Research Programs & Opportunities

Example Project Directions

Our research programs are brought to life through interdisciplinary projects that connect neuroscience, artificial intelligence, immersive technologies, multimodal sensing, digital twins, and human-centered system design. The opportunities below illustrate the kinds of research problems students may explore at BCS Lab.

Each direction can support undergraduate research, graduation projects, master’s theses, doctoral studies, research internships, and collaborative prototype development. Students may contribute to experimental design, signal processing, machine learning, software development, data analysis, user studies, or scientific publication according to their interests and experience.

How to Read This Page

Choose a Problem, Build the Skills, Create an Impact

These are not fixed job advertisements or narrowly defined assignments. They are flexible research directions that can be shaped around a student’s background in computer engineering, artificial intelligence, biomedical engineering, neuroscience, psychology, design, architecture, healthcare, or related disciplines.

Undergraduate Research Master’s Thesis PhD Research Research Internship Interdisciplinary Collaboration
Nine Research Directions

Where Could You Contribute?

The following opportunities represent interconnected parts of the BCS Lab research ecosystem. A single project may contribute to more than one research program.

Project Direction 01 · Programs D & F

Design Memory Systems for Resource-Efficient AI

Investigate how smaller language models and intelligent agents can remember, organize, retrieve, consolidate, and forget information more effectively. The goal is to create memory architectures inspired by human cognition that reduce dependence on extremely long context windows.

What You May Work On

You may design episodic and semantic memory modules, retrieval pipelines, memory-ranking algorithms, consolidation mechanisms, intelligent caching strategies, or evaluation benchmarks for long-term agent memory.

Ideal Background

LLMs NLP AI Agents Python Cognitive Memory
Project Direction 02 · Programs A & E

Decode Memory and Perception from Brain Signals

Explore whether neural signals can reveal how people encode, recall, distort, or recognize memories. This direction combines brain–computer interfaces with advanced machine learning to study the relationship between memory processes and measurable brain activity.

What You May Work On

You may preprocess EEG recordings, develop neural decoding models, compare deep-learning architectures, study memory-related biomarkers, or design experiments involving recognition, recall, and confidence.

Ideal Background

EEG BCI Deep Learning Signal Processing Cognitive Neuroscience
Project Direction 03 · Programs D & E

Discover Multimodal Biomarkers of Mental Wellbeing

Develop artificial intelligence methods that combine physiological, behavioral, and contextual information to identify patterns associated with stress, emotional wellbeing, cognitive fatigue, and mental-health risk.

What You May Work On

You may fuse EEG, eye-tracking, electrodermal activity, heart-related signals, speech, facial behavior, or interaction data and evaluate interpretable biomarkers across individuals and conditions.

Ideal Background

Multimodal AI Digital Health Data Fusion Explainable AI Statistics
Project Direction 04 · Programs C & D

Build Personalized Affective Digital Twins

Create evolving computational models that represent an individual’s emotional and physiological characteristics over time. These digital twins may support personalized monitoring, prediction, intervention, and clinical decision support.

What You May Work On

You may develop personalization algorithms, longitudinal models, federated-learning systems, privacy-preserving analytics, individual baselines, or adaptive prediction models that learn from distributed health data.

Ideal Background

Digital Twins Federated Learning Time-Series AI Privacy Personalized Health
Project Direction 05 · Programs B & E

Study Cognitive Maps in Immersive Environments

Investigate how people form mental representations of physical, abstract, or social spaces. Immersive environments make it possible to manipulate complex scenarios while measuring navigation, attention, memory, decision-making, and physiological responses.

What You May Work On

You may build VR experiments, create navigation tasks, analyze gaze trajectories, model spatial behavior, study cognitive decline, or develop new markers of orientation and environmental understanding.

Ideal Background

Virtual Reality Unity Eye Tracking Spatial Cognition Experimental Design
Project Direction 06 · Programs A & C

Develop Digital Twins for Early Cognitive Change Detection

Explore whether personalized computational models can identify subtle changes in memory, attention, movement, language, or physiological responses before they become visible through conventional assessment.

