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Coherent Hemodynamics Spectroscopy M
Technology
A novel quantitative hemodynamic model relating physiological perturbations in cerebral blood volume, blood flow, and oxygen consumption to the associated hemodynamic effects that are measurable with
https://viceprovost.tufts.edu/coherent-hemodynamics-spectroscopy-m
https://now.tufts.edu/articles/tufts-alumni-step-up-covid-19-challenges
The difficulties encountered in the remediation of Dense Nonaqueous Phase Liquid (DNAPL) contaminants in the subsurface have spawned numerous studies relating to evaluation of the benefits of DNAPL
https://viceprovost.tufts.edu/algorithm-multi-stage-spatial-sampling-design-multiple-criteria-m
https://now.tufts.edu/news-releases/more-berries-apples-and-tea-may-have-protective-benefits-against-alzheimer-s
Cholera remains a persistent threat in the developing world, where clean drinking water is scarce. Due to lack of access to adequate medical facilities and the epidemic nature of the disease, a
https://viceprovost.tufts.edu/novel-cholera-vaccine-consisting-outer-membrane-vesicles
Researchers at Tufts University have identified a novel and unique peptide known as the peptide for ocular delivery (POD) that can be conjugated with ophthalmic drugs (targets) to improve delivery of
https://viceprovost.tufts.edu/methods-making-and-using-cell-penetrating-peptide-enhanced-delivery-nucleic-acids-drugs-and
Silk-based transparent films demonstrate excellent biocompatibility and applicability for corneal tissue engineering. Download a detailed description of the invention here Intellectual PropertyUS
https://viceprovost.tufts.edu/silk-lamellae-tissue-structures-platform-tissue-engineering
SUMMARYImproved algorithm that reduces sampling required to monitor the remediation of Dense Nonaqueous Phase Liquid (DNAPL) contaminants in subsurface water. BACKGROUNDThe difficulties encountered in
https://viceprovost.tufts.edu/algorithm-improved-spatial-sampling-design-dnapl-contaminants
Researchers at Tufts University have introduced silk as a disruptive new material platform across multiple micro- and nano-scale technologies by combining the unique features of the silk protein
https://viceprovost.tufts.edu/electronics-conducting-integration-biopolymer-optical-and-electro-optical-devices
Researchers at Tufts University have introduced silk as a disruptive new material platform across multiple micro- and nano-scale technologies by combining the unique features of the silk protein
https://viceprovost.tufts.edu/biopolymer-optical-waveguide-and-method-manufacturing-same