Muutke küpsiste eelistusi

Elliptic And Parabolic Equations [Kõva köide]

(Jilin Univ, China), (Jilin Univ, China), (Jilin Univ, China)
  • Formaat: Hardback, 424 pages
  • Ilmumisaeg: 18-Oct-2006
  • Kirjastus: World Scientific Publishing Co Pte Ltd
  • ISBN-10: 9812700250
  • ISBN-13: 9789812700254
Teised raamatud teemal:
  • Formaat: Hardback, 424 pages
  • Ilmumisaeg: 18-Oct-2006
  • Kirjastus: World Scientific Publishing Co Pte Ltd
  • ISBN-10: 9812700250
  • ISBN-13: 9789812700254
Teised raamatud teemal:
This book provides an introduction to elliptic and parabolic equations. While there are numerous monographs focusing separately on each kind of equations, there are very few books treating these two kinds of equations in combination. This book presents the related basic theories and methods to enable readers to appreciate the commonalities between these two kinds of equations as well as contrast the similarities and differences between them.

Arvustused

"This book is useful for graduate students studying partial differential equations ... the authors managed to present a fairly large amount of material."Zentralblatt MATH

Preface v
Preliminary Knowledge
1(38)
Some Frequently Applied Inequalities and Basic Techniques
1(6)
Some frequently applied inequalities
1(1)
Spaces Ck (Ω) and Ck0 (Ω)
2(1)
Smoothing operators
3(2)
Cut-off functions
5(1)
Partition of unity
6(1)
Local flatting of the boundary
6(1)
Holder Spaces
7(7)
Spaces Ck, α (Ω) and Ck, α (Ω)
7(1)
Interpolation inequalities
8(5)
Spaces C2k+α, k+α/2 (QT)
13(1)
Isotropic Sobolev Spaces
14(10)
Weak derivatives
14(1)
Sobolev spaces Wk, p (Ω) and Wk, p0 (Ω)
15(2)
Operation rules of weak derivatives
17(1)
Interpolation inequality
17(2)
Embedding theorem
19(2)
Poincare's inequality
21(3)
t-Anisotropic Sobolev Spaces
24(5)
Spaces W2k,k (QT), W2k,k p (QT), W2k,k p (QT), V2 (QT) and V (QT)
24(2)
Embedding theorem
26(2)
Poincare's inequality
28(1)
Trace of Functions in H1 (Ω)
29(10)
Some propositions on functions in H1 (Q+)
29(4)
Trace of functions in H1 (Ω)
33(2)
Trace of functions in H1 (QT) = W1,1 2 (QT)
35(4)
L2 Theory of Linear Elliptic Equations
39(32)
Weak Solutions of Poisson's Equation
39(8)
Definition of weak solutions
40(1)
Riesz's representation theorem and its application
41(2)
Transformation of the problem
43(1)
Existence of minimizers of the corresponding functional
44(3)
Regularity of Weak Solutions of Poisson's Equation
47(13)
Difference operators
47(3)
Interior regularity
50(3)
Regularity near the boundary
53(3)
Global regularity
56(2)
Study of regularity by means of smoothing operators
58(2)
L2 Theory of General Elliptic Equations
60(11)
Weak solutions
60(1)
Riesz's representation theorem and its application
61(1)
Variational method
62(2)
Lax-Milgram's theorem and its application
64(3)
Fredholm's alternative theorem and its application
67(4)
L2 Theory of Linear Parabolic Equations
71(34)
Energy Method
71(8)
Definition of weak solutions
72(1)
A modified Lax-Milgram's theorem
73(2)
Existence and uniqueness of the weak solution
75(4)
Rothe's Method
79(6)
Galerkin's Method
85(4)
Regularity of Weak Solutions
89(5)
L2 Theory of General Parabolic Equations
94(11)
Energy method
94(2)
Rothe's method
96(1)
Galerkin's method
97(8)
De Giorgi Iteration and Moser Iteration
105(26)
Global Boundedness Estimates of Weak Solutions of Poisson's Equation
105(6)
Weak maximum principle for solutions of Laplace's equation
105(2)
Weak maximum principle for solutions of Poisson's equation
107(4)
Global Boundedness Estimates for Weak Solutions of the Heat Equation
111(5)
Weak maximum principle for solutions of the homogeneous heat equation
111(1)
Weak maximum principle for solutions of the nonhomogeneous heat equation
112(4)
Local Boundedness Estimates for Weak Solutions of Poisson's Equation
116(7)
Weak subsolutions (supersolutions)
116(2)
Local boundedness estimate for weak solutions of Laplace's equation
118(2)
Local boundedness estimate for solutions of Poisson's equation
120(2)
Estimate near the boundary for weak solutions of Poisson's equation
122(1)
Local Boundedness Estimates for Weak Solutions of the Heat Equation
123(8)
Weak subsolutions (supersolutions)
123(1)
Local boundedness estimate for weak solutions of the homogeneous heat equation
123(3)
Local boundedness estimate for weak solutions of the nonhomogeneous heat equation
126(5)
Harnack's Inequalities
131(28)
Harnack's Inequalities for Solutions of Laplace's Equation
131(14)
Mean value formula
131(2)
Classical Harnack's inequality
133(1)
Estimate of sup u
133(2)
Estimate of inf BθR BθR u
135(6)
Harnack's inequality
141(2)
Holder's estimate
143(2)
Harnack's Inequalities for Solutions of the Homogeneous Heat Equation
145(14)
Weak Harnack's inequality
146(9)
Holder's estimate
155(1)
Harnack's inequality
156(3)
Schauder's Estimates for Linear Elliptic Equations
159(38)
Campanato Spaces
159(6)
Schauder's Estimates for Poisson's Equation
165(22)
Estimates to be established
165(3)
