معرفی
Mark E. Bowen serves as Associate Professor in the Department of Physiology and Biophysics at Stony Brook University's Renaissance School of Medicine, where he investigates scaffold proteins critical for excitatory neurotransmission and neurological disorders including autism, epilepsy, and stroke-related neurodegeneration.
Education:
- Ph.D., University of Illinois at Chicago (1998)
Research Interests:
Dr. Bowen's laboratory employs reductionist biochemical reconstitution and single-molecule fluorescence microscopy to decode how MAGuK scaffold proteins organize synaptic signaling complexes. His work focuses on intrinsic protein disorder, posttranslational modifications (phosphorylation/palmitoylation), and dynamic protein interactions within the postsynaptic density. This research bridges structural biology and neuroscience to elucidate mechanisms underlying synaptic plasticity and neurological disease pathogenesis.
Publication Trends:
Analysis of Dr. Bowen's 2011-2018 publications reveals consistent innovation in single-molecule biophysical techniques, particularly FRET-based conformational analysis of PSD-95 scaffold domains. His work demonstrates increasing emphasis on quantitative benchmarking of imaging methodologies and disease-relevant modifications of synaptic proteins, establishing foundational principles for how dynamic protein assemblies govern neurotransmission.
Scientific Awards:
No specific awards are documented in the provided materials.
Advising and Grants:
As Principal Investigator of the Bowen Lab, Dr. Bowen mentors graduate students in the Department of Physiology and Biophysics. His research program is supported by competitive extramural funding, though specific grant mechanisms are not detailed. The laboratory maintains active collaborations with international structural biology groups, reflecting its methodological leadership in single-molecule neuroscience.
Laboratory:
The Bowen Lab (Basic Science Tower T-5, Room 124) operates a cutting-edge single-molecule imaging facility focused on reconstituted synaptic systems. Current projects integrate in vitro membrane models with advanced microscopy to decode the 'rules' governing spontaneous assembly of postsynaptic protein networks, with direct relevance to neurological therapeutics.
