- Page 2 and 3: Lecture Notes in PhysicsFounding Ed
- Page 4 and 5: Bernhelm Booß-BavnbekGiampiero Esp
- Page 8 and 9: ForewordThis volume contains the ex
- Page 10 and 11: PrefaceIn this volume we have colle
- Page 12 and 13: PrefacexiGracia-Bondía devotes som
- Page 14 and 15: PrefacexiiiContrary to the Ambjørn
- Page 16 and 17: ContentsPart IThree Physics Visions
- Page 18 and 19: Contentsxvii3.6 Finite-Dimensional
- Page 20 and 21: Contentsxix6.3.2 Poisson-Delaunay S
- Page 22 and 23: 4 J.M. Gracia-BondíaMy account of
- Page 24 and 25: 6 J.M. Gracia-Bondíanow. The Milgr
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- Page 30 and 31: 12 J.M. Gracia-BondíaFig. 1.4 Depe
- Page 32 and 33: 14 J.M. Gracia-Bondíaa simple less
- Page 34 and 35: 16 J.M. Gracia-Bondía〈·, ·〉
- Page 36 and 37: 18 J.M. Gracia-Bondíaδϕ =−2λ(
- Page 38 and 39: 20 J.M. Gracia-BondíaƔβγ α = 1
- Page 40 and 41: 22 J.M. Gracia-BondíaIn particular
- Page 42 and 43: 24 J.M. Gracia-Bondías(R 2 (x, y)
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- Page 46 and 47: 28 J.M. Gracia-Bondíawith i = 1, 2
- Page 48 and 49: 30 J.M. Gracia-BondíaThe two ±2 h
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- Page 54 and 55: 36 J.M. Gracia-Bondía(1) Keep clos
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38 J.M. Gracia-BondíaIf we have re
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40 J.M. Gracia-Bondía1.5.4 On the
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42 J.M. Gracia-Bondía{T θ := a =
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44 J.M. Gracia-Bondíawhere now A i
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46 J.M. Gracia-Bondía1.5.8 Closing
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48 J.M. Gracia-Bondía1.5.8.2 What
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50 J.M. Gracia-Bondíaand dequantiz
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52 J.M. Gracia-BondíaThe first nam
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54 J.M. Gracia-Bondíabasic trouble
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56 J.M. Gracia-Bondía39. T. Kugo,
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58 J.M. Gracia-Bondía98. H. Steina
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60 J. Ambjørn et al.is now just an
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62 J. Ambjørn et al.Fig. 2.1 The f
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64 J. Ambjørn et al.such that the
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66 J. Ambjørn et al.regularization
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68 J. Ambjørn et al.the quantum me
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70 J. Ambjørn et al.ξ = N (3,2)4/
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72 J. Ambjørn et al.Fig. 2.5 The p
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74 J. Ambjørn et al.where strictly
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76 J. Ambjørn et al.spatial size o
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78 J. Ambjørn et al.In (23), √ g
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80 J. Ambjørn et al.Fig. 2.9 Analy
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82 J. Ambjørn et al.0.120 10 10 20
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84 J. Ambjørn et al.0.100.05_0.00a
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86 J. Ambjørn et al.0.060.050.04k
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88 J. Ambjørn et al.∞∑∫Z(Λ,
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90 J. Ambjørn et al.Analogously, w
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92 J. Ambjørn et al.Let w(g, z) de
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94 J. Ambjørn et al.Fig. 2.15 Root
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96 J. Ambjørn et al.= + +++. . .+F
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98 J. Ambjørn et al.( )1 2b−5w h
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100 J. Ambjørn et al.w(μ, λ 1 ,.
