Silent control for complex tools
Decode low-bandwidth intent into cursor, language, and robotic actions without forcing users into a fixed command vocabulary.
We study the point where a neural model should act, wait, ask, or admit that it does not know.
Decode low-bandwidth intent into cursor, language, and robotic actions without forcing users into a fixed command vocabulary.
Estimate uncertainty, fatigue, and task context so the system can abstain, ask, or wait instead of confidently guessing.
Study how people and models co-adapt over time while preserving agency, reversibility, and an observable chain of decisions.
A good neural interface is not the one that predicts everything. It is the one that makes uncertainty visible.
← Back to the main systemWe measure how personal adapters preserve intent when sensors move, fatigue changes, and the task becomes unfamiliar.
Confidence is treated as a first-class output so people can see when the system is ready, waiting, or wrong.
We design reversible loops that keep the human in control of the policy, the context, and the moment of commitment.
We evaluate real workflows, not only benchmark accuracy: cursor control, communication, robotics, and adaptive tools.
Artifact rejection, channel dropout, contact quality, and timing drift are logged before any model score is reported.
We compare within-session accuracy with cross-session transfer, task changes, and deliberate uncertainty.
We track workload, fatigue, correction rate, and recovery time—not just whether an action was technically correct.
We test calibration time, sensor movement, connectivity loss, and how gracefully the system abstains.
A system that needs perfect setup is not adaptive. Our calibration work studies how quickly a model can become useful while showing exactly what it still does not know.
When signal quality drops or intent is ambiguous, the safest action may be to do nothing. We treat abstention as a capability to be designed and measured.