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½Òµ{¥Ø¼ÐWe expect that students can manage the fundamental concepts of measure and integration. Also students can study the properties in those abstract spaces.
¤º®e²¤¶¥D­n¤º®eSet Theory¡BTheorey of Functions¡BLebesgue Measure¡BLebesgue Integral¡BDifferentiation & Integration¡BClassical Banach Spaces¡BMetric Spaces¡BTopological Spaces
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¹w³Æª¾ÃÑA course in undergraduate abstract algebra is recommended.
½Òµ{¥Ø¼ÐGive students a solid foundation on the main concepts of modern abstract algebra. Efforts will be made to enhance students¡¦ abstract reasoning ability and to elevate their mathematical maturity.
¤º®e²¤¶¥D­n¤º®eAlgebra I and II are a year long sequence that forms the foundation of modern abstract. The sequence covers the standard topics of groups, rings, modules over commutative rings and Galois theory.The main feature of Algebra I is group and the major topics are: the concept of groups, classification of finitely generated abelian groups, finite groups, Sylow¡¦s theorems and classification of small finite groups. The course also introduces the basic concept of ring theory and emphasis will be on commutative rings.
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½Òµ{¥Ø¼ÐThis course provides the rigorous mathematical foundations needed for understanding and working with the modern theories of probability.
¤º®e²¤¶¥D­n¤º®e1. Measure-theoretic preliminaries
2. Probabilistic foundations
3. Convergence concepts and weak convergence
4. Law of Large Numbers
5. Characteristic functions
6. Central Limit Theorem.
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¤º®e²¤¶¥D­n¤º®e1. Probability Theory
2. Transformations and Expectations
3. Common Families of Distributions
4. Multiple Random Variables
5. Properties of a Random Sample
6. Principles of Data Reduction
7. Point Estimation
8. Hypothesis Testing
9. Interval Estimation
10. Asymptotic Evaluations
11. Analysis of Variance and Regression
12. Regression Analysis
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¤º®e²¤¶¥D­n¤º®e(1) Examples and Fundamental Properties of Rings,
(2) Ideals and Homomorphisms,
(3) Subdlrect Sums of Rings,
(4) Prime Ideals and the Prime Radical,
(5) Endomorphlsms and Linear Transformations,
(6) The Jacobson Radical,
(7) Dense Rings and Other Radicals of A Ring
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¤º®e²¤¶¥D­n¤º®e1. Submanifolds, smooth manifolds.
2. Smooth maps between manifolds, immersions, embeddings.
3. Tangent and cotangent spaces, Lie group.
4. Tangent and cotangent bundles, vector bundles
4. Differential formes, exterior derivative.
5. Vector fields, flows on manifolds, Lie derivative.
6. Integration on manifolds, Stokes' theory.
7. Introduction of Poincare lemma, and De Rham cohomology.
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¹w³Æª¾ÃÑBasic knowledge of analysis and general topology
½Òµ{¥Ø¼ÐWe hope the course will provide a solid basis for a closer acquaintance with more advanced topics of differential topology.
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