Professor, Department of Mathematics and Statistics
Boston University, Boston, MA, 02215
We build tools to understand the brain through analysis and modeling of neural data. Topics of our recent work include:
What features characterize the dynamics of the seizing human brain?
Example publication: Schlafly, et al., Multiple sources of fast traveling waves during human seizures: resolving a controversy. J Neurosci. 42(36):6966-698, 2022.
Example publication: Spencer, et al., Source EEG reveals that Rolandic epilepsy is a regional epileptic encephalopathy. Neuroimage Clin. 33:102956, 2022.
Example publication: Kramer, et al., Scalp recorded spike ripples predict seizure risk in childhood epilepsy better than spikes, Brain, 142(5):1296-1309, 2019.
What fundamental principles govern the organization of brain rhythms?
Example publication: Kramer, Golden rhythms as a theoretical framework for cross-frequency organization. Neurons, Behavior, Data Analysis and Theory, 2022.
How do we track brain rhythms in real time?
Example publication: Wodeyar et al., A state space modeling approach to real-time phase estimation. eLife, 10:e68803, 2021.
How do we characterize interacting brain rhythms?
Example publication: Nadalin et al., A statistical framework to assess cross-frequency coupling while accounting for confounding analysis effects. eLife, 8:e44287, 2019.
We also build educational resources to help make sense of neural data.
Example publication: Kramer and Eden, Case Studies in Neural Data Analysis: A Guide for the Practicing Neuroscientist, MIT Press, 2016.
Case-Studies-Python: Are you a neuroscientist interested in using Python to analyze your data or teach your class? If so, check out this online resource.
Example lectures: Example lectures, tutorials, and syllabi available here.