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"This self-contained text is an excellent introduction to Lie groups and their actions on manifolds. The authors start with an elementary discussion of matrix groups, followed by chapters devoted to the basic structure and representation theory of finite dimensinal Lie algebras. They then turn to global issues, demonstrating the key issue of the interplay between differential geometry and Lie theory. Special emphasis is placed on homogeneous spaces and invariant geometric structures. The last section of the book is dedicated to the structure theory of Lie groups. Particularly, they focus on maximal compact subgroups, dense subgroups, complex structures, and linearity."

"Introduces the concepts and methods of the Lie theory in a form accessible to the non-specialist by keeping mathematical prerequisites to a minimum. Although the authors have concentrated on presenting results while omitting most of the proofs, they have compensated for these omissions by including many references to the original literature. Their treatment is directed toward the reader seeking a broad view of the subject rather than elaborate information about technical details. Illustrations of various points of the Lie theory itself are found throughout the book in material on applications. In this reprint edition, the authors have resisted the temptation of including additional topics. Except for correcting a few minor misprints, the character of the book, especially its focus on classical representation theory and its computational aspects, has not been changed."

"The emphasis in both of these volumes is on the use of stochastic, geometric, and group-theoretic concepts in the modeling of physical phenomena. Volume 2 builds on the fundamentals presented in Volume 1, delving deeper into relationships among stochastic geometry, geometric aspects of the theory of communications and coding, multivariate statistical analysis, and error propagation on Lie groups. Extensive exercises, motivating examples, and real-world applications make the work suitable as a textbook for use in courses that emphasize applied stochastic processes or differential geometry."

"Groups are a means of classification, via the group action on a set, but also the object of a classification. How many groups of a given type are there, and how can they be described? Hölder’s program for attacking this problem in the case of finite groups is a sort of leitmotiv throughout the text. Infinite groups are also considered, with particular attention to logical and decision problems. Abelian, nilpotent and solvable groups are studied both in the finite and infinite case. Permutation groups and are treated in detail; their relationship with Galois theory is often taken into account. The last two chapters deal with the representation theory of finite group and the cohomology theory of groups, the latter with special emphasis on the extension problem. The sections are followed by exercises; hints to the solution are given, and for most of them a complete solution is provided."

"Starting with matrices over the integers, part 1 of this book provides a measured introduction to such groups, two finitely generated abelian groups are isomorphic if and only if their invariant factor sequences are identical. The analogous theory of matrix similarity over a field is then developed in part 2 starting with matrices having polynomial entries, two matrices over a field are similar if and only if their rational canonical forms are equal. Under certain conditions each matrix is similar to a diagonal or nearly diagonal matrix, namely its Jordan form."

"Aljabar Lie adalah ruang vektor atas suatu lapangan yang dilengkapi dengan bracket Lie yang bilinier, bersifat antisimetri dan memenuhi identitas Jacobi. Salah satu contoh dari aljabar Lie adalah himpunan pemetaan linier dari ruang vektor V ke V, yang dinotasikan dengan gl(V), dengan bracket Lie berupa komutator. Jika V adalah suatu aljabar, maka himpunan derivasi dari V (dinotasikan dengan Der(V)) membentuk suatu subaljabar Lie dari gl(V). Holomorph dari aljabar Lie L, yaitu hasil tambah langsung dari L dan Der(L), juga membentuk aljabar Lie. Aljabar Lie dikatakan lengkap jika pusatnya adalah himpunan nol dan semua derivasinya adalah derivasi dalam. Pada tesis ini, diulas syarat yang harus dipenuhi agar aljabar derivasi dan holomorph dari suatu aljabar Lie menjadi lengkap.

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Lie algebra is a vector space over a field together with a bilinear Lie bracket, that satisfy antisymmetry and Jacobi identity. One of the examples of Lie algebra is a set of linear transformation from a vector space V to V, that is denoted by gl(V), with a commutator as the Lie bracket. If V is an algebra then the set of derivation of V (denoted by Der(V)) forms a Lie subalgebra of gl(V). The holomorph of a Lie algebra, that is direct sum of vector spaces L and Der(L), also forms a Lie algebra. A Lie algebra is called complete if its center is zero and all its derivations are inner. In this thesis, it is discussed the properties that must be satisfied in order to the derivation and the holomorph of Lie algebra become complete."

"This book presents the solution of a long-standing problem concerning the stable module category (of not necessarily finite dimensional representations) of a finite group. The proof draws on commutative algebra, cohomology of groups and stable homotopy theory. The unifying theme is a notion of support which provides a geometric approach for studying various algebraic structures. "