What You May Work On

You may develop longitudinal anomaly-detection methods, personalized baselines, multimodal screening tasks, interpretable risk indicators, or immersive assessments for tracking cognitive change.

Ideal Background

Neurotechnology Anomaly Detection Healthcare AI Longitudinal Data Human Digital Twins
Project Direction 07 · Programs B & E

Create Neuroadaptive Experiences in Virtual Commerce

Study how attention, emotion, trust, and decision-making shape user behavior in immersive shopping and spatial-computing environments. The goal is to design adaptive experiences without compromising autonomy, fairness, or privacy.

What You May Work On

You may build immersive retail prototypes, analyze gaze and physiological responses, model user preferences, test adaptive interfaces, or study ethical boundaries in AI-driven personalization.

Ideal Background

XR Consumer Behavior Eye Tracking Recommender Systems Responsible AI
Project Direction 08 · Programs E & F

Design AI Systems That Communicate with Empathy

Develop generative systems that adapt language, visual content, feedback, and interaction style according to human emotional and cognitive responses. This direction asks how AI can become more sensitive to the person behind the interaction.

What You May Work On

You may develop emotion-aware agents, adaptive dialogue systems, generative interfaces, affective reward models, closed-loop evaluation methods, or experiments that measure perceived empathy and trust.

Ideal Background

Generative AI Affective Computing Human–AI Interaction LLMs UX Research
Project Direction 09 · Programs A & B

Measure Motivation, Stress, and Effort in Immersive Tasks

Investigate how motivation, perceived effort, stress, reward, and fatigue influence human decisions and performance. Immersive environments allow these factors to be studied in realistic but controlled scenarios.

What You May Work On

You may design VR tasks, collect physiological signals, model effort and stress, analyze behavioral choices, or create adaptive systems that adjust difficulty and feedback according to the participant.

Ideal Background

Stress Analysis Motivation VR Experiments Physiological Sensing Behavioral Modeling
Research Roles

How Students Can Participate

Students do not need to arrive with expertise in every technology. Research roles can be matched to existing strengths while providing a structured path for developing new scientific and technical skills.

Experimental Research

Design and Run Human Studies

Develop research questions, experimental protocols, immersive tasks, questionnaires, data-collection procedures, and ethical study documentation.

Data & AI

Build Intelligent Models

Process multimodal data, train machine-learning models, evaluate generalization, interpret predictions, and compare modern AI architectures.

Software Development

Create Research Prototypes

Develop VR environments, data pipelines, dashboards, AI agents, experimental tools, digital-twin platforms, and interactive applications.

Signal Processing

Understand Human Physiology

Work with EEG, eye tracking, EDA, ECG, motion, speech, and behavioral signals to extract reliable indicators of cognitive and affective states.

Human-Centered Design

Shape Meaningful Experiences

Study usability, trust, explainability, accessibility, ethics, and human experience to ensure technologies are valuable and responsible.

Scientific Communication

Turn Research into Impact

Contribute to literature reviews, scientific writing, open datasets, conference submissions, journal articles, demonstrations, and project proposals.

What You Can Gain

Build a Research Profile Around Emerging Technologies

Participating students can gain hands-on experience with real research questions, interdisciplinary teamwork, experimental systems, advanced artificial intelligence, physiological data, immersive technologies, and scientific publication. Depending on the project stage and level of contribution, outcomes may include a thesis, prototype, dataset, conference paper, journal publication, open-source tool, or new project proposal.

Research Experience Academic Mentoring Technical Portfolio Scientific Publication Interdisciplinary Network Graduate Study Preparation
Join a Project

Find the Research Direction That Matches Your Curiosity

Strong research begins with curiosity. You may be interested in how the brain represents memory, how AI can understand emotion, how virtual environments influence behavior, or how intelligent agents can become better human teammates. BCS Lab offers a place to transform these questions into testable studies, working prototypes, and meaningful scientific contributions.

Explore Student Opportunities