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Biomedical Engineering (E62)** Departmental Section/Faculty list for research, project and other related courses:01 Arthur02 Snyder03 Bayly04 Cox05 Lorenz06 Kovacs07 Amini08 Cytron09 Wickline10 Taber11 Gillett12 Pickard13 Raichle14 Yin15 Guccione16 Sutera17 Haacke18 Thies19 Thomas20 Conchello21 Zahalak22 Misler23 Kardos24 Dimarogonas25 Rosenberger26 Richard27 Elson28 States29 O'Sullivan30 Ackerman31 Shao32 Dustin33 Mintun INTRODUCTION TO BIOMEDICAL ENGINEERING E62 140 BME Introduction to areas of biomedical engineering where engineering and medicine faculty are currently active. Topics: biomedical and biological imaging, cardiovascular engineering, computational neuroscience, cell and tissue engineering, genome analysis, etc. Tours of specific facilities at the School of Engineering and the Washington University Medical Campus will be conducted, such as the Mallinckrodt Institute of Radiology, the computerized Coronary Care Unit, and various laboratories where research in the above mentioned areas is in progress. Credit 3 units. 01 MW 2:30p-4:00p XXXIV Lopata 101/Sutera FROM CONCEPT TO MARKET-THE BUSINESS OF BIOMEDICAL ENGINEERING E62 201 BME This seminar course will introduce students to the fascinating, complex process of bringing new medical technologies from the concept stage to the market place. Guest speakers representing a diverse group of biomedical technology companies will present seminars covering each of the key factors in the product development process, including: determining customer needs and defining product performance requirements;creating business and development plans;developing and field-testing prototypes;industrial design;concurrent engineering and manufacturing design, formal clinical trials; and the post-market product life cycle.These experts from industry will highlight factors that bridge between business and engineering including the transfer of technology from the research laboratory to the corporation and legal issues such as patents, government regulation and product liability. Seminars will feature case studies to illustrate how both larger corporations ans entrepreneurs have brought biomedical products to the market successfully. Students will work individually on a term paper based on case studies from the literature or interviews of company representatives. The class will work as a group on the development of a Web-page directory of biotechnology companies. Prerequisites: BME 140 Credit 1 unit. 34 Th 4:00p-5:30p XXXIV McDonnell 162/Brandenberger, G. QUANTITATIVE PHYSIOLOGY II E62 301B BME A course (lecture and supervised laboratory sessions) designed to elaborate the physiological background necessary for advanced work in biomedical engineering. A quantitative model-oriented approach to physiological systems is stressed. Topics include electrocardiography; heart contractility; pulse wave propagation in arteries;pulmonary function; and cardiovascular and respiratory models and control. Credit 3 units. Design credit 0.5 units. 01 TuTh 1:00p-2:30p XXXIV Cupples II 217/Taber Laboratories: A Tu 1:00p-4:00p Crow 306/Taber B Th 1:00p-4:00p Crow 306/Taber INDEPENDENT STUDY E62 400 BME Independent investigation on topic of special interest. Prerequisites: junior or senior standing and permission of program director. All sections TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, max 6 units. Credit variable, maximum 6 units. BIOMEDICAL ENGINEERING DESIGN E62 401 BME A design project experience to prepare students for engineering practice. Working individually or in small groups, students will undertake an original design or redesign of a compnent or system of biotechnological significance. The design experience will require application of knowledge and skills acquired in earlier classes and laboratory work; it will incorporate engineering standards and realistic constraints that include most of the following considerations: economic, environmental, ethical, manufacturability, sustainability, health and safety, social and polital. Students will prepare writen reports and present their designs orally to their classmates and panels of faculty members and industrial representatives. Prototype construction is not generally required but may be encouraged subject to available time, financial and material resources. Prerequisite: BME 301A, BME 301B and senior standing Credit 3 units. Design credit 3 units. 01 MW 2:30p-4:00p XXXIV TBA /Sutera INDEPENDENT STUDY E62 500 BME All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 6 units. GRADUATE SEMINAR E62 501 BME This is a pass/fail course which is required for the M.Sc. or D.Sc. degrees. A passing grade is required for each semester of full-time enrollment (6 units or more). A passing grade is received by attendance at the regularly scheduled IBME seminars. Credit 0 units. 14 TBA TBA /Yin COMPUTATIONAL MOLECULAR BIOLOGY E62 537 BME Same as L41 Biol 5495. QUANTITATIVE CARDIOVASCULAR PHYSIOLOGY E62 5494 BME Same as L41 Biol 5494. SPECIAL TOPICS: BIOLOGICAL TRANSPORT E62 590E BME The principles of mass, momentum and energy transport are applied to the analysis of selected processes of biomedical and biotechnological interest. Topics include dynamics of blood flow, oxygen and solute transport, steady and transient diffusion in reacting systems, pharmacokinetic analysis, and heat transfer. Prerequisites: ChE 367 or CE/ME 370 or graduate standing. Credit 3 units. 01 TuTh 1:00p-2:30p XXXIV TBA /Shao SPECIAL TOPICS: CELL AND TISSUE ENGINEERING E62 590F BME Lectures on selected topics of importance to the engineering analysis of cells and tissues. The focus will be on mechanical behavior. Both experimental and theoretical approaches will be considered in developing quantitative descriptions of biological materials, to serve as a rational basis for their modification and design. Spedific topics covered by this course include Cellular Mechanical Properties, Contractility, Motility, and Constitutive Relations for Tissue Models. Prerequisite: Graduate standing and Permission of instructors. Credit 3 units. 01 TuTh 4:00p-5:30p XXXIV Lopata 507/Zahalak MASTERS RESEARCH E62 599 BME All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 6 units. DOCTORAL RESEARCH E62 600 BME All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 24 units. RESEARCH SEMINAR ON COMPUTATIONAL MOLECULAR BIOLOGY E62 6804 BME Same as E61 CS 6804. MASTERS CANDIDATE E62 887 BME All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units. DOCTORAL CANDIDATE E62 888 BME All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units.Biomedical Engineering (E72)CARDIOVASCULAR BIOPHYSICS JOURNAL E72 5911 BME This journal club is intended for beginning graduate students with a background in the quantitative sciences (engineering, physics, math, chemistry, etc). The subjects covered are inherently multidisciplinary. We will review landmark and recent publications in quantitative cardiovascular physiology, mathematical modeling of physiologic systems and related topics such as chaos theory and nonlinear dynamics of biological systems. Familiarity with calculus, differential equations, and basic engineering/thermodynamic principles is assumed. Knowledge of anatomy/physiology is not required. Credit 1 unit. Same as L41 Biol 5468. 01 F 3:00p-4:00p XXXIV TBA /KovacsChemical Engineering (E63)** Departmental Section/Faculty list for research, project and other related courses:01 Dudukovic02 Al-Dahhan03 Joseph04 Kardos06 McKelvey07 Motard09 Wolf10 Ramachandran13 Thies16 Turner18 Gleaves19 Khomami20 Sureshkumar INDEPENDENT STUDY E63 140 ChE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 9 units. INDEPENDENT WORK E63 240 ChE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 9 units. THERMODYNAMICS E63 320 ChE Classical thermodynamics, thermodynamic properties, work and heat, first and second laws. Application to engineering systems. Sections 1 & 2 are for Chemical Engineering students, while section 3 is for Mechanical Engineering students. Prerequisites: Chem 111A, Math 132, Phys 117A. Credit 3 units. 01 TuTh 1:00p-2:30p VIII TBA /McKelvey MATERIALS SCIENCE E63 325 ChE Introduces the chemistry and physics of engineering materials. Emphasis on atomic and molecular interpretation of physical and chemical properties, the relationships between physical and chemical properties, and performance of an engineering material. Prerequisite: Chem 111A. Credit 4 units. Same as E67 ME 325. 01 MWF 9:00a-10:00a XIII TBA /Gleaves Laboratories: A M 2:00p-4:30p Jolley 103/Gleaves B W 2:00p-4:30p Jolley 103/Gleaves AIR POLLUTION E63 344 ChE Generation, transport, and fate of pollutants. Pollutant characterization, meteorology and air quality, dispersion models. Transporting, sampling, monitoring, and removing gaseous and particulate pollutants. Photochemical smog formation and source apportionment. Prerequisite: ChE 443, or permission of instructor. Credit 3 units. Same as E67 ME 344. 01 TuTh 1:00p-2:30p VIII TBA /Schichtel ENGR ANALYSIS CHEM SYST E63 351 ChE Introduction to the use of mathematics and methods of engineering in analysis of chemical and physical processes. Use of quantity balances and basic rate laws describing diffusion, convection, radiation, and chemical reaction. Emphasis on the setting up of differential equations and specification of boundary conditions for practical problems. Prerequisites: ChE 320, CS 265, Math 217. Credit 3 units. 01 MW 12:00p-1:00p XVIII TBA /Kardos Discussion sections: A F 12:00p-1:00p TBA /Kardos B F 1:00p-2:00p TBA /Kardos THERMODYNAMIC APPLICATIONS IN CHEM. SYST E63 358 ChE Applications of thermodynamic principles to properties of pure fluids and mixtures, phase equilibria, and chemical reaction equilibria. Prerequisites: ChE 320, CS 265. Credit 3 units. Design credit 1 unit. 01 TuTh 8:30a-10:00a XXIX TBA /McKelvey TRANSPORT PHENOMENA I E63 367 ChE Engineering principles involved in the exchange of heat and matter in chemical processes. Laws governing the flow of liquids and gases in laboratory and plant equipment. Prerequisites: ChE 320, CS 265, Math 217, SSM 317. Credit 3 units. 01 TuTh 10:00a-11:00a XIX TBA /Khomami Discussion sections: A F 11:00a-12:00p TBA /Khomami B F 12:00p-1:00p TBA /Khomami TRANSP PHENOMENA II E63 368 ChE Engineering principles involved in the exchange of heat and matter in chemical processes. Laws governing the flow of liquids and gases in laboratory and plant equipment. Prerequisites: ChE 320, CS 265, Math 217, SSM 317. Credit 3 units. Design credit 1 unit. 01 MWF 10:00a-11:00a XLII TBA /Sureshkumar INDEPENDENT STUDY E63 400 ChE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 9 units. ENVIRONMENTAL ENGINEERING LAB WATER/SOIL E63 408 ChE Laboratory experiments to illustrate the application of engineering fundamentals to environmental systems. Characterization and control of water/soil pollutants. Introduction to relevant analytical instrumentation and laboratory techniques. Laboratory work supported by theoretical analysis and modeling as appropriate. Prerequisites: ChE 443 or equivalent and consent of instructor. Note: An additional project will be required for graduate credit. Credit 3 units. Same as E64 CE 408, E64 CE 508, E63 ChE 508, E90 ENVE 508, E67 ME 408, E67 ME 508. 01 Tu 4:00p-8:00p LXX Urbauer 1/[TBA] 02 Th 12:00p-4:00p VIII Urbauer 1/[TBA] CONTROL SYSTEMS I E63 431 ChE Same as E65 EE 431. CHEM PROC DYN CONTROL E63 462 ChE Application of control theory to chemical process systems: open-loop and closed-loop control. Formulation of physical and mathematical models of thermal, electrical, mechanical, and chemical components. Emphasis on practical use in current industrial processes. Prerequisite: SSM 317. Credit 3 units. Design credit 1.5 units. 01 TuTh 12:00p-1:00p XII Cupples II 217/Joseph Discussion sections: A F 9:00a-10:00a TBA /Joseph B F 10:00a-11:00a TBA /Joseph STATISTICAL PROCESS CONTROL E63 466 ChE Modeling of Process Quality. Inferences about Process Quality. Methods and Philosophy of Statistical Process Control. Control charts. Shewart, CUSUM and EWMA charts. Process capability analysis. Process Improvements with Designed Experiments. Acceptance sampling. Relation of SPC to Conventional Process Control. Prereqs: Math 217 or Equivalent. Credit 3 units. Same as E63 ChE 566. 01 MW 4:00p-5:30p XXVI TBA /Joseph CHEM ENGR LAB II E63 473 ChE Laboratory experiments illustrate principles of thermodynamics and chemical reaction engineering. One laboratory period and one workshop alternating once a week. Prerequisites: ChE 357, 358, 367, 471. Credit 3 units. Design credit 1 unit. 01 F 12:00p-1:00p XXVIII Cupples II 200/Al-Dahhan Laboratories: A M 1:00p-5:00p Urbauer 110/Al-Dahhan B Tu 1:00p-5:00p Urbauer 110/Al-Dahhan C W 1:00p-5:00p Urbauer 110/Al-Dahhan D Th 1:00p-5:00p Urbauer 110/Al-Dahhan E F 1:00p-5:00p Urbauer 110/Al-Dahhan PROPERTIES OF MATERIALS E63 476 ChE A detailed look at the mechanical, chemical, and surface properties of materials. Topics include elastic properties; plastic deformation; viscoelastic behavior; chemical resistance; corrosion resistance; and the electromagnetic properties of metal, plastic, ceramic, and composite systems. Credit 3 units. Design credit 0.5 units. Same as E67 ME 476. 01 TuTh 2:30p-4:00p XVII TBA /Thies PROCESS ANALYSIS & DESIGN E63 478 ChE Application of engineering sciences, computational techniques, and economic principles to analysis and design of systems in which physical processes, chemical reactions, or biological processes are occurring. The case study method is used. One class hour and two workshop periods a week. Prerequisite: ChE 477. Credit 3 units. Design credit 3 units. 01 Tu 5:30p-8:30p LXII Cupples II 217/Carpenter CHEMICAL PROCESS SAFETY E63 479 ChE Analysis and management of fire and explosion hazards. Control of human exposure to toxic materials. Codes, standards, and regulations. Transportation and disposal of noxious substances. Analysis of drift from clouds, flares, and stacks. Venting of pressure vessels. Hazard evaluation and safety review of processes. Emergency plans for accidents and disasters. Prerequisite: ChE 358 or Chem 421, or permission of instructor. Credit 3 units. Design credit 0.5 units. Same as E63 ChE 569, E90 ENVE 569. 01 MW 4:00p-5:30p XXVI TBA /Shepard PRINCIPLES OF SURFACE & COLLOID SCIENCE E63 480 ChE Interfacial phenomena play key roles in such industrial operations as emulsification, catalysis, and detergency. Introduction to principles of surface science. Particular attention to describing the nature of the liquid/gas, liquid/liquid, solid/liquid, and solid/gas interfaces. Specific topics include methods of measuring surface tension, interfacial absorption, surface area and particle size determinations, dispersion stabilization/flocculation, emulsification, and wetting. Prerequisite: ChE 358, or permission of instructor. Credit 3 units. 01 TuTh 10:00a-11:30a III TBA /Thies SENIOR THESIS E63 499 ChE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 9 units. INDEPENDENT STUDY E63 500 ChE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 9 units. ENVIROMENTAL REACTION ENGINEERING E63 505 ChE Reaction engineering principles with applications to environmental systems. Reaction mechanisms, kinetics and rate forms in chemical, biochemical and biological systems. Ideal reactor concepts. Transport effects on reaction rates. Nonideal flow and mixing effects. Quantification of reaction systems in the environment, in pollution abatement and waste treatment and minimization. Prerequisite: ChE/ME 320; SSM 317, ChE 443 (at least concurrently) or equivalent or permission of instructor. Credit 3 units. Design credit 1 unit. Same as E90 ENVE 505. 01 TuTh 4:00p-5:30p XIX TBA /Ramachandran Dudukovic ENVIRONMENTAL ENGINEERING LAB WATER/SOIL E63 508 ChE Same as E63 ChE 408. DYNAMICS OF POLLUTANTS E63 510 ChE Physicochemical processes governing the dynamics of pollutants from point and non-point sources: generation, transport and decay. Application of fundamental thermodynamics, mass/heat transfer and fluid mechanics principles to environmental systems. Prerequisites, ChE/ME 320, SSM 317, and ChE 443, or equivalent, or permission of instructor. Credit 3 units. Same as E64 CE 510, E90 ENVE 510, E67 ME 510. 01 MW 8:00a-9:30a XVII TBA /Turner TRANSPORT EFFECTS IN CHEMICAL REACTORS E63 512 ChE Mixing effects and nonideal flows in reactors and their characterization. Description and quantification of mass and heat transfer interactions with chemical reactions in gas-liquid, gas-solid catalyzed reactions and gas-solid noncatalytic reactions. Introduction to transport effects on reactor stability and outline of basic approaches to reactor design for heterogeneous systems. Prerequisites: ChE 471, ChE 368, or equivalent Credit 3 units. Design credit 0.5 units. 01 TuTh 8:00a-9:30a XXII TBA /Ramachandran Dudukovic INDUSTRIAL CATALYSIS E63 525 ChE Major industrial and environmental catalytic processes. Principal theories of heterogeneous catalysis. Experimental methods and techniques used to develop modern catalytic systems. Examples from the petrochemical industry, automotive exhaust systems and industrial emissions abatement. Prerequisites: Chem 112, 252. Credit 3 units. Same as E90 ENVE 525. 01 Tu 5:00p-8:00p XX TBA /Gleaves STATISTICAL PROCESS CONTROL E63 566 ChE Same as E63 ChE 466. CHEMICAL PROCESS SAFETY E63 569 ChE Same as E63 ChE 479. MASTERS RESEARCH E63 599 ChE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 9 units. DOCTORAL RESEARCH E63 600 ChE All sects. TBA. Refer to **section/faculty at start of departmental entry for selections in this course. Credit variable, maximum 9 units. RESEARCH SEMINAR ON REACTION ENGINEERING E63 613 ChE Prerequisite: Graduate standing and permission of instructor. Credit 1 unit. 01 TBA XXXI TBA /Dudukovic RESEARCH SEM ON MATERIAL SCIENCE & ENG E63 6171 ChE Same as E69 MATL 6171. POLYUMER PHEOLOGY & PROC E63 652 ChE Same as E69 MATL 652. MATLS CHAR TECHNIQUE II E63 658 ChE Same as E69 MATL 658.Civil Engineering (E64)** Departmental Section/Faculty list for research, project and other related courses:01 TBA02 Dyke03 Craig04 Ebel06 Gould07 Haefner08 Harmon10 Slattery1415 Sridharan17 Truman20 Gross21 Masoumy22 Thompson INDEPENDENT STUDY E64 140 CE Intended to give first-year students the opportunity to participate in significant engineering projects. The student works under the direction and supervision of individual faculty members. First-year students only. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 6 units. ENGINEERING GRAPHICS E64 145A CE Techniques in graphic communication and problem solving and design utilizing freehand sketches and computer graphics. Principles of orthographic projection, pictorial drawing, sectional views, dimensioning and tolerancing. Computer drawing and modeling: layout techniques, editing commands, drawing management, and plotting. Design project: individual or small group assignments, the design process, preliminary sketches, analysis, project modeling, detail and assembly drawings. Credit 3 units. Design credit 1 unit. Same as T50 ATCE 145, E67 ME 145A. 01 TuTh 2:00p-5:00p XXX Sever 203/Craig 02 TuW 5:30p-8:30p XXX Sever 203/Craig INTRODUCTION TO CIVIL ENGINEERING E64 146 CE An introduction to civil engineering is presented through lectures and hands-on experiments. Through lectures and discussions the students will be exposed to the different fields in civil engineering such as environmental, geotechnical, hydraulics, hydrology, structural, surveying, transportation, and water treatment. These lectures will also be used to inform the students of career paths and employment opportunities in civil engineering. In depth lectures coupled with simple experiments will be given in the areas of environmental, structural and transportation systems. Through hands-on experiments and calculations the students experience the types of problems that are explored and solved by civil engineers in the areas of environmental, structural and transportation engineering. Through both the experiments and lectures, the students develop an appreciation for aesthetics, environment, life safety, forces, structural systems, transportation design and policy and environmental processes and policy. Credit 2 units. 01 TuTh 1:00p-2:00p XXX TBA /Truman Wrenn Haefner SURVEYING E64 216 CE Horizontal and vertical control surveys, including traverses, triangulation, trilateration, and leveling; basic adjustments of observations; geodetic data; coordinate systems. Basic route surveying, including horizontal and vertical curves. Credit 3 units. 01 M 4:00p-7:00p XIV Urbauer 216/Kankolenski 02 Tu 5:30p-8:30p XX Urbauer 216/Kankolenski ENGR MECHANICS I E64 231 CE Statics of particles and rigid bodies. Equivalent systems of forces. Distributed forces; centroids. Applications to trusses, frames, machines, beams, and cables. Friction. Moments of inertia. Principle of virtual work and applications. Corequisite: Math 132 or 141. Open to first-year students with permission of instructor. Credit 3 units. 