AV710-X3

AV710-X3 is driven by Intel® Broadwell Xeon D-1577 Processor (1.3GHz, 16 Cores, 32 Threads, 24MB Cache) which is an extremely compact Core I-based fanless rugged system. Broadwell Xeon D processor and nVidia RTX5000 supports outstanding CPU and graphics performance. AV710-X3 highlight on its rugged design and high functionality, the system especially installed MIL-STD Amphenol type connector and full IP65 protection allow system withstand in any kind of harsh environment. AV710-X3 supports extended temperature from -40°C to 60°C and wide range 9V~36V DC input (optional MIL-STD-461 Power supply) can protect system from damages caused by sudden surge of voltage, thus further secure the reliability of its critical components and the system itself.

Intel Broadwell Xeon-DE series processors are primarily targeted towards ultimate mobile performance, mobile workstations, and performance embedded devices. Featuring 64-bit dual-core SoC , Broadwell DE series processors improve cost, power consumption, and heat dissipation, which are desirable for embedded systems. Thus, equipped with Intel® Broadwell Xeon D-1577 (16xC) , AV710-X3 provides leading performance while cosuming lower power. In addition,7STARLAKE’s patented thermal dissipation design ensures CPU to run at full speed under extended temperature ranging from -40 to 60°C.

7STARLAKE designs a unique enclosure that is able to stack together both horizontally and vertically. The aluminum heat sink enclosure of AV710-X3 secures top heat dissipation. It’s well-known that fanless method relies heavily on the precise calculation of the efficiency of each heat dissipating component. 7STARLAKE exclusively adopts special heat radiating material and combining with special CNC cutting, further forged into a lavish sophisticated metal. Superior fanless design guarantees silent operation that enhances the flexibility of mobility and prevents the intrusion of dust and debris. Achieving ultimate reliability and stability, AV710-X3 can operate under extended temperature ranging from -40 to 60°C.

AV710-X3 has complete resistance to dust and water, making it even more ruggedized and reliable. With the water and dust protection up to IP65 rating, AV710-X3 can stand against the intrusion of dust, accidental contact, and water. Not just commercial grade waterproof and dustproof, it can reach Dust Tight level, which guarantees complete protection against ingression. Even the strong power of water jet won't pose a threat to it, , which means it’s true ruggedness embodied.

MIL-DTL-38999 is a high-performance cylindrical connector family designed to withstand the extreme shock, exposure and vibration that are commonplace in Defense and aerospace applications. D38999 connectors are lightweight and can stand up to environmental challenges. Made with removable crimp or fixed hermetic solder contacts, these connectors provide high-vibration characteristics and are suitable for severe wind and moisture problem areas. Equipped with MIL-38999 4/10/22 pin connectors TV07RW-11-54P, TV07RW-13-98S, and TV07RW-13-35S, AV710 is undoubtedly durable and ruggedized enough despite operating in the harsh environment. 

Power over Ethernet (POE) is a technology that lets network cables carry electrical power. For instance, a digital security camera normally requires two connections—a network and a power connection with isolated cables. However, a POE technology only needs one network cable, which can get network connection while carrying electrical power. Without being tethered to an electrical outlet, devices can be located wherever they are needed most, and repositioned easily if required. To meet our customers’ needs, AV710-X3 offers optional POE delivery on D38999 connectors, which are extremely reliable and useful in outdoor applications.

Powered by NVIDIA, CUDA® is a parallel computing platform and programming model developed by NVIDIA for general computing on graphical processing units (GPUs). With CUDA, developers are able to dramatically speed up computing applications by harnessing the power of GPUs. In GPU-accelerated applications, the sequential part of the workload runs on the CPU – which is optimized for single-threaded performance – while the compute intensive portion of the application runs on thousands of GPU cores in parallel.