From contactless biomagnetics to chip-in-cell electronics, we build the interfaces that sense, modulate, and reprogram living systems.
Accessible Brain Reader
Brain monitoring has been locked inside the clinic — not because the science demands it, but because the instrument does. BodyReader is a clinically robust, self-contained sensor for continuous at-home recording, combining signal quality, wearability, and remote data capture in one platform. The goal is to validate known biomarkers, discover new ones from longitudinal personal trajectories, and advance our vision for Health AI: software + accessible sensors that continuously capture real-world individual data.
Biomagnetic Sensing
Bioelectric medicine still relies on electrodes that degrade at the tissue interface over time. We are developing wearable and implantable biomagnetic sensing to read heart, brain, muscle, and gut activity without direct contact, enabled by high-sensitivity MR sensors, flux concentrators, and ultra-low-noise readout electronics. The goal is richer field-level physiology with more durable interfaces than conventional electrode-based wearables and implants.
FieldAtlas
FieldAtlas is a computational platform that maps how ion-channel composition and cell biophysics shape bifurcation behavior under extracellular field stimulation. It combines whole-cell dynamical analysis with channel-level attribution to explain mode transitions and divergence across stimulation regimes. The goal is to turn bifurcation theory into an engineering framework for selective waveforms, minimal channel redesign, and testable control strategies in native and synthetic bioelectric systems.
Implantable Cell Factories
Living drug factories that provide continuous, endogenous supply of therapeutic peptides — especially those with short half-lives or demand-coupled dosing needs, such as GLP-1, insulin, and glucagon. FieldAtlas identifies stimulation waveforms for peptide release by linking channel composition and cell biophysics to secretion thresholds. Cell PharMixy, our wirelessly powered dual-chamber implant, provides on-demand convective hormone release while synchronous chamber coupling drives vortex mixing to keep cells oxygenated and viable.
Chip-in-Cell
Chip-in-Cell places microscale electronics inside individual cells to record intracellular signals and state changes in real time. By coupling sensors, logic, and wireless interfaces at subcellular scale, the platform turns the cell interior into a programmable measurement site. FieldAtlas is used to identify the channel composition and stimulation conditions that drive cells into sustained spiking, and the resulting electrical activity is harvested to power the embedded chip. The long-term goal is to read and eventually influence cell behavior from the inside out.
Autolocking Passive Biosensors
On the reader side, a compact smartphone-class platform uses weakly nonlinear oscillator-based autolocking to acquire signals automatically, without manual frequency sweeps. On the sensor side, passive inductive electrochemical transducers enable biofluid-powered operation (saliva or urine) with wireless readout. Together, this architecture supports disposable, low-cost sensing for food monitoring, preventive screening, and longitudinal health tracking outside the clinic.