01 TuTh 7:00p-8:30p XX TBA /Groszewski MECHANICS OF DEFORMABLE BODIES E64 241A CE Stress and strain: equilibrium, compatibility, transformations. Hooke's law. Elastic energy. Stresses in beams, columns, and torsional members. Yield and fracture. Elastic deflection of beams. Statically indeterminiate systems. Concept of stability. Prerequisites: Math 217, ME 231. Credit 3 units. Credit 3 units. Design credit 0.5 units. SECT 01: Same as ME 241 01 TuTh 4:00p-5:30p XXIX TBA /Harmon INTRODUCTION TO ENVIRONMENTAL ENGINEERING E64 262 CE The objective of this course is to introduce students to the field of environmental engineering. The course will emphasize basic principles of mass and energy conservation which govern physical, chemical and biological processes. Applications include the estimation of contaminent concentrations and the design of environmental controls. Credit 3 units. 01 MW 1:00p-2:30p XIII TBA /Thompson 02 M 6:00p-9:00p XV TBA /Schmidt STRUCTURAL DESIGN E64 342 CE Concepts of "allowable stress" and "load and resistance factor design." Fundamentals of structural design in steel, reinforced concrete, and timber. Familiarization with the sources of various design codes and practice in interpreting them. Trip to steel fabrication plant. Prerequisites: CE 335A, 341. Credit 3 units. Design credit 2.5 units. 01 MW 5:30p-7:00p LXII TBA /Cowell 02 MF 8:30a-10:00a XI TBA /Harris Laboratories: A W 8:00a-10:00a XXXI Urbauer 216/Harris B W 7:00p-9:00p XXXI TBA /Cowell OPEN CHANNEL HYDRAULICS E64 376 CE The principles of open channel flow will be discussed and illustrated with practical examples. Methods for channel design, storm sewer, culvert and bridge analysis will be presented using the concepts of gradually-varied, steady flow. A computer program will be used in a design project. Pre-requisite: Fluid Mechanics or consent of instructor. Credit 3 units. Design credit 0.5 units. 01 Th 5:30p-8:30p XLIII TBA /Dyhouse INDEPENDENT STUDY E64 400 CE Prerequisite: permission of chair. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 6 units. UNDERGRADUATE HONORS RESEARCH E64 402 CE Intended to give junior/senior level students an opportunity to conduct a research project. The student will complete the research under the direction and supervision of a faculty advisor. A research report and open presentation are required upon completion of the work. Credit variable, maximum 4 units. ENVIRONMENTAL ENGINEERING LAB WATER/SOIL E64 408 CE Same as E63 ChE 408. DESIGN OF TIMBER STRUCTURES E64 410 CE Study of basic physical and mechanical properties of wood and design considerations. Design and behavior of wood beams, columns, beam-columns, connectors, and fasteners. Introduction to plywood and glued laminated members. Analysis and design of structural diaphragms and shear walls. Prerequisites: CE 341, 342. Credit 3 units. Design credit 3 units. 01 Tu 7:00p-10:00p XX TBA /Brakeman SOIL MECHANICS E64 419 CE Basic geology as it relates to index and classification properties of soil. Exploration, sampling, and testing techniques. Soil classification systems. Clay minerals and soil structures. Compaction and stabilization. Capillary, shrinkage, swelling, and frost action in soils. Effective stress, permeability, seepage, and flow nets. Consolidation and consolidation settlements. Stresses in soil. Time rate of consolidation. Mohr's circle, stress path, and failure theories. Shearing strength of sand and clays. Prerequisites: CE 241, 370. Credit 3 units. Design credit 1 unit. 01 M 7:00p-10:00p XV Urbauer 216/Schwenk 02 TuTh 8:30a-10:00a XVI TBA /Dirnberger SOIL EXPLORATION AND TESTING E64 420 CE Soil exploration; in-situ soil testing, laboratory testing of soil; processing of test data using a microcomputer; statistical analysis of test data; use of test results in the decision-making process. Corequisite: CE 419. Credit 1 unit. 01 Tu 6:00p-7:00p XXXII TBA /Groszewski Laboratories: SECT A: Students must sign up for a 2 hour lab section to be determined the first week of classes. A TBA Urbauer 006/Groszewski B TBA Urbauer 006/Groszewski C TBA Urbauer 006/Groszewski ADV STRUCTURAL ANALYSIS E64 437 CE Same as E64 CE 545. STRUCTURAL STABILITY E64 458 CE Classification of instability phenomena; imperfection sensitivity; illustration with mechanical models; systems with finite degrees of freedom. Postbuckling analysis using perturbation techniques. Stability and nonlinear behavior of struts, plates, and cylindrical shells. Nonconservative problems. Numerical methods. Credit 3 units. Design credit 0.5 units. Same as E64 CE 558A, E67 ME 458, E67 ME 558A. 01 MW 4:00p-5:30p XIV TBA /Sridharan INTRO TO ENVIRONMENTAL LAW AND POLICY E64 461 CE Survey of the most prominent federal laws governing environmental compliance and pollution control. Examines laws applicable to environmental impact statement, air pollution, water pollution, and hazardous waste. Addressess policy concerning the relative merits of using technological capabilities as compared with health risks in setting environmental standards. Discusses the need for environmental regulation to protect societal resources. Credit 3 units. Same as L82 EnSt 461, E80 EP 461, L84 Lw St 461. 01 MWF 9:00a-10:00a XI TBA /Lipeles STRUCTURL DESIGN PROJECT E64 467 CE Students carry out the complete design of typical and unusual building and bridge structures. Use of the computer as a design tool is emphasized. Projects are conducted in cooperation with practicing engineers. Prerequisites: CE 437A, and 463A or 466, or permission of instructor. Credit 3 units. Design credit 3 units. 01 Tu 11:00a-12:30p XXXI TBA /Gould ECONOMICS OF ENGINEERING DECISIONS E64 474 CE Principles of economics involved in engineering decisions. Decisions between alternatives based on the efficient allocation of resources. Topics include the time element in economics, analytical techniques for economy studies, and taxes. Prerequisite: junior standing. Credit 3 units. Design credit 0.8 units. 01 TuTh 10:00a-11:30a XXVII TBA /[TBA] 02 Th 5:30p-8:30p XLIII TBA /[TBA] SITE PLG & ENGR E64 476 CE A focus on the legal, engineering, and economic aspects of planning and design of facilities at a site-specific level. Concepts of legal and economic feasibility of site design are developed in conjunction with the study of civil engineering activities involved in dealing with urban design alternatives for residential, commercial, industrial, and recreational land uses. Case studies and review of current legislation affecting site planning and engineering are undertaken, culminating in a major design project. Credit 3 units. Design credit 3 units. 01 M 1:00p-4:00p XIII Urbauer 105/Haefner HYDROLOGY E64 477 CE The study of water movement in the environment: the hydrologic cycle, hydrologic models and methods of hydrologic analysis. Atmospheric processes, radiation, circulation, humidity and evaporation. Saturated and unsaturated flow in subsurface environments, well hydraulics, infiltration and baseflow. Surface water including runoff, hydrographs, and flood routing. Frequency analysis, hydrologic design storms and design flows, risk analysis. Credit 3 units. Design credit 0.5 units. 01 TuTh 1:00p-2:30p XVIII Urbauer 216/Thompson DESIGN OF WATER QUALITY CONTROL FACILITI E64 482A CE Application of environmental engineering principles to design of water and wastewater treatment facilities. Critical review of process design issues associated with physical, chemical, and biological treatment processes. Definition of problems and objectives, evaluation of alternatives, and use of these concepts in process design. Design-oriented class/group project. Prerequisite: CE 352 or EP 262, or permission of instructor. Credit 3 units. Design credit 3 units. Same as E90 ENVE 582. 01 Th 7:00p-10:00p XLVII TBA /Ebel PROBABILISTIC METHODS IN CIVIL ENG DESIG E64 484A CE The role of probability in civil engineering is described and basic probability concepts are presented. Probability distribution functions used in civil engineering are discussed in detail. Methods for estimating parameters and determining distribution models from observational data are introduced. Monte Carlo simulation methods are practiced. Detailed examples of the application of probabilistic methods to structural, transportation, hydrological, and environmental system design are presented throughout the course. Prerequisite: junior standing. Credit 3 units. Design credit 1.5 units. Same as E64 CE 544. 01 MW 9:30a-11:00a XVI Urbauer 216/Dyke 02 Tu 5:30p-8:30p XX TBA /Slattery FUNDAMENTALS OF ENGINEERING REVIEW E64 495 CE The topics found in most engineer-in-training exams will be reviewed and illustrated using examples. A discussion of the importance of licensing exams and the strategies for taking these exams will be discussed. The main topics for review include: engineering mathematics, basic chemistry, engineering mechanics, engineering economics, thermodynamics, electrical circuits, and material science. Credit 1 unit. 01 F 1:00p-2:00p XXXII Urbauer 216/Truman SENIOR ENGR SEMINAR E64 499 CE Students research assigned topics of importance to graduates entering the civil engineering profession and prepare oral presentations and written reports. Student presentations are augmented by lectures from practicing professionals. Topics include professional registration, early career development, graduate study, effective presentations, construction quality, and case histories of civil engineering projects. Prerequisite: senior standing. Credit 1 unit. 01 W 12:30p-1:30p XXXI Urbauer 216/Slattery INDEPENDENT WORK E64 500 CE Prerequisite: Approval of Chairman. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 9 units. ENVIRONMENTAL ENGINEERING LAB WATER/SOIL E64 508 CE Same as E63 ChE 408. DYNAMICS OF POLLUTANTS E64 510 CE Same as E63 ChE 510. PROFESSIONAL ENGINEERING SERVICES E64 525 CE An introduction to the use and integration of professional services for Project Design and Delivery Systems in construction projects will be presented. The relationship between owner and the professional service personnel, architects, engineers, contractors and construction managers will be explored in detail. The role, techniques, procedures, management principles, and professional responsibilities assumed by the practicing professionals will be presented and discussed. Real projects will be presented to illustrate the various project delivery systems used in design and construction. These points will be illustrated through a semester long team project. Prerequisite: Senior or Graduate Standing. Credit 3 units. Design credit 1.5 units. 01 MW 4:00p-5:30p XIV TBA /Gillum ADVANCED TOPICS IN GEOTECHNICAL ENGINEER E64 530 CE Applied geotechnical engineering with emphasis on earthquake analysis and design. Hazard and risk assessment. Design of earth structures, slope stability analysis. Soil-structure interaction, retaining structures, pile foundations. Liquefaction of sand. Introduction to probability theory in geotechnical engineering. Machine foundation design. Prerequisite: CE 464 or equivalent. Credit 3 units. Design credit 0.7 units. 01 M 5:30p-8:30p XV TBA /Hempen INTERDISCIPLINARY ENVIRONMENTAL CLINIC E64 539 CE This course constitutes the technical component of an interdisciplinary environmental clinic based at the Law School. Engineering and environmental studies students will participate in interdisciplinary teams with law students, handling environmental projects for public interest, environmental or community organizations or individuals. Projects may involve the following activities: representing clients in state and local administrative proceedings; supporting litigation filed by non-clinic counsel; drafting proposed legislation; commenting on proposed regulations, permits, environmental impact statements or environmental assessments, and similar documents; and evaluating matters for potential future action. The goal is that for each project, students will have primary responsibility for handling the matter, and faculty will play a secondary, supervisory role. Engineering and environmental studies students may provide such technical support as investigating unknown facts, evaluating facts presented by other parties (such as in government reports), and working with law students to develop and present facts relevant to an understanding of and resolution of the matter. Engineering and environmental studies students must work at least an average of 12 hours per week on clinic matters, including attendance at and participatioin each week in: at least one individual meeting with the professor; one group meeting involving the student team assigned to each project and the professor(s); and a two-hour seminar for all students in the clinic. (Engineering and environmental studies students will be excused from, but are still welcome at, specified seminar sessions focusing primarily on legal issues.) Prerequisites: CE262 or CE 253 (formerly EP 262) or ChE 443 or EnSt/EPSc 323 and permission of instructor. Credit 3 units. Same as L82 EnSt 539, E90 ENVE 539. 01 TBA TBA /Lipeles PROBABILISTIC METH. IN CIVIL ENG. DESIGN E64 544 CE Same as E64 CE 484A. ADV STRUCTURAL ANALYSIS E64 545 CE The analysis of framed structures, planar and 3-D, using beam-column elements and shear walls and floors. Flexibility and stiffness analyses are performed by generating the matrices and carrying through the analyses step by step with a matrix manipulator program. A commercially available program is used to check at least one problem. Prerequisite: CE 341. or equivalent. Credit 3 units. Design credit 1 unit. Same as E64 CE 437. 01 TuTh 11:30a-1:00p XVII Urbauer 216/Harmon FINITE ELEMENT ANALYSIS E64 546 CE Same as E67 ME 546. ADVANCED TOPICS IN STEEL DESIGN E64 554 CE Advanced topics of current research and design interest. Seminar-type lectures by students. Plastic design and analysis of space frames. Plate and box girders. Torsion problems in bridge design. Prerequisite: consent of instructor. Credit 3 units. Design credit 2 units. 01 MWF 9:00a-10:00a XXI TBA /Truman EARTHQUAKE RESISTNT DESIGN OF STRUCTURES E64 555 CE Seismic risk analysis. Review of structural response, lateral resistant systems, response spectrum method, equivalent static effects. Code provisions, structural design and detailing for earthquake effects, considerations for foundations. Assessment of structural damage and seismic retrofitting. Prerequisite: CE 550 or equivalent. Credit 3 units. 01 MW 4:00p-5:30p XXIV TBA /Gould STRUCTURAL STABILITY E64 558A CE Same as E64 CE 458. TRAFFIC ENGR THEORY E64 561 CE Study of fundamental operational solutions to traffic problems, followed by a theoretical study of traffic stream flow and its parameters fundamentals of highway signing and marking; signal system types and their design and operation. Studies of intersection gap acceptance, flow-density relationships, shock wave phenomena, car-following models, hydrodynamic analogies, acceleration noise. Implications of insights of flow theory for design. Prerequisite: senior or graduate standing, CE 560, permission of instructor. Credit 3 units. 01 M 4:00p-7:00p LX TBA /Haefner TRANSPORTATION PLANNING E64 562 CE Fundamentals of multimodal transportation planning. Urban study components, including study design and organization, origin-destination analysis, traditional traffic model processes of trip generation, distribution and assignment. Urban transportation entity analysis (shopping centers, terminals, etc.). State and regional study components, including state and national needs and capital improvement programs, regional funding capabilities, and related national transportation policy and legislative acts. Prerequisite: senior or graduate standing. Credit 3 units. 01 Tu 7:00p-10:00p XX TBA /Nguyen AIRPORT PLANNING&DESIGN E64 565 CE Fundamentals of airport planning location, construction, and legislative and fiscal implementation. Location principles with respect to the region and the site. Analysis of air travel demand models. Air control systems and navigation principles affecting airport design. Design of the site for runway, taxiway, and terminal location. Pavement and construction principles with respect to design. Current federal policy and fiscal programming for airport planning. Principles of integration with ground transport systems. Prerequisite: senior or graduate standing. Credit 3 units. Design credit 3 units. 01 W 7:00p-10:00p XXV Lopata 101/Nguyen ADVANCED STRUCTURAL DESIGN PROJECT E64 569 CE A substantial structural design project is to be proposed by the student and approved by the advisor. The project may be related to the student's professional experience. A preliminary and a final report are required, including calculations, drawings and cost estimates, if appropriate. The final report will also include an oral presentation before a department- approved panel. This course is open only to candidates for the degree of Master of Structural Design. Students who do not complete this course during the semester for which they are registered must re-register for each subsequent semester of instruction. Prerequisite: Admission to Master of Structural Design Program, CE 545, CE 547 or CE 549. Credit 3 units. Design credit 3 units. 01 Tu 6:00p-9:00p XXXI TBA /Masoumy CONSTR ESTMTNG SCHDLNG & SUBCONTRACTING E64 574 CE Fundamentals of estimating and scheduling, review of the details of labor, equipment, overhead and profit, bar charts and network schedules. Two representative projects, a building and a bridge, are treated as case studies. Prerequisites: CE 473-573, EP 580, enrollment in Master of Construction Management or Construction Engineering Option-Master of Structural Engineering Program. Credit 3 units. 01 Th 5:30p-8:30p V Urbauer 216/Bernard Stewart CONSTRUCTION INTERNSHIP E64 575 CE The student will be placed in an actual construction environment for a period of about 2 1/2 months. This program is a cooperative activity between the St. Louis Section of the Associated General Contractors of America and Washington University. The student will have an opportunity to utilize the knowledge and experience gained from previous class work and to be closely associated with the modern construction industry. All work done by the student will be monitored by the specific company involved and Washington University. The student will be required to submit a detailed report on a specific subject that will be determined by the faculty and the student. Prerequisites: CE 574, enrollment in Master of Construction Management or Construction Engineering Option - Master of Structural Engineering Program and permission of instructor. Credit 6 units. Design credit 2 units. 01 TBA XXXI TBA /White CONSTRUCTION MANAGEMENT SEMINAR E64 576 CE CE 576 is a seminar course that will provide graduating construction management students with the experiences and views of practicing construction people. It is intended that various executives or construction and other industries will discuss the details and thinking of problem analysis and solutions that prevail in the 1990's. Credit 0 units. 01 W 4:00p-5:30p XXXI Urbauer 216/[TBA] COMPUTER APPLICATIONS IN CONSTRUCTION E64 580 CE A comprehensive study of computer applications in construction management. Topics include: configuration of hardware/software requirements for the management of a typical project; application programs used in project data base management and project schedule/cost control systems; data management techniques and development of custom reports for use in project management and control. Prerequisite: CE 573 or permission of instructor. Credit 3 units. 01 W 5:30p-8:30p XXV TBA /Maes Pelhank INLAND WATER TRANSPORTATION & PORT PLAN E64 581 CE The study, evaluation, and analysis of site design parameters, system configurations, and policy and management issues of port and marine transportation with special emphasis on the Great Lakes and inland, coastal, and inter-coastal waterways. Prerequisite: senior or graduate standing. Credit 3 units. Design credit 1 unit. 01 TBA XXX TBA /Haefner COMPOSITE STRUCTURES E64 585 CE Introduction to composite materials; anisotropic elasticity and laminate theory; beams and columns of composite materials; plates and panels - transverse shear deformation effects - analysis of plates with bending - twisting and stretching shearing coupling-honeycomb core sandwich panels; composite shells; energy methods for statics, stability and dynamics-hygrothermal effects; strength and failure theories-effects of defects in composite materials. Credit 3 units. Same as E67 ME 585A. 01 TuTh 4:00p-5:30p XIX Urbauer 216/Sridharan TREATMENT OF WATER SUPPLIES E64 588 CE Theory and design of water treatment processes and systems. Emphasis on potable and industrial water supply. Coagulation, Flocculation, Sedimentation, Filtration, Disinfection, Softening, Ion Exchange, Adsorption, Membrane Separation, and Oxidation Review of EPA Regulations. Credit 3 units. Same as E90 ENVE 588. 