Speaker
Tae Min Hong
(University of Pittsburgh (US))
Description
We present an implementation of edge AI to compress data on an in-memory analog content-addressable memory (ACAM) device. A variational autoencoder is trained on a simulated sample of energy measurements from incident high-energy electrons on a generic three-layer scintillator-based calorimeter. The encoding part is distilled into tabular format by regressing the latent space variables using decision trees, which is then programmed on a memristor-based ACAM. In real-time, the ACAM compresses 48 continuously valued incoming energies measured by the calorimeter sensors into the latent space, achieving a compression factor of 12x, which is transmitted off-detector for decompression. The talk is based on our preprint (arXiv:2602.15990).
Author
Tae Min Hong
(University of Pittsburgh (US))
Co-authors
Aishwarya Natarajan
(HPE Labs)
James Ignowski
(HPE Labs)
John Moon
(HPE Labs)
Luca Buonanno
(HPE Labs)
Rajat Gupta
(University of Pittsburgh (US))
Stephen Roche
(University of Pittsburgh)
Yuvaraj Elangovan
(University of Pittsburgh (US))