Michael Paul Myers, Ph.D.

 

 

Lecturer, Chemistry and Biochemistry Department

California State University, Long Beach (CSULB)

1250 Bellflower Boulevard

Long Beach CA, 90840-3903

Office: PH2-222   phone: 562-985-4936

Fax: 562-985-8557

Email: mmyers2@csulb.edu

http://www.csulb.edu/~mmyers2

 

Education

Ph.D. in Physiology, 1998

Department of Pharmacology and Physiology

University of Rochester School of Medicine and Dentistry, Rochester, New York

Advisor: Per Stampe, Ph.D.

Project:  Structure and Function of Potassium Channels

 

M.S. in Science Teaching and Curriculum, 1991

Warner School of Education and Human Development

University of Rochester, Rochester, New York

Project:  Problem Solving in Chemistry

B.A. Cum Laude in Comprehensive Science with a concentration in Chemistry, 1987

Roberts Wesleyan College, Rochester, New York

Biographical

Born, February 10, 1965 in Batavia, New York, USA

Currently reside in Long Beach, California, USA

 

Professional Research Experience:

1998-2001: Post Graduate Research Physiologist, UCLA School of Medicine, Department of Physiology, Los Angeles, California

Advisor: Professor of Physiology and Physiology Executive Vice-Chair, Diane M. Papazian.

Project:  Biogenesis of Potassium Channels

 

1988-1992: Laboratory Technician III and IV, Department of Medicine, University of Rochester Medical Center, Rochester, New York
Projects:  Study of Left Ventricular Dysfunction (SOLVD); Obesity and Endocrine Function


Teaching

University Lecturer- Department of Chemistry and Biochemistry, California State University, Long Beach, 1999 to present

Upper Division Courses:  Biological Chemistry (CHEM 441A – first of a 2 semester sequence of biochemistry for science majors) and Survey of Biochemistry (CHEM 302– second of a 2 semester sequence of general chemistry for nursing majors)

Lower Division Courses:  Chemistry Explorations (CHEM 105–chemistry for pre-service teachers in the Integrated Teacher Education Program) and Survey of General and Organic Chemistry (CHEM 202– first of a 2 semester sequence of general chemistry for nursing majors)

 

Physiology Instructor in Cellular, Nerve and Muscle, and Renal Physiology at the University of Rochester School of Medicine and Dentistry, 1994 to 1998

 

Neurobiology Teaching Assistant at the University of Rochester River Campus, 1994-1996

 

Medical School Physiology Tutor at the University of Rochester School of Medicine and Dentistry, Spring 1994 and 1995

 

High School Chemistry and General Science Teacher at West Irondequoit High School, Irondequoit, New York, 1991-92

Fellowships and Awards

Innovations in Teaching Award Winner, CSULB, 2001

Axon Instruments Travel Award Winner, Gordon Research Conference, 1999

Department of Physiology Travel Award Winner, Biophysical Society Annual Meeting, 1999

UCLA Cellular Neurobiology Postdoctoral Fellowship, 1998

NIH Postdoctoral Fellowship, 1998

Student Leadership Award, University of Rochester, 1996

Outstanding Graduate Student Teaching Award, University of Rochester, 1994

University of Rochester Graduate Fellowship, 1992

Empire State Math-Science Teaching Award, Roberts Wesleyan College, 1985

CRC Press Award for Excellence in Chemistry, Roberts Wesleyan College, 1984

Baush and Lomb Science Award, 1983

Memberships

American Chemical Society, Biophysical Society, American Association for the Advancement of Science, Society for Neurosciences, Project Kaleidoscope

 

Research Interests

Ion channels, chemistry education, protein biogenesis, neurobiology, neuropharmacology, molecular biology


Current Research Interests

Ion Channel Biogenesis:  Shaker is a prototypical ion channel (proteins that allow the transport of ions across cell membranes) and a member of the superfamily of voltage-dependent cation channels crucial to the excitability of nerve and muscle tissue.  The inquiry of these potassium channels recently resulted in a “dream come true for biophysicists” (Armstrong, C. Science 280 56, 1998), with the solving of the first crystal structure for a K+ channel in bacteria that was subsequently mapped to Shaker through toxin interactions (Doyle, D.A., et al., Science 280 69, 1998).  Little is known about the biogenesis of these proteins and their intracellular fate.  The long-term goal of my research is to elucidate the biogenesis and protein turnover in vivo of ion channels.  I have already investigated the role of glycosylation in Shaker turnover (Khanna, R. et al., Journal of Biological Chemistry 276 36, 2001).  Protein degradation is an important enterprise.  It is the means by which cells not only control the activities of normal proteins, but avoid the potentially toxic effects of defective ones as well.  Using in vitro translation / translocation systems and transfected cell lines to express wild type and mutant channels, I plan to continue to investigate the cell surface expression and subsequent degradation of these channel proteins.  The relevance of this work to the understanding of disease is evidenced by the fact that disruption of channel biogenesis is involved in the pathology of Cystic Fibrosis (a hereditary disease of the exocrine glands), LQT Syndrome (a fatal heart condition) and SIDS (sudden infant death syndrome).

