Abstract: A system architecture and methods for streaming or live video that can provide sub-second video over WebRTC to viewers with a horizontally scaling architecture. In some embodiments, the system and methods described generate video from another source on a server and redistribute it to client devices in a peer-to-peer architecture. The system and architecture are designed to deliver WebRTC to users but does not require broadcasters to change the systems and protocols they are familiar with and comfortable with using. Embodiments are directed to providing streaming audio and/or video content through an architecture that can ingress (intake) RTMP format content and egress (output and distribute) WebRTC format content efficiently by generating a client-side peer and client-side content on a server.

Abstract: Prophylaxis and treatment method for SARS-CoV-2 infection are provided. Methods include administering a therapeutically effective amount of at least one TGF-?1 inhibitor to a subject at risk of contracting, or having a SARS-CoV-2 infection.

Abstract: Various examples of methods and systems are disclosed for correction of phase and amplitude errors that occur in transmission lines connecting transmitter/receiver devices to measurement fixtures. In one example, a method is described that includes using time domain processing to determine a phase shift from the measurement fixture that can occur between calibration measurements and measurements of the specimen under test. In another example, a method is described that includes frequency-domain processing of the signals to obtain both phase and amplitude corrections. Including these phase and amplitude corrections in the calibration procedure can reduce or minimize the errors induced in the measurements when the transmission line(s) experience either temperature changes or physical deflections, among other things.

Abstract: Various examples of methods and systems are disclosed for correction of phase and amplitude errors that occur in transmission lines connecting transmitter/receiver devices to measurement fixtures. In one example, a method is described that includes using time domain processing to determine a phase shift from the measurement fixture that can occur between calibration measurements and measurements of the specimen under test. In another example, a method is described that includes frequency-domain processing of the signals to obtain both phase and amplitude corrections. Including these phase and amplitude corrections in the calibration procedure can reduce or minimize the errors induced in the measurements when the transmission line(s) experience either temperature changes or physical deflections, among other things.

Abstract: The present invention is a charging device with solar cells wrap around it and that houses electronics plug in ports for various devices. The charging device has a rectangular base with a top that has solar panels on it. The panels will create electricity using solar power which is used to either charge a rechargeable battery or to power an electronic device. The device would have charging ports on the front with a plane back. The charging device can be placed on a dashboard or a car or vehicle.

Abstract: Various examples of methods and systems are disclosed for correction of phase and amplitude errors that occur in transmission lines connecting transmitter/receiver devices to measurement fixtures. In one example, a method is described that includes using time domain processing to determine a phase shift from the measurement fixture that can occur between calibration measurements and measurements of the specimen under test. In another example, a method is described that includes frequency-domain processing of the signals to obtain both phase and amplitude corrections. Including these phase and amplitude corrections in the calibration procedure can reduce or minimize the errors induced in the measurements when the transmission line(s) experience either temperature changes or physical deflections, among other things.

Abstract: A biosensor is comprised of a free and a biofunctionalized recognition self-sensing nanocantilever, a dock adjacent to the ends of the nanocantilevers, and a gap between the nanocantilevers and dock. The self-sensing cantilevers each include a semiconductor piezoresistor defined in a pair of legs about which the cantilevers flex. A bias power or current is applied to the piezoresistor. The sensitivity of the cantilevers is optimized for a given ambient temperature and geometry of the cantilevers and dock by minimizing the force spectral density, SF, of the cantilevers to determine the optimum bias power, Pin. A sub-aN/?Hz force sensitivity is obtained by scaling down the dimensions of the cantilevers and supplying an optimum bias power as a function of temperature and geometry.

Abstract: A large-scale high-visibility, color LED display sign intended for viewing from a long distance is described wherein power is managed by dividing the display sign into two or more distinct sections and providing power to each section from a respective separate power source. As a result, the amount of current drawn from any one source is reduced, thereby reducing require conductor sizes, circuit breaker trip limits, etc. Additionally, in applications where two or more power sources are available, this permits the distribution of the power load from the sign across the multiple sources without requiring bulky, complex and expensive power sharing apparatus. The sign's computer interface electronics are operated (scanned) directly by bus-connected interface circuitry. This eliminates the need for an external image buffer memory, since the computer's local memory acts as an image buffer. The computer serially transmits pixel data to the display via the interface mechanism.