Explore a research direction

Human-computer interaction
research labs.

Find labs studying how people interact with computing systems. These listings bring together research interests, faculty profiles, and available publication references so you can explore different approaches to human-computer interaction.

What to compare

Read the methods as carefully as the topic. A group might emphasize design, building interactive systems, or studying people. Look for the populations and settings involved and ask what role a new researcher would take in a project.

Profiles appear here because their listed research keywords match this topic. Inclusion does not establish an open position. Check the official sources and any published application instructions before reaching out.

Prepare a research introduction ↗

16 research-led lab profiles

Browse labs by their listed college affiliation
DSIndependently curated · Unclaimed
↗

Action Lab

Northeastern University, US

Dagmar Sternad · University Distinguished Professor

How do people learn to control their movements when the body and surrounding objects create complex dynamics? The Action Lab combines behavioral experiments with mathematical models of movement and nonlinear control. Researchers investigate single-joint and coordinated movements, manipulation tasks and locomotion, including experiments in virtual environments. Measurements of motion and force are complemented by muscle and brain electrical recordings. The work also studies older adults and people with neurological conditions such as Parkinson's disease, connecting movement coordination with questions about learning and impairment.

Motor controlMotor learningComputational neuroscience
Portrait of Alex ZhangIndependently curated · Unclaimed
Department of Computer Science↗

Alex Zhang Research Group

The University of Alabama

Alex Zhang · Associate Professor

Alex Zhang's faculty-led research profile covers Embedded Systems, and Human-Computer Interaction.

Embedded SystemsHuman-Computer Interaction
Portrait of Chenhao TanIndependently curated · Unclaimed
↗

Chenhao Tan Research Group

The University of Chicago

Chenhao Tan · Associate Professor of Computer Science

How can AI explanations and interactions be designed so humans make better decisions with machine assistance? The Chicago Human + AI (CHAI) Lab builds algorithms to align AI explanations with human interpretation to improve human-AI decision making. The group analyzes large textual datasets and natural experiments to understand how language shapes human decisions, such as persuasion and bargaining. Researchers develop decision-focused summarization and delegation methods so AI highlights the most decision-relevant information for people. The lab explores few-shot learning from human explanations to enable people to efficiently improve large language models.

human-centered machine learningnatural language processingcomputational social science
Portrait of Allison M. OkamuraIndependently curated · Unclaimed
Department of Mechanical Engineering↗

Collaborative Haptics and Robotics in Medicine (CHARM) Lab

Stanford University

Allison M. Okamura · Richard W. Weiland Professor of Engineering; Professor of Mechanical Engineering

How can a robot communicate through touch? Allison Okamura’s CHARM Lab designs the devices, models, and control methods that make physical interaction useful in robotics and medicine. Its projects connect wearable haptic garments, surgical teleoperation, soft robots, and training environments. Haptiknit explores knitted structures with distributed stiffness for wearable feedback; loop-closure grasping investigates how a robot can hold objects strongly and gently. Researchers combine mechanical design, fabrication, control, and studies of human interaction to understand both what a device does and how a person experiences it.

HapticsMedical roboticsHuman-robot interaction
Portrait of Elizabeth MurnaneIndependently curated · Unclaimed
Thayer School of Engineering↗

Empower Lab

Dartmouth College

Elizabeth Murnane · Charles H. Gaut & Charles A. Norberg Assistant Professor of Engineering

How can interactive technology support health while reflecting the needs and experiences of people often underserved by existing tools? The Empower Lab develops digital therapeutics and behavioral interventions through human-centered design, with an emphasis on health equity. Researchers explore games, tangible objects, musical interfaces, immersive environments and socially assistive robots as forms for these technologies. Projects address mental health, women's health, mobility and pain, aging at home and childhood development. The work combines iterative design and prototyping with implementation, interviews, observation and user studies to develop and evaluate interactive tools.

Digital healthHuman-computer interactionHealth equity
Portrait of Henny AdmoniIndependently curated · Unclaimed
Robotics Institute↗

Human And Robot Partners (HARP) Lab

Carnegie Mellon University

Henny Admoni · Associate Professor, Robotics Institute

A helpful robot needs to understand the person beside it. Henny Admoni’s HARP Lab studies how robots infer human intentions, learn from human teachers, and collaborate in everyday tasks. Its projects investigate robots that ask for help when uncertain, models of what a human teacher believes, and shared control that blends human input with robot actions. Assistive robotics provides a practical setting for these questions, including interfaces for people with motor impairments. Selected publications examine transparent robot policies and the feedback preferences of power-wheelchair users controlling a robotic arm.

