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Laplace - Œuvres complètes, Gauthier-Villars, 1878, tome 11.djvu/167
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153
THÉORIE DE JUPITER ET DE SATURNE.
et l’on trouvera
M
(
0
)
=
1
48
(
−
236
A
(
2
)
+
111
a
′
∂
A
(
2
)
∂
a
′
−
18
a
′
2
∂
2
A
(
2
)
∂
a
′
2
+
a
′
3
∂
3
A
(
2
)
∂
a
′
3
)
,
M
(
1
)
=
1
16
(
306
A
(
3
)
+
51
a
∂
A
(
3
)
∂
a
−
84
a
′
∂
A
(
3
)
∂
a
′
−
14
a
a
′
∂
2
A
(
3
)
∂
a
∂
a
′
+
6
a
′
2
∂
2
A
(
3
)
∂
a
′
2
+
a
a
′
2
∂
3
A
(
3
)
∂
a
∂
a
′
2
)
,
M
(
2
)
=
1
16
(
−
352
A
(
4
)
−
112
a
∂
A
(
4
)
∂
a
+
44
a
′
∂
A
(
4
)
∂
a
′
−
8
a
2
∂
2
A
(
4
)
∂
a
2
+
14
a
a
′
∂
2
A
(
4
)
∂
a
∂
a
′
+
a
2
a
′
∂
3
A
(
4
)
∂
a
2
∂
a
′
)
,
M
(
3
)
=
1
48
(
380
A
(
5
)
+
174
a
∂
A
(
5
)
∂
a
+
24
a
2
∂
2
A
(
5
)
∂
a
2
+
a
3
∂
3
A
(
5
)
∂
a
3
)
,
M
(
4
)
=
a
a
′
16
(
7
L
(
3
)
−
a
′
∂
L
(
3
)
∂
a
′
)
,
M
(
5
)
=
a
a
′
16
(
7
L
(
4
)
+
a
∂
L
(
4
)
∂
a
)
.
{\displaystyle {\begin{aligned}\mathrm {M} ^{(0)}=&{\frac {1}{48}}\left(-236\mathrm {A} ^{(2)}+111a'{\frac {\partial \mathrm {A} ^{(2)}}{\partial a'}}-18a'^{2}{\frac {\partial ^{2}\mathrm {A} ^{(2)}}{\partial a'^{2}}}+a'^{3}{\frac {\partial ^{3}\mathrm {A} ^{(2)}}{\partial a'^{3}}}\right),\\\mathrm {M} ^{(1)}=&{\frac {1}{16}}\left(306\mathrm {A} ^{(3)}+51a{\frac {\partial \mathrm {A} ^{(3)}}{\partial a}}-84a'{\frac {\partial \mathrm {A} ^{(3)}}{\partial a'}}-14aa'{\frac {\partial ^{2}\mathrm {A} ^{(3)}}{\partial a\partial a'}}\right.\\&\qquad \qquad \qquad \qquad \qquad \qquad \left.+6a'^{2}{\frac {\partial ^{2}\mathrm {A} ^{(3)}}{\partial a'^{2}}}+aa'^{2}{\frac {\partial ^{3}\mathrm {A} ^{(3)}}{\partial a\partial a'^{2}}}\right),\\\mathrm {M} ^{(2)}=&{\frac {1}{16}}\left(-352\mathrm {A} ^{(4)}-112a{\frac {\partial \mathrm {A} ^{(4)}}{\partial a}}+44a'{\frac {\partial \mathrm {A} ^{(4)}}{\partial a'}}-8a^{2}{\frac {\partial ^{2}\mathrm {A} ^{(4)}}{\partial a^{2}}}\right.\\&\qquad \qquad \qquad \qquad \qquad \qquad \left.+14aa'{\frac {\partial ^{2}\mathrm {A} ^{(4)}}{\partial a\partial a'}}+a^{2}a'{\frac {\partial ^{3}\mathrm {A} ^{(4)}}{\partial a^{2}\partial a'}}\right),\\\mathrm {M} ^{(3)}=&{\frac {1}{48}}\left(380\mathrm {A} ^{(5)}+174a{\frac {\partial \mathrm {A} ^{(5)}}{\partial a}}+24a^{2}{\frac {\partial ^{2}\mathrm {A} ^{(5)}}{\partial a^{2}}}+a^{3}{\frac {\partial ^{3}\mathrm {A} ^{(5)}}{\partial a^{3}}}\right),\\\mathrm {M} ^{(4)}=&{\frac {aa'}{16}}\left(7\mathrm {L} ^{(3)}-a'{\frac {\partial \mathrm {L} ^{(3)}}{\partial a'}}\right),\\\mathrm {M} ^{(5)}=&{\frac {aa'}{16}}\left(7\mathrm {L} ^{(4)}+a{\frac {\partial \mathrm {L} ^{(4)}}{\partial a}}\right).\end{aligned}}}
De là on tire, par l’article XV,
a
′
M
(
0
)
=
1
48
(
389
b
1
2
(
2
)
+
201
α
d
b
1
2
(
2
)
d
α
+
27
α
2
d
2
b
1
2
(
2
)
d
α
2
+
α
3
d
3
b
1
2
(
2
)
d
α
3
)
,
a
′
M
(
1
)
=
−
1
16
(
402
b
1
2
(
3
)
+
193
α
d
b
1
2
(
3
)
d
α
+
26
α
2
d
2
b
1
2
(
3
)
d
α
2
+
α
3
d
3
b
1
2
(
3
)
d
α
3
)
,
a
′
M
(
2
)
=
1
16
(
396
b
1
2
(
4
)
+
184
α
d
b
1
2
(
4
)
d
α
+
25
α
2
d
2
b
1
2
(
4
)
d
α
2
+
α
3
d
3
b
1
2
(
4
)
d
α
3
)
,
a
′
M
(
3
)
=
−
1
48
(
380
b
1
2
(
5
)
+
174
α
d
b
1
2
(
5
)
d
α
+
24
α
2
d
2
b
1
2
(
5
)
d
α
2
+
α
3
d
3
b
1
2
(
5
)
d
α
3
)
,
a
′
M
(
4
)
=
α
16
(
10
b
3
2
(
3
)
+
α
d
b
3
2
(
3
)
d
α
)
,
a
′
M
(
5
)
=
−
α
16
(
7
b
3
2
(
4
)
+
α
d
b
3
2
(
4
)
d
α
)
.
