CHEMICAL ENGINEERING

GRADUATE COURSE DESCRIPTIONS

(CHMG)

 

511. Transport Phenomena.

Development of the mass, energy and momentum transport equations.  Use of these equations in solving chemical engineering problems.

Prerequisite:  Undergraduate transport course.  Three credits

 

525. Biotechnology for Engineers.

Application of engineering principles to biological processes.  Topics include enzyme-catalyzed reactions, kinetics of cell growth and product formation, bioreactor design and scale-up, agitation and aeration, and introduction to biological waste treatment.  Includes fermentation experiments.

Prerequisite:  Undergraduate reaction engineering course.   Three credits

 

527. Bioengineering Separations.

Presentation of the engineering aspects of separation and purification processes for biochemical and pharmaceutical products.  Downstream processing is discussed, including removal of insolubles, product isolation, product purification, and polishing.

Prerequisite:  Undergraduate mass transfer course.    Three credits

 

707. Process Thermodynamics.

Emphasis on the application of thermodynamics to process design;  development and use of thermodynamic principles in single-phase and multi-phase processes; applications in reactor design.

Prerequisite:  Undergraduate thermodynamics course   Three credits

 

709. Membrane Process Technology.

Principles of membrance processes:  reverse osmosis, ultrafiltration, microfiltration, electrodialysis, pervaporation, gas separation membranes, and their applications to traditional and emerging engineering fields.  Mass transfer and design aspects for both liquid and gas separation systems.

Prerequisite:  Undergraduate mass transfer course   Three credits

 

713. Chemical Reactor Design.

Application of engineering analysis, computer design and optimization of chemical reactor systems.

Prerequisite:  Undergraduate reaction engineering course   Three credits

 

714. Modern Separation Processes.

Mass transfer principles and design techniques applied to absorption and adsorption systems; gas-liquid, gas-solid and liquid-solid separation processes; mass transfer with chemical reaction; thermal effects; multi-component transfer.

Prerequisite:  Undergraduate mass transfer course   Three credits

 

717. Process Simulation and Design.

Applications of contemporary computer software to increase speed, improve comprehension, and enhance presentation; of results when analyzing, modeling and solving a wide variety of process design problems.  Topics include design of fired heaters, bubble column reactors, generalized shell-and -tube exchangers, and multi-component condensers; FUG calculations for sloppy splits; and plate-to-plate calculations.   Three credits

 

726. Separation and Recovery Processes.

Emphasis on non-thermal separation and recovery processes used primarily for solid-liquid separations.  Topics include crystallization, precipitation, sedimentation, centrifugation, particle filtration, and microfiltration.  Applications in chemical processing, industrial wastewater treatment and bilogical processing. 

Prerequisite:  Undergraduate mass transfer course.   Three credits

 

727. Air Pollution Control.

Emphasis on particulate control.  Industrial sources and regulatory codes for particulate emissions; review of fine particle technology; development of performance equations and design procedures for gravity settlers, cyclone-electrostatic precipitators, baghouse and venturi scrubbers; atmospheric dispersion and stack design; overview of gaseous control equipment.  Three credits

 

729. Hazardous Waste Incineration.

Stoichiometric and thermochemical calculations; legislation, permitting and siting; other options; incineration of solid waste, sludge, liquid waste, and gases; land-based and shipborne incineration; design of incinerators, quenchers, waste heat boilers, fans and gaseous control equipment; design project application. Three credits

 

735, 736. Independent Project.

Chemical engineering project on selected topics, involving experimental research, process design, computer simulation , and/or authoring technical papers.  Written report or publication, and oral presentation are required.  Topic to be selected by the student with approval of a faculty advisor and the Chairperson.  Three to Six credits

 

739. Introduction to Design Project.

Reaction path screening; exploratory technical and economic process evaluations; process synthesis; preliminary process flow diagram; material and energy balances; quick sizing design techniques and factored cost estimate; material selection.  Written report or publication and oral presentation are required.  Three credits

 

740. Design Project.

Preliminary equipment design techniques; computer-aided process optimization studies; hazards and safety evaluation; site location and layout studies; detailed economic evaluation.  Written report or publication and oral presentation are required.

Prerequisite:  CHMG 739    Three credits

 

741. Special Topics in Chemical Engineering.

Special topics of current interest to graduate students; subject matter will be announced in advance of semester offering.  Written report or publication and oral presentation are required.