Human-robot interactionAssistive roboticsRobot learning
Portrait of Chris S. CrawfordIndependently curated · Unclaimed
Department of Computer Science↗

Human-Technology Interaction Lab (HTIL)

The University of Alabama

Chris S. Crawford · Associate Professor

The Human-Technology Interaction Lab (HTIL), led by Dr. Chris S. Crawford at The University of Alabama, studies brain-computer interfaces and human-robot interaction. The team combines neurophysiological sensing, software engineering, and robotics to explore how technology can respond to a person’s cognitive state. Projects include Brains and Blocks for creating neurofeedback applications, brain-controlled drone racing, EEG signal processing with bci.js, and NeuroBrush for interactive art. Collaborative research also explores RF sensing for sign language recognition. Computing education connects this work with hands-on learning about physiological interfaces.

Brain-Computer InterfacesHuman-Robot InteractionPhysiological Computing
HPIndependently curated · Unclaimed
↗

Humanitarian Informatics Lab

George Mason University

Hemant Purohit · Associate Professor of Information Sciences and Technology

During a crisis, useful information can be buried in a flood of online messages. Hemant Purohit develops human-centered AI systems for analyzing behavior and managing unstructured, multi-source data in real time. His Humanitarian Informatics Lab combines natural-language processing, semantic computing, and machine learning with social and cognitive theories. Applications include emergency preparedness and response, public safety, and cybersecurity. The research emphasizes human control and collaboration with intelligent systems, offering an intersection of data science, public services, and crisis informatics.

Human-centered AICrisis informaticsNatural-language processing
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
KBIndependently curated · Unclaimed
↗

Kim Binsted Research Group

University of Hawai’i at Mānoa

Kim Binsted · Professor

A successful space mission depends on people functioning together as well as on its technology. Binsted’s research interests include artificial intelligence, human computer interfaces, and long duration human space exploration. Her HI-SEAS research has examined life in an isolated Mars analog habitat on Mauna Loa. Studies investigated crew dynamics, morale, stress, food, and performance during extended confinement. This work explores how crew selection and support can influence team functioning, connecting computing and human behavior with the practical challenges of sustained exploration far from Earth.

Human space explorationHuman computer interactionTeam dynamics
PJIndependently curated · Unclaimed
Department of Computer Science↗

Pranay Joshi Lab

The University of Alabama

PRanay Joshi · Assistant Professor

An illustrative lab studying how people interpret AI uncertainty and how reliable systems support better decisions.

Responsible AIHuman–AI interactionFoundation-model evaluation
Portrait of Sayanton DibboIndependently curated · Unclaimed
Department of Computer Science↗

Sayanton Dibbo Research Group

The University of Alabama

Sayanton Dibbo · Assistant Professor

Sayanton Dibbo's faculty-led research profile covers Artificial Intelligence, Cyber Security, Data Privacy, and Generative AI & LLMs.

Artificial IntelligenceCyber SecurityData Privacy
Portrait of Shwetak N. PatelIndependently curated · Unclaimed
↗

Shwetak N. Patel Research Group

University of Washington

Shwetak N. Patel · Professor

How can ubiquitous sensors and embedded systems enable low-cost health and sustainability monitoring in homes and personal devices? The Ubicomp Lab develops sensing systems and low-power embedded platforms for energy, water, and mobile health monitoring, and novel interaction technologies. Researchers design algorithms in human-computer interaction and machine learning to infer occupancy, energy usage, and physiological signals from commodity sensors. The group prototypes sensor hardware and field-deploys systems for residential energy monitoring, mobile health sensing, and environmental sustainability studies. They translate research through startups and technology transfer targeting real-world sensing and health applications.

human-computer interactionubiquitous computingsensing
SNIndependently curated · Unclaimed
↗

Stefanos Nikolaidis Research Group

University of Southern California

Stefanos Nikolaidis · Fluor Early Career Chair in Engineering and Associate Professor of Computer Science

How can robots behave robustly when interacting with people in unconstrained everyday environments? The ICAROS lab develops computational human-robot interaction algorithms and end-to-end robotic systems to assist users in complex, real-world tasks. The group builds automatic scenario generation methods to create diverse, realistic test scenarios that improve robotic robustness and evaluation. Researchers combine procedural content generation and quality diversity optimization with experimental deployments to enable robots to adapt through simulated and real-world experiences. The lab investigates end-to-end solutions that enable deployed robotic systems to act robustly when interacting with people in practical applications.

human-robot interactionroboticsmachine learning
Portrait of Tu LeIndependently curated · Unclaimed
Department of Computer Science↗

Tu Le Research Group

The University of Alabama

Tu Le · Assistant Professor

Tu Le's faculty-led research profile covers Cyber Security, Data Privacy, Generative AI & LLMs, and Human-Computer Interaction.

Cyber SecurityData PrivacyGenerative AI & LLMs
Portrait of Yuqi ZhouIndependently curated · Unclaimed
Department of Computer Science↗

Yuqi Zhou Research Group

The University of Alabama

Yuqi Zhou · Assistant Professor

Yuqi Zhou's faculty-led research profile covers Distributed Systems, Human-Computer Interaction, Robotics, and Wearable Technologies.

Distributed SystemsHuman-Computer InteractionRobotics

Showing 1–16 of 16 labs

Explore the listed universities