- Page 1 and 2: Filippo Gazzola Hans-Christoph Grun
- Page 3 and 4: Preface Linear elliptic equations a
- Page 5 and 6: Preface vii even for polygonal boun
- Page 7 and 8: Preface ix (−∆) m u = f (u) (
- Page 9: Acknowledgements The authors are gr
- Page 13 and 14: Contents xv 5.4 Steklov boundary co
- Page 15 and 16: Chapter 1 Models of higher order Th
- Page 17 and 18: 1.1 Classical problems from elastic
- Page 19 and 20: 1.1 Classical problems from elastic
- Page 21 and 22: 1.1 Classical problems from elastic
- Page 23 and 24: 1.2 The Boggio-Hadamard conjecture
- Page 25 and 26: 1.2 The Boggio-Hadamard conjecture
- Page 27 and 28: 1.3 The first eigenvalue 13 1.3.1 T
- Page 29 and 30: 1.3 The first eigenvalue 15 also [2
- Page 31 and 32: 1.4 Paradoxes for the hinged plate
- Page 33 and 34: 1.5 Paneitz-Branson type equations
- Page 35 and 36: 1.6 Critical growth polyharmonic mo
- Page 37 and 38: 1.8 Willmore surfaces 23 1.8 Willmo
- Page 39 and 40: Chapter 2 Linear problems Linear po
- Page 41 and 42: 2.2 Higher order Sobolev spaces 27
- Page 43 and 44: 2.2 Higher order Sobolev spaces 29
- Page 45 and 46: 2.3 Boundary conditions 31 ∂Ω i
- Page 47 and 48: 2.3 Boundary conditions 33 Assumpti
- Page 49 and 50: 2.4 Hilbert space theory 35 To the
- Page 51 and 52: 2.4 Hilbert space theory 37 Introdu
- Page 53 and 54: 2.4 Hilbert space theory 39 Thanks
- Page 55 and 56: 2.4 Hilbert space theory 41 g : ϕ
- Page 57 and 58: 2.5 Regularity results and a priori
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2.6 Green’s function and Boggio
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2.7 The space H2 ∩ H1 0 and the S
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2.7 The space H2 ∩ H1 0 and the S
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2.7 The space H2 ∩ H1 0 and the S
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2.7 The space H2 ∩ H1 0 and the S
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2.8 Bibliographical notes 57 2.8 Bi
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Chapter 3 Eigenvalue problems For q
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3.1 Dirichlet eigenvalues 61 Let us
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3.1 Dirichlet eigenvalues 63 u −
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3.1 Dirichlet eigenvalues 65 Proof.
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3.1 Dirichlet eigenvalues 67 of (3.
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3.1 Dirichlet eigenvalues 69 3. If
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3.1 Dirichlet eigenvalues 71 H m
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3.1 Dirichlet eigenvalues 73 The fu
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3.2 Buckling load of a clamped plat
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3.2 Buckling load of a clamped plat
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3.2 Buckling load of a clamped plat
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3.3 Steklov eigenvalues 81 3.3.1 Th
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3.3 Steklov eigenvalues 83 Proof. L
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3.3 Steklov eigenvalues 85 Also, le
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3.3 Steklov eigenvalues 87 ∞ µ
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3.3 Steklov eigenvalues 89 and henc
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3.3 Steklov eigenvalues 91 ∂Ω
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3.4 Bibliographical notes 93 Moreov
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3.4 Bibliographical notes 95 a talk
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98 4 Kernel estimates [XY ] 2 − |
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100 4 Kernel estimates If |x − y|
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102 4 Kernel estimates For (4.19) o
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104 4 Kernel estimates ⎧ ⎪⎨ |
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106 4 Kernel estimates |D α ⎧ |x
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108 4 Kernel estimates 4.2.2 A 3-G-
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110 4 Kernel estimates log 2 + S(x
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112 4 Kernel estimates |y − z|
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114 4 Kernel estimates max{m−|
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116 4 Kernel estimates In order to
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118 4 Kernel estimates Let rΩ be
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120 4 Kernel estimates 4.4.1 Regula
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122 4 Kernel estimates h(x,.) C 1,
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124 4 Kernel estimates This kind of
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126 4 Kernel estimates |Gk(xk,yk)|
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128 4 Kernel estimates So, we achie
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130 4 Kernel estimates ϕ(x) = Gk(
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132 4 Kernel estimates |∇x∇ 2
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134 4 Kernel estimates 2 3 s ≤ |
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136 4 Kernel estimates |H (x,y)|
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138 4 Kernel estimates |G(x,y)|
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140 4 Kernel estimates Here we will
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142 4 Kernel estimates and a straig
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Chapter 5 Positivity and lower orde
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5.1 A positivity result for Dirichl
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5.1 A positivity result for Dirichl
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5.2 The role of positive boundary d
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5.2 The role of positive boundary d
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5.2 The role of positive boundary d
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5.2 The role of positive boundary d
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5.2 The role of positive boundary d
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5.2 The role of positive boundary d
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5.3 Local maximum principles for hi
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5.4 Steklov boundary conditions 165
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5.4 Steklov boundary conditions 167
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5.4 Steklov boundary conditions 169
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5.4 Steklov boundary conditions 171
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5.4 Steklov boundary conditions 173
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5.4 Steklov boundary conditions 175
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5.4 Steklov boundary conditions 177
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5.4 Steklov boundary conditions 179
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5.4 Steklov boundary conditions 181
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Chapter 6 Dominance of positivity i
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6.1 Highest order perturbations in
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6.1 Highest order perturbations in
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6.1 Highest order perturbations in
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6.1 Highest order perturbations in
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6.2 Small negative part of biharmon
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6.2 Small negative part of biharmon
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6.2 Small negative part of biharmon
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6.2 Small negative part of biharmon
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6.2 Small negative part of biharmon
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6.2 Small negative part of biharmon
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6.3 Regions of positivity in arbitr
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6.3 Regions of positivity in arbitr
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6.3 Regions of positivity in arbitr
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6.3 Regions of positivity in arbitr
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6.4 Small negative part of biharmon
