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21 356: Principles of Real Analysis II
9.00 Credits
Carnegie Mellon University
Topology in metric spaces, specialization to finite dimensional normed linear spaces. Vector differential calculus: continuity and the total derivative, partial derivatives, directional derivatives, gradients, Jacobians, the chain rule, implicit function theorem. Vector integral calculus: double and triple integrals, arclength and surface area, line integrals, Green's Theorem, surface integrals, Divergence and Stokes Theorems. If time permits: trigonometric series, Fourier series for orthonormal bases, minimization of square error. 3 hours lecture.
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21 356 - Principles of Real Analysis II
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21 365: Projects in Applied Mathematics
9.00 Credits
Carnegie Mellon University
This course provides students with an opportunity to solve problems posed by area companies. It is also designed to provide experience working as part of a team to solve problems for a client. The background needed might include linear programming, simulation, data analysis, scheduling, numerical techniques, etc.
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21 365 - Projects in Applied Mathematics
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21 366: Topics in Applied Mathematics
9.00 Credits
Carnegie Mellon University
Typical of courses that might be offered from time to time are game theory, non-linear optimization, and dynamic programming. Prerequisites will vary with topic. 3 hrs. lec.
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21 366 - Topics in Applied Mathematics
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21 369: Numerical Methods
9.00 Credits
Carnegie Mellon University
This course provides an introduction to the use of computers to solve scientific problems. Methods for the computational solution of linear algebra systems, nonlinear equations, the interpolation and approximation of functions, differentiation and integration, and ordinary differential equations. Analysis of roundoff and discretization errors and programming techniques. 3 hrs. lec.
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21 369 - Numerical Methods
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21 370: Discrete Time Finance
9.00 Credits
Carnegie Mellon University
This course introduces the Black-Scholes option pricing formula, shows how the binomial model provides a discretization of this formula, and uses this connection to fit the binomial model to data. It then sets the stage for Continuous-Time Finance by discussing in the binomial model the mathematical technology of filtrations, martingales, Markov processes and risk-neutral measures. Additional topics are American options, expected utility maximization, the Fundamental Theorems of Asset Pricing in a multi-period setting, and term structure modeling, including the Heath-Jarrow-Morton model. Students in 21-370 are expected to read and write proofs. 3 hours lecture.
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21 370 - Discrete Time Finance
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21 371: Functions of a Complex Variable
9.00 Credits
Carnegie Mellon University
This course provides an introduction to one of the basic topics of both pure and applied mathematics and is suitable for those with both practical and theoretical interests. Algebra and geometry of complex numbers; complex differentiation and integration. Cauchy's theorem and applications; conformal mapping; applications. 3 hrs. lec.
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21 371 - Functions of a Complex Variable
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21 372: Partial Differential Equations
9.00 Credits
Carnegie Mellon University
This course provides an introduction to partial differential equations and is recommended for majors in mathematics, physical science, or engineering. Boundary value problems on an interval, Fourier series, uniform convergence, the heat, wave, and potential equations on bounded domains, general theory of eigenfunction expansion, the Fourier integral applied to problems on unbounded domains, introduction to numerical methods. 3 hrs. lec.
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21 372 - Partial Differential Equations
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21 373: Algebraic Structures
9.00 Credits
Carnegie Mellon University
Groups: Homomorphisms. Subgroups, cosets, Lagrange's theorem. Conjugation. Normal subgroups, quotient groups, first isomorphism theorem. Group actions, Cauchy's Theorem. Dihedral and alternating groups. The second and third isomorphism theorems. Rings: Subrings, ideals, quotient rings, first isomorphism theorem. Polynomial rings. Prime and maximal ideals, prime and irreducible elements. PIDs and UFDs. Noetherian domains. Gauss' lemma. Eisenstein criterion. Fields: Field of fractions of an integral domain. Finite fields. Applications to coding theory, cryptography, number theory. 3 hours lecture.
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21 373 - Algebraic Structures
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21 393: Operations Research II
9.00 Credits
Carnegie Mellon University
Building on an understanding of Linear Programming developed in 21-292 Operations Research I, this course introduces more advanced topics. Integer programming, including cutting planes and branch and bound. Dynamic programming. An introduction to Combinatorial Optimization including optimal spanning trees, shortest paths, the assignment problem and max-flow/min-cut. The traveling salesman problem and NP-completeness. An important goal of this course is for the student to gain experience with the process of working in a group to apply operations research methods to solve a problem. A portion of the course is devoted to a group project based upon case studies and the methods presented. Prerequisites: 21-292 and (21-228 or 15-251) required. 36-410 recommended. 3 hrs. lec.
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21 393 - Operations Research II
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21 420: Continuous-Time Finance
9.00 Credits
Carnegie Mellon University
This course begins with Brownian motion, stochastic integration,and Ito's formula from stochastic calculus. This theory is used to develop the Black-Scholes option pricing formula and the Black-Scholes partial differential equation. Additional topics may include models of credit risk, simulation, and expected utility maximization. 3 hours lecture.
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21 420 - Continuous-Time Finance
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