Ivan V. Sergienko & Vasyl S. Deineka 
Optimal Control of Distributed Systems with Conjugation Conditions 

At present, in order to resolve problems of ecology and to save mineral resources for future population generations, it is quite necessary to know how to maintain nature arrangement in an efficient way. It is possible to achieve a rational nature arrangement when analyzing solutions to problems concerned with optimal control of distributed systems and with optimization of modes in which main ground medium processes are functioning (motion of liquids, generation of temperature fields, mechanical deformation of multicomponent media). Such analysis becomes even more difficult because of heterogeneity of the region that is closest to the Earth surface, and thin inclusions/cracks in it exert their essential influence onto a state and development of the mentioned processes, especially in the cases of mining. Many researchers, for instance, A.N. Tikhonov – A.A. Samarsky [121], L. Luckner – W.M. Shestakow [65], Tien-Mo Shih, K.L. Johnson [47], E. Sanchez-Palencia [94] and others stress that it is necessary to consider how thin inclusions/cracks exert their influences onto development of these processes, while such inclusions differ in characteristics from main media to a considerable extent (moisture permeability, permeability to heat, bulk density or shear strength may be mentioned). Xll An influence exerted from thin interlayers onto examined processes is taken into account sufficiently adequately by means of various constraints, namely, by the conjugation conditions [4, 8, 10, 15, 17-20, 22-26, 38, 44, 47, 52, 53, 68, 76, 77, 81, 83, 84, 90, 95, 96-100, 112-114, 117, 123].

Tabela de Conteúdo

Control of Systems Described by Elliptic-Type Partial-Differential Equations under Conjugation Conditions.- Control of a Conditionally Correct System Described by the Neumann Problem for an Elliptic-Type Equation under Conjugation Conditions.- Control of a System Described by a One-Dimensional Quartic Equation under Conjugation Conditions.- Control of a System Described by a Two-Dimensional Quartic Equation under Conjugation Conditions.- Control of a System Described by a Parabolic Equation under Conjugation Conditions.- Control of a System Described by a Parabolic Equation in the Presence of Concentrated Heat Capacity.- Control of a System Described by a Pseudoparabolic Equation under Conjugation Conditions.- Control of a System Described by a Hyperbolic Equation under Conjugation Conditions.- Control of a System Described by a Pseudohyperbolic Equation under Conjugation Conditions.- Optimal Control of a Deformed Complicated Solid Body State.