Peter Vis

TL;DR: An all-in-one battery powered low-power SoC for measuring multiple vital signs with wearables is proposed, allowing an unprecedented level of miniaturization leading to smaller component count which reduces cost and improves comfort and signal integrity.

TL;DR: A digital-assisted baseline impedance cancellation method is implemented to measure small tissue impedance variations originating from respiration and heartbeat in the presence of larger baseline impedances and improves the noise performance by cancelling the reference current noise from the current generator (CG).

TL;DR: This paper presents an ultra-low-power (ULP) IEEE 802.11ah fully-digital polar transmitter (TX) that achieves more than 10× power reduction compared to the state-of-the-art OFDM transceivers without any complicated PA pre-distortion techniques.

TL;DR: In this paper, an all-in-one battery-powered SoC designed for low-cost single-use health patches is presented, allowing continuous monitoring in a home setting to improve patient comfort and reduce cost of care.

TL;DR: An all-in-one battery-powered SoC designed for low-cost single-use health patches, allowing continuous monitoring in a home setting to improve patient comfort and reduce cost of care by, e.g., reducing hospital stays.