Robotic prosthesis control
Recurrent neural network control with the EdgeDRNN accelerator.
With AMBER Lab, Caltech Watch on YouTubeAlgorithms ↔ Hardware
We study neuromorphic algorithm–hardware co-design for energy-efficient edge intelligence. Our work bridges learning methods, sensing systems and the hardware that makes them practical.
Learning better signals.
Learning-based models, calibration and digital predistortion for more efficient radio-frequency and mixed-signal systems.
Compute only what changes.
Brain-inspired algorithms and accelerators that exploit temporal and spatial sparsity to reduce unnecessary computation.
Perception at the edge.
Efficient visual perception, eye tracking and intelligent hardware for extended reality and wearable applications.
Small devices. Useful intelligence.
Energy-efficient speech processing, keyword spotting and radar-based activity recognition for embedded systems.
Open research
An end-to-end learning and benchmarking framework for power amplifier modeling and digital predistortion.
Code · Datasets · BenchmarksEnergy-efficient radar-based human activity recognition, connecting efficient models and embedded hardware.
Code · Models · Reproducible researchResearch in action
Recurrent neural network control with the EdgeDRNN accelerator.
With AMBER Lab, Caltech Watch on YouTubeReal-time spoken digit recognition using EdgeDRNN.
Read the EdgeDRNN paper Watch on YouTubeInterfacing EdgeDRNN with a dynamic audio sensor.
Explore the silicon cochlea Watch on YouTubeResearch support
Our research is supported by public funding, industry collaborations and a community of academic partners.
Grants, sponsors & awards