Donald Feke
Vice Provost, Case Western Reserve University
Professor, Chemical Engineering
Develops novel polymeric materials and ultrasonic-based separation processes for nano- and microscale multi-phase systems
Office: 203 Other
Phone Number: (216) 368-4343
Fax Number: (216) 358-4325
Email: donald.feke@case.edu
Education
Ph.D.,
Chemical Engineering,
Princeton University,
1981
M.A.,
Undesignated,
Princeton University,
1978
M.S.,
Chemical Engineering,
Case Western Reserve University,
1977
B.S.,
Chemical Engineering,
Case Western Reserve University,
1976
Awards and Recognitions
2015, AIChE Fellow, American Institute of Chemical Engineers
Research Interests
Research interests include particle science and processing, colloidal phenomena, dispersive mixing, and acoustic separation and materials processing methods.
Our research focuses on the physical behavior and processing characteristics of multiphase (particle-liquid or fluid-liquid) dispersions, including suspensions of biological cells. These include fundamental studies of dispersive mixing phenomena for polymer composites and morphology development in emulsions that can be used as templates for advanced materials. We have also developed several methods that use resonant ultrasonic fields to perform sharp separations with applications in chemical and biochemical processing. This has been extended to the development of biochemical reactor configurations in which processing efficiency is enhanced through the application of ultrasonic fields. Additional studies are dedicated to the development of morphology in dispersions using acoustic processing techniques.
Our research focuses on the physical behavior and processing characteristics of multiphase (particle-liquid or fluid-liquid) dispersions, including suspensions of biological cells. These include fundamental studies of dispersive mixing phenomena for polymer composites and morphology development in emulsions that can be used as templates for advanced materials. We have also developed several methods that use resonant ultrasonic fields to perform sharp separations with applications in chemical and biochemical processing. This has been extended to the development of biochemical reactor configurations in which processing efficiency is enhanced through the application of ultrasonic fields. Additional studies are dedicated to the development of morphology in dispersions using acoustic processing techniques.
Teaching Interests
Transport Phenomena. Mathematical methods.