Concentration areas
Course offerings are categorized according to the three
concentration areas below. The first two concentration
areas comprise courses joint listed with supporting
graduate programs from the Colleges of Engineering and of
Natural Sciences.
Area A: Applicable Mathematics
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CAM 381D, Complex Analysis
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CAM 681E, Real and Abstract Analysis
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CAM 381M, Methods of Mathematical Physics
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CAM 381N, Methods of Mathematical Physics
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CAM 684C, Theory of Probability
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CAM 684D, Mathematical Statistics
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CAM 386M,Functional Analysis in Theoretical Mechanics
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CAM 386N, Qualitative Methods in Nonlinear Mechanics
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CAM 391, Introductory Dynamical Systems
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CAM 391C, Topics in Analysis
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Fourier Analysis
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Wavelets
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Advanced Dynamical Systems
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CAM 393C, Topics in Applied Mathematics
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Methods of Applied Mathematics
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Approximation Theory
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Introduction to Partial Differential Equations
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Abstract Cauchy Problems and Nonlinear Partial
Differential Equations
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Nonlinear Wave Equations
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Euler and Navier-Stokes Equations
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Pseudodifferential and Fourier Integral Operators
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Statistical Mechanics
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Ergodic Theory
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Quantum Mechanics
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Bifurcation Theory
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CAM 394C, Topics in Probability and Statistics
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Nonparametric Statistics
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Advanced Probability
Area B: Numerical Analysis and
Scientific Computation
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CAM 380N, AlgorithmsforParallel and Distributed
Computation
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CAM 381C, Computational Physics
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CAM 382L, Numerical Methods in Petroleum
Engineering
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CAM 383, Special Topics in Petroleum Engineering
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Numerical Solution of Time-Dependent Problems
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Topics in Computational Methods
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CAM383C, NumericalAnalysis. LinearAlgebra
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CAM383D, NumericalAnalysis:
Interpolation,Approximation,
Quadrature, and Differential Equations
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CAM 384G, Computer Graphics
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CAM 386K, Numerical Treatment of Differential
Equations
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CAM 393D, Topics in Numerical Analysis
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CAM 393M, Numerical Solution of Elliptic Partial
Differential
Equations
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CAM 393N, Numerical Methods forFlow and Transport
Problems
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CAM 394F, Finite Element Methods
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CAM 394G, Computational Techniques in Finite
Elements
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CAM 394H, Advanced Theory of Finite Element Methods
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CAM 195T, 295T, 395T, Topics in ComputerSciences:
Parallel Cornputations
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Parallel MethodsforNumerical Algorithms
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Parallel Algorithms and Architecture Parallel
Programming
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CAM 397, Topics in Computational and Applied
Mathematics
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Supercomputing in Computational Mechanics
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Grid Generation, Adaptive Grids, and Multigrids
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Advanced Computational Fluid Mechanics
Area C: Mathematical Modeling and Applications
Courses in mathematical modeling and applications are offered in several
areas of science and engineering Four groups of courses from which this
concentration area might be developed are given as examples below
Other examples are fluid dynamics, control theory, semiconductors,
celestial mechanics, chemistry, and the theory of relativity
Concentrations in mathematical modeling and applications are also
available in various departments; these may be included in computational
and applied mathematics degree programs with the approval of the
Graduate Studies Committee.
Solid and Continuum Mechanics
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Engineering Mechanics 380, Theory of Plasticity
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Engineering Mechanics 388, Solid Mechanics I
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Engineering Mechanics 388F, Fracture Mechanics
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Engineering Mechanics 388L, Solid Mechanics II
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Engineering Mechanics 394V, Wave Propagation I
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Engineering Mechanics 394W, Wave Propagation II
Fluid Mechanics
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Aerospace Engineering 382Q, Fluid Mechanics
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Turbulent Fluid Mechanics
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Finite Difference Methods in Computational Fluid
Dynamics
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Advanced Problems in Compressible Flow
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Aerospace Engineering 382R, Aerodynamics
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Low-Speed Aerodynamics
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High-Speed Aerodynamics
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Hypersonic Aerodynamics
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Theoretical Gas Dynamics
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Advanced ComputationalAerodynamics
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Chemical Engineering 381N, Fluid Flow and Heat Transfer
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Engineering Mechanics 387, Foundations of Fluid Mechanics
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Engineering Mechanics 393K, Advanced Fluid Mechanics I: Inviscid Flow
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Mechanical Engineering 380Q, Mathematical Methods in Engineering
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Perturbation Methods
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Spectral Methods in Fl~id Dynamics
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Mechanical Engineering 381P, Dynamics of Fluids
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Incompressible Flow I: Theory
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Dynamics of Turbulent Flow
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Incompressible Flow II. Applications
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Modeling of Turbulent Flows
Nonlinear Dynamics
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Aerospace Engineering 388P, Celestial Mechanics
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Hamiltonian Mechanics
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Celestial Mechanics I
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Celestial Mechanics II
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Satellite Theory
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Theory of Orbits I
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Theory of Orbits II
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Regularization
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Engineering Mechanics 381,Advanced Dynamics
System and Control Theory
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Aerospace Engineering 381P, System Theory
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Linear Systems Analysis
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Multivariable Control Systems
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Optimal Control Theory I
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Optimal Control Theory II
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Statistical Estimation Theory
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Advanced Topics in Estimation Theory
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Stochastic Estimation and Control
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Electrical Engineering 380K, Introduction to System Theory
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Electrical Engineering 380N, Topics in System Theory
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Nonlinear Systems. Input-Output Properties
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Nonlinear Systems: Geometric Theory
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Stochastic Control Theory
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Stochastic Dynamical Systems
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Mechanical Engineering 390R, Engineering Statistics and Probability
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Time-Series Analysis
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Applied Stochastic Processes
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Regression and Analysis of Variance
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Mechanical Engineering 391Q, OperationsResearch
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Nonlinear Programming
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Dynamic Programming