Research labs across colleges and universities

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Browse faculty research, publications, teams, and contact details. Unclaimed listings are independently curated from public sources and do not imply endorsement or recruiting availability.

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541 research-led lab profiles

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Portrait of Jacob AdlerIndependently curated · Unclaimed
School of Earth and Space Exploration↗

Jacob Adler Research Group

Arizona State University (Tempe)

Jacob Adler · Research Assistant Professor

What surface processes and histories on Earth, Mars, and the Moon reveal past habitability and planetary evolution? The Adler Lab applies remote sensing, laboratory experimentation, modeling, and field-based geological analysis to study planetary surface processes and histories relevant to astrobiology. Current projects span comparative planetary geology, experimental simulation of surface processes, and development of remote-sensing methods to infer mineralogy and geomorphology. Researchers combine geologic mapping, GIS/remote-sensing datasets, and numerical modeling to interpret depositional and erosional records across planetary surfaces. The lab maintains a public website summarizing experimental workflows, field studies, and publications in planetary science.

Planetary GeologyAstrobiologyRemote Sensing
Portrait of Jacob D. DurrantIndependently curated · Unclaimed
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Jacob D. Durrant Research Group

University of Pittsburgh-Pittsburgh campus

Jacob D. Durrant · Associate Professor

Can computer-aided methods reliably identify small molecules that bind and modulate disease-relevant proteins in silico? The Durrant lab develops broadly applicable computer-aided drug design (CADD) techniques to identify small-molecule ligands that bind protein grooves and pockets. The group integrates computer docking, molecular dynamics simulations, and big-data/machine-learning to improve ligand-identification workflows and prioritize compounds for experimental testing. Petascale, GPU, and cloud computing are used to scale simulations and accelerate virtual screening across many targets. The lab also builds molecular-visualization tools, including ProteinVR, to explore protein structures and communicate virtual-experiment results.

computational biologycomputer-aided drug designmolecular dynamics
Portrait of Jacob JonesIndependently curated · Unclaimed
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Jacob Jones Research Group

North Carolina State University

Jacob Jones · Kobe Steel Distinguished Professor

How does the arrangement of atoms determine how materials respond to electricity and convert mechanical motion into electrical energy? The group studies piezoelectric materials with X-ray diffraction, connecting changes in crystal structure to their behavior under electric fields. Researchers investigate how moving domain walls, defects and grain size influence the properties used in ultrasound and energy-harvesting devices. Neutron, X-ray and electron scattering help reveal atomic structures in lead-free alternatives to conventional piezoelectric compounds. The work also develops statistical approaches to crystallographic analysis and examines materials for energy storage and nutrient recovery from water.

Piezoelectric materialsCrystallographyX-ray diffraction
JHIndependently curated · Unclaimed
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James H. Henderson Research Group

Syracuse University

James H. Henderson · Professor

James Henderson studies how material environments influence cell behavior, with musculoskeletal repair and regeneration as important goals. His research examines mechanical, biochemical, and topological signals that regulate cell differentiation and function. Programmable materials allow researchers to change features such as surface patterns or mechanical properties during cell culture and observe the response. The work combines biomaterials, cell experiments, and quantitative analysis to understand how engineered surroundings can guide living cells. These questions connect fundamental tissue biology with possible cell-based approaches to repairing damaged musculoskeletal tissues.

BiomaterialsTissue regenerationMechanobiology
Portrait of James HahnIndependently curated · Unclaimed
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James Hahn Research Group

George Washington University

James Hahn · Professor

What concrete three-dimensional motion and virtual-reality problems improve medical training and body-surface assessment? The Motion Capture and Analysis Laboratory develops optical motion-capture hardware and software to analyze full-body motion for healthcare research. The group builds virtual-reality simulators — for example, a neonatal endotracheal intubation simulator — combining physics-based models and interactive VR for procedural training. The lab develops optical scanning and machine-learning pipelines to assess physiological features in highly obese subjects, targeting hepatic steatosis and fibrosis. Researchers run interdisciplinary projects that pair motion capture with clinical collaborators to translate sensing and ML into health-focused studies.

JMIndependently curated · Unclaimed
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James Monaghan Research Group

Northeastern University, US

James Monaghan · Professor

Why can an axolotl regrow complex tissues that many other animals cannot replace? The lab uses this salamander to investigate the cellular and molecular basis of regeneration. Research examines the development and regrowth of limbs and the nervous system, including interactions between these organ systems. A central question asks why nerves are necessary for complex tissue regeneration. Another investigates which cellular properties permit limb and spinal-cord regrowth, connecting the biology of this regenerative animal with broader questions about tissue maintenance and repair.