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102 J. Ambjørn et al.for the singu
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104 J. Ambjørn et al.In the analys
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106 J. Ambjørn et al.h 3 − h +2G
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108 J. Ambjørn et al.such a bound
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110 J. Ambjørn et al.αβ....γα
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112 J. Ambjørn et al.problem is gi
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114 J. Ambjørn et al.where the sec
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116 J. Ambjørn et al.tion as a cut
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118 J. Ambjørn et al.F ± (z) = π
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120 J. Ambjørn et al.The resulting
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122 J. Ambjørn et al.Zohren who ha
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124 J. Ambjørn et al.46. J. Ambjø
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126 N. Reshetikhinelements of the C
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128 N. Reshetikhin3.2.2 Local Lagra
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130 N. ReshetikhinThe Euler-Lagrang
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132 N. Reshetikhinwhere U is a G-in
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134 N. ReshetikhinThe Lagrangian su
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136 N. ReshetikhinSince C ∞ (N) i
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138 N. Reshetikhinσ(f ) : H(N 1 )
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140 N. Reshetikhin3.4.2.2 Statistic
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142 N. ReshetikhinAfter change of v
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144 N. Reshetikhinm......n 3 n 4Fig
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146 N. Reshetikhin.i 1i 2i n∂ n g
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148 N. Reshetikhinpermuted. But suc
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150 N. Reshetikhinthe algebra of se
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152 N. Reshetikhin3.5.4 Charged Fer
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154 N. ReshetikhinInstead of assumi
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156 N. ReshetikhinExpressing det(L(
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158 N. Reshetikhin3.6.3 Gauge Indep
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160 N. Reshetikhini j ( (a) − 1 )
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162 N. Reshetikhinwhere 〈[l], a]
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164 N. ReshetikhinLet U t (q 2 , q
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166 N. Reshetikhinexpansion asZ t (
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168 N. ReshetikhinZ M (b) =C ∑ (
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170 N. Reshetikhin∫Z M (b) =i ∗
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172 N. ReshetikhinMoreover, the ren
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174 N. ReshetikhinThe integrals (51
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176 N. ReshetikhinD 2 A = A = d
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a 1 x 1 a 2 x 2 a 3 x 3f a1 a 2 a 3
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180 N. ReshetikhinThe exponent iπ
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182 N. ReshetikhinFinally, all thes
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184 N. Reshetikhinedge is incoming,
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186 N. ReshetikhinHere the coeffici
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188 N. Reshetikhin(Z M RT ∼ 1|Z(G
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190 N. Reshetikhin34. C. Itsykson,
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194 I.G. AvramidiIn this situation
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196 I.G. AvramidiLet us consider a
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198 I.G. AvramidiδS = 〈J,ϕ〉.
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200 I.G. AvramidiFurthermore, the s
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202 I.G. AvramidiNow, by expanding
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204 I.G. Avramidisubspace M 0 , whi
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206 I.G. AvramidiThe parameters of
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208 I.G. AvramidiIn this gauge the
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210 I.G. Avramidithe generators of
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212 I.G. AvramidiThus, a Laplace-ty
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214 I.G. AvramidiU(t|x, x ′ ) =
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216 I.G. AvramidiNote that y a = 0a
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218 I.G. AvramidiMoreover, the valu
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220 I.G. Avramidi4.3.4.2 Asymptotic
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222 I.G. Avramidistructure of diago
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224 I.G. Avramidi[(n+1)/2]−2∑G
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226 I.G. Avramidicomputed from (122
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228 I.G. Avramidia k =(1 + 1 ) −1
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230 I.G. Avramidi4.5.3 Matrix Algor
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232 I.G. AvramidiFrom dimensional a
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234 I.G. Avramidia diag1= Q − 1 6
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236 I.G. Avramidi4.6 High-Energy Ap
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238 I.G. Avramidif (1) (ξ) = 1 , (
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240 I.G. Avramidiof covariant deriv
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242 I.G. AvramidiExpanding it in a
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244 I.G. Avramidi∮C(t) =∮K (t)
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246 I.G. Avramidipoint x ′ by mul
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248 I.G. AvramidiFor the lack of a
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250 I.G. AvramidiG YM realizing a r
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252 I.G. AvramidiThen one can show
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254 I.G. Avramidibelow are well def
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256 I.G. Avramidiwhere ζ ˆL (s) a
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258 I.G. Avramidi(V(1)) ab = 2R a b
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Chapter 5Lectures on Cohomology, T-
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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5 Lectures on Cohomology, T-Duality
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314 H. Zessin6.1 An Axiomatic Intro
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316 H. Zessinand ask for its asympt
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318 H. Zessin((x,η)∈ D, a ∈ R
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320 H. Zessin6.2.4 The Cluster Proc
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322 H. ZessinDenote this subset of
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324 H. Zessincircumball of x, i.e.
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326 H. ZessinNow (x,η) is an admis
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328 H. ZessinThus Q realizes config
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330 H. ZessinLemma 5 (ϕ ) ∈K is
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332 H. ZessinWithin this example co
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334 H. Zessin6.6 Comments and Final
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Chapter 7Steps Towards Quantum Grav
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7 Steps Towards Quantum Gravity and
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7 Steps Towards Quantum Gravity and
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7 Steps Towards Quantum Gravity and
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7 Steps Towards Quantum Gravity and
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7 Steps Towards Quantum Gravity and
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7 Steps Towards Quantum Gravity and
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7 Steps Towards Quantum Gravity and
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IndexAAbstract constructions, 346Ac
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Index 357HHabits, 352Hadamard - Min
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Index 359Theory, 339-342, 344, 346,