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The USC Master of Science degree in Aerospace Engineering is designed to give students exposure to at least two different areas of Aerospace Engineering through concentration and breadth requirements, at the same time allowing students to pursue their interests through flexibility in the selection of technical electives. Six specialization tracks are available for the DEN student to choose from: aerodynamics/fluid dynamics, aerospace control, aerospace design, aerospace structures, computational fluid dynamics, and propulsion.
- A B.S. degree in engineering, math or hard science from a regionally-accredied university
- Cumulative undergraduate GPA of at least 3.0 on a 4.0 scale
- Satisfactory scores on the general portion of the Graduate Record Examinations (GRE) with a minimum score of 650 on the quantitative portion and 350 on the verbal portion
- Two Letters of Recommendation (optional)
- Statement of Purpose
- For international students whose first language is not English, in order to be excused from the mandatory International Standard English (ISE) placement exam, applicants must score at least:
- 250 or higher on the computer-based TOEFL
- 600 or higher on the paper-based TOEFL
- 100 or higher on the Internet-based TOEFL (iBT) with no less than 20 on each of the four individual sections
A minimum of 27 units is required for the general M.S. in Aerospace Engineering degree.
- Required Engineering Analyses Courses: 6 units
- Core Requirements from your Specialization Track: 3, 6, or 9 units
- Breadth Requirement - select one core course from a specialization track other than yours: 3 units
- Recommended technical elective from your selected program of study (at least one course): 3 units
- Remaining units can be courses from technical electives within your selected program of study. Please consult and receive approval from an MSAE graduate advisor before enrolling in these courses.
- A minimum cumulative GPA of 3.00 is required for graduation.
Required Engineering Analysis Courses (6 units)
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AME525 - Engineering Analysis
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3
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Units: 3
Course Description: Typical engineering problems discussed on a physical basis. Vector analysis; functions of complex variables, infinite series, residues.
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AME526 - Engineering Analytical Methods
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3
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Units: 3
Course Description: Typical engineering problems discussed on a physical basis. Vector analysis; functions of complex variables, infinite series, residues.
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Aerodynamics/Fluid Dynamics
Aerodynamics/Fluid Dynamics Core Courses:
- AME511 - Compressible Gas Dynamics
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3
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Units: 3
Course Description: Thermodynamics, kinetic theory, compressible flow equations, shock and expansion waves, similarity, shock-expansion techniques and linearized flow applied to bodies, characteristics, theory of boundary layers.
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- AME530a - Dynamics of Incompressible Fluids
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3
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Units: 3
Course Description: A unified discussion of low-speed fluid mechanics including exact solutions; approximation techniques for low and high Reynolds numbers; inviscid flows; surface waves; dynamic stability; turbulence.
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Recommended Technical Electives choose at least one
- AME457 - Engineering Fluid Dynamics
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3
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Units: 3
Course Description: Laminar and turbulent boundary layer flow with and without heat transfer; boundary layer separation, stability, transition and control; introduction to compressible fluid flow. Prerequisite: AME 310; AME 309 or CE 309.
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- AME516 - Convection Processes
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3
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Units: 3
Course Description: Analysis of isothermal and nonisothermal boundary layers. Exact and approximate solutions of laminar and turbulent flows. Variable-property and high-speed effects; dimensional analysis. Prerequisite: AME 457; recommended preparation: AME 526, AME 331.
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- AME530b - Dynamics of Incompressible Fluids
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3
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Units: 3
Course Description: A unified discussion of low-speed fluid mechanics including exact solutions; approximation techniques for low and high Reynolds numbers; inviscid flows; surface waves; dynamic stability; turbulence.
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- AME535a - Introduction to Computational Fluid Mechanics
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3
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Units: 3
Course Description: a: Convergence, consistency, stability: finite difference, finite element, and spectral methods; direct and iterative procedures for steady problems; linear diffusion and advection problems; nonlinear advection problems. Prerequisite: AME 525.
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- AME537 - Microfluidics
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3
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Units: 3
Course Description: Introduction to fluid dynamics in the microscale. Scaling parameters, dynamic, thermodynamic, electroosmotic and electrochemical forces. Flow in microdevices, external flow measurement and control, microvalves and micropumps. Limited to students with graduate standing. Recommended preparation: AME 309, MATH 445.
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Aerospace Controls
Aerospace Controls Core Courses:
- AME532a - Flight Vehicle Stability and Control
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3
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Units: 3
Course Description: Response of flight to linear, nonlinear, and randomly defined disturbances. Generation and measurement of error signals in navigational systems. Stability and control techniques.
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- AME541 - Linear Control Systems II
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3
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Units: 3
Course Description: State space representation, linearization, solution of state equations; controllability and observability; state feedback, state observers; optimal control; output feedback. Prerequisite: AME 451.
