Credits: 3Builds on the skills and concepts introduced in Basic Newswriting by providing additional experience in beat coverage, initiating story ideas, news judgment, verifying and developing information, and writing stories for publication, broadcast or online delivery. Prerequisites: MCOM 210.
Credits: 3Training in field production and post-production skills for television and online media including camera operation, audio acquisition and nonlinear editing. Lab accompanies MCOM 331.
Credits: 3TV news videography, reporting, writing and video editing. Lab practice with videotape. Prerequisites: MCOM 210 and MCOM 331. Corequisites: MCOM 333L-333.
Credits: 3Writing in-depth feature articles for publication is the focus of this class. It will provide advanced skills and techniques in reporting and writing human interest stories and techniques in reporting and writing human interest stories that appeal to a wide variety of audiences. Prerequisites: MCOM 210-210L.
Credits: 3This course covers the principles of page design including the editing of photos, typography and graphics for print and online publications. Prerequisites: MCOM 220 or MCOM 225 or MCOM 265. Corequisites: MCOM 339L-339.
MCOM 340-340L - Broadcast Announcing and Performance and Lab
Credits: 3Junior-level required course that emphasizes presentations before cameras and microphones. This includes the fundamentals of voice and articulation for effective on-air performance on both radio and television. Other topics addressed are audience perception, delivery styles and on-camera appearance. Corequisites: MCOM 340L-340.
MCOM 359-359L - Mobile Media Design and Applications and Lab
Credits: 3This course applies effective digital production principles to a series of increasingly complex projects. Prerequisites: MCOM 220 or MCOM 225. Corequisites: MCOM 359L-359.
MCOM 365-365L - Advanced Photography and Lab (COM)
Credits: 3Exploration of photojournalism and electronic photojournalism. Emphasis on putting together a professional photojournalism portfolio including black and white and color. Lab accompanies MCOM 365. Prerequisites: MCOM 265.
Credits: 1-3A course devoted to a particular issue in a specified field. Course content is not wholly included in the regular curriculum. Guest artists or experts may serve as instructors. Enrollments are usually 10 or fewer students with significant one-on-one student-teacher involvement.
Credits: 1-12Applied, monitored, and supervised field-based learning experience for which the student may or may not be paid. Students gain practical experience; they follow a negotiated and/or directed plan of study. A higher level of supervision is provided by the instructor in these courses than is the case with field experience courses.
Credits: 3This course is a survey of international media systems, news and related issues, the role and characteristics of international journalists, and issues facing media around the world.
Credits: 3This course examines contributions of women to the mass media from colonial era to present. It also studies the portrayal of women by the news media and by advertising, and it studies the roles currently played by women in the media and in supporting areas of advertising and public relations. Cross-Listed: WMST 419-519.
Credits: 3Study of the sources, processes, content and application of law and regulation in the mass communication context and of the ethics of communications practitioners.
Credits: 3Capstone of Media Production specialization. Integrates multiple aspects of media production and online delivery of media content. Prerequisites: MCOM 331. Corequisites: MCOM 431L-431.
MCOM 433-433L - Advanced TV News Reporting and Lab
Credits: 3In-depth analysis of television news reporting, writing, videography and video editing techniques. Major emphasis on out of class assignments. Prerequisites: MCOM 331 and MCOM 333. Corequisites: MCOM 433L-433.
Credits: 3This course is designed to provide students with a background in the practice, techniques, and theories of newsroom management in a multimedia world. Students further their multimedia storytelling skills through video, audio, online, and interactive journalism applications, study the organization of stories according to news values and the legal and ethical responsibilities of the news producer and reporter. Prerequisites: MCOM 311-311L.
MCOM 438-438L - Public Affairs Reporting and Lab (COM)
Credits: 3Covering and writing news on legislation, public policy, and social issues at the local, county, and state level. Includes discussion of freedom of information guidelines. Lab accompanies MCOM 438. Prerequisites: MCOM 210. Corequisites: MCOM 438L-438.
Credits: 3This class explores the process of science writing and examines various kinds of science writing through readings, guest speakers, and writing assignments. A key emphasis is how to present scientific information to a lay audience.
Credits: 1-3A highly focused, and topical course. The format includes student presentations and discussions of reports based on literature, practices, problems, and research. Seminars may be conducted over electronic media such as internet and are at the upper division or graduate levels. Enrollment is generally limited to fewer than 20 students.
Credits: 1-4Includes directed study, problems, readings, directed readings, special problems and special projects. Students complete individualized plans of study which include significant one-on-one student-teacher involvement. The faculty member and students negotiate the details of the study plans. Enrollments are usually 10 or fewer students. Meetings depending upon the requirements of the topic.
