XMC SBC with NXP Power Architecture P2020 Processor provides a highly integrated processing node designed for applications where low power with dual core performance is a requirement.

The Camera Adaptor Boards from Mistral are designed to realize imaging applications with Mistral’s 820 Development kit using OmniVision sensors with resolutions ranging from 2MP to 13MP. Designers can choose to use any of these different Camera Adaptor Boards depending on their application’s requirements. SPECIFICATIONS: Supports high-performance sensors (high sensitivity, low crosstalk, low noise, improved quantum efficiency) with image resolutions up to 4K Image sizes: 3264×2448, 2816×1584, 1944×1944, 1080p (1920×1080), 1080×1920 and more Output formats: RAW RGB, RGB565/555/444, YUV422/420, YCbCr422 No system startup delay (Output Current Path enabled) Input Clock Frequency: 6 ~ 27 MHz Ultra-low power mode (ULPM) Supports LED and flash strobe CUSTOMIZATION: The Camera Adaptor Boards are designed to interface with the primary camera expansion port of the 820 Development Kit. Customization services are for various applications such as: Design and development of additional Camera Adaptor Boards to realize up to 3 cameras on the 820 Development kit Video input adaptor board to realize digital and analog video inputs Adapter Boards to interface with camera expansion connectors of other platforms

• Memory16 GB
• RAM8 GB of DDR3 SDRAM

Solar electric power is a valuable technology providing continuous, reliable and cost-effective power when used in appropriate applications. However, there are fundamental questions to consider when sizing and specifying solar for a site that has no access to utility power or where access is impractical. Understanding the answers to the following six questions will help determine if solar is an effective technology for powering equipment at such locations.

Multi-platform Modular, Rugged 3U 5-slot Mission Computer that supports OpenVPX architecture. It can be readily configured to meet the needs of any military or aerospace requirements, from benign laboratory to harsh avionics environments

Radar Video Processor (RVP) is Curtiss Wright’s high-performance radar acquisition, tracking and distribution server designed to address a broad range of radar processing requirements, from network radar video servers to ruggedized naval tracking solutions. RVP server is designed to work with Curtiss-Wright’s extensive range of radar client solutions for video and track display. Alternatively, they may be used in standalone configurations. RVP server can be implemented as customized rugged systems for demanding environments, PC-based for benign environments or as VME or VPX card assemblies for embedded applications. RVP is fully interoperable with Curtiss-Wright’s hardware and software-based radar scan conversion products. Radar video acquisition, from analog or digital signals Clutter processing Cell averaging CFAR Radar video distribution on LAN Radar video recording on local disk Plot extraction Automatic target acquisition Target tracking Radar video PPI display engineering and control interface Network control

The Rear-transition Module – Breakout Card (RTM-BOC) from Mistral is an eight layer plug-in module for the Keystone II family of Edison, Hawking and Kepler EVMs showcasing the multi-core DSP+ARM KeyStone II System-on-Chips from Texas Instruments. These EVMs are double wide AMC form factor cards which provide Hyperlink, AIF2, and XFI interfaces over the AMC.4 µTCA interfaces.

Mistral offers services for embedded design and development in the consumer electronics domain that meets the needs of product developers in this space. Some of the devices designed by Mistral in the Consumer Electronics and Lifestyle Electronics domain includes: personal devices for communication, navigation and entertainment like e-book readers, voice activated computers etc.; enterprise devices that facilitate wireless communication like VoIP Phones, NVRs etc. and infrastructure equipment like Digital signage, video surveillance etc. that enable centralized communication and monitoring. Middleware and Embedded application development Audio and Video codecs, video streaming, video data processing Playlist and Persistence Manager GStreamer based music player Media streaming libraries, media servers Wireless: FM-RDS, Navigation, GSMGPRS, Bluetooth, Zigbee, GPS, WiFi supplicant Peripherals: CDUSB stacks, iPhoneiPadiPod MFi, MTP stacks

Radar Video Processor (RVP) is Curtiss Wright’s high-performance radar acquisition, tracking and distribution server designed to address a broad range of radar processing requirements, from network radar video servers to ruggedized naval tracking solutions. RVP server is designed to work with Curtiss-Wright’s extensive range of radar client solutions for video and track display. Alternatively, they may be used in standalone configurations. RVP server can be implemented as customized rugged systems for demanding environments, PC-based for benign environments or as VME or VPX card assemblies for embedded applications. RVP is fully interoperable with Curtiss-Wright’s hardware and software-based radar scan conversion products. Radar video acquisition, from analog or digital signals Clutter processing Cell averaging CFAR Radar video distribution on LAN Radar video recording on local disk Plot extraction Automatic target acquisition Target tracking Radar video PPI display engineering and control interface Network control

The Camera Adaptor Boards from Mistral are designed to realize imaging applications with Mistral’s 820 Development kit using OmniVision sensors with resolutions ranging from 2MP to 13MP. Designers can choose to use any of these different Camera Adaptor Boards depending on their application’s requirements. SPECIFICATIONS: Supports high-performance sensors (high sensitivity, low crosstalk, low noise, improved quantum efficiency) with image resolutions up to 4K Image sizes: 3264×2448, 2816×1584, 1944×1944, 1080p (1920×1080), 1080×1920 and more Output formats: RAW RGB, RGB565/555/444, YUV422/420, YCbCr422 No system startup delay (Output Current Path enabled) Input Clock Frequency: 6 ~ 27 MHz Ultra-low power mode (ULPM) Supports LED and flash strobe CUSTOMIZATION: The Camera Adaptor Boards are designed to interface with the primary camera expansion port of the 820 Development Kit. Customization services are for various applications such as: Design and development of additional Camera Adaptor Boards to realize up to 3 cameras on the 820 Development kit Video input adaptor board to realize digital and analog video inputs Adapter Boards to interface with camera expansion connectors of other platforms

Full-body scanners are very effective in detecting objects concealed under a person’s clothing, without having the target remove hisher clothing or without physical contact. The procedure is faster – over in 15 seconds – than frisking, and avoids the intrusive aspect of frisking that some people find degrading. Millimeter wave scanner technology is based on the principle that clothing is translucent in some EHF (Extremely High Frequency: 30 – 300 GHz) RF bands. Passive Millimeter Wave technology uses scanners that read the raw energy that is naturally emitted by the human body and by objects carried on the human body. The scanner generates a facsimile of the target based on the interpretation of these energies.The main advantage of Passive Millimeter Wave Scanner technology is that it is very safe for both the screener and the target, since there is no artificially generated energy directed at the target. As a consequence of the fact that the scanner relies on natural energy radiation, the resolution of the image generated by the scanner is not very high, which is a drawback; which in turn means that anatomical details of the target are indistinguishable, which is a plus with privacy advocates.

The RZ/G1E SMARC module developed by Mistral is a small form-factor, high performance module built around 1GHz Renesas RZ/G1E dual ARM® Cortex-A7 microprocessor (MPU). The RZ/G1E SMARC module supports dual camera, dual display ports, dual Ethernet and most of the interfaces of SMARC 1.0 standard.