DISPLAY & UI


They provide advanced functions such as preprocessing and buffering for real-time processing of camera and display data, for instance. With a latency of under 15 ms,  times compared to SoC-based solutions,  30 ms. They also support compression  and increased image and data rates via the cable connection. Car manufacturers can thus offer their drivers and passengers    backlighting in automotive applications provides several key advantages (Fig. 3): They offer cost-effective, customisable logic that facilitates rapid prototyping  colour, enhancing display readability and driver comfort. Moreover, the FPGAs are   vehicles. They meet the stringent standards of the automotive industry in terms of reliability and temperature resistance. Their integration capabilities support seamless connection to other vehicle systems and comprehensive control and monitoring on a single chip.


Figure 3: The advantages of Gowin FPGAs for controlling LED backlighting in automotive solutions: They offer cost-effective, customizable logic that enables rapid prototyping and precise control of LED brightness and color; they are designed for low power consumption; they meet the stringent standards of the automotive industry for reliability and temperature resistance; they provide seamless connectivity to other vehicle systems; and they offer comprehensive control and monitoring on a single chip (source: Gowin)


Summary


By employing FPGA-based interface bridges, car manufacturers can address the challenges of camera and display interfaces, ensuring seamless connectivity and standardised communication protocols 


These solutions not only improve the  innovations in automotive technology. As the industry evolves, FPGA-based interface  of connected vehicles.


Eagle EYE


UAV EYE PrecisionAltimeter


MIN ALTITUDE • MAX ALTITUDE


• ALTITUDE ACCURACY • VECTORIAL VELOCITY • COMM.


• UPDATE RATE


• POWER CONSUMPTION • INPUT VOLTAGE • OPERATING TEMP. • SYSTEM WEIGHT • DIMENSION


2Meters


: >1500m (5000ft) (Eagle EYE) / 100m (UAV EYE) : ±1m or 3% (Eagle EYE) / ±0.1 m precision (UAV EYE) : Up to 6 Mach (2000m/s) : RS422 / RS485 : 100 Hz : <10 W


: 18-32 VDC : -40° C / +71° C : <600g


: 194 x 125 x 42 mm UAV EYE mode is a switchable mode for landing and take-off from flat run ways Reliable Altitude Measurement for Critical Missions


 


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