Researchers in the DeSimone Research Group at Stanford University have developed manufacturing-ready robust triply periodic (TP) microneedle array patches (MAPs) with optimized fluid transport, payload capacity, and scalable manufacturability for intradermal drug delivery and
Stanford researchers have developed scVision, a vision foundation model that converts variable single-cell gene-expression measurements into standardized images for fast, transferable, and interpretable analysis.
Stanford researchers have developed a generative artificial intelligence platform for controllable synthesis and analysis of three-dimensional (3D) brain magnetic resonance imaging (MRI).
Stanford researchers have developed a non-invasive electrophysiological system and method that characterizes gastric–cortical coupling during human sleep using simultaneous electroencephalography (EEG) and electrogastrography (EGG), yielding an objective physiological marker o
Researchers at Stanford have developed a computerized battery of behavioral/cognitive tests that measure domains including sustained attention, working memory, inhibition, memory, executive function, and emotion processing.
Traditional ELISA methods are highly sensitive, but they require multiple steps of adding antibodies, washing, and adding enzymatic substrates. The complexity of ELISA assays also requires technicians and/or expensive laboratory equipment.
Stanford researchers have developed a robot-assisted mouse positioning system (RAMPS) that enables conformal, pluridirectional FLASH radiotherapy studies in small animals.
Stanford researchers have developed a laser-assisted digital manufacturing platform to generate soft and stretchable microstructured components for next-generation force sensors.
Researchers at Stanford have developed a unified, AI-augmented governance platform purpose-built for the clinical, research, and educational operations of academic medical centers (AMCs).
Stanford researchers have developed a modular bioconjugation platform that improves the potency and selectivity of antibody-drug conjugates (ADCs) by enhancing their lysosomal internalization.
Researchers at Stanford have developed TRIM3D (Tissue-Referenced Integrated Micromachining in 3D), a precision tissue extraction platform that couples 3D pathology imaging with guided physical retrieval of specific tissue regions.
Stanford researchers have designed a microfluidic method for improved control of chemical reactions on-chip using isotachophoresis (ITP). This method allows for simultaneous reaction and separation of reaction products and/or reactants.