RegenerationAxolotlDevelopmental biology
JWIndependently curated · Unclaimed
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James Walsh Research Group

University of Massachusetts

James Walsh · Associate Professor

How does extreme pressure create new bonding and enable synthesis of exotic solid-state materials with unusual properties? The Walsh Lab investigates chemical reactivity under extreme pressure to target synthesis of novel solid-state compounds. The group integrates dynamic compression techniques and high-pressure synthesis to access kinetically-stabilized non-equilibrium phases. Researchers apply X-ray crystallography and magnetic, spectroscopic, and bulk property measurements to characterize newly discovered materials. The team targets properties including superhardness, ultrahigh density, chemical and heat resistance, superconductivity, and permanent magnetism through controlled high-pressure chemistries.

high-pressure synthesissolid-state chemistrymaterials discovery
JRIndependently curated · Unclaimed
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Janardhan Rao Doppa Research Group

Washington State University

Janardhan Rao Doppa · Professor

Doppa develops artificial intelligence methods that help decide what to design or test next. His research connects structured machine learning and adaptive experimental design with scientific discovery and engineering optimization. WSU describes applications in hardware design, nanoporous materials, drug discovery, three-dimensional printing, cybersecurity, and agriculture. His faculty site also discusses theory-guided learning for managing system performance, power, and temperature. The distinctive opportunity is working on AI that guides expensive research and design choices, where learning algorithms must account for objectives and constraints beyond predictive accuracy alone.

Artificial intelligenceAdaptive experimental designEngineering optimization
JRIndependently curated · Unclaimed
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Jane Reusch Research Group

University of Colorado Denver/Anschutz Medical Campus

Jane Reusch · Professor of Medicine

Why can people with diabetes experience reduced exercise capacity even without obvious complications? Jane Reusch investigates the molecular basis of impaired physical function in youth and adults with type 1 and type 2 diabetes. Her research includes interventions that test whether medications improve exercise function, alongside studies of sex differences and responses to exercise training. Collaborations use advanced cardiac and vascular imaging to investigate these questions. This connects metabolic biology with clinical physiology and the measurable ability to be physically active.

DiabetesExercise capacityCardiovascular imaging
JRIndependently curated · Unclaimed
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Janet Richmond Research Group

University of Illinois Chicago

Janet Richmond · Professor

How do nerve cells organize the molecular machinery that releases chemical messages at precisely the right moment? The lab investigates synaptic transmission, including the proteins that prepare vesicles for neurotransmitter release. Research uses the small worm C. elegans as a model for understanding the nervous system. Work on the protein clarinet examined how its activity organizes other proteins at the presynaptic active zone. These studies connect genetic and molecular mechanisms with the assembly and function of the machinery responsible for communication between neurons.

Synaptic transmissionNeurobiologyC. elegans
Portrait of Jared BardIndependently curated · Unclaimed
Biology↗

Jared Bard Research Group

Texas A&M University

Jared Bard · Assistant Professor

How do cells read the molecular grammar of mRNA to produce specific, regulatable proteins during stress? The Bard Lab studies stress-induced translational reprogramming and stress-induced biomolecular condensation in cells. The group uses infection by human pathogenic viruses such as Chikungunya virus as a model to study how viruses disperse and co-opt stress granules. Researchers investigate molecular mechanisms by which viral reorganization affects host and viral translation using integrative biophysical, biochemical, and high-throughput tools. The lab applies these methods to cancer cell stress-resistance models to understand how stress granules contribute to resistance to chemotherapy.

molecular and cell biologystress responsetranslational reprogramming
JMIndependently curated · Unclaimed
Molecular and Cellular Biology↗

Jawdat M. Al-Bassam Research Group

University of California, Davis

Jawdat M. Al-Bassam · Professor, Molecular and Cellular Biology

How do tubulin cofactors and regulatory pathways control the availability and assembly of alpha/beta tubulin dimers inside cells? The group investigates regulatory mechanisms for tubulin biogenesis and polymerization using biochemical and structural approaches to link tubulin pools to microtubule function. The group determines cryo-EM and other structural states of tubulin cofactors to reveal molecular mechanisms of tubulin assembly and degradation. The group reconstitutes microtubule polymerization and depolymerization with purified TOG-domain proteins to map mechanisms of plus-end tracking and polymerase activity. The group combines genetics, biochemistry, and microscopy to test how microtubule-associated proteins tune dynamics during cell division.

