
Michael P. Brenner
· Catalyst Professor of Applied Mathematics and Applied Physics and of PhysicsHarvard University · Electrical Engineering
Active 1957–2026
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About
Michael P. Brenner is a Catalyst Professor of Applied Mathematics, Applied Physics, and Physics at Harvard University, affiliated with the Harvard John A. Paulson School of Engineering and Applied Sciences. He serves as the Area Chair for Applied Mathematics and is a Kavli Scholar at the Kavli Institute for Bionano Science & Technology. His research areas include applied mathematics, fluid mechanics, modeling physical and biological phenomena and systems, artificial intelligence, science and engineering for climate technology, applied physics, soft matter science, bioengineering, biomechanics, computer science, computational and data science, electrical engineering, environmental science and engineering, materials science, and mechanical engineering. Brenner's work involves applying computational frameworks, physics-based machine learning algorithms, and modeling techniques to biomolecular design, cellular organization, and other complex physical and biological systems, contributing to advancements in scientific research and engineering.
Research topics
- Computer Science
- Natural Language Processing
- Artificial Intelligence
- Machine Learning
- Psychology
- Communication
- Linguistics
- Econometrics
- Mathematics
- Speech recognition
Selected publications
Shared computational principles for language processing in humans and deep language models
Nature Neuroscience · 2022 · 442 citations
Departing from traditional linguistic models, advances in deep learning have resulted in a new type of predictive (autoregressive) deep language models (DLMs). Using a self-supervised next-word prediction task, these models generate appropriate linguistic responses in a given context. In the current study, nine participants listened to a 30-min podcast while their brain responses were recorded using electrocorticography (ECoG). We provide empirical evidence that the human brain and autoregressiv…
The United States COVID-19 Forecast Hub dataset
Scientific Data · 2022 · 126 citations
Academic researchers, government agencies, industry groups, and individuals have produced forecasts at an unprecedented scale during the COVID-19 pandemic. To leverage these forecasts, the United States Centers for Disease Control and Prevention (CDC) partnered with an academic research lab at the University of Massachusetts Amherst to create the US COVID-19 Forecast Hub. Launched in April 2020, the Forecast Hub is a dataset with point and probabilistic forecasts of incident cases, incident hosp…
Thinking ahead: spontaneous prediction in context as a keystone of language in humans and machines
bioRxiv (Cold Spring Harbor Laboratory) · 2020 · 52 citations
Abstract Departing from traditional linguistic models, advances in deep learning have resulted in a new type of predictive (autoregressive) deep language models (DLMs). Using a self-supervised next-word prediction task, these models are trained to generate appropriate linguistic responses in a given context. We provide empirical evidence that the human brain and autoregressive DLMs share three fundamental computational principles as they process natural language: 1) both are engaged in continuou…
Mapping the ionosphere with millions of phones
Nature · 2024-11-13 · 32 citations
articleOpen accessAbstract The ionosphere is a layer of weakly ionized plasma bathed in Earth’s geomagnetic field extending about 50–1,500 kilometres above Earth 1 . The ionospheric total electron content varies in response to Earth’s space environment, interfering with Global Satellite Navigation System (GNSS) signals, resulting in one of the largest sources of error for position, navigation and timing services 2 . Networks of high-quality ground-based GNSS stations provide maps of ionospheric total electron con…
Nature Human Behaviour · 2025-03-07 · 28 citations
articleOpen accessThis study introduces a unified computational framework connecting acoustic, speech and word-level linguistic structures to study the neural basis of everyday conversations in the human brain. We used electrocorticography to record neural signals across 100 h of speech production and comprehension as participants engaged in open-ended real-life conversations. We extracted low-level acoustic, mid-level speech and contextual word embeddings from a multimodal speech-to-text model (Whisper). We deve…
Recent grants
DMREF: Self Assembly with DNA-Labeled Colloidal Particles and DNA Nanostructures
NSF · $1.5M · 2014–2019
Research and Education in Physical Mathematics
NSF · $288k · 2006–2010
Research and Education in Physical Mathematics
NSF · $399k · 2014–2019
Frequent coauthors
- 35 shared
Carl P. Goodrich
Institute of Science and Technology Austria
- 32 shared
David A. Weitz
Harvard University
- 31 shared
Alain Pumir
École Normale Supérieure de Lyon
- 28 shared
Detlef Lohse
Max Planck University of Twente Center for Complex Fluid Dynamics
- 27 shared
Lucy J. Colwell
University of Cambridge
- 25 shared
Vinothan Manoharan
Harvard University
- 23 shared
Bobbi Aubrey
Princeton University
- 22 shared
Ofer Kimchi
Princeton University
Labs
Michael P. Brenner LabPI
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