01 W 6:00p-9:00p XXV TBA /Buescher SPECIAL TOPICS IN CIVIL ENGINEERING E64 590 CE Credit 3 units. 01 TBA TBA /[TBA] 02 TBA TBA /Dyke RESEARCH METHODS IN CIVIL ENGINEERING E64 591 CE The student is expected to conduct an independent investigation of an advanced topic and to present a comprehensive written report. The report should include a clear development of the state-of-the-art and an indication of future directions. Prerequisite: Admission to D.Sc. program. Credit 3 units. MASTERS RESEARCH E64 599 CE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 9 units. DOCTORAL RESEARCH E64 600 CE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 12 units. PLATES AND SHELLS E64 657 CE Unified presentation of classical theories of plates and shells. Curvilinear coordinates, vector formulation, basic engineering applications. Emphasis on understanding of geometrical and load-carrying characteristics of plate and shell structures and interpretation of numerical solutions. Prerequisites: CE-ME 416A, or 515, or equivalent. Credit 3 units. 01 TuTh 8:30a-10:00a TBA /Gould TRAVEL DEMAND MODELS E64 663 CE An intensive study of current theoretical and emerging operational state-of-the-art advances in travel techniques. Studies of disaggregate trip generation, distribution mode choice and assignment models, using regression, factor analysis, scaling logit and probit analysis. In-depth use of the Urban Mass Transportation Administration New Systems Software Packages for modeling travel demand, and transportation network sketch planning. Prerequisites: CE 562, CS 353-354. Credit 0 units. 01 TBA Urbauer 105/Haefner URBAN AND REGIONAL SYSTEMS ANALYSIS E64 667 CE An analytical and theoretical analysis of the interface and evaluation of major civil public works projects. In-depth study of analytic modeling of land-use planning. Intensive study of urban systems and transportation planning evaluation theory and tools with respect to multidimensional analysis, environmental impact and citizen participation. Analytic and strategic assessment of public works planning and engineering implementation processes. Prerequisites: CS 353-354, CE 475. Credit 3 units. 01 TBA XXXII TBA /Haefner NATIONAL TRANSPORTATION POLICY E64 668 CE Synthesis and assessment of existing federal transportation programs, legislative structure, and multi-modal relationships as a base for projected federal activity and modal relationships. Prerequisites: CE 560, 561, 562, 565, 664. Credit 3 units. 01 TBA XXXII TBA /Haefner MASTERS CANDIDATE E64 887 CE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units. DOCTORAL CANDIDATE E64 888 CE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 6 units.Computer Engineering (E91)** Departmental Section/Faculty list for research project and other related courses:02 Benson03 Blaine04 Hubbard05 Cox06 Dammkoehler07 Engebretson08 Franklin09 Gillett10 Kwasny11 Sandholm12 Kalman13 Kimura14 Chamberlain15 Oldroyd18 Roman19 Rouse21 Wong22 Turner24 Mack28 Rodin30 Parulkar32 Dubetz34 Loui35 Frisse36 Fuhrmann38 TBA39 S. Goldman40 K. Goldman41 Min44 States45 Cytron46 Varghese47 Schmidt48 Suri50 Kraemer51 Rosenberger53 Ponder54 Bennett DIGITAL COMPUTERS I: ORGANIZATION AND LOGICAL DESIGN E91 260M COE Same as E61 CS 260M. PROCESSING SYSTEMS AND STRUCTURES E91 306S COE Same as E61 CS 306S. OPERATING SYSTEMS ORGANIZATION E91 422S COE Same as E61 CS 422S. DIGITAL SYSTEMS LABORATORY E91 455 COE Same as E65 EE 455. DIGITAL COMPUTERS: SWITCHING THEORY E91 460 COE Same as E65 EE 460. DIGITAL COMPUTERS III: COMPUTATION STRUCTURES E91 462M COE Same as E65 EE 462M. DIGITAL SYSTEMS ENGINEERING E91 464 COE Same as E65 EE 464.Computer Science (E61)** Departmental Section/Faculty list for research project and other related courses:01 Amini02 Benson03 Blaine04 Brent05 Cox06 Fritts07 Engebretson08 Franklin09 Gillett10 Kwasny11 Sandholm12 Kalman13 Kimura14 Chamberlain15 Oldroyd17 Xu18 Roman19 Rouse20 Waldvogel21 Wong22 Turner24 Mack26 Zuker28 Rodin30 Parulkar34 Loui35 Frisse36 Fuhrmann39 S. Goldman40 K. Goldman41 Min43 TBA44 States45 Cytron46 TBA47 Schmidt48 Suri51 Rosenberger53 Ponder54 Bennett INTRODUCTION TO COMPUTING TOOLS E61 100 CS Introduces the use of computer and network tools in support of individual and collaborative undergraduate studies. Topics covered in lectures and labs: structure of computing systems, electronic mail, World-Wide Web, text editing, spreadsheets, symbolic mathematics, and document processing. Credit 1 unit. 01 W 8:00p-10:00p XXXI Sever 201/Loui 02 W 8:00p-10:00p XXXI Sever 201/Loui 03 Th 4:00p-6:00p XXXI Sever 201/Loui 04 Th 4:00p-6:00p XXXI Sever 201/Loui 05 F 2:00p-4:00p XXXI Sever 201/Loui 06 F 2:00p-4:00p XXXI Sever 201/Loui COMPUTER SCIENCE I E61 101G CS An introduction to software concepts and implementation, emphasizing problem solving through abstraction and decomposition. Introduces processes and algorithms, procedural abstraction, data abstraction, encapsulation, and inheritance. Recursion, iteration, and simple data structures are covered. The impact of data representation on performance is discussed but not emphasized. Concepts and skills are mastered through programming exercises, many of which employ graphics to enhance conceptual understanding. Java, an object-oriented programming language, is used as the vehicle of exploration. There will be an OPTIONAL help session on Wednesdays 10:00-11:00. Prerequisites: Comfortable with Algebra and Geometry at the high school level. No prior programming experience is required. A MIDTERM EXAMINATION WILL BE GIVEN ON THURSDAY, MARCH 2, FROM 6:30-9:30 PM. Credit 4 units. Same as L44 Ling 101G. 01 MTuThF 10:00a-11:00a XII Louderman 458/Cytron Laboratories: A Tu 1:00p-2:30p Sever 201/Cytron B Tu 4:00p-5:30p Sever 201/Cytron C Tu 5:30p-7:00p Sever 201/Cytron D W 1:00p-2:30p Sever 201/Cytron E W 4:00p-5:30p Sever 201/Cytron F W 5:30p-7:00p Sever 201/Cytron COMPUTER SCIENCE II E61 102G CS A study of software systems as collections of communicating components. Emphasizes object-oriented concepts (inheritance, polymorphism, method overloading, and multiple inheritance of interfaces) and techniques for building systems of multiple interacting objects. Representation invariants, loop invariants, and exception handling are used as techniques for writing correct and robust programs. An introduction to file I/O, parsing, virtual machine and memory models, graphics, user interfaces, threads, concurrency, and synchronization is provided. Relevant algorithms and data structures are presented. Interprocess communication is covered as time permits. Concepts and skills are mastered through programming exercises in a variety of application domains. Java, an object-oriented programming language, is used as the vehicle of exploration. Prerequisite: CS 101G. Credit 4 units. 01 TuTh 10:00a-11:30a XVII Wilson 112/K. Goldman Laboratories: A M 10:00a-11:30a Sever 201/Goldman B M 1:00p-2:30p Sever 201/Goldman C M 2:30p-4:00p Sever 201/Goldman D M 4:00p-5:30p Sever 201/Goldman E M 5:30p-7:00p Sever 201/Goldman F M 7:00p-8:30p Sever 201/Goldman INTRODUCTION TO COMPUTING II E61 136G CS A workshop course (lectures and supervised laboratory sessions) covering the fundamental organization and operating principles of digital computers and the systematic design and development of well-structured programs. After intensive exposure to algorithmic principles and programming techniques and practices using the Java language, students learn about a computer's internal structure through the use of a simple von Neumann machine simulator. In addition, students acquire experience with Mathematica, a powerful computational software system. Credit 4 units. 01 M 7:00p-9:30p LXV TBA /Rouse Laboratories: A M 4:00p-5:00p Lopata 400/Rouse B M 5:00p-6:00p Lopata 400/Rouse INTRODUCTION TO COMPUTER MEDIATED HUMAN COMMUNICATION E61 151 CS This course is specially designed for non-CS majors from freshmen to seniors. The goals of the course are: to study how humans communicate using computer technologies such as the internet, databases, and digital TV in the future; to learn how to use computers for daily communication needs; to understand the future implications of computer technology on human communication. Through mandatory lab works students learn how to use the internet and PC software such as Microsoft Office and Explorer, Netscape Communicator, and Photoshop. A good preparation for undergraduate studies in art and sciences, business, architecture and fine arts. No prerequisites. No math or computer programming is required. Credit 3 units. 01 W 10:00a-11:00a XXII TBA /Kimura Laboratories: A MF 9:00a-10:00a Sever 202/Kimura B MF 10:00a-11:00a Sever 202/Kimura C MF 11:00a-12:00p Sever 201/Kimura D MF 12:00p-1:00p Sever 201/Kimura FORMAL FOUNDATIONS OF COMPUTER SCIENCE E61 201 CS Introduces elements of logic, mathematics, and philosophy that allow reasoning about computational structures and processes. Generally, the areas of discrete structures, proof techniques, and computational models are covered. Topics typically include propositional and predicate logic; sets, relations, functions, and graphs; proof by contradiction, induction, and reduction; and finite state machines and regular languages. Prerequisite: CS 101G or significant programming background. Credit 3 units. 01 TuTh 2:30p-4:00p XVIII Brown 118/Xu ALGORITHMS AND DATA STRUCTURES E61 241 CS Study of fundamental algorithms and data structures. Emphasizes importance of data structure choice and implementation for obtaining the most efficient algorithm for solving a given problem. Covers asymptotic notation and techniques for solving basic recurrence relations. Attention will be given to analysis of asymptotic performance. Algorithms presented: sorting, hashing, searching, basic graph algorithms, garbage collection, and string matching. Data structures covered: basic search trees, balanced search trees, heap data structure, B-trees, graph representations. Prerequisites: CS 101G, and CS 201 or some basic discrete math background is strongly recommended. Credit 3 units. 01 MW 2:30p-4:00p XIII McDonnell 162/Suri DIGITAL COMPUTERS I: ORGANIZATIONAL AND LOGIC DESIGN E61 260M CS Digital computers and digital information-processing systems; Boolean algebra, principles and methodology of logic design; machine language programming; register transfer logic; microprocessor hardware, software, and interfacing; fundamentals of digital circuits and systems; computer organization and control; memory systems, arithmetic unit design. Occasional laboratory exercises. Prerequisites: CS 101G or 136G, and sophomore standing. Credit 3 units. Same as E91 COE 260M, E65 EE 260M. 01 TuTh 1:00p-2:30p III McMillan 149/Turner 02 TuTh 5:30p-7:00p XLII TBA /Beck INTRODUCTION TO COMPUTING AND COMPUTER APPLICATIONS E61 265 CS Basic architectural components of computers and networks and their functions; development of computer-oriented problem solving and numerical methods; program development and programming. Using the FORTRAN/C++ language and software libraries, students design and implement a variety of programs covering a broad spectrum of nontrivial computer applications. Use of high-level tools for calculus/algebraic analysis. Corequisite: Math 217. Credit 3 units. 01 M 4:00p-6:30p LXI TBA /Rouse 02 MWF 11:00a-12:00p VII Duncker 101/Al-Eisa PROCESSING SYSTEMS AND STRUCTURES E61 306S CS Analysis of function and organization of major subsystems of information-processing complex. Fundamental algorithms for numerical computation, extended precision arithmetic, address translation, storage allocation, access methods, and the sequencing and control of peripheral devices. Introduction to the real-time operating systems, with emphasis on real-time signal-processing applications and resource management. Weekly laboratories, exercises, and a final laboratory project. Prerequisites: CS 101G or 136G, and sophomore standing. Credit 3 units. Same as E91 COE 306S. 01 TuTh 11:30a-1:00p XXVII TBA /Fritts Laboratories: A TBA Lopata 406/Fritts B TBA Lopata 406/Fritts C TBA Lopata 406/Fritts D TBA Lopata 406/Fritts E TBA Lopata 406/Fritts F TBA Lopata 406/Fritts OBJECT-ORIENTED SOFTWARE DEVELOPMENT LABORATORY E61 342S CS Intensive focus on practical aspects of designing, implementing and debugging object-oriented software. Topics covered include reusing design patterns and software architectures and development, documenting, and testing representative applications using object-oriented frameworks and C++. Design and implementation based on design patterns and frameworks are central themes to enable the construction of reusable, extensible, efficient, and maintainable software. Prerequisites: CS 102G and 241. Credit 3 units. 01 TuTh 10:00a-11:30a II Eliot 102/Gill Levine Laboratories: A Tu 12:30p-2:30p Lopata 400/Levine B Tu 2:30p-4:30p Lopata 400/Levine C Th 12:30p-2:30p Lopata 400/Gill D Th 2:30p-4:30p Lopata 400/Gill INDEPENDENT STUDY E61 400 CS Possible topics may be found in the Undergraduate Research Opportunities Program listing, available in the department office and also at http://www.cs.wustl.edu/cs/urop/urop.html on the world wide web. Prerequisite: junior standing. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 3 units. COMMUNICATIONS THEORY AND SYSTEMS E61 421 CS Same as E65 EE 421. OPERATING SYSTEMS ORGANIZATION E61 422S CS Exploration of operating systems as resource managers. Using UNIX as a conceptual framework, students study algorithms and data structures that support essential operating systems services. Concepts are reinforced through programming exercises and comparative studies. Topics include: process scheduling, file systems organization, memory management, virtual memory, device management, concurrent processes, and security. Prerequisite: CS 342S. Credit 3 units. Same as E91 COE 422S. 01 MW 5:30p-7:00p LXII TBA /Kuhns ADVANCED ALGORITHMS E61 441T CS Provides a broad coverage of fundamental algorithms. The core set of topics studied includes median-finding algorithms, dynamic programming, greedy algorithms, computational geometry, linear programming and basic duality theory, NP-completeness and reducibility, approximation algorithms, parallel computation, randomized algorithms, and an introduction to cryptography. Prerequisite: CS 241. Credit 3 units. Same as E61 CS 539T. 01 TuTh 1:00p-2:30p XVIII Crow 206/S. Goldman COMPUTER GRAPHICS E61 453A CS Introduction to computer graphics. Input, representation, manipulation, and display of geometric information. Two-dimensional display of three-dimensional objects: perspective, hidden surface, shading, animation. Display and input devices. Issues in designing interactive graphics systems. Issues in building standard graphics packages. Students solve problems using interactive graphics with a standard graphics package and using various graphics input and output devices. Prerequisite: CS 342S. Credit 3 units. 01 TuTh 10:00a-11:30a II TBA /Bennett PROGRAMMING SYSTEMS AND LANGUAGES E61 455S CS A comparative study of programming languages: von Neumann-type, functional, and logical. Conceptual foundation, syntax, semantics (e.g., denotational, axiomatic, and operational), and implementation. Run-time features such as data types, operations, flow of control constructs, exception handling, visibility rules, subprograms, concurrency, etc. Ada, LISP, and Prolog are used for illustration purposes and in assigned problems. Prerequisites: CS 102G, 201, 241. Credit 3 units. 01 MW 1:00p-2:30p XXIII Sever 102/Kwasny SOFTWARE ENGINEERING WORKSHOP E61 456S CS State-of-the-art, industry-tested, object-oriented techniques are presented, illustrated by example, and applied to realistic problems. The objective of the course is to develop an understanding of the technical and organizational complexities involved in system design and to teach key concepts and techniques used to manage these complexities. Students are required to design a complex computer-based system through team effort. The project makes use of a fictional customer problem and covers the principal system life-cycle phases: requirements generation, system design, software design. The target system is complex, involving distributed processing, user interfaces, and real-time constraints. Issues such as human factors, performance, operation costs, and maintainability are addressed and resolved in a reasonable manner. Emphasis is placed on emulating the realities of an industrial organization. Prerequisite: CS 455S, 422 or 431S. Credit 3 units. 01 M 10:00a-1:00p XXXI TBA /Bennett Laboratories: A F 10:00a-11:00a Lopata 102A/Bennett B F 11:00a-12:00p Lopata 102A/Bennett C F 12:00p-1:00p Lopata 102A/Bennett D F 1:00p-2:00p Lopata 102A/Bennett DIGITAL COMPUTERS III: COMPUTATION STRUCTURES E61 462M CS Same as E65 EE 462M. MANAGEMENT INFORMATION SYSTEMS II E61 468A CS The design and implementation of computer-based information systems with emphasis on database and transaction aspects of large-scale information systems. The basics of database management, including data storage structures and large-file manipulations. Architecture of relevant database management systems. Database administration; data administration. Familiarization with COBOL is used to introduce information systems implementation strategies and transaction processing. Fourth-generation transaction processing systems are used to illustrate current directions in large corporate computer organizations. Data analysis; data models, database design, transaction systems design; design and implementation strategies. Prerequisite: CS 241. Credit 3 units. 01 M 4:00p-7:00p XIV TBA /Benson Bugnitz SENIOR PROJECT II E61 494 CS Implementation of a substantive project on an individual basis, involving one or more major areas in computer science. Problems pursued under this framework may be predominantly analytical, involving exploration and extension of theoretical structures, or may pivot around the design/development of solutions for particular applications drawn from areas throughout the University and/or community. In either case, the project serves as a focal point for crystallizing the concepts, techniques, and methodologies encountered throughout the curriculum. Students intending to take CS 493-494 must submit a project proposal for approval by the department during the spring semester of the junior year. Prerequisite: senior standing. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units. UNDERGRADUATE HONORS THESIS E61 499 CS Working closely with a faculty member, the student investigates an original idea (algorithm, model technique, etc.) including a study of its possible implications, its potential application, and its relationship to previous related work reported in the literature. Contributions and results from this investigation are synthesized and compiled into a publication-quality research paper presenting the new idea. Prerequisites: a strong academic record and permission of instructor. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units. INDEPENDENT STUDY E61 500 CS All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units. PROGRAMMING CONCEPTS AND PRACTICE E61 504N CS This introductory course assumes no prior programming background and is intended for graduate students who desire significant programming and program design experience within a modern programming paradigm. Exploration of the enterprise of software design, creation, maintenance, and reuse. Abstraction as a vehicle for reducing the complexity of problems. Concepts of object-oriented programming. Internet-related programming including threads. Design and implementation of nontrivial algorithms in selected application areas. Prerequisites none. Credit 3 units. No credit toward CS graduate degree. Credit 3 units. 01 MW 5:30p-7:00p LXII TBA /Kwasny Laboratories: A M 7:30p-9:30p TBA /Kwasny INTRODUCTION TO FORMAL LANGUAGES AND AUTOMATA E61 507T CS An introduction to the mathematical theory of languages and grammars. Topics include deterministic and nondeterministic finite and push-down automata; Turing machines; regular, context-free, context-sensitive and recursive languages; closure properties of languages; the concepts of computability and undecidability. Prerequisite: CS 201, senior standing. Credit 3 units. 