Caccioppoli's inequalities
168(5)
Interior estimate for Laplace's equation
173(2)
Near boundary estimate for Laplace's equation
175(2)
Iteration lemma
177(1)
Interior estimate for Poisson's equation
178(3)
Near boundary estimate for Poisson's equation
181(6)
Schauder's Estimates for General Linear Elliptic Equations
187(10)
Simplification of the problem
188(1)
Interior estimate
188(3)
Near boundary estimate
191(2)
Global estimate
193(4)
Schauder's Estimates for Linear Parabolic Equations
197(36)
t-Anisotropic Campanato Spaces
197(2)
Schauder's Estimates for the Heat Equation
199(34)
Estimates to be established
199(1)
Interior estimate
200(8)
Near bottom estimate
208(6)
Near lateral estimate
214(13)
Near lateral-bottom estimate
227(4)
Schauder's estimates for general linear parabolic equations
231(2)
Existence of Classical Solutions for Linear Equations
233(22)
Maximum Principle and Comparison Principle
233(7)
The case of elliptic equations
233(3)
The case of parabolic equations
236(4)
Existence and Uniqueness of Classical Solutions for Linear Elliptic Equations
240(9)
Existence and uniqueness of the classical solution for Poisson's equation
240(6)
The method of continuity
246(2)
Existence and uniqueness of classical solutions for general linear elliptic equations
248(1)
Existence and Uniqueness of Classical Solutions for Linear Parabolic Equations
249(6)
Existence and uniqueness of the classical solution for the heat equation
250(1)
Existence and uniqueness of classical solutions for general linear parabolic equations
251(4)
Lp Estimates for Linear Equations and Existence of Strong Solutions
255(22)
Lp Estimates for Linear Elliptic Equations and Existence and Uniqueness of Strong Solutions
255(11)
Lp estimates for Poisson's equation in cubes
255(5)
Lp estimates for general linear elliptic equations
260(4)
Existence and uniqueness of strong solutions for linear elliptic equations
264(2)
Lp Estimates for Linear Parabolic Equations and Existence and Uniqueness of Strong Solutions
266(11)
Lp estimates for the heat equation in cubes
266(5)
Lp estimates for general linear parabolic equations
271(1)
Existence and uniqueness of strong solutions for linear parabolic equations
272(5)
Fixed Point Method
277(36)
Framework of Solving Quasilinear Equations via Fixed Point Method
277(5)
Leray-Schauder's fixed point theorem
277(1)
Solvability of quasilinear elliptic equations
277(3)
Solvability of quasilinear parabolic equations
280(2)
The procedures of the a priori estimates
282(1)
Maximum Estimate
282(2)
Interior Holder's Estimate
284(3)
Boundary Holder's Estimate and Boundary Gradient Estimate for Solutions of Poisson's Equation
287(2)
Boundary Holder's Estimate and Boundary Gradient Estimate
289(7)
Global Gradient Estimate
296(5)
Holder's Estimate for a Linear Equation
301(6)
An iteration lemma
301(1)
Morrey's theorem
302(1)
Holder's estimate
303(4)
Holder's Estimate for Gradients
307(3)
Interior Holder's estimate for gradients of solutions
307(1)
Boundary Holder's estimate for gradients of solutions
308(2)
Global Holder's estimate for gradients of solutions
310(1)
Solvability of More General Quasilinear Equations
310(3)
Solvability of more general quasilinear elliptic equations
310(1)
Solvability of more general quasilinear parabolic equations
311(2)
Topological Degree Method
313(10)
Topological Degree
313(4)
Brouwer degree
313(2)
Leray-Schauder degree
315(2)
Existence of a Heat Equation with Strong Nonlinear Source
317(6)
Monotone Method
323(32)
Monotone Method for Parabolic Problems
323(13)
Definition of supersolutions and subsolutions
324(1)
Iteration and monotone property
324(3)
Existence results
327(3)
Application to more general parabolic equations
330(2)
Nonuniqueness of solutions
332(4)
Monotone Method for Coupled Parabolic Systems
336(19)
Quasimonotone reaction functions
337(1)
Definition of supersolutions and subsolutions
337(2)
Monotone sequences
339(11)
Existence results
350(3)
Extension
353(2)
Degenerate Equations
355(48)
Lanear Equations
355(13)
Formulation of the first boundary value problem
356(5)
Solvability of the problem in a space similar to H1
361(1)
Solvability of the problem in Lp(Ω)
362(3)
Method of elliptic regularization
365(1)
Uniqueness of weak solutions in Lp (Ω) and regularity
366(2)
A Class of Special Quasilinear Degenerate Parabolic Equations -- Filtration Equations
368(16)
Definition of weak solutions
369(2)
Uniqueness of weak solutions for one dimensional equations
371(2)
Existence of weak solutions for one dimensional equations
373(5)
Uniqueness of weak solutions for higher dimensional equations
378(3)
Existence of weak solutions for higher dimensional equations
381(3)
General Quasilinear Degenerate Parabolic Equations
384(19)
Uniqueness of weak solutions for weakly degenerate equations
385(8)
Existence of weak solutions for weakly degenerate equations
393(6)
A remark on quasilinear parabolic equations with strong degeneracy
399(4)
Bibliography 403(2)
Index 405