This technology is an approach to simultaneously track donor-acceptor-tagged proteins or pairs of proteins and observe their FRET signal during diffusion at the plasma membrane, thereby linking protein structural dynamics and protein-protein interactions to their movement at the cell membrane.
This technology is patient-specific engineered model of bone marrow for diagnostics and research of cancer progression using a sample of patient’s serum.
This technology is an in vivo tool using focused ultrasound (FUS) with microbubbles to induce blood-brain barrier opening (BBBO) and increase serum extracellular vesicle (EV) levels.
This technology is a programmable peptide microarray, that identifies immunogenic epitopes for differential serodiagnosis for a broad range of highly pathogenic microbial agents, including high-threat hemorrhagic fever viruses.
This technology is a tissue culture method with controllable mimicry and patterning of the four phases of human skin wound healing (pre-injury skin, injured skin with stress-response, healing skin, and healed skin) using neonatal keratinocytes and fibroblast cells.
This technology is a multiplex immunofluorescence method using beam-splitting imaging and non-specific antibodies to create a high-throughput, efficient approach for cell type identification.
This technology is an in vitro platform for the detection of gene transfer and recording temporal biological signals into the genomes of engineered cells.
This technology is a fully integrated holographic microscope system capable of simultaneous, high-resolution imaging and precise stimulation of 3D neuronal circuits using optogenetics.
This technology is a deep-contrast AI-enabled algorithm to predict blood-brain barrier (BBB) openings from T1 MRI sequences using low doses of gadolinium-based contrast agents (GBCA).
This technology is a modular platform with engineered tissues linked by vascular perfusion that can be used to study tumor progression and systemic disease in a clinically relevant setting.
This technology is an imaging method that uses a spacer for high resolution and a relatively large field of view for real-time imaging of live specimens.
This technology, GRIN-SCAPE, is a high-speed microscopy approach for imaging deep 3D tissue dynamics in awake, freely behaving animals that combines Swept, Confocally-Aligned Planar Excitation (SCAPE) microscopy with a Graded-Index (GRIN) lens.
This technology is an advanced in vitro assay leveraging false fluorescent neurotransmitters (FFNs) to detect and quantify neurotransmitter leakage from synaptic vesicles, offering a dynamic and high-throughput method with implications for understanding neurological diseases and therapeutic developments.
This technology is a framework for efficiently storing, sending, processing, and receiving real-time data from commercial neurotech devices and wearables.
This technology describes compositions which enhance the potency and stability of nucleic acid therapeutics for the treatment of diseases or conditions.