01 TuTh 5:30p-7:00p XX TBA /Loui ARTIFICIAL INTELLIGENCE I E61 511A CS The discipline of artificial intelligence (AI) is concerned with building systems that think and act like humans or rationally on some absolute scale. This course is an introduction to the field, with special emphasis on sound modern methods. The topics include problem solving via search, game playing, logical reasoning, planning, and machine learning (decision trees, neural nets, reinforcement learning, and genetic algorithms). Programming exercises will concretize the key methods. The course targets graduate students and advanced undergraduates. Evaluation is based on written and programming assignments, a midterm exam, and a final exam.Prerequisite: CS 102G, CS 201, and CS 241, or permission of the instructor. Credit 3 units. 01 TuTh 10:00a-11:30a XVII TBA /Sandholm FUNDAMENTALS OF COMPUTER SCIENCE E61 514N CS This course, intended for new graduate students without a computer science background, covers the core components seen in a computer science undergraduate curriculum on which our graduate level courses rely. Topics include fundamental algorithms, data structures, proof techniques, computational models, machine organization, and software design and implementation. Prerequisites: graduate standing; CS 504N or prior programming experience; some mathematical sophistication highly desirable. No credit towards CS graduate degree. Credit 3 units. 01 TuTh 5:30p-7:00p LXXII TBA /Kalman Laboratories: A Th 7:30p-9:30p Lopata 400/Kalman THEORY OF COMPILING AND LANGUAGE TRANSLATION E61 531S CS Algorithms and intermediate representations for automatic program analysisare examined, with an emphasis on practical methods and efficient engineering of program optimization and transformations. The course includes a thorough treatment of monotone data flow frameworks: a mathematical model in which most optimization problems can be specified and solved. The course primarily covers optimizations that are applicable to any target architecture; however, optimizations specific to parallel, distributed, and storage-hierarchical systems are also discussed. Prerequisite: CS 431S or 455S. Credit 3 units. 01 TuTh 4:00p-5:30p IV TBA /Cytron PROTOCOLS FOR COMPUTER NETWORKS E61 533S CS The course is concerned with the design, specification, performance analysis, and implementation of protocols used in existing and emerging computer networks. Local and wide area networks access protocols, such as Carrier Sense Multiple Access/Collision Detect (CSMA/CD), token access, X.25, and Q.93B. Internetworking with Internet Protocol (IP). Frame-relay and Switched Multimegabit Data Service (SMDS) as proposed internetworking solutions. Transport protocols such as User Datagram Protocol (UDP), Transmission Control Protocol (TCP), and TP4. Proposed high speed transport protocols such as eXpress Transport Protocol (XTP), Netblt, and Versatile Message Transport Protocol (VMTP). Host-network interfacing. Hardware and software protocol implementation models. Prerequisites: CS/EE 260M. Credit 3 units. 01 MW 4:00p-5:30p XIV TBA /Wong ADVANCED ALGORITHMS E61 539T CS Same as E61 CS 441T. MODULAR PROGRAMMING E61 545S CS Modular programming and object-oriented programming in Java. Java is compared with other modular programming languages such as C++, Modula-2,Smalltalk and Ada. Through the final project, students learn how to apply theprinciples of modular programming in constructing medium sized software.Prerequisites: CS455S and CS 456S. Credit 3 units. 01 TuTh 5:30p-7:00p XLII TBA /Kimura NEURAL NETWORKS - FOUNDATIONS E61 549A CS Introduction to neural computation. Fundamental concepts behind various models of neural networks. Back-Propagation, Hopfield Nets, and Boltzmann machines models will be covered in detail. We will study neural networks as intelligent digital systems with fine-grained parallelism. Potentials and limitations of neural networks will be reviewed. Prerequisites: mathematical maturity; CS 241, CS 514N, or permission of instructor. Credit 3 units. 01 TuTh 2:30p-4:00p XIX TBA /Kalman DIGITAL IMAGE PROCESSING E61 554A CS An introduction to the use of computers in the processing of digital images. Topics to be discussed include: acquisition of digital images, hardware and software for the display of digital images, the role of visual psychophysics in image processing, transform analysis and filtering, image restoration and reconstruction, and pattern recognition. Frequent laboratory exercises will be used to implement processing algorithms and build intuition in evaluating image quality. Prerequisites: CS 241 and SSM 317. Credit 3 units. 01 M 7:00p-9:30p LXV TBA /Oldroyd COMPUTER SYSTEMS ANALYSIS E61 557M CS Same as E65 EE 557A. DIGITAL REPRESENTATION OF SIGNALS E61 592A CS Same as E65 EE 592. SIGNALLING AND CONTROL IN COMMUNICATION NETWORKS E61 593A CS Same as E65 EE 593A. NETWORKING AND COMMUNICATIONS DESIGN PROJECT I E61 595 CS This course is for students who are enrolled in the networking and communications masters program. Prerequisite: Permission of the Program Director. Credit 3 units. Same as E65 EE 595. 01 TBA XXXI TBA /Turner NETWORKING AND COMMUNICATIONS DESIGN PROJECT II E61 596 CS This course is for students who are enrolled in the networking and communications masters program. Prerequisite: Permission of the Program Director. Credit 3 units. Same as E65 EE 596. 01 TBA XXXI TBA /Turner MASTER'S PROJECT E61 598 CS Prerequisite: permission of advisor. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 6 units. MASTERS RESEARCH E61 599 CS Prerequisite: permission of advisor. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 6 units. RESEARCH SEMINAR ON ALGORITHMS AND COMPUTATIONAL COMPLEXITY E61 6705 CS This seminar is intended for students interested in research in algorithm design and analysis. In each semester a different are of focus is selected. Recent papers from FOCS, STOC, SODA and other theory conferences and journals are presented. Credit 1 unit. 01 TBA XXXI TBA /[TBA] RESEARCH SEMINAR ON VISUAL PROGRAMMING E61 6722 CS This seminar investigates the possibilities and limitations of visual icon-driven programming languages. Specific topics include end-user programming, user-definable user interface, object dataflow, and visual database query languages for the internet. Credit 1 unit. 01 TBA XXXI TBA /[TBA] RESEARCH SEMINAR ON DISTRIBUTED SYSTEM DESIGN E61 6731 CS Throughout the past decade computing has exhibited an increasing relianceon concurrency, parallel architectures, and distributed networks. This trend has been accompanied by significant progress toward identifying fundamental issues in these areas, reasoning about concurrent computations, and the development of novel algorithms. This kind of research is likely to become increasingly important as distributed computing becomes an intrinsic facet of the social and economic fabric of the nation. This seminar seeks to examine both fundamental and emerging concepts in concurrency and distribution through the study of seminal papers and recent research results. Broad topics of interest include models of concurrent computation, mobile computing, programming languages, algorithms, parallel architectures, programming environments, and visualization. Each semester the seminar emphasizes different themes which reflect the current research interests of the participants or newly emerging concerns in the field of distributed computing. Credit 1 unit. 01 TBA XXXI TBA /[TBA] RESEARCH SEMINAR ON ARTIFICIAL INTELLIGENCE E61 6743 CS This seminar is intended for students interested in conducting research in the field of artificial intelligence. Each semester is devoted to an in-depth study of one topic, primarily by detailed reading of current research papers. Credit 1 unit. 01 TBA XXXI TBA /Sandholm RESEARCH SEMINAR ON PROGRAMMING LANGUAGES E61 6785 CS In this seminar we examine topics in the design, translation, andsupport of programming languages. The seminar emphasizes modernapproaches and emerging technologies, using case studies, researchpapers, and conference activity. Students are expected to study,analyze, and present research papers to the seminar class. Credit 1 unit. 01 TBA XXXI TBA /Cytron RESEARCH SEMINAR ON MULTIMEDIA NETWORKING E61 6791 CS In this research seminar we study some of the techniques that are used in the performance evaluation of telecommunication networks. The objectives of this research seminar are achieved through selective readings from the literature of stochastic processes and broadband telecommunication networks. The participants learn fundamental concepts from the theory of Markov processes, Markov chains, renewal theory and Markov renewal theory. The above topics and related knowledge are utilized in the study of basic papers from the literature of broadband networks. Credit 1 unit. 01 TBA XXXI TBA /[TBA] RESEARCH SEMINAR ON COMPUTATIONAL MOLECULAR BIOLOGY E61 6804 CS This journal club covers literature on the use of computational techniques to advance biological understanding with an emphasis on genome analysis and functional genomics. Speakers give a brief background to introduce the topic and then focus on one-two papers from the current literature. Presentations are given by students, faculty, and post-doctorates. Students receive 1 unit of credit for regular participation and for making a presentation. Credit 1 unit. Same as L41 Biol 5496, E62 BME 6804. 01 TBA XXXI TBA /States DOCTORAL RESEARCH E61 690 CS All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 9 units. MASTERS CANDIDATE E61 887 CS All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units. DOCTORAL CANDIDATE E61 888 CS All sects. TBA. Refer to **section/faculty list at start of departmental listing for selections in this course. Credit 3 units.Computer Science (special topics) (E71)UNDERGRADUATE SEMINAR E71 120 CS The CS120 undergraduate seminar is intended for freshmen who have completed CS101 and are interested in learning more about research opportunities in computer science, whether they be here at Washington University or elsewhere. Faculty presentations of research and hands-on team projects will expose students to major technologies and exciting research directions in several fields of computer science, including algorithm design, networking, and artificial intelligence. Students will get the opportunity to meet researchers at the forefront of their fields, and learn how to become involved with their research. Prerequisite: CS 101G Credit 1 unit. 01 F 2:00p-4:00p XXXI TBA /S. Goldman WEB DEVELOPMENT E71 160 CS This comprehensive course does not assume prior programming background or web design experience. Explores the elementary principles that go into designing, creating, and publishing an effective web site. Topics include the production process, design metaphors, interface/information design, page layout concepts, graphics preparation, color theory, development tools, HTML, style sheets, basic scripting techniques, CGI, and site maintenance/marketing strategies. Credit 3 units. 01 TuTh 4:00p-5:30p IV TBA /Lang Loui Laboratories: A M 5:30p-7:00p Sever 203/Lang Loui B Th 6:00p-7:30p Sever 201/Lang Loui C F 2:00p-3:30p Sever 203/Lang Loui ADVANCED TOPICS IN NETWORKING E71 524S CS Advanced topics in networking, especially relevant to the future of the Internet. Topics include: techniques for high performance networking, fair queuing and resource allocation protocols, scalable routing protocols that encompass mobility and multicast including IPv6, the MBONE, and Mobile IP, techniques for reliable multicast, and techniques for fault-tolerance, security and accounting. Prerequisites: CS 423 or CS 533 or permission of instructor. Credit 3 units. 01 MW 2:30p-4:00p XIII TBA /Waldvogel RESEARCH SEMINAR ON SOFTWARE SYSTEMS E71 6873 CS Operating systems research has recently seen renewed interest in several areas. This seminar explores some of these new and interesting research areas, with a specific focus on issues related various quality of service topics important for distributed systems. Particular attention is paid to the implications of how these new ideas will affect our research. The seminar will cover several noteworthy research operating systems and distributed frameworks which support both the specification and enforcement of resource guarantees and adaptive behavior. Credit 1 unit. 01 TBA XXXI TBA /Gill Kuhns LevineElectrical Engineering (E65)** Departmental Section/Faculty list research, project an other related courses:01 TBA02 Blaine03 Brown04 Cox05 Chamberlain06 Lu07 Franklin08 Gregory09 Kline10 Miller11 Soatto12 Morley13 Muller14 Murphy15 Pickard16 Rode17 Lin18 Rosenberger19 Joseph, B20 Shrauner21 Snyder22 Turner23 Amini24 Arthur25 Fuhrmann26 Parulkar27 Engebretson28 O'Sullivan29 Spielman30 TBA31 Indeck32 Richard33 Hegde34 Misler35 Goldstein36 Min37 Kimura38 Krchnavek39 Grodsky40 Varghese41 Thomas, L42 Kirov, A43 Haacke ELECTRICAL LAB I E65 250 EE Lectures and laboratory exercises related to sophomore topics in introductory networks and basic electronics. Prerequisite: EE 280. Credit 3 units. Design credit 1 unit. 01 M 11:30a-1:00p XVIII Cupples II 200/Gregory Chamberlain Laboratories: A Tu 2:30p-5:00p XXXI Urbauer 115/Gregory Chamberlain B W 2:30p-5:00p XXXI Urbauer 115/Gregory Chamberlain C Th 2:30p-5:00p XXXI Urbauer 115/Gregory Chamberlain DIGITAL COMPUTERS I: ORGANIZATIONAL & E65 260M EE Same as E61 CS 260M. INTRO TO ELECTRIC NETWKS E65 280 EE Elements, sources, and interconnects. Ohm's and Kirchhoff's laws, superposition and Thevenin's theorem; the resistive circuit, transient analysis, sinusoidal analysis, and frequency response. Prerequisite: Phys 118A. Corequisite: Math 217. Credit 3 units. Design credit 0.8 units. 01 TuTh 8:30a-10:00a XXIX TBA /Pickard 02 MW 5:30p-7:00p LXII TBA /Soatto INTRO TO DIGITAL & LINEAR ELECTRONICS E65 290 EE Introduction to contemporary electronic devices and their circuit applications. Terminal characteristics of active semiconductor devices. Incremental and D-C models of junction diodes, bipolar transistors (BJTs), and metal-oxide semiconductor field effect transistors (MOSFETs) are developed and used to design single- and multistage amplifiers. Models of the BJT and MOSFET in cutoff and saturation regions are used to design digital circuits. Prerequisite: EE 280. Credit 3 units. Design credit 0.8 units. 01 MW 1:00p-2:30p II TBA /Shrauner ENGINEERING ELECTROMAGNETICS I:FUNDAMENT E65 314M EE Eletromagnetic theory as applied to electrical engineering: vector calculus; electrostatics and magnetostatics; Maxwell's equations, including Poynting's theorem and boundary conditions; uniform plane-wave propagation; transmission lines--TEM modes, including treatment of general, lossless line, and pulse propagation; introduction to guided waves; introduction to radiation and scattering concepts. Prerequisite: SSM 317 or equivalent. Credit 3 units. Design credit 1 unit. 01 MW 8:30a-10:00a XXIII TBA /Indeck Discussion sections: A F 8:30a-9:30a XXXI TBA /Indeck POWER, ENERGY & POLYPHASE CIRCUITS E65 327 EE Fundamental concepts of power and energy; electrical measurements; physical and electrical arrangement of electrical power systems; polyphase circuit theory and calculations; principal elements of electrical systems such as transformers, rotating machines, control, and protective devices, their description and characteristics; elements of industrial power system design. Prerequisite: EE 280. Credit 3 units. 01 MW 4:00p-5:30p V TBA /Shrauner SIGNAL ANALYSIS FOR ELECTRONIC SYS & CIR E65 379 EE Elementary concepts of continuous-time and discrete-time signals and systems. Linear time-invariant (LTI) systems, impulse response, convolution. Fourier series. Fourier transforms, and frequency-domain analysis of LTI systems. Laplace transforms, z-transforms, and rational function descriptions of LTI systems. Principles of sampling and modulation. Students participate weekly in recitation sections to develop oral communucation skills using class materials. Prerequisites: EE 280 (C or better) and SSM 317. Credit 3 units. Design credit 1 unit. 01 TuTh 8:30a-10:00a XXIX TBA /O'Sullivan Discussion sections: A F 11:00a-12:00p XXXI TBA /O'Sullivan PRINCIPLES OF ELECTRONIC DEVICES E65 390 EE Introduction to the solid-state physics of electronic materials and devices, including semiconductors, metals, insulators, diodes and transistors. Crystal growth technology and fundamental properties of crystals. Electronic properties and band structure of electronic materials, and electron transport in semiconductor materials. Fabrication of pn junction diodes, metal-semiconductor junctions, and transistors and integrated-circuit chips. Fundamental electrical properties of rectifying diodes and light-emitting diodes, bipolar transistors and field-effect transistors. Device physics of diodes and transistors, large-signal electrical behavior and high-frequency properties. Prerequisite: Phys 118A. Credit 3 units. Design credit 1 unit. 01 TuTh 1:00p-2:30p VIII TBA /Rode INDEPENDENT STUDY E65 400 EE Opportunities to acquire experience outside the classroom setting and to work closely with individual members of the faculty. A final report must be submitted to the department. Not open to first-year or graduate students. Consult adviser. Hours and credit to be arranged. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 10 units. ENGINEERING ELECTROMAGNETICS II:APPLICATIONS E65 410 EE Study of important applications of electromagnetic theory. Solution of electrostatic and magnetostatic problems involving Laplace and Poisson's equations subject to boundary conditions. Maxwell's equations, including boundary conditions for dielectrics and conductors, reflection and transmission characteristics with effects due to losses. Study of guided waves in rectanglar and optical wave guides, including effects of dispersion. S-parameters and transmission networks, including S-matrix properties, relation to impedance, reflection coefficient, VSWR, and Smith chart. Study of antennas, including exposure to terminology and thin-wire antennas. Prerequisite: EE 314M. Credit 3 units. Design credit 1 unit. 01 MW 5:30p-7:00p LXII TBA /Spielman ELECTRICAL ENERGY LABORATORY E65 416 EE Experimental studies of principles important in modern electrical energy systems. Topics: power measurements, transformers, batteries, static frequency converters, thermoelectric cooling, solar cells, electrical lighting, induction , commutator, and brushless motors, synchronous machines. Prerequisite: EE 250. Credit 3 units. Design credit 1.5 units. 01 W 2:30p-4:00p VII TBA /Corrigan Laboratories: A F 1:00p-4:00p XXXI Urbauer 115/Corrigan COMM THEORY&SYSTEMS E65 421 EE Introduction to the concepts of transmission of information via communication channels. Amplitude and angle modulation for the transmission of continuous-time signals. Analog-to-digital conversion and pulse code modulation. Transmission of digital data. Introduction to random signals and noise and their effects on communication. Optimum detection systems in the presence of noise. Elementary information theory. Overview of various communication technologies such as radio, television, telephone networks, data communication, satellites, optical fiber, and cellular radio. Prerequisites: EE 379 and SSM 326. Credit 3 units. Design credit 1.2 units. Same as E61 CS 421. 01 TuTh 8:30a-10:00a XXIX TBA /Blaine CONTROL SYSTEMS I E65 431 EE Introduction to automatic control concepts. Block diagram representation of single- and multiloop systems. Multi-input and multi-output systems. Control system components. Transient and steady-state performance; stability analysis; Routh, Nyquist, Bode, and root locus diagrams. Compensation using lead, lag, and lead-lag networks. Synthesis by Bode plots and root-locus diagrams. Introduction to state-variable techniques, state-transition matrix, state-variable feedback. Prerequisite: SSM 317. Credit 3 units. Design credit 1 unit. Same as E63 ChE 431. 01 MWF 10:00a-11:00a VI TBA /Corrigan 02 TuTh 11:30a-1:00p XII TBA /Jerina CONTROL SYSTEMS II E65 432 EE The control of physical systems with digital computer, microprocessor, or special-purpose digital hardware is becoming very common. Course continues EE 431 to develop models and mathematical tools needed to analyze and design these digital, feedback-control systems. Linear, discrete dynamic systems. The Z-transform. Discrete equivalents to continuous transfer functions. Sampled-data control systems. Digital control systems design using transfer and state-space methods. Systems comprised of digital and continuous subsystems. Quantization effects. System identification. Multivariable and optimum control. Prerequisite: EE 431. Credit 3 units. Design credit 1 unit. Same as E67 ME 432. 