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6.4 Small negative part of biharmon
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6.4 Small negative part of biharmon
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6.5 Domain perturbations in higher
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6.6 Bibliographical notes 221 G ∆
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224 7 Semilinear problems ness assu
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226 7 Semilinear problems non-decre
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228 7 Semilinear problems Here km,n
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230 7 Semilinear problems and may c
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232 7 Semilinear problems In view o
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234 7 Semilinear problems 7.2 A bri
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236 7 Semilinear problems with g
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238 7 Semilinear problems Since λ
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240 7 Semilinear problems 7.3 The H
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242 7 Semilinear problems which imp
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244 7 Semilinear problems ≤ Cε n
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246 7 Semilinear problems where the
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248 7 Semilinear problems ∞ z(r)
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250 7 Semilinear problems low. On t
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252 7 Semilinear problems n − 2m
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254 7 Semilinear problems = (n −
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256 7 Semilinear problems 2 (n+4)/
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258 7 Semilinear problems β(vk+1)
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260 7 Semilinear problems 3. If λ
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262 7 Semilinear problems Sλ = Fλ
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264 7 Semilinear problems ⎧ (−
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266 7 Semilinear problems 7.5.3 Non
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268 7 Semilinear problems the Diric
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270 7 Semilinear problems pairs of
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272 7 Semilinear problems Let u ∈
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274 7 Semilinear problems so that L
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276 7 Semilinear problems (−∆)
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278 7 Semilinear problems In view o
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280 7 Semilinear problems solution.
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282 7 Semilinear problems We consid
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284 7 Semilinear problems where g
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286 7 Semilinear problems The Euler
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288 7 Semilinear problems Lemma 7.5
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290 7 Semilinear problems 7.8 Optim
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292 7 Semilinear problems By arbitr
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294 7 Semilinear problems n n −
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296 7 Semilinear problems 7.9.2 Exi
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298 7 Semilinear problems then by e
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300 7 Semilinear problems lim ℓ
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302 7 Semilinear problems S + ε
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304 7 Semilinear problems Otherwise
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306 7 Semilinear problems As in (7.
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308 7 Semilinear problems Therefore
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310 7 Semilinear problems y j ∈ (
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312 7 Semilinear problems EΩ (w
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314 7 Semilinear problems with a su
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316 7 Semilinear problems order to
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318 7 Semilinear problems This give
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320 7 Semilinear problems Proof. To
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322 7 Semilinear problems ∆u(r) =
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324 7 Semilinear problems The resul
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326 7 Semilinear problems i.e. cond
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328 7 Semilinear problems Since phe
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330 7 Semilinear problems u(r) = K
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332 7 Semilinear problems ∆ 2 U(x
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334 7 Semilinear problems where for
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336 7 Semilinear problems N3 − (N
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338 7 Semilinear problems Then L
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340 7 Semilinear problems 7.11.2 Re
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342 7 Semilinear problems lim W(t)
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344 7 Semilinear problems for suita
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346 7 Semilinear problems t iv z
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348 7 Semilinear problems By the me
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350 7 Semilinear problems be the co
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352 7 Semilinear problems so that w
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354 7 Semilinear problems u(r/R) as
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356 7 Semilinear problems Since p >
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358 7 Semilinear problems 7.12 Bibl
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360 7 Semilinear problems taken fro
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Chapter 8 Willmore surfaces of revo
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8.2 Geometric background 365 8.2 Ge
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8.2 Geometric background 367 1 =
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8.2 Geometric background 369 In ord
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8.2 Geometric background 371 In pro
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8.3 Minimisation of the Willmore fu
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1.5 8.3 Minimisation of the Willmor
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8.3 Minimisation of the Willmore fu
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8.3 Minimisation of the Willmore fu
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8.3 Minimisation of the Willmore fu
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8.4 Bibliographical notes 383 we ca
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Notations, citations, and indexes N
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Notations 387 H −m (Ω) dual spa
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Notations 389 Wi jkℓ = Ri jkℓ
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Bibliography 391 25. F.V. Atkinson,
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Bibliography 393 73. H. Brezis and
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Bibliography 395 121. R. Dalmasso.
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Bibliography 397 172. L. Friedlande
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Bibliography 399 222. J. Hadamard.
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Bibliography 401 272. M. Lazzo and
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Bibliography 403 317. M. Nakai and
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Bibliography 405 371. L. Simon. Exi
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AUTHOR-INDEX 407 Author-Index Adams
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AUTHOR-INDEX 409 Passaseo, D., 296
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SUBJECT-INDEX 411 conformal map, 10
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SUBJECT-INDEX 413 local positivity
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SUBJECT-INDEX 415 strong solution,