text{vı}}-\varepsilon ^{\text{ıv}}-\varpi ^{\text{vı}}\right)\\&-\,\ 0'',685175.\sin \left(2n^{\text{vı}}t-n^{\text{ıv}}t+2\varepsilon ^{\text{vı}}-\varepsilon ^{\text{ıv}}-\varpi ^{\text{ıv}}\right)\end{aligned}}\right\}}
+
(
1
+
μ
v
)
{
−
4
″
,
328267.
sin
(
n
v
t
+
ε
v
−
ϖ
vı
)
−
0
″
,
663139.
sin
(
n
v
t
+
ε
v
−
ϖ
vı
)
−
0
″
,
678358.
sin
(
2
n
v
t
−
n
vı
t
+
2
ε
v
−
ε
vı
−
ϖ
vı
)
−
2
″
,
712230.
sin
(
2
n
v
t
−
n
vı
t
+
2
ε
v
−
ε
vı
−
ϖ
vı
)
−
(
135
″
,
961650
−
t
.0
″
,
000761
)
sin
(
2
n
vı
t
−
n
v
t
+
2
ε
vı
−
ε
v
−
ϖ
vı
)
+
(
462
″
,
369642
−
t
.0
″
,
025635
)
sin
(
2
n
vı
t
−
n
v
t
+
2
ε
vı
−
ε
v
−
ϖ
vı
)
+
7
″
,
673429.
sin
(
3
n
vı
t
−
2
n
v
t
+
3
ε
vı
−
2
ε
v
−
ϖ
vı
)
−
5
″
,
069294.
sin
(
3
n
vı
t
−
2
n
v
t
+
3
ε
vı
−
2
ε
v
−
ϖ
v
)
+
1
″
,
304718.
sin
(
4
n
vı
t
−
3
n
v
t
+
4
ε
vı
−
3
ε
v
−
ϖ
vı
)
−
0
″
,
869752.
sin
(
4
n
vı
t
−
3
n
v
t
+
4
ε
vı
−
3
ε
v
−
ϖ
v
)
+
0
″
,
390410.
sin
(
5
n
vı
t
−
4
n
v
t
+
5
ε
vı
−
4
ε
v
−
ϖ
vı
)
}
,
{\displaystyle +\left(1+\mu ^{\mathrm {v} }\right)\left\{{\begin{aligned}&-4'',328267.\sin \left(n^{\mathrm {v} }t+\varepsilon ^{\mathrm {v} }-\varpi ^{\text{vı}}\right)\\&-0'',663139.\sin \left(n^{\mathrm {v} }t+\varepsilon ^{\mathrm {v} }-\varpi ^{\text{vı}}\right)\\&-0'',678358.\sin \left(2n^{\mathrm {v} }t-n^{\text{vı}}t+2\varepsilon ^{\mathrm {v} }-\varepsilon ^{\text{vı}}-\varpi ^{\text{vı}}\right)\\&-2'',712230.\sin \left(2n^{\mathrm {v} }t-n^{\text{vı}}t+2\varepsilon ^{\mathrm {v} }-\varepsilon ^{\text{vı}}-\varpi ^{\text{vı}}\right)\\&-\left(135'',961650-t.0'',000761\right)\sin \left(2n^{\text{vı}}t-n^{\mathrm {v} }t+2\varepsilon ^{\text{vı}}-\varepsilon ^{\mathrm {v} }-\varpi ^{\text{vı}}\right)\\&+\left(462'',369642-t.0'',025635\right)\sin \left(2n^{\text{vı}}t-n^{\mathrm {v} }t+2\varepsilon ^{\text{vı}}-\varepsilon ^{\mathrm {v} }-\varpi ^{\text{vı}}\right)\\&+7'',673429.\sin \left(3n^{\text{vı}}t-2n^{\mathrm {v} }t+3\varepsilon ^{\text{vı}}-2\varepsilon ^{\mathrm {v} }-\varpi ^{\text{vı}}\right)\\&-5'',069294.\sin \left(3n^{\text{vı}}t-2n^{\mathrm {v} }t+3\varepsilon ^{\text{vı}}-2\varepsilon ^{\mathrm {v} }-\varpi ^{\mathrm {v} }\right)\\&+1'',304718.\sin \left(4n^{\text{vı}}t-3n^{\mathrm {v} }t+4\varepsilon ^{\text{vı}}-3\varepsilon ^{\mathrm {v} }-\varpi ^{\text{vı}}\right)\\&-0'',869752.\sin \left(4n^{\text{vı}}t-3n^{\mathrm {v} }t+4\varepsilon ^{\text{vı}}-3\varepsilon ^{\mathrm {v} }-\varpi ^{\mathrm {v} }\right)\\&+0'',390410.\sin \left(5n^{\text{vı}}t-4n^{\mathrm {v} }t+5\varepsilon ^{\text{vı}}-4\varepsilon ^{\mathrm {v} }-\varpi ^{\text{vı}}\right)\end{aligned}}\right\},}
∂
r
vı
=
(
1
+
μ
v
)
{
+
0
,
0016092001.
cos
(
2
n
vı
t
−
n
v
t
+
2
ε
vı
−
ε
v
−
ϖ
vı
)
+
0
,
0061835858.
cos
(
2
n
vı
t
−
n
v
t
+
2
ε
vı
−
ε
v
−
ϖ
vı
)
}
.
{\displaystyle \partial r^{\text{vı}}=\left(1+\mu ^{\mathrm {v} }\right)\left\{{\begin{aligned}&+0,0016092001.\cos \left(2n^{\text{vı}}t-n^{\mathrm {v} }t+2\varepsilon ^{\text{vı}}-\varepsilon ^{\mathrm {v} }-\varpi ^{\text{vı}}\right)\\&+0,0061835858.\cos \left(2n^{\text{vı}}t-n^{\mathrm {v} }t+2\varepsilon ^{\text{vı}}-\varepsilon ^{\mathrm {v} }-\varpi ^{\text{vı}}\right)\end{aligned}}\right\}.}