Gravitational Waves from Inspiralling Compact Binaries in ... - LUTH
Gravitational Waves from Inspiralling Compact Binaries in ... - LUTH Gravitational Waves from Inspiralling Compact Binaries in ... - LUTH
3PN accurate conservative dynamics Radial motion, defined by r(l, n, et) and ˙r(l, n, et), reads (both in the compact and in the 3PN expanded form) 5 r = S(l, n, et) = ar(n, et)[1 − er(n, et) cos u] = rN + r1PN + r2PN + r3PN , rN = GM n 2 r1PN = rN × r2PN = rN × r3PN = rN × 1/3 (1 − et cos u) , ξ 2/3 6(1 − et cos u) [−18 + 2η − (6 − 7η)et cos u] , ξ 4/3 −72(4 − 7η) + 72 + 30η + 8η 2 − i 72(1 − e2 t )(1 − et cos u) (72 − 231η + 35η 2 )et cos u (1 − e 2 t ) − 36(5 − 2η)(2 + et cos u) 1 − e2 t − 2 3 ξ 2 (1 − e 2 t )2 (1 − et cos u) 87 437 + η − 16 144 η2 + 49 1296 η3 · · · · · · · · · · ·· − 70 3 + 56221 840 × et cos u η − 123 64 π2 η − 151 36 η2 + 2 81 η3 + BRI-IHP06-I – p.120/??
3PN accurate conservative dynamics where ˙rN = ˙r1PN = ˙rN × ξ2/3 6 ˙r2PN = ˙rN × ˙r3PN = ˙rN × ˙r = n ∂S ∂l (l, n, et) = ˙rN + ˙r1PN + ˙r2PN + ˙r3PN , (GMn) 1/3 (1 − et cos u) et sin u , (6 − 7η) , ξ 4/3 72(1 − et cos u) 3 −468 − 15η + 35η 2 + (135η − 9η 2 )e 2 t + +(324 + 342η − 96η 2 )et cos u + (216 − 693η + 105η 2 )(et cos u) 2 −(72 − 231η + 35η 2 )(et cos u) 3 + ξ 2 (1 − e 2 t )3/2 (1 − et cos u) 5 36 1 − e 2 t 75 − 2071 18 (1 − et cos u) 2 (4 − et cos u)(5 − 2η 41 η + 48 π2η + 41 3 η2 · · · · · · · · · · · · BRI-IHP06-I – p.121/??
- Page 71 and 72: Far Zone Angular Momentum Flux dJi
- Page 73 and 74: Far Zone Angular Momentum Flux dJi
- Page 75 and 76: 3PN AMFlux - Shar dJi dt dJi dt
- Page 77 and 78: Orbital Averaged AMF - ADM Using th
- Page 79 and 80: Orbital Averaged AMF - ADM 〈 dJ d
- Page 81 and 82: Orbital Averaged AMF - ADM 〈 dJ d
- Page 83 and 84: Evoln of orbital elements under GRR
- Page 85 and 86: Evoln of orbital element n under GR
- Page 87 and 88: Evoln of orbital element n under GR
- Page 89 and 90: Evoln of orbital element et under G
- Page 91 and 92: Evoln of orbital element ar under G
- Page 93 and 94: Evoln of orbital element ar under G
- Page 95 and 96: PART II Based on Phasing of Gravita
- Page 97 and 98: Beyond Orbital Averages Going beyon
- Page 99 and 100: Phasing of GWF TT radn field is giv
- Page 101 and 102: Phasing of GWF Orbital phase = φ,
- Page 103 and 104: Method of variation of constants A
- Page 105 and 106: Method of variation of constants c1
- Page 107 and 108: Method of variation of constants At
- Page 109 and 110: Method of variation of constants An
- Page 111 and 112: Method of variation of constants Al
- Page 113 and 114: Method of variation of constants Fo
- Page 115 and 116: Method of variation of constants Du
- Page 117 and 118: Implementation Compute 3PN accurate
- Page 119 and 120: 3PN accurate conservative dynamics
- Page 121: 3PN accurate conservative dynamics
- Page 125 and 126: 3PN accurate conservative dynamics
- Page 127 and 128: 3PN accurate conservative dynamics
- Page 129 and 130: 3.5PN accurate reactive dynamics A
- Page 131 and 132: 3.5PN accurate reactive dynamics Fi
- Page 133 and 134: 3.5PN accurate reactive dynamics dc
- Page 135 and 136: 3.5PN accurate reactive dynamics 4
- Page 137 and 138: Secular variations d¯n dt dēt dt
- Page 139 and 140: Periodic variations To complete thi
- Page 141 and 142: Periodic variations One can analyti
- Page 143 and 144: Periodic variations ˜cl = − 2ξ5
- Page 145 and 146: Periodic variations Above results m
- Page 147 and 148: Periodic variations ˜ l(l; ¯ca) =
- Page 149 and 150: ¯n/ni and ñ/n versus l/(2π) n /
- Page 151 and 152: h+(t) and h×(t) Scaled h + (t) Sca
- Page 153 and 154: ¯n/ni and ñ/n ēt and ˜et versus
- Page 155 and 156: ¯cl and ˜cl ¯cλ and ˜cλ versu
- Page 157 and 158: Validity of Results Circular orbits
- Page 159: References 1. P. C. Peters, Phys. R
3PN accurate conservative dynamics<br />
Radial motion, def<strong>in</strong>ed by r(l, n, et) and ˙r(l, n, et), reads (both <strong>in</strong> the<br />
compact and <strong>in</strong> the 3PN expanded form) 5<br />
r = S(l, n, et) = ar(n, et)[1 − er(n, et) cos u] = rN + r1PN + r2PN + r3PN ,<br />
rN =<br />
GM<br />
n 2<br />
r1PN = rN ×<br />
r2PN = rN ×<br />
r3PN = rN ×<br />
1/3<br />
(1 − et cos u) ,<br />
ξ 2/3<br />
6(1 − et cos u) [−18 + 2η − (6 − 7η)et cos u] ,<br />
ξ 4/3<br />
<br />
−72(4 − 7η) + 72 + 30η + 8η 2 − i<br />
72(1 − e2 t )(1 − et cos u)<br />
(72 − 231η + 35η 2 )et cos u (1 − e 2 <br />
t ) − 36(5 − 2η)(2 + et cos u) 1 − e2 t<br />
<br />
− 2<br />
3<br />
ξ 2<br />
(1 − e 2 t )2 (1 − et cos u)<br />
<br />
87 437<br />
+ η −<br />
16 144 η2 + 49<br />
1296 η3<br />
· · · · · · · · · · ··<br />
<br />
− 70<br />
3<br />
<br />
+ 56221<br />
840<br />
× et cos u<br />
<br />
η − 123<br />
64 π2 η − 151<br />
36 η2 + 2<br />
81 η3 +<br />
BRI-IHP06-I – p.120/??