Credits: 1-5Includes current topics, advanced topics and special topics. A course devoted to a particular issue in a specified field. Course content is not wholly included in the regular curriculum. Guest artists or experts may serve as instructors. Enrollments are usually of 10 or fewer students with significant one-on-one student/teacher involvement.
Credits: 1-12Applied, monitored and supervised, field-based learning experience for which the student may or may not be paid. Students gain practical experience; they follow a negotiated and or directed plan of study. A higher level of supervision is provided by the instructor in these courses than is the case with field experience courses.
ME 121-121L - Production and Fabrication Processes and Lab
Credits: 2Overview of manufacturing production and fabrication processes from an engineering design viewpoint. Topics include: cutting, forming, shaping and finishing raw materials; fastening and joining techniques; advanced manufacturing methods; precision measurement and layout. Corequisites: ME 121L-121.
ME 212-212L - Mechanical Engineering Design Technologies and Lab
Credits: 2This course provides an introduction to several mechanical engineering design technologies and computer-aided tools that ME students will use throughout their coursework. Students will be introduced to engineering graphics, including freehand sketching, 2D/3D computer aided drafting (CAD) and graphical presentations of designs (views, sections, dimensioning, and tolerancing). Computer-aided engineering tools for solving complex mathematical systems will also be presented. Prerequisites: MATH 115 or instructor consent. Corequisites: ME 212L-212.
Credits: 2Introduction to the engineering design process, including development of the problem statement, modeling, research, cost/benefit analysis, and interaction of system components. Design optimization techniques will be used to drive design decisions. The course will incorporate consideration of economic, social, environmental and manufacturing constraints within the engineering design process. Design projects will be used to instill these concepts. Prerequisites: EM 214, ME 121-121L, and ME 212-212L. Corequisites: ME 230L-230.
Credits: 3Introduction to the design process, statement of problem, modeling, research, interaction of system components. Economic, social, and environmental limitations; and manufacturing processes and constraints. Factors of safety, reliability. Utilization of engineering software for graphics and vector methods in mechanical design. Design project. Prerequisites: EM 214.
Credits: 3Structure of materials, including atoms, perfect and imperfect crystals and phases. Diffusion mechanisms. Mechanical properties, dislocations and strengthening mechanisms. Failure theory. Phase diagrams and phase transformations in metals, including development of microstructure and alteration of mechanical properties. Applications and processing of metal alloys, ceramics, polymers and composites. Prerequisites: MATH 123 and CHEM 112.
Credits: 3Thermodynamic properties of gases, vapors and mixtures. Zeroth, First and Second Laws of Thermodynamics. Entropy. Availability and irreversibility. Prerequisites: PHYS 211 and EM 215.
Credits: 3Thermodynamic power cycles using vapors and gases. One-dimensional compressible flow. Energy analysis. Refrigeration cycles. Moistures and psychrometry. Maxwell’s relations. Combustion and thermochemistry. Prerequisites: ME 311 and MATH 321.
Credits: 3Terminal course for non-mechanical engineering students. Fundamental equations of thermodynamics. Properties of gases and vapors. Thermodynamic cycles. Introduction to heat transfer. Prerequisites: PHYS 211 and MATH 125.
Credits: 3Analysis of motion and design of linkages, cams, gears, gear trains, planetary gear trains. Analytic and graphical solution of positions, velocities, accelerations, static and dynamic forces. Balancing of engine mechanism, flywheels analysis. Synthesis of planar mechanisms and introduction to spatial mechanisms. Computer applications. Prerequisites: EM 215.
Credits: 3Free and forced vibration of single-degree-of-freedom system. Vibration measurement. Vibration transmission and isolation. Multi-degree-of-freedom systems, matrix methods, vibration control and damping treatments. Introduction to continuous systems. Prerequisites: EM 215, EM 321 and MATH 331 or MATH 471.
Credits: 3Crystalline structure and physical properties of metals, phase transformation diagrams, effect of mechanical or thermal treatment on grain structure of ferrous and non ferrous alloys. Laboratory demonstrates fundamental principles and presents necessary techniques of metallography. Prerequisites: ME 241. Corequisites: ME 341L-341.
Credits: 3Modern industrial engineering. Planning, organizing and directing industrial enterprises. Quantitative analysis of management problems in production planning and control, quality control, reliability, facility planning, project economics and PERT. Applications and examples from realistic situations. Prerequisites: STAT 381 or consent.
ME 376-376L - Measurements and Instrumentation and Lab
Credits: 2Instruments for measuring pressure, temperature, flow, strain, vibration and sound. Experimental data analysis for accuracy, error and uncertainty. Prerequisites: ENGL 277. Corequisites: ME 376L-376, EM 321 and EM 331.