 

Chemistry Education:  In an effort to continue to improve chemistry education, I have recently used my background in curriculum development and teaching to investigate student learning in general chemistry.  To facilitate this goal, I have joined Project Kaleidoscope (PKAL), which is funded by a variety of sources including the National Science Foundation.  PKAL is an informal national alliance working to build strong learning environments for undergraduate students in mathematics, engineering and the various fields of science.  I have implemented many of its proposed reforms in my teaching.  In particular, I have used inquiry based laboratories in a chemistry course for pre-service teachers, Chemistry Explorations (CHEM 105).  My other current research interest in chemistry education deals with developing an assessment plan for a general chemistry course for nursing majors.  It is hoped that this study will improve the teaching and curriculum in the introductory chemistry course for pre-service nurses.  Given the projected drastic shortage of nurses facing California and the nation, success in beginning chemistry may keep those in the field who might otherwise shy away from the daunting required courses of chemistry.

 

Publications

Khanna, Rajesh*, Myers, Michael P.*, Lane, Muriel, and Papazian, Diane M.  Glycosylation Increases Potassium Channel Stability and Surface Expression in Mammalian Cells. Journal of Biological Chemistry, Vol. 276, Issue 36, 34028-34034, September 7, 2001.
*These authors contributed equally to this work.

 

Myers, Michael P. and Stampe, Per. A Point Mutation in the Maxi-K Channel Clone dSlo Creates a High Affinity Site for Charybdotoxin. Neuropharmacology, 2000; 39(1):11-20.


Myers, Michael P. Yang, Jay, and Stampe, Per. Visualization and Functional Analysis of a Maxi-K Channel (mSlo) Fused To Green Fluorescent Protein (GFP). Electronic Journal of Biotechnology, Vol.2 No.3, December 15, 1999.

 

Presentations at Meetings

Myers, Michael P., Khanna, Rajesh, and Papazian, Diane M.  Differential Targeting of Shaker Mutant Proteins to Proteasomes.  Biophysical Journal (Annual Meeting Abstracts) 2001: 219a.

 

Khanna, Rajesh, Myers, Michael P., Lane, Muriel, and Papazian, Diane M.  Unglycosylated Shaker K+ Channel Protein Is Unstable and Degraded by Cytoplasmic Proteasomes.  Biophysical Journal (Annual Meeting Abstracts) 2001: 437a.

 

Khanna, Rajesh, Myers, Michael P., Lane, Muriel, Mock, Allan, Sandoval, Brennan, and Papazian, Diane M.  Putative Cell Surface Targeting Motif Unnecessary For Expression of Functional Shaker Channels.  Biophysical Journal (Annual Meeting Abstracts) 2001: 218a.

 

Myers, Michael P., Khanna, Rajesh, and Papazian, Diane M.  Differential Targeting of Shaker Mutant Proteins to Proteasomes.  Gordon Research Conference on Ligand Recognition and Molecular Gating, Ventura, California, USA, January 28- February 2, 2001.

 

Myers, Michael P., Silverman, William R., Saleh, Mazen, and Papazian, Diane M.  Shaker K+ Channel Targeting and Insertion in ER Membranes.  Gordon Research Conference on Mechanisms of Membrane Transport, Holderness School Plymouth, New Hampshire, USA, June 20-25, 1999.

Myers, Michael P., Silverman, William R., Saleh, Mazen, and Papazian, Diane M. Shaker K+ Channel Targeting and Insertion in ER Membranes.  Biophysical Journal (Annual Meeting Abstracts) 1999: 191a.

Myers, Michael P. and Stampe, Per.  A Point Mutation in the Maxi-K Channel Clone dSlo Creates a High Affinity Site for Charybdotoxin.  Biophysical Journal (Annual Meeting Abstracts) 1998: 20a.

 

Myers, Michael P., Yang, Jay, and Stampe, Per. Visualization and Functional Analysis of a Cloned Maxi K+ Channel (mSlo) Fused to Green Fluorescent Protein (GFP).  Biophysical Journal (Annual Meeting Abstracts) 1997: 352a.

 

Myers, Michael and Stampe, Per. Using Green Fluorescent Protein (GFP) as a Reporter Gene For Expression of Recombinant Maxi K+ Channels in a Mammalian Cell Line.  Biophysical Journal (Annual Meeting Abstracts) 1996: 194a.


Current Grants

California Department of Public Policy

CSULB Campus Assessment Committee Award for "Assessment of Student Learning Outcomes in a Survey Course of General and Organic Chemistry" - $5,700 in funding for June, 2001 – June, 2002. 

 

National Science Foundation

Participant in Course, Curriculum, and Laboratory Improvement (CCLI) grant to Pomona College to study use of a mathematics based diagnostic exam in general chemistry – total funding - $4,000 over 2 years starting in June of 2001.

 

University & Community Service

Science Olympics

Science competition for high school science students.  State Finals Event Captain Volunteer for Qualitative Analysis, CSULB, 2000 - present

 

Geffen Playhouse

Volunteer Usher for live theatre, Los Angeles, California, 1998 - present