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Recommended Technical Electives choose at least one:
- AME545 - Modeling and Control of Distributed Dynamic Systems
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3
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Units: 3
Course Description: Modeling and analysis of complex flexible mechanical systems; distributed transfer function synthesis; frequency-domain control methods; smart structure design; applications in vibration and noise control. Prerequisite: AME 521 and AME 541.
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- AME552 - Nonlinear Control Systems
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3
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Units: 3
Course Description: Phase plane, describing functions, applications to mechanical and aerospace systems. Lyapunov direct and indirect methods, applications; Popov circle criteria applications. Prerequisite: AME 541.
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- ASTE585 - Spacecraft Attitude Control
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3
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Units: 3
Course Description: Review of attitude dynamics, gravity gradient stabilization, attitude stabilization with a spin, attitude maneuvers, control using momentum exchange devices, momentum-biased stabilization, reaction thruster control. Prerequisite: AME 451 or EE 482; recommended preparation: a course in dynamics. (Duplicates credit in former AME 582.)
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Aerospace Design
Aerospace Design Core Courses:
- AME527 - Elements of Vehicle and Energy Systems Design
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3
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Units: 3
Course Description: Design synthesis of aero/hydro/mechanical systems; techniques of design; conceptual thinking; problem definition, configurational development, analytic engineering approximation, oral briefings and group problem solving. Graduate standing.
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Recommended Technical Electives choose at least one:
- AME503 - Advanced Mechanical Design
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3
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Units: 3
Course Description: Specific problems and methods of analysis in mechanical systems design.
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- ASTE520 - Spacecraft System Design
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3
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Units: 3
Course Description: System components; vehicle structure, propulsion systems, flight dynamics, thermal control, power systems, telecommunication. Interfaces and tradeoffs between these components. Testing, system reliability, and integration. (Duplicates credit in former AME 501.)
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Aerospace Structures
Aerospace Structures Core Courses:
- AME529 - Aircraft Structures Analysis
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3
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Units: 3
Course Description: The direct stiffness (finite element) method for analysis of semimonocoque structures; energy methods; elasticity, plates and shells, vibration, and stability; system identification.
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Recommended Technical Electives choose at least one:
- AME509 - Applied Elasticity
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3
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Units: 3
Course Description: Condensed treatment dealing with engineering applications of the principles of elasticity, using the theories of elasticity, elastic stability, and plates and shells. Prerequisite: AME 403.
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- AME559 - Creep
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3
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Units: 3
Course Description: Behavior of engineering materials at elevated temperatures; thermal stresses; creep mechanisms; interpretation of creep data; methods of predicting long-term strains.
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- AME560 - Fatigue and Fracture
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3
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Units: 3
Course Description: Behavior of materials under cyclic and static fatigue; plastic instability; life-time predictions; brittle and ductile fracture; crack propagation and plastic blunting.
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- AME584 - Fracture Mechanics and Mechanisms
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3
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Units: 3
Course Description: Failure modes, stress concentrations, complex stress analysis, linear elastic fracture mechanics, yielding fracture mechanics, experimental methods, environmental assisted fracture and fatigue. Prerequisite: AME 403.
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- CE529a - Finite Element Analysis
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3
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Units: 3
Course Description: Basic concepts; stiffness method; variational methods; displacement method; isoparametric formulation; plane stress and strain; plates and shells; dynamics; stability; nonlinear analysis, heat transfer; computer applications.
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Computational Fluid Dynamics
Computational Fluid Dynamics Core Courses:
- AME530a - Dynamics of Incompressible Fluids
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3
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Units: 3
Course Description: A unified discussion of low-speed fluid mechanics including exact solutions; approximation techniques for low and high Reynolds numbers; inviscid flows; surface waves; dynamic stability; turbulence.
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- AME535a - Introduction to Computational Fluid Mechanics
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3
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Units: 3
Course Description: a: Convergence, consistency, stability: finite difference, finite element, and spectral methods; direct and iterative procedures for steady problems; linear diffusion and advection problems; nonlinear advection problems. Prerequisite: AME 525.
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- AME535b - Advanced Computational Fluid Mechanics
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3
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Units: 3
Course Description: b: Generalized curvilinear coordinates; grid generation; numerical techniques for transonic and supersonic inviscid flows; boundary layer flows; reduced Navier-Stokes equations; compressible and incompressible viscous flows. Prerequisite: AME 535a; AME 511 or AME 530a.
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Recommended Technical Electives : choose at least one
- AME457 - Engineering Fluid Dynamics
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3
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Units: 3
Course Description: Laminar and turbulent boundary layer flow with and without heat transfer; boundary layer separation, stability, transition and control; introduction to compressible fluid flow. Prerequisite: AME 310; AME 309 or CE 309.