01 TuTh 4:00p-5:30p XXII TBA /Murphy DIGITAL SYS LAB E65 455 EE Procedures for reliable digital design, both combinational and sequential; understanding manufacturers' specifications; use of special test equipment; characteristics of common SSI, MSI, and LSI devices; assembling, testing, and simulating design; construction procedures; maintaining signal integrity. Several single-period laboratory exercises, several design projects, and application of a microprocessor in digital design. One lecture and one laboratory period a week. Prerequisites: EE 260M, 290. Credit 3 units. Design credit 2.2 units. Same as E91 COE 455. 01 Tu 1:00p-2:30p VIII TBA /Morley Laboratories: A Th 1:00p-4:00p XXXI Bryan 316/Morley DIGITAL COMPUTERS II: SWITCHING THEORY E65 460 EE Advanced topics in switching theory as employed in the analysis and design of various information- and material-processing systems. Combinational techniques: minimization, logic elements, bilateral devices, multiple output networks, symmetrical and iterative functions, threshold logic, state identification and fault detection, hazards, and reliable design. Sequential techniques: synchronous circuits, state tables, machine minimization, state assignment, asynchronous circuits, finite state machines. Prerequisite: EE 260M or equivalent. Credit 3 units. Design credit 1.2 units. Same as E91 COE 460. 01 MW 2:30p-4:00p VII TBA /Zar DIGITAL COMPUTERS III:COMPUTATION STRUCT E65 462M EE Introduction to ALU design: addition, subtraction, multiplication, and division. Direct and iterative approaches for multiplication, including Wallace trees. Synchronization. Introduction to modern design practices, including the use of PAL, FPGA, and standard cell design methodologies. Students use a commercial CAE/CAD system for schematic capture and simulation while designing a selected computation system. Prerequisites: CS 306, EE/CS 362M. Credit 3 units. Design credit 1.5 units. Same as E91 COE 462M, E61 CS 462M. 01 MW 1:00p-2:30p II TBA /Richard DIGITAL SYSTEMS ENGINEERING E65 464 EE Design and characterization of digital circuits, reliable and predictable interconnection of digital devices, and information transfer over busses and other connections. Topics include: Review of MOSFET operation; CMOS logic gate electrical characteristics; System and single-point noise margin and noise budgets; Figures of merit for noise- margin and power-delay product, and trade-off between noise margin and propagation delay; Transmission-line driving including reflection, termination, non-zero transition time, lumped and distributed capacitance loads, non-linear terminations, and applicable conditions for lumped approximations; Coupled transmission lines, forward and backward crosstalk, short line approximations, ground bounce, and simultaneous switching noise; Timing, clocking, and clock distribution for digital circuits; Prediction of metastability error rates and design for acceptable probability of failure. Examples and design exercises using systems and interconnections selected from current Computer Engineering practice such as RAMBUS, PCI bus, GTL, LVDS, and others. Credit 3 units. Design credit 1 unit. Same as E91 COE 464. 01 MW 4:00p-5:30p XXIV TBA /Rosenberger SENIOR DESIGN PROJECTS E65 480 EE Working in teams, students address design tasks assigned by faculty. Each student participates in one or more design projects in a semester. Projects are chosen to emphasize the design process, with the designers choosing one of several paths to a possible result. Collaboration with industry and all divisions of the University is encouraged. Prerequisite: senior standing. Credit 3 units. Design credit 3 units. 01 Tu 11:30a-1:00p XII TBA /Pickard SECT 02: Donald L. Snyder, Electrical Engineering William Hayden Smith, Earth & Planetary Science 02 Tu 11:30a-1:00p XII TBA /Snyder Smith Laboratories: A Tu 2:30p-5:30p XXXI Bryan 316/Pickard B W 2:30p-5:30p XXXI Bryan 316/Snyder Smith ADVANCED ANALOG ELECTRONICS E65 492 EE Design and analysis of analog electronic circuits and operational amplifiers for use in control systems, instrumentation and telecommunications. Large-signal analysis of high-power circuits including transfer characteristics, distortion, power efficiency, impedance, and high-frequency behavior. Frequency response, stability and frequency-compensation of multi-stage feedback amplifiers. Fundamental treatment of electronic noise in circuits including thermal noise, shot noise, and 1/f noise. Review of general-purpose op-amps, wideband video op-amps, and high-performance pecision operational amplifiers and chip layout. Linear and nonlinear analog applications, including power-booster amplifiers, precision rectifiers, differentiators, integrators, phase-locked loops, high-frequency analog multipliers, and mixers. Prerequisite: EE392. Credit 3 units. Design credit 1 unit. 01 TuTh 10:00a-11:30a XIX TBA /Rode INDEPENDENT STUDY E65 500 EE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 10 units. MAGNETIC RECORDING TECHNOLOGY E65 512 EE Basic concepts: magnetic fields, magnetization, coercivity, hysteresis; write and read processes, reciprocity. Recording materials: particulate and continuous film media. Recording heads: ring pole; ferrite, thin film; inductive, magneto-resistive. Analog recording: high-frequency bias, audio and video systems, noise. Digital recording: coding distortion, bit shift, equalization; rigid disk, flexible disk, tape drives. Nascent technologies: perpendicular, isotropic media; magneto-optic, reversible-optical storage. Prerequisite: EE 314, or equivalent. Credit 3 units. 01 TuTh 10:00a-11:30a XIX TBA /Indeck STATISTICAL PHYSICS IN ELECTRICAL ENGINEERING E65 515A EE An examination of the fundamental statistical concepts that underlie and unify electrical engineering. Deterministic and stochastic processes, probabilities and frequencies, statistical inference, information entropy, maximum entropy principle, thermodynamic concepts, entropy concentration and production, and variational methods. Applications to current work in combinatorial optimization, simulated annealing, neural networks and Boltzmann machines. Prerequisite: programming competence. Credit 3 units. 01 MW 2:30p-4:00p VII TBA /Schotland PHYSICAL MICROELECTRONICS E65 539A EE A survey of the materials and technologies of microelectronic devices and processing. Review of solid state physics pertinent to materials discussion, particularly thin films. Materials deposition techniques including bulk crystal growth and vapor deposition; device fabrication techniques; materials characterization methods; surfaces, interfaces and contacts; device packaging; device cost and performance issues. Prerequisite: graduate or senior standing, EE 390 or equivalent. Credit 3 units. 01 TuTh 4:00p-5:30p XXII TBA /Lu DETECTION & ESTIMATION THEORY E65 552A EE Study of detection, estimation and modulation theory, detection of signals in noise, estimation of signal parameters, linear estimation theory. Kalman-Bucy and Wiener filters, nonlinear modulation theory, optimum angle modulation. Prerequisite: EE 551A. Credit 3 units. Design credit 0.5 units. 01 MW 4:00p-5:30p XXIV TBA /Fuhrmann COMPUTER CIRCUITS & SYSTEMS DESIGN I E65 555 EE Characterization of logic circuits, including static and dynamic characteristics, with examples from TTL, ECL, and MOS. IC memory characteristics. Worst-case design procedures for digital circuits. Analysis of factors influencing signal integrity, including grounding power supply, transmission line reflections, and crosstalk. Conversion between analog and digital signals, including tradeoffs between complexity, speed, and accuracy. Prerequisite: EE 290, 360, 455. Credit 3 units. Design credit 0.8 units. 01 MW 4:00p-5:30p XXIV TBA /Rosenberger COMPUTER/COMMUNICATIONS SYSTEMS ANALYSIS I E65 557A EE Introduction to the basic tools of computer and communications systems analysis and evaluation. Deterministic and stochastic modeling concepts are presented. Queueing theory and discrete event (DES) simulation methods are studied with application to a variety of examples drawn from the computer and communications performance evaluation literature. A standard DES language is used in modeling and simulation studies. Topics of current interest such as computer input/output models, mass memory, bus models, and communications network models are discussed. A modeling project is typically required. Prerequisites: CS101G or CS136G, and EE260M or their respective equivalents. Credit 3 units. Design credit 0.5 units. Same as E61 CS 557M. 01 MW 2:30p-4:00p VII TBA /Franklin PRACTICUM IN IMAGING SCIENCE & ENGINEERING E65 568I EE This course provides students in the Imaging Science and Engineering program with opportunities to participate, early in their graduate studies, in projects involving image data. A list of IS&E faculty having potential projects of interest is provided. It is the student's responsibility to interview with such faculty in order to identify a project for themselves to be completed in one semester. A written report documenting the project goals, relevant literature, and results obtained is required at the end of the project. To receive credit for completing the practicum, the report must be accepted by the supervisor of the project and a committee of IS&E faculty. This course is graded Pass/Fail. Prerequisite: Admission to Imaging Science and Engineering Program. Credit 1 unit. Same as E71 CS568, E68 SSM594B. Credit 1 unit. 01 TBA XXXI TBA /Snyder DIGITAL REPRESENTATION OF SIGNALS E65 592 EE This course addresses the representation of real-world analog signals in digital forms and is intended to give students a broad introduction to the subject followed by practical illustration of the basic concepts. Analog signals of differing characteristics, such as the electrocardiogram, voice, audio, images, and video are considered and appropriate digitizing and coding techniques are described. Both lossless and lossy coding for data compression are covered as is the reconstruction of analog signals that approximate the original signal. Existing standards for data compression will be studied, with emphasis on the basic concepts leading to such standards. Prerequisite: Graduate standing. Credit 3 units. Same as E61 CS 592A. 01 M 7:00p-10:00p LXV TBA /Meany SIGNALING AND CONTROL IN COMMUNICATION E65 593A EE The operation of modern communications networks is highly dependent on sophisticated control mechanisms that direct the flow of information through the network and oversee the allocation of resources to meet the communication demands of end users. This course covers the structure and operation of modern signaling systems and addresses the major design trade-offs which center on the competing demands of performance and service flexibility. Specific topics covered include protocols and algorithms for connection establishment and transformation, routing algorithms, overload and failure recovery and networking dimensioning. Case studies provide concrete examples and reveal the key design issues. Prerequisites: Graduate standing and permission of instructor. Credit 3 units. Same as E61 CS 593A. 01 MW 8:30a-10:00a XIII TBA /Min NETWORKING + COMMUNICATIONS DESIGN PROJ. I E65 595 EE Same as E61 CS 595. NETWORKING+COMMUNICATIONS DESIGN PROJ II E65 596 EE Same as E61 CS 596. MASTERS RESEARCH E65 599 EE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 10 units. DOCTORAL RESEARCH E65 600 EE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 10 units. MASTERS CANDIDATE E65 887 EE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units. DOCTORAL CANDIDATE E65 888 EE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units.Electrical Engineering (E75)PATENTS & OTHER WAYS TO PROTECT INVENTIONS E75 411A EE Analysis of the practical and legal steps with which an electrical engineer should be familiar regarding patent protection for electrical and electronic inventions. The course focuses primarily on the patent protection provided under the U.S. patent laws. Recent U.S. patents relating to electrical and electronic inventions are examined to better understand patents and the protection provided by patents. Copyrights, trademarks, trade secret, unfair competition and mask work protection are also discussed. The protection and marketing of ideas is also considered. The course provides a pragmatic review of intellectual property from an electrical engineering perspective to prepare for the issues commonly faced in industry and business today. Credit 3 units. 01 TuTh 5:30p-7:00p LXII TBA /Agovino Evans PRINCIPLES OF ULTRASONIC IMAGING E75 597 EE Propagation of ultrasound in inhomogeneous media, near-field and far-field descriptions, refraction and diffraction, dispersive media models, acoustic wave equation formulations and solutions. Basic elements of transducer, pulser, and receiver design. The use of linear versus logarithmic amplifiers. Time-gain compensation, scan conversion, and image generation in single-transducer systems. Phased-array imaging systems. Synthetic-aperture acquisition, synthetic-focus image generation. Ellipsoidal backprojection using the complete dataset. Design of restoration filters to compensate for diffraction effects of the transducer. Estimation of media properties from images. Prerequisite: EE379. Credit 3 units. 01 TuTh 4:00p-5:30p XXII TBA /ArthurEngineering and Policy (E80)** Departmental Section/Faculty list for research, project and other related courses:01 TBA02 Darby03 Browdy04 Clancy05 Morgan06 Shultz07 Lipeles08 Ballard09 Turner10 Spitznagel11 Husar12 TBA13 Arvidson14 Harmon15 Darte16 Klocke17 TBA18 Dmytryszyn19 Shulman20 Pickard21 Rodin22 Mandelker23 Haefner24 Frisse25 TBA26 Hartog27 Cytron28 Forst29 Gillvery TECHNOLOGY, VALUES AND SOCIETY E80 252 EP Engineering and social change. Objectives, methodologies, and changing world view of science and technology. Scope, priorities, and achievements of the technological enterprise in the United States. Ethical and moral responsibilities of the engineer as a member of society. Considerations in determining which technologies should be developed and for what purposes. Credit 2 units. 01 Th 3:00p-5:00p XXII 1/18/00 - 5/1/00 TBA /Ballard TECHNICAL WRITING E80 310 EP Persistent concerns of grammar and style. Analysis and discussion of clear sentence and paragraph structure and of organization in complete technical documents. Guidelines for effective layout and graphics. Examples and exercises stressing audience analysis, graphic aids, editing, and readability. Videotaped work in oral presentation of technical projects. Writing assignments include descriptions of mechanisms, process instructions, basic proposals, letters and memos, and a long formal report. Prerequisites: Satisfaction of the English composition proficiency requirement of SEAS and junior standing. Credit 3 units. 01 TuTh 10:00a-11:30a XXXI 1/18/00 - 5/1/00 TBA /Ballard 02 MW 10:00a-11:30a XXXI 1/18/00 - 5/1/00 Lopata 104/Heugatter 03 MW 1:00p-2:30p XXXI 1/18/00 - 5/1/00 Lopata 104/Heugatter 04 TuTh 1:00p-2:30p XXXI 1/18/00 - 5/1/00 TBA /Rode-Perkins 05 Th 5:30p-8:00p XXXI 1/18/00 - 5/1/00 TBA /Rode-Perkins 06 Tu 5:30p-8:00p XXXI 1/18/00 - 5/1/00 TBA /Tarwater 07 Th 6:00p-8:30p XXXI 1/18/00 - 5/1/00 TBA /Schmalz 08 W 5:30p-8:00p XXXI 1/18/00 - 5/1/00 TBA /Frick INTRO TO ENVIRONMENTAL LAW & POLICY E80 461 EP Same as E64 CE 461. INDEPENDENT WORK E80 500 EP Prerequisite: senior or graduate standing and permission of instructor. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 6 units. STRATEGIC MANAGEMENT OF TECHNOLOGY E80 502 EP Analytical methods for strategic management are reviewed. Technology strategy is linked to the strategic plan for the organization, and methods to accomplish this linkage are developed. Factors which characterize and encourage innovation are discussed. A process for managing and integrating new technology into the strategic process is developed. Throughout the course, cases are used to analyze and demonstrate the several elements of strategic management of technology. Prerequisite: graduate standing; permission of instructor required. Credit 3 units. Design credit 0.5 units. 01 M 5:30p-8:00p LXII 1/18/00 - 5/1/00 TBA /Clancy TECHNOLOGY ASSESSMENT E80 512 EP Techniques for anticipation of social, economic, and environmental consequences of technological development to provide the public, and government and corporate policy makers, with sound bases for decision-making. Topics include technological forecasting; impact identification, analysis, and evaluation; and policy analysis. Students working in interdisciplinary teams will carry out pilot technology assessments. Prerequisite: senior or graduate standing or permission of instructor. Credit 3 units. Design credit 2.5 units. 01 Tu 5:30p-8:00p LXXII 1/18/00 - 5/1/00 TBA /Dmytryszyn ANLYTICAL METH FOR ENGNRG & POLICY DECSN E80 535 EP Quantitative methods commonly used in analyzing engineering and policy decisions. Basic concepts and applications with extensive use of case studies. Methods and applications may vary from year to year, but will typically include: economic principles involved in engineering and policy decisions; engineering economic analysis; cost-effectiveness analysis; decision analytic methods, including probability concepts, risk, and utility; using laboratory and field data in decision-making; allocation of limited resources. Prerequisite: graduate standing and permission of instructor. Credit 3 units. Same as E90 ENVE 535. 01 Th 6:30p-9:00p XLIV 1/18/00 - 5/1/00 TBA /Vest PRODUCTION & USE OF FINANCIAL INFO E80 571 EP Basic concepts in collecting, organizing, and using financial data for the production of income statements, balance sheets, and cash flow statements. The accounting model is used to interpret and present financial data in forms for planning and controlling business activities, and for preparing project budgets and budgets for the firm. Analysis of financial statements. Prerequisite: graduate standing or permission of instructor. Credit 3 units. 01 W 5:30p-8:30p LXXXIII 1/18/00 - 5/1/00 TBA /Klocke TECH DEVELOPMENT & ECONOMIC DECISIONS E80 572 EP Intermediate macroeconomics is surveyed with an emphasis on managerial decision-making involving technology and the impact of technological development on the business cycle. Aggregate economic variables are analyzed through identification, measured projection, and interpretation, including the implications for government policies involving technology and managerial response. Intermediate microeconomics is surveyed, focusing on technology and emphasizing cost and demand analysis, design of pricing strategies, and market structures. Prerequisite: graduate standing. Credit 3 units. 01 M 5:30p-8:00p LXII 1/18/00 - 5/1/00 TBA /Coughlin INTERNATIONAL TECHNOLOGY MANAGEMENT E80 574 EP An understanding of the international economic and regulatory environment will be required for managing any enterprise now and into the twenty-first century. Technology development, the international macroeconomic environment, and risk factors of multinational companies are examined. Restrictions on international trade in technology developments. Selected cases are used to illustrate key influences. Prerequisite: graduate standing or permission of instructor. Credit 3 units. 01 Sa 9:00a-11:30a XXXIV Lopata 104/Ciarpella ISSUES IN ENGINEERING & TECH MGMT E80 579 EP Contemporary issues in management of technology and the practice of engineering relating to development of technologies and the integration of new technologies into business strategy are examined. Topical areas include product strategy, R&D planning, technology evaluation and transfer, project management, and other issues regarding current trends which influence the role of technology in national and global economies. Prerequisite: graduate standing and permission of instructor. Credit 3 units. Design credit 0.5 units. 01 W 5:30p-8:00p LXXXIII 1/18/00 - 5/1/00 TBA /Clancy FIN. MANAGEMENT FOR TECH. ENTREPRENEUR E80 583 EP Finance for the technological entrepreneur, consultant, or business manager; hands-on financial operations of the closed and public corporation; capital markets as a source of funding; present value calculations for lease-buy decisions; corporate and personal investment as an adjunct of long-range financial planning. Prerequisite: EP 580. Corequisite: EP 571 or EP 581. Credit 3 units. 01 Tu 5:30p-8:00p LXXII 1/18/00 - 5/1/00 TBA /Podlesny MASTERS PROJECT E80 598 EP Students electing the project option for the master's degree perform their work under this course. Prerequisite: graduate standing and permission of instructor. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 6 units. MASTERS RESEARCH E80 599 EP Prerequisite: graduate standing and permission of instructor. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 6 units. DOCTORAL RESEARCH E80 600 EP Prerequisite: graduate standing and permission of instructor. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 9 units. MASTERS CANDIDATE E80 887 EP All sections TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 9 units. DOCTORAL CANDIDATE E80 888 EP All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 9 units.Environmental Engineering (E90)** Departmental Section/Faculty list for research, project an other related courses:01 TBA02 Dudukovic03 Husar04 Lipeles05 Morgan06 Thompson07 Turner, Jay08 Buescher INDEPENDENT STUDY E90 500 ENVE Credit to be determined in each case. ENVIRONMENTAL REACTION ENGINEERING E90 505 ENVE Same as E63 ChE 505. ENVIRONMENTAL ENGINEERING LAB - WATER/SOIL E90 508 ENVE Same as E63 ChE 408. DYNAMICS OF POLLUTANTS E90 510 ENVE Same as E63 ChE 510. INDUSTRIAL CATALYSIS E90 525 ENVE Same as E63 ChE 525. ANALYTICAL METHODS FOR ENGINEERING AND POLICY DECISIONS E90 535 ENVE Same as E80 EP 535. INTERDISCIPLINARY ENVIRONMENTAL CLINIC E90 539 ENVE Same as E64 CE 539. CHEMICAL PROCESS SAFETY E90 569 ENVE Same as E63 ChE 479. DESIGN OF WATER QUALITY CONTROL FACILITIES E90 582 ENVE Same as E64 CE 482A. TREATMENT OF WATER SUPPLIES E90 588 ENVE Same as E64 CE 588. INTERNSHIP E90 598 ENVE Part of a 6 credit internship program, mandatorily combined with EnvE 598A. The Environmental Engineering Program will endeavor to find a placement for all students interested in and eligible for the internship, and students are also welcome to locate placements of their choice. The student will maintain regular communication with his or her faculty supervisor in preparation for and during the internship. Prerequisite: B or better in all courses taken; must have taken at least 4 core courses. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units. INTERNSHIP E90 598A ENVE As an integral part of the Environmental Engineering Internship, the student will work on an in-depth research project under the joint supervision of the placement supervisor and the faculty supervisor. The project should be based on one or more assignments performed during the internship, exploring the subject in greater depth. The student must submit a written report and make a seminar presentation concerning his or her project within 6 weeks after the conclusion of the internship placement (or by the 6th week of the following fall semester, whichever is later). Prerequisite: B or better in all core courses taken; must have taken at least 4 core courses. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units. MASTER'S RESEARCH E90 599 ENVE All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 9 units. DOCTORAL RESEARCH E90 600 ENVE All sects. TBA. Refer to **section/faculty list at start of departmental listing for selections in this course. Credit variable, maximum 9 units.General Engineering (E60)COOPERATIVE EDUCATION EXPERIENCE E60 100A ENGR Credit 0 units. 01 TBA XXXI TBA /Kruessel SPECIAL TOPICS IN SPACE ENGINEERING E60 190 ENGR A hands-on introduction to space engineering. Students will work in multi-disciplinary teams on one of several on-going space engineering projects. Example projects include Space Shuttle-based Get-Away Special Canisters carrying microgravity and space environment experiments. Other examples include microsatellites, microprobes, and launch vehicles.Undergraduate students will earn 1 credit hour. Grades will be based on participation and attendance. Course may be repeated. Open to all engineering and non-engineering students. Prerequisite: None. Credit 1 unit. 01 F 2:00p-3:00p XXXI 1/18/00 - 5/1/00 Lopata 102A/Bennett SPECIAL TOPICS IN SPACE ENGINEERING E60 190A ENGR A hands-on introduction to space engineering. Students will work in multi-disciplinary teams on one of several on-going space engineering projects. Example projects include Space Shuttle-based Get-Away Special Canisters carrying microgravity and space environment experiments. Other examples include microsatellites, microprobes, and launch vehicles.Undergraduate students will earn 1 credit hour. Grades will be based on participation and attendance. Course may be repeated. Open to all engineering and non-engineering students. Prerequisite: None. Credit 1 unit. 01 F 3:00p-4:00a XXXI 1/18/00 - 5/4/00 Lopata 102A/Bennett SPECIAL TOPICS IN SPACE ENGINEERING E60 190B ENGR A hands-on introduction to space engineering. Students will work in multi-disciplinary teams on one of several on-going space engineering projects. Example projects include Space Shuttle-based Get-Away Special Canisters carrying microgravity and space environment experiments. Other examples include microsatellites, microprobes, and launch vehicles.Undergraduate students will earn 1 credit hour. Grades will be based on participation and attendance. Course may be repeated. Open to all engineering and non-engineering students. Prerequisite: None. Credit 1 unit. 01 F 4:00p-5:00p XXXI 1/18/00 - 5/4/00 Lopata 102A/Bennett COOPERATIVE EDUCATION EXPERIENCE E60 200A ENGR Required of all students who are currently working and who are participating in the Engineering Cooperative Education Program. No credit. Audit only. Credit 0 units. 01 TBA XXXI TBA /Kruessel COOPERATIVE EDUCATION EXPERIENCE E60 300A ENGR Required of all students who are currently working and who are participating in the Engineering Cooperative Education Program. No credit. Audit only. Credit 0 units. 01 TBA XXXI TBA /Kruessel COOPERATIVE EDUCATION EXPERIENCE E60 400A ENGR Required of all students who are currently working and who are participating in the Engineering Cooperative Education Program. No credit. Audit only. Credit 0 units. 01 TBA XXXI TBA /Kruessel COOPERATIVE EDUCATION EXPERIENCE E60 500A ENGR Required of all students who are currently working and who are participating in the Engineering Cooperative Education Program. No credit. Audit only. Credit 0 units. 01 TBA XXXI TBA /Kruessel GRADUATE ASSISTANTSHIP E60 700 ENGR Credit 0 units. 01 TBA XXXI TBA /Russell STUDY ABROAD E60 900 ENGR No credit. Audit only. Credit 0 units. 01 TBA XXXI See Dept /HartogMaterials Science and Engineering (E69)** Departmental Section/Faculty list for research, project and other related courses:01 Gulbransen02 Wolf03 Joseph04 Jerina05 Kardos06 McKelvey07 Paris08 Sastry09 Thies10 Khomami11 Dimarogonas12 Krchnavek13 Gleaves INDEPENDENT WORK E69 500 MATL Hours and credit to be arranged. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 3 units. MASTERS RESEARCH E69 599 MATL Hours and credit to be arranged. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit to be determined in each case. DOCTORAL RESEARCH E69 600 MATL Hours and credit to be arranged. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit to be determined in each case. RESEARCH SEM ON MATERIAL SCIENCE & ENG E69 6171 MATL Prerequisite: Graduate standing and permission of instructor. Credit 1 unit. Same as E63 ChE 6171. 01 TBA XXX TBA /Kardos Khomami POLMER RHEOLOGY & PROC E69 652 MATL Mechanics of polymer solutions and melts, especially the development of properly invariant constitutive equations. Topics include: viscometry, linear viscoelasticity, extensional flow behavior, temperature and concentration effects. Prerequisite: ChE 513 or equivalent. Credit 3 units. Same as E63 ChE 652. 01 TuTh 4:00p-5:30p XL TBA /Khomami MATLS CHAR TECHNIQUE II E69 658 MATL Introduction to crystallography and elements of X-ray physics. Diffraction theory and application to materials science, including reciprocal lattice concept, crystal-structure analysis, including Laue methods, rotating crystal methods, powder method, including laboratory methods of crystal analysis. Credit 3 units. Same as E63 ChE 658, E67 ME 658. 01 MW 5:30p-7:00p LXII TBA /Sastry MASTERS CANDIDATE E69 887 MATL All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units. DOCTORAL CANDIDATE E69 888 MATL All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units.Mechanical Engineering (E67)** Departmental Section/Faculty list for research, project and other related courses:01 TBA02 Brandon03 Axelbaum04 Kovacs05 Gardner06 Georgian07 Hakkinen08 Gomez09 TBA10 Bayly11 Husar12 Jerina13 Engsberg14 Paris, P.15 Peters16 TBA17 Sastry18 Zahalak19 Szabo20 Pauken21 Dimarogonas22 Jakiela23 Genin24 Korakianitis25 Holtzman26 Craig27 Cary28 Okamoto INTRODUCTION TO ENGINEERING DESIGN E67 141A ME An introduction to engineering design in the context of mechanical engineering. The course is presented in two parallel tracks. In the hands-on laboratory track, students first complete a series of experiments that introduce physical phenomena related to mechanical engineering. Understanding of these phenomena is achieved by designing and building simple devices and machines. The hands-on track then proceeds to a design contest in which the students design and build from a kit of parts a more significant machine that competes in a contest held at the end of the course. In the engineering graphics track, students learn the fundamentals of spatial reasoning and graphical representation. Freehand sketching skills including pictorial and orthographic views are applied to the design process. Computer modeling techniques provide accuracy, analysis and visualization tools necessary for the design of the contest machine. Detailing design for production including fasteners dimensioing, tolerancing and creastion of part and assembly drawings is applied to the contest machine. The course is open to all and is appropriate for anyone interested in mechanical devices, design, and the design process. Credit 3 units. Design credit 1.5 units. SECT 01: M-W in Jolley 002F in -Jolley 110 01 MW 10:00a-12:30p XII Jolley 2 F 10:00a-12:00p Jolley 110/Okamoto/Craig SECT 02: M-Th in Jolley 002Tues in Jolley 110 02 MTh 5:30p-8:00p XV Jolley 2 Tu 6:30p-8:30p Jolley 110/Jakiela/Craig MACHINE SHOP PRACTICUM E67 143A ME Operation of basic machine tools, including lathe, drill press, grinder, mill. One three-hour period a week, elective for any level student. Successful completion satisfies requirements to use the student-faculty shop. Credit 1 unit. Lab, materials fee: $20.00. 01 W 8:00a-11:00a XXXI Cupples II 8/Harkins 02 Th 8:00a-11:00a XXXI Cupples II 8/Harkins ENGINEERING GRAPHICS E67 145A ME Same as E64 CE 145A. THE INTERNAL COMBUSTION ENGINE E67 147 ME Introduction to thermodynamics and performance of internal combustion engines. Lectures on basic principles. In the laboratory, students run a standard test on an internal combustion engine driving a dynamometer and learn to adjust the engine and determine the effect of adjustments on exhaust composition. Elective primarily for first-year students. Labs are scheduled around student's schedules at the first class meeting. Credit 2 units. Credit 2 units. 01 F 2:00p-4:00p IX TBA /Korakianitis Laboratories: A TBA XXXII Jolley 105/Korakianitis INTRODUCTION TO MANUFACTURING PROCESSES E67 204 ME Production processes are emphasized as they are found in industry of manufacturing. The processes used to transform materials to manufacture products are described in lectures, observed in field trips to manufacturing plants and practiced in a machine shop practicum. Students develop an understanding of assembly, precision measurement, forming, machining, casting, welding and heat treatment processes which support production. The theory of a mechanical device is introduced. Student teams design the device, simulate performance with computer models, produce working drawings, fabricate the device and participate in a final design and performance competition. The course includes lectures on design and manufacturing processes, a machine shop practicum, and field trips. Contact hours are 2.5 per week for lectures and field trips and 4.5 hours per week for the machine shop practicum. Lectures cover topics from the text, the instructors experience, videocassettes, motion pictures, and sample objects. Field trips provide the students with an opportunity to witness full scale manufacturing and assembly processes as well as providing a forum for discussion. Each student team complete a project which involves design, manufacturing processes and performance evaluation. An example of such a project is the design, fabrication, assembly and performance evaluation of a Stirling engine. Credit 3 units. Design credit 0.5 units. Same as E68 SSM 584. SECT 01: NOTE: It is important that you talk with Prof. Jerina before you register in this new class. 01 Th 6:00p-9:00p V TBA /Jer/Craig/Holtz Laboratories: A F 12:30p-5:00p TBA /Jer/Craig/Holtz ENGINEERING MECHANICS II E67 232 ME Review of vector algebra and calculus. Kinematics of a particle. Newton's laws and the kinetics of a particle. Work and energy. Impulse and momentum. Kinematics of rigid bodies. General theorems for systems of particles. Kinetics of rigid bodies. The inertia tensor. Prerequisites: ME 231, Phys 117A. Corequisite: Math 217. Open to first-year students with permission of instructor. Credit 3 units. 01 TuTh 11:30a-1:00p XVII TBA /Bayly 02 MW 1:00p-2:30p XXII TBA /Genin MECH DEFORMABLE BODIES E67 241 ME Stress and strain: equilibrium, compatibility, transformations. Hooke's law. Elastic energy. Stresses in beams, columns, and torsional members. Yield and fracture. Elastic deflection of beams. Statically indeterminate systems. Concept of stability. Prerequisites: Math 217, ME 231. Credit 3 units. SECT 01: Same as CE 241A section 01 01 TuTh 4:00p-5:30p XXIX Cupples II 217/Harmon 02 MW 5:30p-7:00p XV TBA /Actis ENERGETICS FOR MECHANICAL ENGINEERS E67 321 ME Thermodynamic cycle analysis: vapor power, internal combustion, gas turbine, refrigeration. Maxwell relations and generalized property relationships for nonideal gases. Mixtures of ideal gases, psychrometrics, ideal solutions. Combustion processes, first and second law applications to reacting systems. Chemical equilibrium. Compressible flow in nozzles and diffusers. Prerequisite: ME 320A. Credit 3 units. 01 TuTh 11:30a-1:00p II Duncker 101/Axelbaum INTRODUCTION TO MACHINE DESIGN E67 322 ME Design of machines and machine components using advanced concepts and analytical tools. Overview and definition of feasibility, synthesis, and analysis as used in design. Determination of loads, material properties, factors of safety and their statistical distributions. Analysis of stress and performance. Failure criteria: yielding, fracture, fatigue, stress-corrosion cracking, creep, etc. Formulation of solutions and optimization of design. Applications to design of shafts, springs, fasteners, belts, chains, bearings, gears, and screws. Use of computer techniques to determine velocities, accelerations, and forces in mechanisms and in stress analysis of components. Students are assigned individual design problems of sufficient complexity to require integration of several machine elements. Prerequisites: CS 265, Math 217, ME 241. Credit 3 units. 01 TuTh 8:30a-10:00a XVI Crow 206/Gomez MATERIALS SCIENCE E67 325 ME Same as E63 ChE 325. AIR POLLUTION E67 344 ME Same as E63 ChE 344. MATERIALS ENGINEERING E67 361A ME This course deals with the application of fundamental materials science principles in various engineering disciplines. Topics covered include design of new materils having unique property combinations, selection of materils for use in specific service environment, prediction of materils performance under service conditions, and development of processes to produce materils with improved properties. The structural as well as functional use of metals, polymers, ceramics, and composites will be discussed. Credit 3 units. 01 TuTh 4:00p-5:30p IV TBA /Sastry PRINCIPLES OF HEAT TRANSFER E67 371 ME Introductory treatment of the principles of heat transfer by conduction, convection, or radiation. Mathematical analysis of steady and unsteady conduction along with numerical methods. Analytical and semiempirical methods of forced and natural convection systems. Heat exchangers: LMTD and e-NTU analysis. Boiling and condensation heat transfer. Radiation between black-body and real surfaces. Radiation network analysis. Prerequisites: ME 320, 370, SSM 317. Credit 3 units. SECT 01: Classes meet M W F 9:00-10:00 AM. Help session W 8:00-9:00 AM, Room TBA 01 MWF 9:00a-10:00a VI Cupples II 217/Gardner FLUID MECHANICS LABORATORY E67 372A ME Physical laboratory exercises focusing on fluid properties and flow phenomena covered in ME 370. Calibration and use of a variety of equipment; acquisition, processing, and analysis of data by manual as well as automated methods; training in formal report writing. Prerequisite: ME 370. Credit 1 unit. SECT 01: The class will meet on Wednesday in Lopata 101 only at the beginning of the semester to organize lab groups. 01 W 11:00a-12:00p XXXI Lopata 101/Hakkinen Laboratories: A M 1:30p-4:00p XXXI Urbauer 320/Hakkinen B Tu 1:30p-4:00p XXXI Urbauer 320/Hakkinen C W 1:30p-4:00p XXXI Urbauer 320/Hakkinen INDEPENDENT STUDY E67 400 ME Independent investigation on topic of special interest. Prerequisites: junior or senior standing and permission of department chair. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Permission of the instructor is required. Credit variable, maximum 6 units. MECHANICAL ENGINEERING DESIGN I E67 404A ME Students individually perform a feasibility study for a mechanical design project. Projects consist of an open-ended, original design or a creative redesign of a mechanical component or system requiring the application of those engineering science principles inherent to mechanical engineering. Feasibility is considered subject to economic, safety, legal, environmental, ethical, aesthetic, and other constraints in a competitive manufacturing environment. Guidance and consultation are provided by the entire faculty. One case study is performed by the entire class under the direction of the coordinating instructor. Prerequisites: ME 141A, ME 304. Credit 1 unit. Design credit 1 unit. 01 Tu 4:00p-5:30p XXXI TBA /Jakiela 02 W 4:00p-5:30p XXXI TBA /Swartwout 03 Th 4:00p-5:30p XXXI TBA /Bever MECHANICAL ENGINEERING DESIGN LABORATORY E67 404C ME Students are assigned individual design problems of sufficient complexity to require integration of several machines or machine elements. Projects consist of an open-ended, original design or a creative redesign of a machine or a mechanical component or system, manufacturing and testing of a prototype and performing laboratory evaluation of mechanical engineering. Guidance and consultation are provided by the course instructors and staff. The student will have the opportunity to make a prototype of a mechanical design developed in ME322 or ME404B.Prerequisites: ME304, ME322, ME404A. Corequisite: ME404B Credit 1 unit. Design credit 1 unit. 01 TBA XXXI TBA /Okamoto Laboratories: A M 1:00p-3:30p XXXI Jolley 2/Okamoto B Tu 1:00p-3:30p XXXI Jolley 2/Okamoto C W 1:00p-3:30p XXXI Jolley 2/Okamoto ENVIRONMENTAL ENGINEERING LAB-WATER/SOIL E67 408 ME Same as E63 ChE 408. CONTROL SYSTEMS II E67 432 ME Same as E65 EE 432. SUSTAINABLE AIR QUALITY E67 449 ME Introduction to sustainability and sustainable air quality. Systems science as an organizing principle for air quality management. Setting of air quality goals. Observing the status and trends. Establishing causal factors: energy use and chemical processing. Natural sources and variability. Corrective actions to reach air quality goals. Process design for emission reductions. Adoptive response to air pollution episodes. A web-based class project will be conducted through the semester. Credit 3 units. 01 MW 2:30p-4:00p XIV TBA /Husar ELASTIC STABILITY E67 458 ME Same as E64 CE 458. PROPERTIES OF MATERIALS E67 476 ME Same as E63 ChE 476. INDEPENDENT STUDY E67 500 ME Independent investigation on topic of special interest. Hours and credit to be arranged. All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Permission of the instructor is required. Credit variable, maximum 6 units. GRADUATE SEMINAR E67 501 ME This is a pass/fail course which is required for the M.Sc. or D.Sc. degrees. A passing grade is required for each semester of full-time enrollment (6 units or more). A passing grade is received by attendance at the weekly ME seminars. Credit 0 units. SECT 01: All Mechanical Engineering graduate students should sign up for the ME Graduate Seminar, ME 501. 01 Th 2:30p-4:00p XXXI Cupples II 100/Axelbaum ADVANCED ANALYTICAL MECHANICS E67 502 ME Lagrange's equations and their applications to holonomic and non-holonomic systems; ignorable coordinates and reduction of degrees of freedom by first integrals, variational principles, Hamilton-Jacobi theory, and general transformation theory of dynamics. Engineering emphasis on applications such as theory of vibrations (about steady motions) and stability of motion, but with major emphasis on use of mathematical discipline to develop principles to resolve difficult nonlinear problems. Prerequisite: Senior or graduate standing in Mechanical Engineering or permission of instructor. Credit 3 units. 