Resource-Adaptive Intelligence for Human and Robotic Systems

I lead the AIR Lab (Resource-Adaptive Intelligence for Human and Robotic Systems). The group works on machine learning and artificial intelligence that remain useful after deployment: adaptation under shift, reasoning and test-time computing, efficient inference on devices, and applications in mobile sensing, GenAI for Health, robotics, and embodied AI. Our team is also actively working on Agentic AI, and more papers are coming soon.

Methodologically, the emphasis is on algorithms and systems together—what can be computed locally, under strict resources, when data and environments change, with outputs targeted at machine learning/AI venues and top systems venues.

Resource-Adaptive & robust AI systems Reasoning Human-centered & embodied AI

Themes

Three focused areas around machine learning & AI at the edge, including robotics and embodied systems, with an emphasis on ML/AI-oriented conferences and journals. Full lists: Publications and Google Scholar.

Resource-Adaptive & robust AI systems

ML systems that stay reliable after deployment: adaptation under shift, continual improvement, uncertainty-aware behavior, and robustness under changing users, environments, and data.

Resource-Adaptive AI · robustness · uncertainty · continual learning

Reasoning and Test Time Computing

Methods for improving reasoning quality at inference time: ambiguity-aware reasoning, test-time scaling/adaptation, and compute strategies that improve reliability under shift.

Test-time computing · inference-time adaptation · efficient reasoning

ML/AI Publications by theme

Resource-Adaptive & robust AI systems Reasoning and Test Time Computing Human-centred & embodied AI

Resource-Adaptive & robust AI systems

Reliable AI under shift, noise, and limited supervision:

Reasoning and Test Time Computing

Inference-time adaptation and efficient reasoning under real deployment constraints:

Human-centred & embodied AI applications

Sensing, GenAI for Health, affect, activity, and physical-world learning: