28 courses with the subject CME, each shown exactly as we captured it from the college's catalog, with every element we hold. Where the wording looks broken, that is our reading of the catalog, not the college's text.
Lec. 2./Credit 2. An introduction to Chemical Engineering. Treatment of system of units, unit conversions, stoichiometric and composition relation- ships; material balances in nonreactive and reactive systems; gas behavior; multiphase systems, vapor pressure and solubility. language.
Calculations II Lec. 3./Credit 3. Concept of energy, introduction to first law of thermodynamics; energy balances in non-reactive and reactive processes; applications in simulta- neous material and energy balances; transient processes; introduction to commercial process simulators. Prerequisite: CME 201.
Unified treatment of equilibrium-stage processes and mass transfer opera- tions. Introduction of mass transfer separation operations used in countercur- rent multistage equipment for distillation, extraction, leaching and absorption
This course expand the student’s understanding of transport phe- nomena. Particular emphasis is placed on developing and applying differential and integral balances. Prerequisite: EGR 216, CME 305.
This course sequence introduces the student to the general prop- erty balance equation and to various transport mechanisms for momentum, energy, and mass. Differential and integral momen- tum, energy, and mass balances will be derived and applied to engineering problems involving steady and transient transport. better is required in CME 303 before enrolling in CME 304.
Calculations Lec. 4./Credit 4. This course provides an introduction to chemical engineering. The concepts introduced in EGR 215 and EGR 216 are applied to chemical processes to obtain stream properties. Prerequisite: EGR 216.
CHE Elective Advanced Chemistry . . . . . . . . . . . . . . . - 3
Thermodynamics Lec. 4./Credit 4. This course covers the application of thermodynamics to fluid mixtures, solutions, phase equilibria and chemical reaction equilibria. Second law and production of power from heat is also covered. Prerequisite CME 303.
Lec. 3./Credit 3. This course covers the acquisition and analysis of kinetic data for chemical reactions and the design of reactors of multiple reactor systems to carry out industrial reactions. Prerequisite: CME 307.
Fundamental principles underlying Chemical Engineering operations and processes involving the transfer of momentum, heat and mass. Application of these concepts in the Chemical Engineering laboratory to realistic problems. Momentum transfer fluid flow in pipes and motion of particles in fluids. Heat transfer evaporation and heat exchange by conduction, convection and radia- tion, heat exchange equipment. Mass transfer equilibrium stage and differen- tial mass transfer concepts. Prerequisite: CME 303 and CME 304, respectively.
Basic definitions and development of the first law and second law of thermo- dynamics as it applies to non-flow and steady-flow processes; pressure- volume, temperature behavior of fluids; power and refrigeration processes.
Application of thermodynamics to fluid mixtures, solutions, vapor-liquid equilibrium, phase diagrams and chemical reaction equilibrium. Prerequisite: CHE 401.
Homogeneous reactions; derivation of rate expressions from experimental data; design of ideal reactors for isothermal and nonisothermal operations; applications of reactor design to multiple reactor and reaction systems; heterogeneous catalysis. Prerequisites: CME 304 and CME 402.
This course involves the analysis and design of chemical process control systems; feedback and feed forward controllers for a single process; stability, . tuning and simulation of PID controllers. Prerequisites: CME 304, EGR 208.
Lec. 2./Lab 3./Credit 3. This two-course sequence introduces the systems viewpoint in process design and discusses process synthesis and analysis, screening of alternatives, and economic decision making. Special emphasis is placed on process simulation and use of commercial process simulators in process design. Several small exercises and one comprehensive design project. Prerequisite: CME 202, CME 304, CME 306, CME 308 for CME 407. A grade of “C” or better is required before enrolling in CME 408.
Design of Experiments Lec. 1./Credit 1. This course introduces the student to the application of several statistical topics of practical interest. Prerequisite: CME 308.
Elective–Technical Elective . . . . . . . . . . . . . . . . . . . 3 3
TOTAL 15 12 TOTAL CREDITS FOR GRADUATION 120 *EGR 315 is a substitute for economics class ECO 201/202 DEPARTMENT OF ELECTRICAL AND
and Reaction Engineering Lec. 3./Credit 3. To introduce the principles and applications of heterogeneous catalysis. Catalyst preparation and characterization. Adsorption; heterogeneous kinetics. Diffusion and reaction in porous catalyst particles. Applications to design of catalytic chemical reactors. Industrial catalytic processes. Prerequisites: CME 304, CME 403 (or CME 302, CME 308). Hampton University 2018-2020
To teach fundamental processes occurring in combustion and related phenomena. Topics covered include a review of thermodynamics, kinetics and compressible gas dynamics, equations of the flow of reactive gas mixtures, chain reactions, chemical aspects of explosions, detonations and deflagra- tions, premixed flames (structure and propagation of laminar and turbulent flames, ignition, quenching, flashback and flowoff), laminar and turbulent diffusion flames, fluidized combustion, combustion safety. Prerequisites: CME 303, CME 402 (or CME 302, CME 307).
To impart an integrated knowledge of biological properties and principles, and of Chemical Engineering methodology. Topics covered include basics of microbiology and biochemical, enzyme technology, immobilized enzymes, metabolic stoichiometry and energetics, molecular genetics, mathematical models for single species, structured models, transport phenomena in biopro- cess systems, bioreactors, product recovery operations, control of biochem- ical processes, models of mixed populations of cells. Prerequisite: CME 301 (or CME 306); Corequisite: CME 308 (or CME 403).
Chemical Engineering Processes Lec. 3./Credit 3. A unified approach to mathematical description of Chemical Engineering systems. Classification of resulting models. Solution by various analytical methods. Determination of numerical values of model parameters. Prerequi- site: CME 302 (or CME 304); Corequisite: CME 308 (or CME 403).
To teach mathematical programming techniques and their application to Chemical Engineering. Topics covered include modeling and formulation of optimization problems, basics of optimization theory and methods (linear and constrained nonlinear programming, unconstrained optimization, optimiza- tion of discrete processes), applications of optimization (heat exchanger and separation networks, chemical reactor optimization, optimization in large-scale plant design and operation), easy-to-use computer packages and optimization with a process simulator. Corequisite: CME 407.
Physical and chemical properties of coal, methods of analysis and charac- terization. Industrial processes for cleaning, gasifying and liquefying coal to produce cleaner fuels. Prerequisite: CME 302 (or CME 304); Corequisite: CME 308 (or CME 403).
Synthesis, properties and fabrication of polymeric materials of industrial importance. Prerequisite: CME 302 (or CME 303).
Study of water, air and thermal pollution control methods. Application to solution of pollution problems in chemical industry. Corequisite: CME 302 (or CME 304).
To increase awareness, interest, motivation, and knowledge in safety and loss prevention. Topics covered include case histories, management for safety, designing for safety, hazard identification, hazard assessment, hazard warning structure, reliability engineering, pressure systems, emission and dispersion, toxicity and toxic release, fire models and fire protection, fault propagation, safety in plant operation, personal safety. Corequisite: CME 407.
Source: Hampton University's catalog, linked per course · table learning_unit · CourseShelf publish 59