01 TuThF 4:00p-5:30p XXIX TBA /Paris ANALYSIS OF ROTARY-WING SYSTEMS E67 505 ME This course introduces the basic physical principles that govern the dynamics and aerodynamics of helicopters, fans and wind turbines. Simplified equations are developed to illustrate these principles, and the student is introduced to the fundamental analysis tools required for their solution (e.g., Harmonic balance, Floquet theory, Perturbation Methods, etc.). Credit 3 units. 01 TuTh 5:30p-7:00p V TBA /Peters ENVIRONMENTAL ENGINEERING LABORATORY-WATER/SOIL E67 508 ME Same as E63 ChE 408. DYNAMICS OF POLLUTANTS E67 510 ME Same as E63 ChE 510. GENERAL THERMODYNAMICS E67 512 ME General foundations of thermodynamics valid for small and large systems, and for equilibrium and non-equilibrium states. Definitions of state, work, energy, entropy, temperature, heat interaction, and energy interaction in that order. Applications to simple systems, phase rule, perfect and semi-perfect gas, bulk-flow systems, combustion. Emphasizes application of energy and (particularly) entropy balances, and availability analysis to thermo-mechanical power generation, industrial applications and innovative energy-conversion schemes. Prerequisite: Senior or graduate standing. Credit 3 units. 01 TuTh 4:00p-5:30p IV TBA /Korakianitis THEORY OF VIBRATIONS E67 522 ME Analytical methods in vibrations. Review of Duhamel's integral, Laplace and Fourier transforms, and Fourier series with applications to transient response, forced response, and vibration isolation. Introduction to Lagrange's equations for linear, discrete systems including concepts of degrees of freedom, reducible coordinates, holonomic constraints, and virtual work. Matrix methods and state variable approach with applications to frequencies and modes, stability, and dynamic response in terms of real and complex modal expansions. Dynamic response of continuous systems by theory of partial differential equations, by Rayleigh-Ritz and Galerkin energy methods, and by finite difference and finite element algorithms. Credit 3 units. 01 MW 5:30p-7:00p XV TBA /Bayly FLUID DYNAMICS II E67 534 ME Review of governing equations and thermodynamics relations for compressible flow. Elements of kinetic theory of gases. Steady, one-dimensional flows with friction and heat transfer. Shock waves; Rankine-Hugoniot relations, obliwue shocks, reflections from walls and flow interfaces. Expansion waver; Prandtl-Meyer flow. Flows in nozzles, diffusers and inlets. Two-and three dimensional flows; perturbation methods, similarity rules. Compressible laminar and turbulent boundary layers, transition. Basic concepts of acoustic phenomena. Emphasis is placed on physical content relevant to air vehicle and test facility design. Credit 3 units. 01 MW 4:00p-5:30p IV TBA /Hakkinen COMPUTATIONAL FLUID DYNAMICS E67 535 ME General remarks on the discipline and impact of computational fluid dynamics on engineering analysis and design. Fundamentals of finite-difference, finite-volume, and finite-element methods. Numerical algorithms for parabolic, elliptic, and hyperbolic equations. Convergence, stability, and consistency of numerical algorithms, application of numerical algorithms to selected model equations relevant to fluid flow. Grid-generation techniques. Convergence acceleration schemes. Prerequisites: Senior or graduate standing in Mechanical Engineering or permission of the instructor. Credit 3 units. 01 TuTh 4:00p-5:30p XIX TBA /Cary FINITE ELEMENT ANALYSIS E67 546 ME Basic concepts. Generalized formulations. Construction of finite element spaces. Extensions. Shape functions, parametric mappings, numerical integration. Mass matrices, stiffness matrices and load vectors. Boundary conditions. Modeling techniques. Computation of stresses, stress resultants and natural frequencies. Control of the errors of approximation. Term paper: students are required to solve at least one significant engineering problem by the finite element method and submit a term paper at the end of the course. Prerequisite: CE-ME 241 or equivalent. Credit 3 units. Same as E64 CE 546. 01 TuTh 5:30p-7:00p V TBA /Szabo ELASTIC STABILITY E67 558A ME Same as E64 CE 458. ADV MACHINE DESIGN E67 570 ME Stress, strain, and strain energy in one dimension; applications to oil well sucker rods, turbine, compressor, propeller and helicopter blades. Advanced beam theory applied to tie rods, beams on elastic foundation, hooks and curved bars. Helical, spiral, and leaf springs. Design of thick cylinders, shrink fits, and high-speed rotating disks. Analysis and design of circular and rectangular plates; effect of ribs. Torsion of shafting. Lubrication theory applied to bearings. High-speed ball bearings. Assigned problems. Credit 3 units. 01 MW 2:30p-4:00p XXIV TBA /Georgian BLDG ENVIRONMENTAL SYSTEMS PARAMETERS E67 580 ME Sustainable design of building lighting and HVAC systems considering performance, life-cycle cost and downstream environmental impact. Criteria, codes and standards for comfort, air quality, noise/vibration and illumination. Life cycle and other investment methods to integrate energy consumption/conservation, utility rates, initial cost, system/component longevity, maintenance cost and building productivity. Direct and secondary contributions to acid rain, global warming and ozone depletion. Credit 3 units. Credit 3 units. 01 MW 5:30p-7:00p XXV TBA /Janis AIR CONDITIONING SYSTEMS E67 582 ME Combustion and energy-conversion systems. Refrigeration equipment. Heating and cooling load calculations. Ventilation and air filtration. Heat-transfer equipment design. Air-handling equipment. Room air distribution. Air-conditioning systems: liquid and air, duct design and balancing; special space requirements and design of systems for unique structures. Part load system performance and economic evaluations. Credit 3 units. 01 TuTh 5:30p-7:00p V TBA /Brandon COMPOSITE STRUCTURES E67 585A ME Same as E64 CE 585. MASTERS RESEARCH E67 599 ME All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Permission of the instructor required. Credit variable, maximum 6 units. DOCTORAL RESEARCH E67 600 ME All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Permission of the instructor is required. Credit variable, maximum 24 units. MATLS CHAR TECHNIQUE II E67 658 ME Same as E69 MATL 658. MASTERS CANDIDATE E67 887 ME Credit to be determined in each case. DOCTORAL CANDIDATE E67 888 ME Credit to be determined in each case.Systems Science and Mathematics (E68)** Departmental Section/Faculty list for research, project and other related courses:01 TBA02 Dai03 Ghosh04 05 Isidori06 TBA07 Katz08 Peters09 Mukai10 Murphy11 Rodin12 Kim14 Guo15 Tarn16 Wheeler17 Zaborszky18 TBA19 TBA20 Schattler21 Byrnes INDEPENDENT STUDY E68 140 SSM All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 15 units. COMPUTER CONTROL OF A MODEL TRAIN E68 145A SSM This course is designed for engineering freshmen. Students learn to control a model train via an IBM personal computer in the Control Systems Engineering Laboratory. Specifically, they learn the basics of programming, the AD/DA interface between the computer and the model train set, the use of the special software for controlling the AD/DA interface and ultimately the real-time control of the model train. The course emphasizes team projects in which a group of students develop computer programs for controlling a model train. Although helpful, knowledge of a programming language such as BASIC and PASCAL is not a prerequisite. Credit 2 units. Design credit 2 units. 01 M 12:00p-1:00p XXXI Bryan 306/Day 02 F 12:00p-1:00p XXXI Bryan 306/Joseph Napoli Laboratories: A M 9:00a-11:00a Bryan 306/Day B W 9:00a-11:00a Bryan 306/[TBA] C Th 12:00p-2:00p Bryan 306/Napoli D F 1:00p-3:00p Bryan 306/TBA COMPUTER CONTROL OF A ROBOT E68 145B SSM This course is designed for engineering freshmen. Students learn to control a robot via an IBM personal computer in the Systems Engineering Laboratory. Specifically, they learn the basics of programming, the interface between the computer and the robot, the use of the special software for controlling the interface and ultimately the real-time control of the robot. The course emphasizes team projects in which a group of students develop computer programs for controlling a robot. Credit 2 units. Design credit 2 units. 01 Tu 10:00a-12:00p XXXI TBA /[TBA] 02 F 1:00p-3:00p TBA /[TBA] Laboratories: A Tu 3:00p-5:00p Bryan 306/[TBA] B F 10:00a-12:00p Bryan 306/[TBA] DECISION ANALYSIS/ARTIFICIAL INTEL SFTWR E68 149A SSM Decision-making processes, whether dealing with simple daily-life problems or complex problems of modern societies, are of similar nature. The theoretical framework underlying any decision-making process is developed and applied to a variety of problems. Personal computers and latest decision support software used extensively for application and individual projects. Theory and applications are equally emphasized. Topics: introduction to personal computers and software; the problem of making rational decisions; case studies; the structure of decision-making processes; hierarchical goal planning; preference analysis; valuation of alternatives; comparison of evaluation methods. Credit 2 units. Design credit 2 units. 01 F 2:30p-4:30p XXXI Lopata 201/ Revetta INTRODUCTION TO MANUFACTURING PROCESSES E68 204 SSM MATRIX ALGEBRA E68 309 SSM Same as L24 Math 309. ENGINEERING MATHEMATICS E68 317 SSM The Laplace transform and applications; series solutions of differential equations, Bessel's equation, Legendre's equation, special functions; matrices, eigenvalues, and eigenfunctions; vector analysis and applications; boundary value problems and spectral representations; Fourier series and Fourier integrals; solution of partial differential equations of mathematical physics. Prerequisite: Math 217 or equivalent. Credit 4 units. SECT 01: Wednesday 10:00 am for optional help session. NO help session the FIRST WEEK OF CLASS. 01 MTuWThF 10:00a-11:00a XXVII Lopata 101/Katz 02 TuTh 5:30p-7:30p XX Brown 118/Wheeler PROBABILITY AND STATISTICS FOR ENGINEERING E68 326A SSM Study of probability and statistics together with engineering applications. Probability and statistics: random variables, distribution functions, density functions, expectations, means, variances, combinatorial probability, geometric probability, normal random variables, joint distribution, independence, correlation, conditional probability, Bayes theorem, the law of large numbers, the central limit theorem. Applications: reliability, quality control, acceptance sampling, linear regression, design and analysis of experiments, estimation. Prerequisites: Math 233 or equivalent. Credit 3 units. Credit 3 units. 02 TuTh 11:30a-1:00p XII Louderman 458/Wheeler INDEPENDENT STUDY E68 400 SSM All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 15 units. SECT 01: Prereqs: Junior standing, consent of an instructor CONTROL SYSTEMS DESIGN E68 431A SSM Introduction to theory and practice of automatic control for both discrete- and continuous-time systems. Representations of the system: transfer function, block diagram, signal flow graph, difference and differential state equation and output equation. Analysis of control system components. Transient and steady-state performance. System analysis: Routh-Hurwitz, root-locus, Nyquist, Bode plots. System design: PID controller, phase-lead, phase-lag, and lead-lag compensators, pole placement via state feedback, observer, stability margins in Nyquist and Bode plots. Emphasis on design principles and their implementation. Design exercises with a CAD (computer-aided design) package for specific engineering problems. Prerequisite: EE 379, ME 417, or SSM 351A. Credit 3 units. Design credit 1.5 units. Same as E68 SSM 531. 01 MW 2:30p-4:00p VII TBA /Dai RANDOM PROCESSES & KALMAN FILTERING E68 434 SSM Probability and random variables, random processes, linear dynamic systems and random inputs, the discrete Kalman filter, applications, the extended Kalman filter for nonlinear dynamic systems. Kalman filter design using a computer package. For graduate credit, a term project is required. Credit 3 units. Design credit 1 unit. Same as E68 SSM 534. 01 TuTh 5:30p-7:00p XXXI TBA /Wise ANAL. & SIMULATION OF DISCRETE EVENT SYS E68 462 SSM Study of the dynamic behavior of discrete event systems and techniques for analyzing and optimizing the performance of such systems. Covers both classical and recent approaches. Classical topics include Markov chains, queueing theory, networks of queues, related algorithms, and simulation methods. Recent approaches include decomposition and aggregation, approximation, sample-path analysis, and perturbation analysis of nonclassical systems. Applications are drawn from various areas, including production systems. Prerequisites: Math 217, SSM 325 or 326A or equivalent, CS 136G or equivalent. Credit 3 units. Design credit 2 units. 01 TuTh 4:00p-5:30p LXX TBA /Dille ROBOTICS: DYNAMICS AND CONTROL E68 463 SSM Homogeneous coordinates and transformation matrices. Kinematic equations and the inverse kinematic solutions for manipulators, the manipulator Jacobian and the inverse Jacobian. General model for robot arm dynamics, complete dynamic coefficients for six-link manipulator. Synthesis of manipulation control, motion trajectories, control of single- and multiple-link manipulators, linear optimal regulator. Model reference adaptive control, feedback control law for the perturbation equations along a desired motion trajectory. Design of the control system for robotics. Prerequisites: knowledge of programming language C or PASCAL; SSM 317, and SSM 351A or 431A (SSM 351A or 431A may be taken concurrently with permission of instructor). Credit 3 units. Design credit 1.5 units. SECT 01: Fridays are for makeup classes. 01 MWF 1:00p-2:30p XVIII TBA /Tarn OPTIMIZATION E68 480 SSM Optimization problems with and without constraints. The projection theorem. Convexity, separating hyperplane theorems; Lagrange multipliers, Kuhn-Tucker-type conditions, duality; computational procedures. Optimal control of linear dynamic systems; maximum principles. Use of optimization techniques in engineering design. Prerequisites: SSM 309 and 381, or permission of instructor. Credit 3 units. Design credit 1.5 units. Same as E68 SSM 506. 01 TuTh 10:00a-11:30a XXII TBA /Sundarapandian SYSTEMS ENGINEERING LABORATORY E68 490A SSM Experimental study of real and simulated systems and their control. Identification, input-output analysis, design and implementation of analog controls. Noise effects. Design and implementation of control laws for specific engineering problems. Corequisite: SSM 431A. Prerequisite: PASCAL or C language. Credit 3 units. Design credit 2.5 units. SECT 01: (Thursday lecture is a backup.) 01 TuTh 12:00p-1:00p XXXI TBA /William Murphy Laboratories: SECT A: Limit of 6 students per lab. A Tu 1:00p-4:00p Bryan 306/[TBA] SECT B: Limit of 6 students per lab B Th 1:00p-4:00p Bryan 306/[TBA] SYSTEMS DESIGN PROJECT E68 499 SSM Term design project, directed by a faculty adviser, requiring use of systems theory, techniques, engineering, and concepts. This project is carried out in cooperation with either local industry or university laboratories. The solution of a real technological or societal problem is carried through completely, starting from the stage of initial specification, proceeding with the application of systems engineering methods, and terminating with an actual solution. Required documents are a written proposal and a final report on the project. An oral presentation of the project also is required. Prerequisite: Junior or senior standing. (Do not take during last semester of the BS program.) Credit 3 units. Design credit 3 units. SECT 01: 01 TBA XXXI TBA /Dai Ghosh INDEPENDENT STUDY E68 500 SSM All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 15 units. SECT 01: Time and place to be arranged with instructor MATHEMATICS OF MODERN ENGINEERING II E68 502 SSM Review and systematic presentation of many of the mathematical tools which are of current importance in the various engineering disciplines: matrices, vectors, tensors, complex variables, integral transforms, and partial differential equations. Selected topics from all of these areas, with emphasis on applications. Recommended for all engineering graduate students who have not had this material. (Does not carry graduate credit for SSM majors.) Prerequisite: SSM 317 or equivalent or consent of instructor. Credit 3 units. SECT 01: Prereq: SSM 501. Fridays are for makeup classes. 01 MWF 4:00p-5:30p LXXX TBA /Ghosh OPTIMIZATION E68 506 SSM Same as E68 SSM 480. ADVANCED NUMERICAL ANALYSIS E68 512 SSM Special topics to be chosen from numerical solution of partial differential equations, uniform and least-squares approximation spline approximation, Galerkin methods and finite element approximation, functional analysis applied to numerical mathematics, and other topics of interest. Prerequisite: SSM 511 or consent of instructor. Offered if sufficient enrollment. Fridays are for makeup classes. Credit 3 units. SECT 01: Fridays are for makeup classes. 01 TuThF 5:30p-7:00p LXXII TBA /X. Guo CONTROL SYSTEMS DESIGN E68 531 SSM Same as E68 SSM 431A. RANDOM PROCESSES & KALMAN FILTERING E68 534 SSM Same as E68 SSM 434. CALCULUS OF VARIATIONS E68 543A SSM Introduction to the theory and applications of the calculus of variations. Theory of functionals; variational problems for an unknown function; Euler's equation; variable end-point problems; variational problems with subsidiary conditions; sufficient conditions for extrema: applications to optimum control and/or to other fields. Prerequisite: SSM 317 or equivalent. Credit 3 units. Design credit 0.5 units. 01 MW 11:00a-12:30p XXVIII TBA /Rodin LINEAR DYNAMIC SYSTEMS II E68 552 SSM Introduction to filtering and stochastic control. Advanced theory of linear dynamic systems. Geometric approach to the structural synthesis of linear multivariable control systems. Disturbance decoupling, system invertibility and decoupling, extended decoupling and the internal model principle. Prerequisite: SSM 551. Credit 3 units. Design credit 0.8 units. SECT 01: Fridays are for makeup classes. 01 MWF 4:00p-5:30p LXXX TBA /Tarn NONLINEAR DYNAMIC SYSTEMS E68 553 SSM State space and functional analysis approaches to nonlinear systems. Questions of existence, uniqueness, and stability; Lyapunov and frequency-domain criteria; w-limits and invariance, center manifold theory and applications to stability, steady state response and singular perturbations. Poincare-Bendixson theory, the van der Pol oscillator and the Hopf Bifurcation theorem. Prerequisite: SSM 551. Credit 3 units. SECT 01: Fridays are for makeup classes. 01 TuThF 4:00p-5:30p LXX TBA /[TBA] RANDOM VAR & STOCHASTIC PROCESSES II E68 571A SSM Mathematical foundations of probability theory, including constructions of measures, Lebesque-measure, Lebesque-integral, Banach space property of Lp, basic Hilbert-space theory, conditional expectation. Kolmogorov's theorems on existence and sample-path continuity of stochastic processes. An in-depth look at the Wiener process. Filtrations and stopping times. Markov processes and diffusions, including semigroup properties and the Kolmogorov forward and backward equations. Prerequisites: SSM 570 or equivalent, Math 411. Credit 3 units. 01 TuTh 2:30p-4:00p XVII TBA /Schattler INSTRUMENTS & COMPONENTS FOR AUTOMATIC C E68 581 SSM Review of sensor and actuator technologies. Sensor technologies encompass the physical entities to be measured and the corresponding measurement techniques,and actuator technologies cover electrical and hydraulic power actuators. Typical measurements include: position, temperature, pressure, inertial and relative motion, deformation and proximity. The course will also cover the modern class of smart sensors, which include a transducer, some form of digital intelligence, and integrated input/output interfaces. These sensors exhibit chip level integration of micromachining, micromechanical, and microelectronic technologies. Realization of classical sensor techniques in semiconductor form are analyzed. Amplification and signal conditioning at the microcircuit level required to interface sensors with on-chip microprocessors are presented, as well as the current and anticipated communication protocols used in communication within contemporary automotive and industrial control systems. Throughout, emphasis will be given to the specification, selection and application of instruments and sensors to realize fully functional and economical control systems. Prerequisite: SSM 431 or equivalent. (Offered in response to student interest.) Credit 3 units. 