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- AME511 - Compressible Gas Dynamics
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3
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Units: 3
Course Description: Thermodynamics, kinetic theory, compressible flow equations, shock and expansion waves, similarity, shock-expansion techniques and linearized flow applied to bodies, characteristics, theory of boundary layers.
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Propulsion
Propulsion Core Courses
- AME511 - Compressible Gas Dynamics
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3
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Units: 3
Course Description: Thermodynamics, kinetic theory, compressible flow equations, shock and expansion waves, similarity, shock-expansion techniques and linearized flow applied to bodies, characteristics, theory of boundary layers.
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- AME513 - Principles of Combustion
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3
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Units: 3
Course Description: Thermochemistry, equilibrium, chemical kinetics, flame temperature, flame velocity, flame stability, diffusion flames spray combustion, detonation. Equations of motion including reaction, heat transfer, and diffusion.
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Recommended Technical Electives choose at least one
- AME436 - Energy and Propulsion
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3
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Units: 3
Course Description: Performance and analysis of reciprocating, jet, rocket engines, and hybrid systems. Characteristics of inlets, compressors, combustors, turbines, nozzles and engine systems. Energy and environmental problems. Prerequisite: AME 310; AME 309 or CE 309.
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- AME514 - Applications of Combustion
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3
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Units: 3
Course Description: Discussion of combustion problems including pollution, fires, explosion hazards, furnace combustion chambers, combustors for reciprocating engines, jets and rockets. Both theoretical and empirical approaches. Prerequisite: AME 515 and AME 525 or AME 526.
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- ASTE470 - Spacecraft Propulsion
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3
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Units: 3
Course Description: Introduction to rocket engineering. Space missions and thrust requirements. Compressible gas dynamics. Propellant chemistry and thermodynamics. Liquid- and solid-fueled rockets. Nuclear and electric propulsion. (Duplicates credit in former AME 473.)
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- ASTE572 - Advanced Spacecraft Propulsion
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3
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Units: 3
Course Description: Nuclear, electric, sails, and far-term propulsion systems. Overviews of nozzles, heat transfer, electromagnetics, rarefied gases, and plasma physics. Analysis of electrothermal, electrostatic and electromagnetic thrusters. Graduate standing in engineering or science. (Duplicates credit in former AME 573.) Recommended preparation: ASTE 470.
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- ASTE584 - Spacecraft Power Systems
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3
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Units: 3
Course Description: Introduction to solar arrays, batteries, nuclear power sources, mechanical energy storage. Application theory of operation, practical considerations. Subsystem topologies and performance. Design optimization techniques. Graduate standing in engineering or science. (Duplicates credit in former AME 508.)
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Please note that the courses listed above are those available via DEN. Additional course choices are available on campus. Please consult the department website for the complete list of options.
In order to evaluate any application for admission, application materials must be submitted by the deadlines listed:
June 1st Fall admission
October 1st Spring admission
February 15th Summer admission
Please submit the following to the USC Office of Graduate Admission via the online application system by clicking here.
- Statement of Purpose
- The statement of purpose should describe succinctly your reasons for applying to the proposed program at the Viterbi School of Engineering, your preparation for this field of study, study interests, future career plans, and other aspects of your background and interests which may aid the admissions committee in evaluating your aptitude and motivation for graduate study.
- Two Letters of Recommendation (optional)
- Letters of recommendation should be from faculty or others (supervisors, professional colleagues, etc.) qualified to evaluate your potential for graduate study. They should be written on official letterhead.
Please arrange to have the following sent to the USC Office of Admission as a hard copy (USC Graduate Office of Admission, University Park Campus, Los Angeles, CA 90089-0915):
- Official Transcript(s) from all post-secondary schools you have attended, and official translations if they are not in English.
- General GRE scores (no older than 5 years). Official scores must be sent through ETS to the University of Southern California, ETS code 4852)
- TOEFL scores (required for international students)
NOTE: If you meet our minimum qualifications, you can get started BEFORE you are formally admitted to USC, as a "LIMITED" student! Click here for more information.
For the USC Aerospace & Mechanical Engineering Department:
Samantha Graves
Student Services Advisor
Aerospace and Mechanical Engineering
Tel: 213-740-1735
Fax: 213-740-7774
Email: smgraves@usc.edu
Professor J.A. Domaradzki
Program Director, M.S. in Aerospace Engineering
Aerospace and Mechanical Engineering
Tel: (213) 740-5357
Fax: 213-740-7774
Email: jad@usc.edu
For the USC Distance Education Network (DEN):
Ray Fujioka
Master's and Professional
Programs
[MAPP]
Tel: (213) 740-4488
Fax: (213) 821-0851
Email: info@den.usc.edu
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