microtubulesstructural biologycell division
Portrait of Jeff FosterIndependently curated · Unclaimed
Department of Computer Science↗

Jeff Foster Research Group

Tufts University

Jeff Foster · Professor and Chair

How can programming languages and program analysis make software more reliable and secure? The group develops new ways to build more reliable, secure software using programming languages, software engineering, and security research. Researchers work on program analysis, verification, and synthesis methods such as static and dynamic typing, symbolic execution, and framework synthesis to improve program understanding and tooling. Projects include types and contracts for dynamic languages (e.g., RDL) and interaction-based security for mobile apps to detect and prevent vulnerabilities. The group mentors PhD and postdoctoral researchers in building language-based tools and evaluations for real-world software.

programming languagesprogram analysissoftware security
Portrait of Jeff GrayIndependently curated · Unclaimed
Department of Computer Science↗

Jeff Gray Research Group

The University of Alabama

Jeff Gray · University Distinguished Professor

Jeff Gray's faculty-led research profile covers Computer Science Education, Engineering Education and Pedagogy, Human-Computer Interaction, and Software Engineering.

Computer Science EducationEngineering Education and PedagogyHuman-Computer Interaction
JSIndependently curated · Unclaimed
School of Biological Sciences↗

Jeffrey Skolnick Research Group

Georgia Institute of Technology

Jeffrey Skolnick · Regents' Professor; Mary and Maisie Gibson Chair & GRA Eminent Scholar in Computational Systems Biology

How can protein structure prediction and systems-level models be used to predict cellular behavior and identify druggable targets? The CE lab develops computational methods to predict protein tertiary and quaternary structure and assign enzyme functions from sequence. Researchers build tools for functional genomics, metabolic pathway assignment, and drug discovery by predicting small-molecule ligands and druggable protein targets. Methods include large-scale simulation, bioinformatics pipelines, and equilibrium/dynamic modeling of membranes and assemblies. Projects extend to cancer metabolomics and simulation of virtual cells using computational systems-biology approaches.

Computational BiologyProtein Structure PredictionSystems Biology
JWIndependently curated · Unclaimed
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Jenna Wiens Research Group

University of Michigan-Ann Arbor

Jenna Wiens · Professor

How can hospital data support useful clinical decisions when measurements are incomplete and model predictions can be unreliable? The group develops machine-learning approaches using patient images, laboratory tests and vital signs. Research includes predicting infections and other patient outcomes, learning treatment policies with causal inference and offline reinforcement learning, and evaluating how clinicians respond to AI recommendations. Another direction investigates selective prediction: withholding potentially unreliable outputs to reduce automation bias. The work connects algorithm design with the practical effects of deploying models in clinical workflows.

Machine learningClinical AIReinforcement learning
Portrait of Jennifer BernhardIndependently curated · Unclaimed
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Jennifer Bernhard Research Group

University of Illinois at Urbana-Champaign

Jennifer Bernhard · Donald Biggar Willett Professor in Electrical and Computer Engineering

How can reconfigurable antenna structures and electromagnetic design improve wireless communication and sensing? The research group develops reconfigurable active and passive antennas using MEMS, microwave switches, ferroelectric materials, and mechanical actuation to tune frequency, bandwidth, and radiation patterns. Researchers investigate electromagnetics for wireless communication, including packaging effects on internal antenna performance and synthesis approaches for embedded and IoT antennas. Methods combine theoretical electromagnetic analysis, experimental fabrication, measurements in anechoic chambers, and design-oriented modeling to optimize antenna systems for data-rate, exposure, and battery performance.

antennasreconfigurable antennaselectromagnetics
Portrait of Jennifer RexfordIndependently curated · Unclaimed
Department of Computer Science↗

Jennifer Rexford Research Group

Princeton University

Jennifer Rexford · Gordon Y.S. Wu Professor of Engineering

How can network-wide control architectures and programmable data planes be designed to enforce network-level objectives across enterprise, data-center, and Internet-scale networks? The group pursues software-defined networking and network virtualization projects such as SDX, RCP/4D, and SoftCell to explore scalable control and virtualization for operators. Researchers develop data-plane mechanisms and compact on-switch data structures for telemetry and traffic engineering, including programmable-switch sketches and Δ-sketches, to enable in-network measurement. Researchers build and evaluate prototypes on testbeds and campus/backbone deployments and document results in conference publications and technical reports. Researchers study interdomain routing, traffic engineering, and measurement to evaluate routing, policy mechanisms, and network-wide control strategies.

software-defined networkingnetwork controlnetwork virtualization
JRIndependently curated · Unclaimed
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Jennifer Ross Research Group

Syracuse University

Jennifer Ross · Professor

How do cells organize their interiors without a central manager? Jennifer Ross investigates cellular self-organization and materials inspired by living systems. Her biophysics research uses fluorescence microscopy, including total internal reflection fluorescence techniques, to track molecules and examine microtubule organization. Experiments connect the behavior of proteins and microscopic structures with the physical processes that create larger patterns. The work includes building and adapting optical instruments, bringing experimental physics into cell biology and the design of materials that can organize or respond like biological systems.