{\displaystyle {\begin{aligned}a'\mathrm {M} ^{(0)}=&\quad \ {\frac {1}{48}}\left(389b_{\frac {1}{2}}^{(2)}+201\alpha {\frac {db_{\frac {1}{2}}^{(2)}}{d\alpha }}+27\alpha ^{2}{\frac {d^{2}b_{\frac {1}{2}}^{(2)}}{d\alpha ^{2}}}+\alpha ^{3}{\frac {d^{3}b_{\frac {1}{2}}^{(2)}}{d\alpha ^{3}}}\right),\\a'\mathrm {M} ^{(1)}=&-{\frac {1}{16}}\left(402b_{\frac {1}{2}}^{(3)}+193\alpha {\frac {db_{\frac {1}{2}}^{(3)}}{d\alpha }}+26\alpha ^{2}{\frac {d^{2}b_{\frac {1}{2}}^{(3)}}{d\alpha ^{2}}}+\alpha ^{3}{\frac {d^{3}b_{\frac {1}{2}}^{(3)}}{d\alpha ^{3}}}\right),\\a'\mathrm {M} ^{(2)}=&\quad \ {\frac {1}{16}}\left(396b_{\frac {1}{2}}^{(4)}+184\alpha {\frac {db_{\frac {1}{2}}^{(4)}}{d\alpha }}+25\alpha ^{2}{\frac {d^{2}b_{\frac {1}{2}}^{(4)}}{d\alpha ^{2}}}+\alpha ^{3}{\frac {d^{3}b_{\frac {1}{2}}^{(4)}}{d\alpha ^{3}}}\right),\\a'\mathrm {M} ^{(3)}=&-{\frac {1}{48}}\left(380b_{\frac {1}{2}}^{(5)}+174\alpha {\frac {db_{\frac {1}{2}}^{(5)}}{d\alpha }}+24\alpha ^{2}{\frac {d^{2}b_{\frac {1}{2}}^{(5)}}{d\alpha ^{2}}}+\alpha ^{3}{\frac {d^{3}b_{\frac {1}{2}}^{(5)}}{d\alpha ^{3}}}\right),\\a'\mathrm {M} ^{(4)}=&\quad \ {\frac {\alpha }{16}}\left(\ \ 10b_{\frac {3}{2}}^{(3)}+\alpha {\frac {db_{\frac {3}{2}}^{(3)}}{d\alpha }}\right),\\a'\mathrm {M} ^{(5)}=&-{\frac {\alpha }{16}}\left(\quad 7b_{\frac {3}{2}}^{(4)}+\alpha {\frac {db_{\frac {3}{2}}^{(4)}}{d\alpha }}\right).\end{aligned}}}
On aura ensuite
k
=
M
(
0
)
e
′
3
sin
3
ϖ
′
+
M
(
1
)
e
′
2
e
sin
(
2
ϖ
′
+
ϖ
)
+
M
(
2
)
e
′
e
2
sin
(
ϖ
′
+
2
ϖ
)
+
M
(
3
)
e
3
sin
3
ϖ
+
M
(
4
)
e
′
γ
2
sin
(
2
Π
+
ϖ
′
)
+
M
(
5
)
e
γ
2
sin
(
2
Π
+
ϖ
)
,
k
′
=
−
M
(
0
)
e
′
3
cos
3
ϖ
′
−
M
(
1
)
e
′
2
e
cos
(
2
ϖ
′
+
ϖ
)
−
M
(
2
)
e
′
e
2
cos
(
ϖ
′
+
2
ϖ
)
−
M
(
3
)
e
3
cos
3
ϖ
−
M
(
4
)
e
′
γ
2
cos
(
2
Π
+
ϖ
′
)
−
M
(
5
)
e
γ
2
cos
(
2
Π
+
ϖ
)
.
{\displaystyle {\begin{aligned}k\ =&\quad \ \mathrm {M} ^{(0)}e'^{3}\sin 3\varpi '+\mathrm {M} ^{(1)}e'^{2}e\sin(2\varpi '+\varpi \,)+\mathrm {M} ^{(2)}e'e^{2}\sin(\varpi '+2\varpi )\\&+\mathrm {M} ^{(3)}e^{3}\ \sin 3\varpi \ +\mathrm {M} ^{(4)}e'\gamma ^{2}\sin(2\Pi \,+\varpi ')+\mathrm {M} ^{(5)}e\ \gamma ^{2}\sin(2\Pi +\varpi ),\\k'=&-\mathrm {M} ^{(0)}e'^{3}\cos 3\varpi '-\mathrm {M} ^{(1)}e'^{2}e\cos(2\varpi '+\varpi )-\mathrm {M} ^{(2)}e'e^{2}\cos(\varpi '+2\varpi )\\&-\mathrm {M} ^{(3)}e^{3}\ \cos 3\varpi \ -\mathrm {M} ^{(4)}e'\gamma ^{2}\cos(2\Pi +\varpi ')-\mathrm {M} ^{(5)}e\gamma ^{2}\cos(2\Pi +\varpi ).\end{aligned}}}