01 MW 5:30p-7:00p LXXXIII TBA /[TBA] PROCESS CONTROL USING COMPUTERS E68 584 SSM Same as E67 ME 204. VISIONICS, DYNAMICS AND CONTROL E68 585 SSM The aim of this course is to introduce problems in machine vision pertaining to analysis of dynamic scenes. The course introduces imaging geometry of perspective projection and Lie theoretic framework in describing rigid body dynamics. Shape and motion estimation problems are studied in the framework of perspective systems wherein we introduce new notions of observability and identifiability. Parameter estimation problem is introduced as a problem in nonlinear filtering as applied to perspective systems. Visually guided feedback control problems are introduced with applications to robotics, telerobotics and navigation of vehicles. New topics of current interest would be discussed and introduced as needed. Prerequisite: SSM 551 or EE 529 or equivalent or consent of the instructor. Credit 3 units. 01 MW 2:30p-4:00p VII TBA /Ghosh SEMINAR IN ARTIFICIAL INTELLIGENCE IN CONTROL E68 591D SSM Credit 3 units. SECT 01: Prereqs: Consent of instructor 01 Th 11:30a-12:30p XXXI TBA /Rodin MASTERS RESEARCH E68 599 SSM All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 15 units. DOCTORAL RESEARCH E68 600 SSM All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 15 units. MASTERS CANDIDATE E68 887 SSM All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units. DOCTORAL CANDIDATE E68 888 SSM All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit 3 units.ENGINEERING MANAGEMENT (T55)01 TBA02 Darby03 Browdy04 Clancy05 Morgan06 Shultz07 Lipeles08 Ballard09 Turner10 Spitznagel INDEPENDENT STUDY T55 500 ETEM Credit to be arranged. Credit variable, maximum 6 units. 01 TBA XXXII TBA /TBA PRINCIPLES OF STRATEGIC PLANNING T55 522A ETEM The process of management is interwoven with strategic planning. Strategic planning is developed in detail. The engineering and technology functions are linked to business policy. The strategic management process is introduced. Fundamental analytical tools for strategic decisions. Analyses of selected cases apply the conceptual framework. Credit 3 units. 01 Th 5:30p-8:00p XLII 1/18/00 - 5/1/99 TBA /Bade ENGINEER PROJECT MANAGEMENT T55 523 ETEM Basic fundamentals and advanced concepts of engineering project management applicable to projects and programs, both large and small. Project management skills, techniques, systems, software and application of management science principles will be covered and related to research, engineering, architectural, and construction projects from initial evaluations through approval, design, procurement, construction, and startup. Credit 3 units. 01 M 5:30p-8:00p LXII 1/18/00 - 5/1/00 TBA /Williams MANAGING TECHNICAL PROFESSIONALS T55 524 ETEM Structure, design, and theory of how to improve the effectiveness of the technical members of an organization. Nature and dynamics of conflict among technical professionals, including understanding conflict and conflict management behavior. Overview of the role of communication in creating and resolving conflicts. Effectiveness of managerial leadership in the technological organization. Prerequisite: T55-521. Credit 3 units. 01 M 5:30p-8:00p LXII 1/18/00 - 5/1/00 TBA /Kramer DESIGNING, MANAGING, AND IMPROVING OPERATIONS (DMIO) T55 550C ETEM This course is aimed at students who intend to manage operations in the manufacturing and service industries. The focus is primarily on the individual operating unit, in both manufacturing and services. Case studies are the primary learning tool, addressng DMIO in three ascending levels of analysis. Module 1 addresses the design, management, and improvement of the fundamental building block, manufacturing processes. Module 2 looks at the systems used to coordinate processes, focusing on the use and management of information technology. Module 3 addresses the operating unit as a whole. Credit 3 units. 01 Th 5:30p-8:00p XLII TBA /Schoep ENGINEERING LAW T55 561 ETEM Legal principles and procedures relevant to engineering management and technology-based organizations. Focus on contracts, agency, government regulations, negligence, litigation, common business transactions, and trade secrets. Credit 3 units. 01 Tu 5:30p-8:30p LXII 1/15/00 - 5/1/00 TBA /Dunlap TECHNICAL COMM. FOR ENGINEERING MANAGERS T55 563 ETEM Effective written and oral communications for engineering managers. Basic consideration of audience analysis, graphic aids, techniques for constructively editing your own work and that of others. Achieving clarity, precision, and brevity. Generic elements of proposals. Continuing discussion of communication ethics, imperatives, and options. Interpersonal, organizational, and regulatory factors affecting communication of technical information. Practice in oral presentation. Enrollment limited to 15 students. Credit 3 units. 01 W 5:30p-8:00p LXXXIII 1/18/00 - 5/1/00 TBA /BallardSTRUCTURAL DES TECH (T50)GRAPHICS T50 145 ATCE Same as E64 CE 145A.SYSTEMS & DATA PROCESSING (T81)** Departmental Section/Faculty list for research, project and other related courses:01 TBA02 Darby03 Browdy04 TBA05 Morgan06 Shultz07 Lipeles08 Ballard09 Turner10 Spitznagel11 Husar12 TBA13 Arvidson14 Harmon15 Darte16 Klocke17 TBA18 Dmytryszyn19 Shulman20 Pickard21 Rodin22 Mandelker23 Haefner24 Frisse25 TBA26 Hartog27 Cytron28 Forst29 Gillvery FUNDAMENTALS OF INFORMATION SYSTEMS T81 205A TSDP This course will cover the concepts and fundamentals involved with information systems as found within enterprises. Topics include: hardware, software, connectivity, and usage. Usage will include general applications of computers, software development principles, and lab experiences with personal productivity tools such as word processors, spreadsheets, and database systems. The history of computing and computer devices will be reviewed along with th impact of computers on society. Credit 3 units. 01 Tu 6:30p-9:00p LXXIV 1/18/00 - 5/1/00 TBA /Dahl INFORMATION COMPUTING T81 210A TSDP For the student with a limited background in computers and information processing. Develops conceptual and practical skills starting with the computer and working toward manipulation of data to produce information. Includes experience with mainframe computers and related information-processing software. Note: T81-210A or T81-205A is a prerequisite for T81-251C and is recommended before taking other programming courses. Credit 3 units. SECT 01: Internet Address: BRR@CEC.WUSTL.EDU 01 W 6:30p-9:00p LXXXV 1/18/00 - 5/1/00 TBA /Rouse INFO SYSTEMS PROGRAMMING - COBOL I T81 251C TSDP Application of programming logic and techniques using COBOL. Structured programming techniques are used to write computer programs on workstation technology with an emphasis on business-oriented problems. Prerequisite: T81-205A or T81-210A. Credit 3 units. 01 W 6:30p-9:00p LXXXV 1/18/00 - 5/1/00 TBA /Paradise INFO. SYS. CONCEPTS & TOOLS OF ANALYSIS T81 261 TSDP Focuses on analyzing information in organizations. Introduction to the system life cycle and to the basic tools used to define and analyze the logical requirements of existing and new systems. Manual and automated tools for analysis. Students will be expected to apply analytical tools to a variety of cases. Students who have taken T81-260 may not take this course for credit. Prerequisite: T81-211B or departmental approval. Credit 3 units. 01 Th 6:30p-9:00p XLV 1/18/00 - 5/1/00 TBA /Condit Bockhorn INFORMATION SYSTEMS TECHNOLOGY T81 310A TSDP Overview of computer system hardware components, including data communication equipment. Mainframes, minicomputers, workstations, and microcomputers. Discussion of typical hardware system architecture and system software. Students who have taken T81-485 may not take this course for credit. Prerequisite: T81-205A or T81-210A. Credit 3 units. 01 Tu 6:30p-9:00p LXXIV 1/18/00 - 5/1/00 TBA /Grimes DATA STRUCTURES AND FILE STRUCTURES T81 320B TSDP Applied data structures including stacks, queues, linked lists, graphs, trees. Sequential and random access files. Searching, sorting, and merging. Indexing, hashing. Prerequisite: a programming language. Credit 3 units. 01 W 6:00p-8:30p LXXXIV 1/18/00 - 5/1/00 TBA /Beck EFFECTIVE HUMAN COMMUNICATION FOR INFO T81 355B TSDP Topics include basics of good writing, procedure and business writing, charting, stand-up presentations, documentation issues, interviewing techniques, and conflict management. Examination of how organizational structures channel and change human communications. Prerequisite: U11-102, 2 semesters of English composition. Credit 3 units. 01 TBA XXX 1/18/00 - 5/1/00 TBA /[TBA] INDEPENDENT STUDY T81 400 TSDP All sects. TBA. Refer to **section/faculty list at start of departmental entry for selections in this course. Credit variable, maximum 6 units. INTRO TO THE MANAGEMENT OF INFO SYSTEMS T81 412B TSDP Overview of the major issues, topics, and problems in the field of EDP management. Topics include planning and organization, personnel management, EDP auditing, disaster planning, security, legal, and ethical issues. Prerequisite: T81-431A or departmental approval. Credit 3 units. 01 M 6:30p-9:00p LXIV 1/18/00 - 5/8/00 TBA /Cannon COMPUTER SOFTWARE-OPERATING SYSTEMS T81 420 TSDP Addresses the features and capabilities of modern and small-scale operating systems. Topics include virtual storage techniques, the linkage editor, memory utilization, multiprocessor configurations, job management, task management, and data management with emphasis on concrete knowledge needed by the typical application programmer or technical computer analyst. Prerequisite: T81-310A or departmental approval. Credit 3 units. 01 M 6:30p-9:00p LXIV 1/18/00 - 5/1/00 TBA /Newberry SPECIAL TOPICS: FUNDAMENTALS OF MODERN PROGRAMMING LANGUAGES T81 450F TSDP This course covers the fundamentals of modern-day computer programming and reinforces the presented materials with hands-on programming exercises using the BASIC, C/C++, HTML and JAVA programming languages. The student will learn about the myriad of programming languages, methodologies, architectural models and infrastructure design choices that are available to design and implement applications in today's network-centric computing environment. A significant portion of the content and grading will be related to laboratory programming assignments both in and out of classtime. Prerequisite: none. Credit 3 units. 01 Th 6:30p-9:00p XLV 1/18/00 - 5/1/00 TBA /Curtis SPECIAL TOPICS: JAVA T81 450G TSDP Credit 3 units. 01 W 6:30p-9:00p LXXXV 1/18/00 - 5/1/00 Lopata 401/Domke DEPT COMPUTING 4TH GENERATION LANGUAGES T81 452 TSDP Surveys the various types of fourth-generation languages, looking at the capabilities and typical uses of each type. Effect on application development, prototyping, and evaluation of the trade-off between using procedural versus nonprocedural languages. FOCUS will be used to provide in-depth knowledge and practical experience. Credit 3 units. 01 Tu 6:30p-9:00p LXXIV 1/18/00 - 5/1/00 TBA /Holdenried MICROCOMPUTING TECHNOLOBY II T81 462 TSDP Detailed study of strategies for desktop systems technology with emphasis on the evaluation of design components in terms of function, cost, and architecture. Data communications, processing, and production technologies such as client-server computing and document imaging systems. Prerequisite: T81-461 or departmental approval. Credit 3 units. 01 M 6:30p-9:00p LXIV 1/18/00 - 5/1/00 TBA /Coambes Helwick NETWORKING SYSTEMS T81 487 TSDP Introduction to the interconnection of desktop computer systems into local and wide area networks. Emphasis on hands-on activity and demonstration of state-of-the-art technology whenever possible. Fundamental technologies, concepts, and business influences of networking and the relationship to information systems architecture and domestic/international standards. Popular commercial products and implementation alternatives, including systems design, administration, and management. Prerequisite: T81-484B. Credit 3 units. 01 W 6:00p-8:30p LXXXIV 1/18/00 - 5/1/00 TBA /Brooks SYSTEMS DEVELOPMENT PROJECT T81 490B TSDP Comprehensive systems development project that requires analysis, design, and possible implementation alternatives. Systems life cycle documentation will be produced for the project. Documentation for project planning and control. CASE tools will be used. Prerequisites: T81-310A, T81-431A. Credit 3 units. 01 TBA XXXII 1/18/00 - 5/1/00 TBA /[TBA] INDEPENDENT STUDY T81 500 TSDP Prerequisite: Departmental approval. Credit 3 units. INFORMATION TECHNOLOGY T81 501B TSDP A review of the major platforms of computing will be covered (mainframe, mid-range, and micro). Specific examples of actual computing platforms will be reviewed emphasizing their applicability in particular circumstances. Special emphasis will be given to operating systems software, telecommunications, and client server computing. Prerequisite: T81-505A or appropriate background. Credit 4 units. 01 W 6:30p-9:30p LXXXV 1/18/00 - 5/1/00 TBA /Mack APPLIED INFORMATION TECHNOLOGIES T81 502B TSDP This course reviews a variety of broadly applied information technologies. Technologies reviewed include database, Computed-Aided Software Engineering (CASE), object oriented, Electronic Data Interchange (EDI), imaging, and Graphical User Interfaces (GUI's). How these technologies help provide specific information solutions will be covered. Prerequisite: T81-501B or graduate standing. Credit 4 units. 01 W 6:00p-9:00p LXXXIV 1/18/00 - 5/1/00 TBA /Kleine ORGANIZATIONAL DYNAMICS OF TECH ASSIMILA T81 503B TSDP This course focuses on the organizational implications of information technology. The three concepts of primary concern are organizations, information technology, and technology transfer along with their inter-relationships. Topics will include assimilation and diffusion of technology, effects of technology on organizations and organizations on technology, and how organizations may be analyzed to assess the role of information technology. Strategic use of information technology will also be covered. Prerequisite: T81-505A or appropriate background. Credit 4 units. 01 Th 6:30p-9:30p XLV 1/18/00 - 5/1/00 TBA /Browdy Zaloudek MANAGING INFORMATION TECHNOLOGY T81 504B TSDP Major issues dealing with imaging information technology in the enterprise will be covered. These include aligning IS with enterprise goals, role and job distinctions, hardware/software resource acquisition/selection, staffing and managing departmental computing. Prerequisite: T81-503B. Credit 4 units. 01 Tu 6:30p-9:30p LXXIV 1/18/00 - 5/1/00 TBA /Kamman Hopkins MANAGERIAL COMPUTING T81 505A TSDP The course is meant to provide a broad understanding of computing technology as an area of substantial managerial concern. A survey of computing technologies as used in business/government enterprises is provided. Conceptual foundations for information and systems are covered, along with a review of how application information systems are constructed within complex environments. Credit 3 units. 01 W 6:00p-8:30p LXXXIV 1/18/00 - 5/1/00 TBA /Blair SEMINAR IN CONTEMPORARY INFORMATION TECHNOLOGY ISSUES T81 507B TSDP The focus of this course will be where the study and practice of information technology is headed. This will include discussions of legal, ethical, and privacy issues concerning information technology. Also a review of recent topics in software development, metrics, re-engineering, and quality assurance will be covered. The student will benefit most from this course after having completed the MIM core, or by having substantial practical experience in the information technology field. Credit 3 units. SECT 01: Special 6 week course. 01 Sa 9:00a-4:00p XXXIV 1/22/00 - 2/26/00 TBA /Zaloudek SOFTWARE PROJECT MGMT. IN ORGANIZATION T81 509A TSDP This course covers project management principles for software system development. It includes discussions of alternative project management approaches and concepts, and how to choose between them when managing a project. The focus of this course is a parametric analysis of a project so its complete environment becomes manageable. A lab experience with a project management tool will also be provided. Credit 3 units. 01 Tu 6:00p-9:00p LXXIII 1/18/00 - 5/1/00 TBA /Bickel MANAGEMENT SUPPORT SYSTEMS T81 520B TSDP This course is a survey of tools, technologies and applications used to support management processes and to provide intelligence about the state of the business. Topics covered include Decision Support Systems, Groupware, Executive Support Systems, the Corporate Data Warehouse, Online Analytic Processing, Expert Systems and Geographic Information Systems. Case studies and industry speakers highlight strategies for successful implementation of this class of system. Opportunities are provided for students to have hands-on experience with a variety of tools. The only technical expertise assumed is exposure to spreadsheets and the WWW. Credit 3 units. 01 Th 6:00p-8:30p XLIV 1/18/00 - 5/1/00 TBA /Bourdeau MODERN DATABASE CONCEPTS & APPLICATIONS T81 572B TSDP This course extends basic database concepts to current database issues that impact IS technology. Issues such as data modeling and implementation, dictionaries and repositories, distributed database, legacy systems and reverse engineering, and object orientation will be explored. Hands-on experience with leading database products will be an integral part of the course. A familiarity with basic database concepts and design principles is assumed. Credit 3 units. 01 M 6:30p-9:00p LXIV 1/18/00 - 5/1/00 TBA /Sudbeck RESEARCH AND RESEARCH DESIGN FOR INFO. MGMT T81 591 TSDP Both quantitative and qualitative research approaches will be covered. Approaches will include surveys, literature, field studies, human factors, and active research. Problems of validity and reliability will be discussed. The course will include a review of current research in Information Management. Students will be expected to design a research project. Credit 3 units. 01 M 4:00p-6:30p LX 1/18/00 - 5/1/00 Lopata 104/Browdy TECHNICAL COMPUTING (T56) DEPARTMENTAL COMPUTING WITH 4TH GENERATION LANGUAGES T56 452 ETTCTELECOMMUNICATIONS MGT (T82)INDEPENDENT STUDY T82 500 MTM Prerequiste: permission of Instructor. Credit variable, maximum 6 units. 01 TBA XXXII TBA /[TBA] 03 TBA XXXII TBA /Browdy 15 TBA XXXII TBA /Darte TELECOMMUNICATIONS REGULATION & PUBLIC T82 532A MTM The course addresss the history, current status and likely future of legal, regulatory, and public policy dimensions fo the telecommunications industry. Bell system divestiture, the Telecommunications Act, the history of competition, and federal and state regulatory policies are discussed. The effects of changing technologies on industry structure and policy are examined. While the focus is largely on regulation and policy in the United States, other key countries are also considered. Credit 3 units. 01 M 6:30p-9:00p LXIV 1/18/99 - 5/1/00 TBA /Parsons SPECIAL TOPIC: THE INTERNET, TRANSPARENT COMMUNICATIONS, AND TCP/IP T82 550B MTM This special topic course will relate the underlying communications technology (TCP/IP) which has proved so successful (and transparent) in supporting the burgeoning Internet. This network of networks is an international phenomenon of growing academic, commercial, and government communications and information access. This type of wide-open, standards-based environment is what major corporations see as a model for modern, distributed, client-server systems not to mention a growing, global marketing tool. This is a fast paced, demanding curriculum, but promises to be fun and pertinent. Credit 3 units. 01 Th 6:00p-8:30p LXIV 1/18/00 - 5/1/00 TBA /Darte WIDE-AREA NETWORKS AND APPLICATIONS T82 551A MTM This course provides an overview of the critical management planning issues associated with ISDN (Integrated Services Digital Network). Topics include value-added services, the requirements to support ISDN, technical specifications of standards, and variations in public policy issues. Some hands-on lab exercises will be utilized to explain technology issues. Credit 3 units. 01 Tu 6:00p-8:30p LXXIII TBA /McDermid NETWORK SYSTEMS MANAGEMENT T82 580 MTM Network systems management is a set of layered responsibilities which ensure that the network communication channels are continuously available and perform optimally from source to destination. Today, networks may be local to the department or global to the enterprise and may encompass third-party services and networks. This course is divided into two main focus areas. First, network systems management will be defined and investigated from its broadest context, and the various functional requirements will be identified. Strategies and standards for each of these support areas will be discussed from organizational and operational perspectives. Second, the technology of network systems management will be investigated focusing on tools and techniques available and emerging today. Major categories of tools will be demonstrated or used in hands-on lab experiences. Credit 3 units. 01 W 6:00p-8:30p LXXXIV TBA /McDermid