Undergraduate Courses
The engineering science courses described below provide an introduction
to the methods and techniques used in the application of sciences and
mathematics.
3 Introduction to Electrical Engineering. Definitions of circuit elements, fundamental laws, selected network theorems, introduction to the oscilloscope, energy and power, natural response and complete response of first-order circuits, steady-state sinusoidal behavior, algebra of complex numbers, phasors, impedance, average and reactive power, introduction to computer applications for circuit analysis and design, associated laboratory work. Prerequisite: must be preceded or accompanied by Mathematics 12. Fall. Electrical engineering faculty
4 Introduction to Digital Logic Circuits. Number systems and their conversions. Boolean algebra and Karnaugh map minimizations of Boolean expressions. Logic gates. Analysis and design of combinational logic circuits. Characteristics of various flip-flops. Analysis and design of sequential logic circuits. Design of counter and shift register circuits. Various binary codes and code conversion circuits. Binary arithmetic and arithmetic circuits. Introduction to iterative design. Associated laboratory work. Prerequisite: Engineering Science 3. Spring. Electrical engineering faculty
5 Introduction to Mechanics--Statics and Dynamics. Introduction to analysis and problem solving in statics and dynamics. Equilibrium of particles and rigid bodies in two and three dimensions. Vector and matrix analysis. Force-moment balance equations. Applications include trusses, frames, machines, beams, and friction problems. Kinematics and kinetics of particles and rigid bodies. Newton's equation, impulse-momentum, work and energy, Centroids and moments of inertia. Civil and environmental engineering faculty
7 Thermodynamics. A course stressing the concepts and the laws of classical thermodynamics. Thermodynamics functions, first law, second law, properties of pure substances, availability and irreversibility. Emphasis is placed on applying the thermodynamic mode of reasoning. Spring. Mechanical engineering faculty
8 Fluid Mechanics. An introduction to fluids at rest and in motion. Fluid properties. Pressure and velocity variations in flows. Mass, momentum, and energy conservation in a flowing fluid. Bernoulli's equation and inviscid flows. An introduction to viscous flows. Dimensional analysis. Drag and lift of moving objects. Fall. Mechanical engineering faculty
9 Applied Mechanics (Strength of Materials). Analysis of stress and strain. Behavior of isotropic materials, theories of failure. Behavior of members subjected to axial, torsional, and flexural loadings, combined stress, Mohr's circle, compression members and columns. Prerequisite: Engineering Science 5. Spring. Civil and environmental engineering faculty
10 Structure and Strength of Materials for Chemical Engineers. Atomic and molecular structures of metals, ceramics, and polymers. Mechanical behavior of materials. Stress-strain analysis, elastic moduli, tensile and yield strengths, fracture and toughness, fatigue failure, creep deformation, oxidation and corrosion. Fall. Sung
11 Introduction to Biology. (Cross-listed as Biology 1.) Fundamental concepts and understanding of biological principles, particularly as they relate to engineering disciplines. Does not count toward the biology major. Prerequisites: Mathematics 11 and Chemistry 1, or consent. Spring. Kaplan
20 Consumer Product Evaluation. Engineering evaluation of real products. Inherent in the activity is the understanding of design concepts for consumer products. Work will be conducted individually and in teams to determine effectiveness, safety, and adherence to claims made for the product. Lectures accompanying the laboratory work will cover experimental methodology, instrumentation, safety, product liability, advertising, and product-related variables. Spring. Mechanical Engineering faculty
25 Environment and Technology. The impact and interaction of technology and the environment will be evaluated using historical examples. Environmental problems and their solutions will be evaluated from an engineering viewpoint. This course is a core requirement of the Environmental Studies program. No prerequisites. Members of the engineering faculty
27 Environmental Health and Safety. An overview of engineering health and safety with respect to environmental issues. Elements of hazardous materials management and occupational health will be discussed where appropriate. This course is a requirement for the environment and technology track of the Environmental Studies program. No prerequisites. Members of the engineering faculty
50 Introduction to Biomedical Engineering. (Cross-listed as Biomedical Engineering 50 and Electrical Engineering 50.) An introduction to the interdisciplinary nature of biomedical engineering. The biological, chemical, electrical, and mechanical principles involved in the design and operation of medical devices. Biopotentials, electrodes, transducers, biocompatibility of materials, and patient safety. Prerequisite: consent. Fall. Vo
51 Technical Writing. Application of business writing standards and technical writing formats to engineering, science, and management environments. Writing projects include business correspondence, proposals, descriptions of mechanisms and processes, as well as a major technical research report. Individual consultations arranged as necessary. Members of the engineering faculty
52 Engineering Management. This course presents the principles and techniques used in managing engineering projects. It integrates operations research methodology and computer-based techniques used to manage projects: computer-aided planning and scheduling, estimating and budgeting with electronic spreadsheets, resource leveling, earned value analysis, forecasting, and program monitoring and control. The current industry practices of manufacturability/constructibility, partnering, total quality management, reengineering, and alternate dispute resolutions are also presented. Prerequisite: junior standing or consent.