Cellular self-organizationMicrotubulesFluorescence microscopy
JSIndependently curated · Unclaimed
Department of Chemical Engineering↗

Jennifer Sinclair Curtis Research Group

University of California, Davis

Jennifer Sinclair Curtis · Distinguished Professor

How do particle–fluid interactions determine flow behavior in industrial multiphase systems, and how can models predict them reliably? The group develops fundamental model development for predicting particulate flow phenomena using multiphase computational fluid dynamics for process design and optimization. Researchers implement particulate flow models in commercial CFD software by partnering with industry codes to expand multiphase simulation capability for industrial users. The group integrates its particulate flow models into both commercial and open-source CFD packages, including incorporation into OpenFOAM and MFIX. They apply fluid flow simulations across energy, pharmaceutical, aerospace, chemical and agricultural industries to aid process design and optimization.

particulate flowmultiphase flowcomputational fluid dynamics
JHIndependently curated · Unclaimed
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Jenny Hsieh Research Group

The University of Texas at San Antonio

Jenny Hsieh · Professor

Jenny Hsieh’s laboratory investigates how neural stem cells and newly generated neurons influence brain function and disease. The group studies adult neurogenesis in the hippocampus using mouse models, circuit tools such as optogenetics and chemogenetics, and patient-derived induced pluripotent stem cells. Its disease-in-a-dish work examines genetic changes associated with epilepsy and neurodegenerative disorders. Connecting cellular mechanisms with circuit behavior helps investigate why some neurons become abnormally excitable. The research aims to inform future neurological interventions through experimental models of acquired and genetic disease.

Neural stem cellsEpilepsyAdult neurogenesis
JPIndependently curated · Unclaimed
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Jeremy Palmer Research Group

University of Houston

Jeremy Palmer · Ernest J. and Barbara M. Henley Professor

Jeremy Palmer’s group uses molecular simulation to uncover how materials behave where direct observation is difficult. Its computational research spans crystalline materials, soft and complex media, glasses, and metastable liquids, with energy and environmental applications motivating material design. Physics-based calculations and machine learning help investigate molecular transport, nanoparticle dispersion, and the structure of challenging liquids. The group also contributes simulation software and reproducible workflows. This research connects chemical engineering and statistical physics with the practical task of predicting material properties from microscopic interactions.

Molecular simulationStatistical physicsMaterials design
Portrait of Jessica L. OsterIndependently curated · Unclaimed
Earth and Environmental Sciences↗

Jessica L. Oster Research Group

Vanderbilt University

Jessica L. Oster · Professor and Department Chair

How did regional climate and wildfire regimes change over the last millennia as recorded in cave mineral chemistry? The Oster lab measures chemical signals preserved in cave minerals such as stalagmites to reconstruct past climates using geochemical proxies. The group uses precise radiometric dating and isotope analyses on stalagmite layers to build high-resolution chronologies and infer past precipitation and temperature variability. The lab leads an international NSF–SNSF project that combines radiocarbon and organic-molecule analyses to link cave records with wildfire history and ecosystem responses. Researchers deploy in‑cave monitoring instruments to capture rapid post-fire geochemical changes and provide preliminary data for larger comparative studies.

paleoclimatologycave geochemistrylow-temperature geochemistry
NJIndependently curated · Unclaimed
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Jiang Research Lab

University of Illinois Chicago

Nan Jiang · Professor

How can researchers observe chemical behavior at the scale of individual molecules and atoms? The group develops scanning-probe approaches for designing and investigating nanomaterials. A hybrid analytical technique combines nanoscale imaging with spectroscopy to obtain both surface structure and chemical information. Research examines charge transfer, electron localization, light absorption and light emission at very small length scales. The work aims to follow chemical systems dynamically at the single-molecule level and visualize electronic and vibrational behavior within molecules, connecting instrumental development with fundamental surface science.

Scanning-probe microscopyNanospectroscopySingle-molecule chemistry

Showing 217–240 of 541 labs