Marsh Life Science Building, Rm 120 A
109 Carrigan Dr
Burlington, VT 05405
United States
- Ph.D., University of California, Santa Barbara
- University of British Columbia, NIH Postdoctoral Fellow
- Vermont EPSCoR Director
- Vermont Genetics Network Director
BIO
My interests center on chemoreception using Paramecium, a single-celled animal, as a model. These cells are like little swimming neurons and, like our neurons that detect odors or tastes, they respond to stimuli by membrane electrical changes.
We approach sensing of chemical stimuli on several levels:
- membrane biochemistry to identify receptors and "signal transduction" components that turn a chemical stimulus signal into anelectrical one;
- molecular genetics to clone genes for receptors and other proteins in chemoreception and to make predictable changes in the gene and protein sequences;
- measurements of calcium and calcium metabolism by fluorescence and isotopic methods;
- measurements of internal, second messengers such as cyclic nucleotides;
- electrophysiology to characterize membrane electrical changes;
- motion analysis to digitize normal and mutant swimming.
We are extending our expertise in plasma membrane calcium pumps (PMCAs) to mouse olfactory neurons. We have found 4 PMCAs in mouse olfactory neurons, and loss of PMCAs in knockout animals (courtesy of G. Shull) slows calcium clearance after stimulation.
Judith Van Houten, Ph.D. Biography
Publications
Judith Van Houten Publications (DOCX)
Awards and Achievements
- 1991 – University Scholar Award
- 2008 - Elected to the Vermont Academy of Science and Engineering
- 2008-09 - Elected Chair of the EPSCoR PD Council
- 2009 - University Distinguished Professor
- 2010 - American Association for the Advancement of Science (AAAS) Fellow
- 2010 - Vermont Academy of Arts & Science (VAAS) Fellow
- 2010 - "Best Peasant Anywhere Award"
- 2014 - Recipient of Distinguished University Citizenship and Service Award
Area(s) of expertise
Chemical signal transduction
Bio
My interests center on chemoreception using Paramecium, a single-celled animal, as a model. These cells are like little swimming neurons and, like our neurons that detect odors or tastes, they respond to stimuli by membrane electrical changes.
We approach sensing of chemical stimuli on several levels:
- membrane biochemistry to identify receptors and "signal transduction" components that turn a chemical stimulus signal into anelectrical one;
- molecular genetics to clone genes for receptors and other proteins in chemoreception and to make predictable changes in the gene and protein sequences;
- measurements of calcium and calcium metabolism by fluorescence and isotopic methods;
- measurements of internal, second messengers such as cyclic nucleotides;
- electrophysiology to characterize membrane electrical changes;
- motion analysis to digitize normal and mutant swimming.
We are extending our expertise in plasma membrane calcium pumps (PMCAs) to mouse olfactory neurons. We have found 4 PMCAs in mouse olfactory neurons, and loss of PMCAs in knockout animals (courtesy of G. Shull) slows calcium clearance after stimulation.
Judith Van Houten, Ph.D. Biography
Publications
Awards and Achievements
- 1991 – University Scholar Award
- 2008 - Elected to the Vermont Academy of Science and Engineering
- 2008-09 - Elected Chair of the EPSCoR PD Council
- 2009 - University Distinguished Professor
- 2010 - American Association for the Advancement of Science (AAAS) Fellow
- 2010 - Vermont Academy of Arts & Science (VAAS) Fellow
- 2010 - "Best Peasant Anywhere Award"
- 2014 - Recipient of Distinguished University Citizenship and Service Award
Areas of Expertise
Chemical signal transduction