Several military applications where this technology can be applied are: Unmanned Aerial Vehicles (UAV). Most of these vehicles are unable to carry any phase array antenna system due to payload constraints. The technology developed under this proposal will achieve the SWaP (Size, Weight & Power) target so as to enable this capability for these vehicles. Unmanned Undersea Vehicles (UUV) UUV will also similarly benefit from having this capability. This technology has significant application in the commercial world. Some of the applications areas are: 1. Automotive (market size 10s of millions of units per year) o Collision Avoidance Systems o Driver Aides such as Parking Assistance o "Driver Replacement" Traffic Throughput Optimization. This could potentially conserve millions of gallons of gasoline per year 2. Agriculture (market size 10s of thousands of units per year) 3. Avionics (market size thousands of units per year) o Collision Avoidance o Sophisticated Weather Radar 4. Microwave Links in Multipath Environments (market size 100s of thousands of units per year) 5. Handheld Communications (market size 100s of millions of units) o Beamforming WiFi o Beamforming Cellular Communications (LTE and beyond) o Mobile TV Electronically Steerable Antenna 6. Industrial (market size 10s of thousands of units) o Object identification o Object location o Driverless Equipment (such as forklifts) 7. RFID (market size 100s of millions of units per year)
The BeamDirect GPS system will be designed as custom ASIC chipset to be utilized in the navigation systems of spacecraft. This solution will provide NASA with a compact, low power solution that can be deployed in all spacecrafts including small satellites. The BeamDirect technology is able to provide beamsteering capability to both transmitter and receivers and hence can be integrated into future transceivers to provide a fully integrated communication system. The circuit design, layout and analysis technique will be learnt in this project will facilitate future design of integrated circuits for radiation hardness and extreme-temperature environments. These methodologies and techniques will allow for future design and implementations of fully integrated circuits to help develop low power, high efficiency, compact, radiation-hardened circuits.
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