73 Musical Instrument Design and Manufacture. Review of the underlying engineering and the basic fabrication of musical instruments, including an introduction to musical acoustics, computer-based simulation tools, laboratory measurement, and manufacturing. The bulk of the class is dedicated to designing, simulating, building, and testing of an instrument. Rogers
75 Biomedical Engineering II. (Cross-listed as Chemical Engineering 75.) The course consists of two main parts: fundamental engineering methodologies and clinical applications. The course is the complement to Biomedical Engineering I. Topics covered: biomaterials, tissue engineering, drug discovery, genomics/proteomics and related issues. Fundamental concepts in biochemistry, molecular biology, chemical engineering, polymer science, and biophysics are studied. Applications for these techniques are addressed with respect to medical problems. (May be taken at 100 level with consent; see below.) Prerequisite: consent. Kaplan, Duca
88 CAD for Engineers. 2-D and 3-D geometric modeling with computer-aided design (CAD) systems. The use of CAD technology for the design and analysis of civil structures and mechanical assemblies. The customization of CAD systems for engineering applications. An introduction to finite element analysis through the use of CAD systems. Prerequisites: EN 1 and 2. Corequisite: Engineering Science 5. Minardi
95, 96 Special Topics in Engineering Science.
Courses for Undergraduate and Graduate Students
101 Numerical Methods. Numerical methods are studied and applied to the solution of problems in applied science and engineering. Interpolation, approximation, numerical linear algebra, including system solution and eigenvalue problems, solution of nonlinear equations, numerical differentiation and integration, ordinary differential equation algorithms, and finite-difference solution of partial differential equations. Applications using calculative software. Prerequisite: Mathematics 38 and the ability to implement computer solutions. Fall. Greif, Manno
108 Statistical Quality Control. (Cross-listed as Mechanical Engineering 108.) This course deals with principle, role, management, and history of quality control in modern manufacturing and servicing organizations. Topics covered include statistical process control, probability and statistics, Pareto diagrams, statistical design of experiments, Taguchi methods, acceptance sampling, and cost of quality. Prerequisite: senior standing or consent. Saigal
118 Advanced Data Acquisition and Image Processing. (Cross-listed as Mechanical Engineering 118.) An upper-level course designed for students interested in laboratory techniques relevant to mechanical engineering experimentation, including temperature, velocity, and stress measurement. Topics include image processing and advanced signal processing. After an initial review of computer interface and experiment control, the course is dedicated to how video signals are generated, acquired, and processed, including filtering techniques (for example Sobel, Median, Laplacian) as well as pattern recognition and identification. Prerequisite: consent. Rogers
121 Engineering Challenges in Physiology I. (Cross-listed as Biomedical Engineering 121 and Electrical Engineering 121.) Course work designed for students interested in advanced work in biomedical engineering. This first course contains modules that cover the central nervous system, muscles/bone, lungs, and heart. The course emphasizes vital biological signals, their measurement, and the required instrumentation, with examples drawn from current joint research efforts between the engineering faculty and the professional schools. Course is team-taught and involves a semester-long project. Prerequisites: Electrical Engineering/Engineering Science 50/150, Engineering Science 12/112, Biology 1/Engineering Science 11 or equivalent, and engineering senior standing, or consent. Vo
122 Engineering Challenges in Physiology II. (Cross-listed as Biomedical Engineering 122 and Electrical Engineering 122.) Course work designed for students interested in advanced work in biomedical engineering. This second course covers the endocrine and sensory systems, and the digestive system, including dentistry. The course emphasizes vital biological signals, their measurement, and the required instrumentation, with examples drawn from current joint research efforts between the engineering faculty and the professional schools. Course is team-taught and involves a semester-long project. Prerequisites: Electrical Engineering/Engineering Science 50/150, Biology 1/Engineering Science 11 or equivalent, and engineering senior standing, or consent. Vo
125 Science and Technology of Atmospheric Change. (Cross-listed as Environmental Studies 125.) An introduction to local and global problems of atmospheric pollution. Topics include physics and chemistry of Earth's atmosphere, atmospheric circulation, modeling, ozone depletion, acid rain, tropospheric air pollution, global warming, prevention and control technologies. Prerequisites: Chemistry 2 and Mathematics 12. Abedian, Meldon, Moomaw, Schultz
150 Introduction to Biomedical Engineering. (Cross-listed as Biomedical Engineering 150 and Electrical Engineering 150.) See Engineering Science 50 for course description. An individual project is required. Prerequisite: consent. Fall. Vo
151 Engineering Systems: Deterministic Models. (Cross-listed as Civil Engineering 151 and Engineering Psychology 151.) An introduction to the use of systems theory and modeling in the study/design of complex deterministic engineering, economic, environmental, and social systems. Topics include network models, economic analysis, optimization, linear and dynamic programming. Practical treatment is stressed; applications and projects are chosen from several areas, including civil and environmental engineering and engineering psychology. Prerequisites: junior standing, or consent. Fall. Levine
152 Engineering Systems: Stochastic Models. (Cross-listed as Civil Engineering 152 and Engineering Psychology 152.) An introduction to network models in the study/design of engineering, economic, environmental, and social systems with an emphasis on systems exhibiting probabilistic behavior. Topics include network models, Markov chains, queuing theory, reliability analysis, and genetic algorithms (GAs). Practical treatment is stressed; applications and projects are chosen from several areas, including civil and environmental engineering. Prerequisites: junior standing or consent. Spring. Levine
175 Biomedical Engineering II. (Cross-listed as Chemical Engineering 175.) See Engineering Science 75 for course description. Includes a semester-long technical project and oral presentation. Kaplan, Duca
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