WilliamCharlesStaceyMDPhD

PubMed

• 3 citations
  The accuracy of quantitative EEG biomarker algorithms depends upon seizure onset dynamics
  Garnett C. Smith, William C. Stacey
  Epilepsy Research. 2021-06-24
• 63 citations
  A taxonomy of seizure dynamotypes.
  Maria Luisa Saggio, Dakota Crisp, Jared M Scott, Philippa J. Karoly, Levin Kuhlmann
  Elife. 2020-07-21
• 8 citations
  Interictal high frequency background activity as a biomarker of epileptogenic tissue.
  Truman Stovall, Brian Hunt, Simon Glynn, William C. Stacey, Stephen V. Gliske
  Brain Communications. 2021-08-31

Journal Articles

• On the Nature of Seizure Dynamics  
  Jirsa, V., Stacey, W.C., Quilichini, P., Ivanov, A., And Bernard, C., Brain, 8/1/2014
• Synaptic Noise and Basket Cells produce Epileptiform Oscillations in a Hippocampal Computer Model.  
  Stacey, W.C., Lazarewicz, M., and Litt, B, J. Neurophysiol. 102: 2342-2357
• Noises On.  
  Lopez, J.C, Nature Reviews Neuroscience. 2: 756

Books/Book Chapters

• Little Black Book of Neurology. 
  Chapter: Acute Stroke Protocol, Aphasia, Asterixis, Ataxia, Cerebellum, Dysarthria, Immunization related peds, Macrocephaly, Microcephaly, Neglect, Spinocerebellar atrophy 
  Stacey, WEditors: O. Zaidat and A. Lerner.Edition 5th,
• Youman’s Neurological Surgery. 
  Chapter: Deep Brain Stimulation for Epilepsy: Scheduled and Responsive Stimulation 
  Fisher, R. and Stacey, WSaunders/Elsevier, Philadelphia, PA

Abstracts/Posters

• Stochastic Resonance in Hippocampal CA1 Neurons.
  Stacey, W.C. and Durand, D.M, Annals of Biom. Eng. 26(Suppl. 1): S-103
• Pathologies common in epilepsy produce and differentiate ripples and fast ripples: predictions from a physiological computer model.
  Stacey, W.C. and Litt, B, Epilepsia 50(Suppl. 11), 321
• In vitro modulation of epileptiform activity by controlling random synaptic activity and coupling.
  Stacey, W.C. and Bernard, C, A, AES

Lectures

• Evidence for a preictal state: Bioengineering and the Philadelphia perspective. 
  Preictal Phenomena Expert Workshop, Oxford, UK
• Network recruitment to HFOs. 
  12th International Conference on Experimental Chaos and Complexity, University of Michigan
• When new EEG technologies don’t mix. 
  Design of Medical Devices Conference, University of Minnesota
• HFO synchrony. 
  Litt Neural Engineering Lab, University of Pennsylvania
• Comparing micro-and macro-electrodes. 
  International Seizure Prediction Workshop 5, Dresden, Germany
• Neural Engineering in Epilepsy. 
  Neural Engineering Lab, University of Michigan
• Alternative Therapies for Epilepsy. 
  ASET Fall Seminar Course, Ann Arbor, MI
• Bioengineering and Epilepsy. 
  Applied Physics Seminar, University of Michigan
• Electrical Biomarkers in Epilepsy. 
  Epilepsy Research Group, University of Michigan
• Neural engineering. 
  Brain Machine Interfaces course, University of Pennsylvania, 2009-present
• Modulation of epileptiform activity with coupling and synaptic noise. 
  NINDS/ANA Career Development Symposium, San Francisco
• Controlling seizures with coherence resonance. 
  Gordon Conference on Mechanisms of Epilepsy and Neural Synchrony, Maine
• Pathologies common in epilepsy produce and differentiate ripples and fast ripples. 
  Investigator’s Workshop. American Epilepsy Society, Boston
• Intracranial EEG for seizure prediction and detection. 
  4th BCI conference, Bolton Landing, New York
• High frequency oscillations: electrical biomarkers of epilepsy. 
  Grand Rounds, Department of Neurology, University of Michigan
• Synaptic noise and physiological coupling generate high frequency oscillations in a hippocampal computer model. 
  4th International Workshop on Seizure Prediction, Kansas City
• Bringing EEG into the 21st century. 
  Mathematical Biosciences Institute, Ohio State University
• Synaptic noise improves detection of subthreshold signals in hippocampal CA1 cells. 
  World Congress on Medical Physics and Biomedical Engineering, Chicago, IL
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