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  • AME 33390: Technology Forecasting

    1.00 Credits
    University of Notre Dame

    Readings and discussion are used to evaluate the emerging techologies that will influence the role of technology in society for the next 40 years.
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  • AME 34104: Engineering Analysis

    3.00 Credits
    University of Notre Dame

    The course is designed for undergraduates interested in graduate school in engineering either directly after graduation or later. This course will introduce them to modern mathematical techniques that are commonly used in the engineering sciences. Theory will be closely related to applications. Topics to be covered include: 1. Analysis (a) Dynamical systems (fractals, bifurcations, chaos, synchronization), perturbations, (b) equations (integral, functional, fractional), (c) complex variables, (d) linear analysis (linear spaces, finite and infinite dimensions, norm, inner product, completeness, operators), (e) orthogonal expansion (Hilbert space, eigenvalue problems, adjoint and self-adjoint operators, orthogonality, weighted residuals, spectral methods), (f) computer methods (finite-elements, finite-differences, Monte Carlo). 2. Applications Theory and applications will be discussed in parallel. Topics will be selected from the aerospace and mechanical engineering sciences including mechanics of particles and rigid bodies, elasticity, thermal and fluid dynamics, stability (buckling, convection and hydrodynamics), signal processing, controls, and optimization. Assignments: Homework will be assigned. There will be individual projects on research and state of the art reviews of selected topics with in-class presentations, mid-term and final reports.
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  • AME 34314: Differential Equations

    3.00 Credits
    University of Notre Dame

    First of a two-course sequence, the course introduces methods of differential-equation solution together with common engineering applications in vibration analysis and controls. Second-order, linear differential equations, feedback control and numerical solutions to systems of ordinary differential equations. The objective of this course are for students to be able to solve certain classes of ordinary differential equations, analyze the stability of solutions of a system of differential equations and apply techniques from the theory of differential equations to design and analyze the stability of control systems and engineering vibrations problems. MAPH 30160 Mathematics for Engineers VI at UCD; This course is designed to familiarise engineering students with ordinary and partial differential equations. Although general techniques applicable to arbitrary differential equations will be taught, the emphasis will be on solving the types of differential equatons which appear in an engineering context; examples include electrical circuits, traffic flow problems, the wave/string equation, the heat equation, and Laplace's/Poisson's equation. These techniques include critical point classification and phase portraits, the method of characteristics, separation of variables, Fourier series/transforms and classification of 2nd-order linear partial differential equations.
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  • AME 34331: Fluid Mechanics

    3.00 Credits
    University of Notre Dame

    A basic course in fluid mechanics. Topics include mathematics of fluids, Euler N.S, Bernoulli's equation, control volumes, differential analysis, dimensional analysis and dynamic similarity, aerodynamics, boundary layers and turbulence.
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  • AME 34334: Unit Operations of Heat Transfer

    3.00 Credits
    University of Notre Dame

    In this course, students will employ heat transfer process mechanisms for associated processes and apply solutions to industrial and environmental problems. Students will gain the ability to design products, systems, components, and or other necessary processes taking into account economic, environmental, and social aspects of manufacturing and sustainable development.
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  • AME 34361: Computer-Aided Design and Manufacturing

    3.00 Credits
    University of Notre Dame

    Principles of engineering-graphic communications: visualization, sketching, orthographic projection, principal and auxiliary projections, 3-D surfaces, and feature-based design. Geometric dimensioning and tolerancing, computer-integrated manufacturing, and rapid prototyping.
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  • AME 34362: Design Methodologies

    3.00 Credits
    University of Notre Dame

    Taught as 'MO 0843' - No additional description provided.
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  • AME 34363: Design of Machine Elements

    3.00 Credits
    University of Notre Dame

    "Introduction to design concepts. Constructional details as affected by manufacturing, assembly, and strength considerations. Engineering materials. Design for steady and cyclic loading, and for rigidity and stability. Rigid and elastic connections. Bolts, rivets and welds. Design of shafts and springs. Use of interactive computer programs for problem solving is illustrated and encouraged. Design projects. "
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  • AME 34431: Fluid Mechanics

    3.00 Credits
    University of Notre Dame

    "MEEN 20010 Mechanics of Fluids I at UCD; This is a foundation course in fluid dynamics for engineers of all disciplines. Syllabus: SYSTEM AND CONTROL VOLUME REPRESENTATION: The Reynolds Transport Theorem. CONSERVATION LAWS: System and control volume representation of conservation laws of mass, momentum and energy. Continuity, momentum, energy and Bernoulli's eqns. CONTROL VOLUME ANALYSIS: Nozzles, diffusers, conduit bends, impinging jets on flat and curved vanes, fluid machinery. INTERNAL FLOW: Laminar, transitional and turbulent flow. Newtons law of viscosity. Pipe flow. Major losses. Minor losses. Non-circular conduits. System characteristics. Pumping. Network analysis. EXTERNAL FLOW:Streamlined and blunt bodies. Effects of Reynolds number. Lift and drag. The boundary layer. Friction drag. Pressure drag. Aerodynamic lift. SIMILARITY AND DIMENSIONAL ANALYSIS: Buckingham's Pi theorem. Dynamic similarity. On successful completion of this subject the student will be able to: 1. Explain the principles underlying the conservation laws. 2. Analyse and solve technical problems in fluid mechanics through the application of the conservation laws. 3. Distinguish between laminar, transitional and turbulent flow. 4. Identify, analyse and solve technical problems in internal and external flow. 5. Describe aerodynamic lift and drag. 6. Plan and conduct experiments, analyse and interpret experimental results."
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  • AME 36099: Directed Readings

    0.00 - 12.00 Credits
    University of Notre Dame

    Individual or small group study under the director of a faculty member in an undergraduate subject not currently covered by any University course. As needed.
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