Basic theory of automatic control devices and their application in industrial chemical plants is emphasized. Identification of control objectives, appropriate measurements and manipulations, and possible loops between these, requires integration of the control system with the original process design. Interactions between process units are analyzed using well-known analytical tools and design strategies.
Basic theory of automatic control devices and their application in industrial chemical plants is emphasized. Identification of control objectives, appropriate measurements and manipulations, and possible loops between these, requires integration of the control system with the original process design. Interactions between process units are analyzed using well-known analytical tools and design strategies.
Overview of materials and processes for the application of plastics in the automotive industry. Engineering properties of plastics, rheology and governing relations for melt process flows. Plastic injection molding including design, control, and simulation of molding operations. Plastic part design and material selection; material testing and quality control.
Drug delivery is a multidisciplinary field that combines the expertise of engineering/pharmaceutics and medicine to design better therapies for a wide variety of diseases. This course will provide a solid foundation on the mathematical principles that underlie all drug delivery technologies. These principles will then be integrated into several delivery routes and dosage forms, including pulmonary, oral and transdermal. This combination of fundamentals and case study applications will provide a broad understanding of the origins and current state of the art in drug delivery.
A unified study of physical rate processes in liquids and vapors, including: mass, energy, and momentum transport, transport in chemically reacting systems, similarities, turbulence modeling, buoyance-induced transport and mulitcomponent diffusion.
Rate expressions for heterogeneous reaction kinetics; energy and mass transport within and external to reacting porous catalysts; design equations for multiphase, fixed and moving bed reactors.
Half-time to full-time work on thesis. May be repeated to a maximum of six semesters.
Half-time to full-time work on thesis. May be repeated to a maximum of six semesters.
May be repeated to a maximum of six semesters.
Residency credit for preparing and taking the qualifying examination. Students may register for one semester of this course in anticipation of completing the qualifying examination during the semester. The course is not repeatable and is not required.
