Abstract: An exemplary diffuse optical tomography (DOT) device, can be provided, which can include, for example, a flexible substrate, an optical source(s) configured to generate a plurality of near infrared (NIR) photons disposed on the flexible substrate, and a plurality of detectors disposed on the flexible substrate, wherein each of the detectors can be configured to detect a plurality of backscattered NIR photons from an anatomical structure(s) that can be based on the NIR photons. The flexible substrate can be configured to be applied to an anatomical structure. The detectors can be an array of single photon avalanche diode (SPAD) detectors. The detectors can be configured to measure an arrival time of the backscattered NIR photons. The array can be disposed on a CMOS integrated circuit chip, which can be disposed on the flexible substrate.

Abstract: The disclosure concerns various medical devices implemented to provide a nitric oxide rich environment for anti-microbial or anti-thrombogenic benefits. The medical device generally includes a nitric oxide donor material that is contained within a sealed cavity, and a transport medium that defines and captivates the entirety of the cavity, wherein the transport medium is permeable to both water and nitric oxide. As the nitric oxide donor material becomes saturated with water from the surrounding tissue or fluids, nitric oxide is chemically released, and the resulting nitric oxide is communicated through the transport medium to a treatment site for anti-microbial and anti-thrombogenic benefits.

Abstract: The disclosure concerns medical devices configured to utilize nitric oxide (NO) donor materials to release NO gas upon contact with moisture in order to mitigate bacterial proliferation, coagulation, or a combination thereof, at a site of a biosensor integrated within the medical device. A novel multi-lumen medical device is described, the device having a first lumen for containing the NO donor material and producing the NO gas, and having a second lumen for housing biosensor componentry. A channel between the first and second lumens serves to communicate NO gas from the first lumen to a sensor-volume of the biosensor.

Abstract: The disclosure concerns medical devices configured to utilize nitric oxide (NO) donor materials to release NO gas upon contact with moisture in order to mitigate bacterial proliferation, coagulation, or a combination thereof, at a site of a biosensor integrated within the medical device. A novel multi-lumen medical device is described, the device having a first lumen for containing the NO donor material and producing the NO gas, and having a second lumen for housing biosensor componentry. A channel between the first and second lumens serves to communicate NO gas from the first lumen to a sensor-volume of the biosensor.

Abstract: The disclosure concerns various medical devices implemented to provide a nitric oxide rich environment for anti-microbial or anti-thrombogenic benefits. The medical device generally includes a nitric oxide donor material that is contained within a sealed cavity, and a transport medium that defines and captivates the entirety of the cavity, wherein the transport medium is permeable to both water and nitric oxide. As the nitric oxide donor material becomes saturated with water from the surrounding tissue or fluids, nitric oxide is chemically released, and the resulting nitric oxide is communicated through the transport medium to a treatment site for anti-microbial and anti-thrombogenic benefits.