Credits: 3Comfort and health requirements for space conditioning. Psychrometrics, steady-flow processes involving air-vapor mixtures. Heating and cooling load calculations. Basic air conditioning systems. Emphasis on systems design approach. Prerequisites: EM 331, ME 312 and ME 314. Corequisites: ME 415 or consent.
Credits: 3Theory, design and operation of spark ignition and compression-ignition engines. Performance characteristics and efficiencies; combustion and thermochemistry of fuel-air mixture exhaust emissions as they pertain to air pollution. Prerequisites: EM 331 and ME 312.
Credits: 3Theory, design, operation and energy transfer in Turbo-machines. Steam, gas and hydraulic turbines. Pumps, fans and centrifugal and axial flow compressors. Prerequisites: EM 331 and ME 312.
Credits: 3Control of particulates and gaseous pollutants. Design and operating characteristics of gravity settlers, cyclones, electrostatic precipitators, fabric filters, scrubbers, incinerators, adsorption beds and absorption towers. Prerequisites: ME 311.
Credits: 3Basic principles of steady and unsteady conduction, convection of heat and mass transfer and thermal radiation. Computational methods of heat transfer. Prerequisites: ME 311, EM 331 and MATH 321;or consent.
Credits: 3Students will learn to apply the principles of energy conversion, energy conservation, and value engineering to the analysis of energy conversion systems, renewable energy generation equipment and systems. Students will become familiar with energy consumption requirements for conventional systems and the applications of renewable energy systems to provide alternative energy sources. Energy efficiency and global environmental sustainability are emphasized. A background in basic thermodynamics is assumed. Prerequisites: ME 311, ME 314 or PHYS 341.
ME 417-417L/517-517L - Computer-Aided Engineering and Lab
Credits: 3Introduction to applied structural and thermal design and analysis using the ANSYS finite element software package. One-, two- and three-dimensional static structural problems modeled using the direct generation method as well as solid modeling techniques. Steady-state and transient thermal analysis are performed. Thermally-induced stressed and displacements that occur in non-uniform temperature structures, solutions of two- or three-dimensional fluid mechanics problems, and optimization techniques are discussed. Corequisites: ME 417L-417.
Credits: 3Systems approach to design, mathematical modeling, simulation and optimization of systems, with particular emphasis on thermal systems. Prerequisites: ME 312, ME 415 and EM 331.
Credits: 3Fundamentals of mechanics. Energy methods. Working stresses and failure in materials. Design considerations of basic machine elements – shafts, springs, belts, clutches, brakes, chains, gear, bearings, fasteners and flywheels. Lubrication. Classification of engineering materials. Prerequisites: EM 321 and ME 321.
Credits: 3Airfoil characteristics, wing shapes, static and dynamic forces, viscosity phenomena, boundary layer theory, flaps and slots, propellers, stability, control and performance. Prerequisites: EM 331.
ME 433-433L/533-533L - Non-Destructive Testing and Evaluation and Lab
Credits: 3Various non-destructive testing techniques will be introduced with emphasis on ultrasound techniques. For ultrasound, physical principles of acoustic waves in solid media will be introduced, and acoustic sensor design and properties will be discussed. For other techniques, including eddy current techniques, X-ray techniques, acoustic emission, etc., basic physics of the method and modern applications will be introduced. Experiments and demonstrations will be conducted to enhance students’ understanding of the concepts and applications. Prerequisites: EM 215, EM 321 and MATH 321.
Credits: 3Objectives, applications, and scope of the subject. Methods of fluid dynamics and thermodynamics. Compressible flow in ducts, nozzles and diffusers. Propagation of plane waves; shock dynamics, characteristics, interaction of waves. General theorems of gas dynamics. Prerequisites: EM 331 and MATH 331.
Credits: 3Study of stress and strain as applied to mechanical engineering problems. Residual stresses and dynamic loading. Theories of failure. Design of components that form a complete working system. Design analysis of various current case studies. Prerequisites: EM 321. Corequisites: ME 438L-438.
Credits: 3Analysis of heating, ventilating and air conditioning requirements. Design of heating, ventilating and air conditioning systems. Economic, energy and environmental considerations. Use of computers as design aids. Prerequisites: ME 410-510 or consent. Corequisites: ME 439L-439.
Credits: 3The use of digital computer as a design tool. Techniques and algorithms which increase the rationality of the design process. Design principles and optimization theory. General approach to constrained optimization. Probabilistic approaches to design. Computer-aided design to reliability specification. Application of computer graphics to engineering design. The emphasis is on extending the designer’s potential and not on automating those activities.
