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Stanford researchers have developed an innovative underwater sensing system inspired by the whiskers of aquatic mammals, enabling robots to detect and track contact with high precision in low-visibility conditions.

Stanford scientists have developed Q-DOAS (Quantitative Detection of Oligomer and Amyloid Seeds), a plate reader-based fluorescence quenching assay designed to track the formation of early-stage toxic oligomers and amyloid seeds in real-time.

Over 1 in 3 people are affected by neurological conditions worldwide. Pharmacological and surgical treatment options may be limited due to access, side effects, and reduced therapeutic efficacy.

Stanford University researchers in the Bamm and Durmus Labs have developed the Dynamic AI-Driven Raman Techniques (DART) platform, which integrates electrochemical enhancement with surface-enhanced Raman spectroscopy for real-time, sensitive, specific, reproducible biomarker d

Researchers from Stanford developed methodologies for restoring or preventing the disruption of the integrity of tight junction barriers (e.g.

Researchers at Stanford have developed genetically encoded STING agonists that enable controlled activation of the STING pathway from within engineered cells.

Researchers at Stanford have developed a novel high throughput system for the addition of amino acids into specific sites on proteins of interest.

Researchers at Stanford have developed a novel vaccine strategy that would remove the need to use needles in vaccine administration.

Stanford researchers have developed a new therapeutic approach to protect neurons and promote axon regeneration by restoring mitochondrial transport within axons, a key process disrupted in many neurodegenerative diseases.

Stanford scientists have developed a lightweight, wearable multichannel NMES system that provides real-time, AI-driven gait assistance and muscle strengthening — with a particular focus on children with walking disabilities.

Mental health disorders can disrupt the dynamic characteristics of neural circuitry across the brain.

Researchers at Stanford have developed a compact, chip-based optical sensor capable of measuring key health biomarkers non-invasively and in real time, with potential for integration into everyday wearable devices.

Stanford researchers have developed an innovative platform that enables transplantation of human forebrain assembloids into the rodent brain, supporting advanced neuronal maturation and functional neural activity readouts.

Stanford researchers have developed a hierarchical event readout method that solves a major latency problem in event-based image sensors. Event-based sensors output data only when pixels change, enabling fast and efficient sensing.

Stanford researchers in the CHARM Lab have developed a compact pneumatic control system for precise pressure modulation in for wearable, multi-device haptic systems and smart textiles.