Adam Williamson

This paper optimizes temporal interference stimulation (TIS) targeting in mice to reduce off-target effects while maintaining efficacy in the prefrontal cortex.

This paper investigates how temporal interference stimulation affects memory encoding in humans, finding that different frequencies and brain targets can either enhance or impair recall.

This paper introduces multipolar temporal interference (mTI), a method that improves focal control of non-invasive deep brain stimulation in animals.

This study uses temporal interference stimulation to examine the distinct roles of dmPFC and rmPFC in cognitive control, finding differential effects on reaction times and accuracy in Stroop tasks.

This study characterizes early-stage behavioral, neuronal, and ultrastructural changes in a graded-dose 6-OHDA mouse model of Parkinson's disease, showing dose-dependent motor deficits and dopaminergic neuron loss.

This paper demonstrates that bilateral temporal interference stimulation can effectively reduce obstructive sleep apnea events in a subgroup of female patients with improved tolerability and reduced stimulation amplitude.

This study validates non-invasive temporal interference stimulation of the human hippocampus, showing it can modulate activity and improve episodic memory.

Temporal interference stimulation suppresses epileptic biomarkers in mice and shows translatability to humans.

This paper demonstrates a noninvasive method to stimulate peripheral nerves using temporally-interfering electrical fields, achieving effective stimulation with lower current amplitudes than traditional methods.

This paper demonstrates orientation-tunable temporally-interfering electric fields using surface electrodes to evoke seizure-like events in the mouse hippocampus without implanted electrodes.

NeuroRoots is a bio-inspired, multi-channel implant that enables long-term stable neural recording in rats, maintaining signal quality for at least 7 weeks.