ME 442-542 - Applications of Computational Fluid Dynamics
Credits: 3This course provides a background and working knowledge of software analysis tools, techniques and methodologies utilized in modern engineering practice in computational fluid dynamics (CFD). The course builds upon fundamental concepts of thermodynamics, fluid mechanics, and computer-aided design and analysis and applies these principles within high-fidelity computational models to solve theoretical and practical problems commonly encountered with thermal fluid and energy systems. This course provides students with team-centered collaborative opportunities to practice CFD analysis in engineering design applications. Prerequisites: MATH 321, EM 331 and ME 311.
ME 446-546 - Engineering Mechanics in Biomedical Applications
Credits: 3This course focuses on biomedical applications of the principles of engineering mechanics. The concepts of kinematics, dynamics, thermal-fluid system analysis, and transport phenomena are applied in developing engineering models of various aspects of anatomy and physiology and in the design of prosthetics and biomedical devices. Topics include biomechanics; engineering properties of biomaterials; computer applications in medicine; research and development in biomedical engineering; and ethics at the nexus of medicine and engineering. Prerequisites: EM 331 and ME 321.
Credits: 3Modeling of mechanical, electrical, hydraulic and pneumatic systems. Laplace transform and system response. Transfer functions; control systems and frequency response. System analysis using polar, logarithmic and Root locus plots. System compensation. Introduction to nonlinear controls. Prerequisites: EE 300-300L, MATH 331 or MATH 471.
Credits: 1Experiments in mechanical vibration, control and robotics. Force and acceleration measurements, free and forced vibrations of systems, response of mechanical systems, stability of a feedback control system, performance of compensators. Prerequisites: ME 323.
ME 461-561 - Analysis and Design of Industrial Systems
Credits: 3Problems in product design and development, marketing, forecasting, capacity evaluation, plant layout, materials handling from standpoint of interrelated and integrated systems. Prerequisites: ME 362.
Credits: 1Experiments in fluid mechanics, thermodynamics and heat transfer. Single and multi-stage compressors. Heat pumps and air conditioning. Blowers and flow measurements in ducts. Prerequisites: ME 312, ME 376, ME 415 and EM 331.
Credits: 2A systems approach to design, covering need analysis, design phases, design processes, economics, optimization, and success criteria. Students will design, build, and test an independent project which must be different than any previous design they have attempted. Prerequisites: ME 421; and MATH 331 or MATH 471.
ME 479-479L - Mechanical Systems Design II and Lab (COM)
Credits: 2The second semester continuation of Mechanical Systems Design. Integrates concepts from all areas in Mechanical Engineering into a practical design project. Detailed design and analysis, manufacturing, and assembly will be the focus. Prerequisites: ME 323 or ME 478.
Credits: 1-2A highly focused, and topical course. The format includes student presentations and discussions of reports based on literature, practices, problems, and research. Seminars may be conducted over electronic media such as internet and are at the upper division graduate levels. Enrollment is generally limited to few than 20 students.
Credits: 1-5Includes directed study, problems, readings, directed readings, special problems and special projects. Students complete individualized plans of study which include significant one-on-one student-teacher involvement. The faculty member and students negotiate the details of the study plans. Enrollments are usually 10 or fewer students. Meetings depending upon the requirements of the topic.
Credits: 1-5Includes current topics, advanced topics and special topics. A course devoted to a particular issue in a specified field. Course content is not wholly included in the regular curriculum. Guest artists or experts may serve as instructors. Enrollments are usually of 10 or fewer students with significant one-on-one student/teacher involvement.
Credits: 1-3Special, intense sessions in specific topic areas. Approximately 45 hours of work is required for each hour of credit. Workshops may vary in time range but typically use a compressed time period for delivery. They may include lectures, conferences, committee work, and group activity.
Credits: 1-3Applied, monitored and supervised, field-based learning experience for which the student may or may not be paid. Students gain practical experience; they follow a negotiated and or directed plan of study. A higher level of supervision is provided by the instructor in these courses than is the case with field experience courses.
Credits: 1-3Applied, monitored and supervised, field-based learning experience for which the student may or may not be paid. Students gain practical experience; they follow a negotiated and or directed plan of study established between the student, instructor and field experience supervisor. Due to the presence of a field experience supervisor, a lower level of supervision is provided by the instructor in these courses than is the case in an internship or practicum course.
Credits: 1-3Applied, monitored and supervised, field-based learning experience for which the student may or may not be paid. Students gain practical experience; they follow a negotiated and or directed plan of study established between the student, instructor and field experience supervisor. Due to the presence of a field experience supervisor, a lower level of supervision is provided by the instructor in these courses than is the case in an internship or practicum course.
Credits: 1-3Includes Senior Project, and Capstone Experience. Independent research problems/projects or scholarship activities. The plan of study is negotiated by the faculty member and the student. Contact between the two may be extensive and intensive. Does not include research courses which are theoretical.