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Posts Tagged ‘automotive’

Solar Powered CAREUD U800WF Monitoring System Checks Your Car’s Tires Pressure

April 4th, 2017 1 comment

Every few months, we inflate (or deflate) our car tires at the gas station to match the pressures for front and rear tires given by the manufacturer. But if you want to make sure the pressures are always at their optimal levels, or close to it CAREUD U800WF pressure monitoring system might be a useful little gadget.

The monitor that you can place on your dashboard comes with the following specifications:

  • Display showing pressure with +/- 1.5 PSI accuracy and temperature with +/- 3 °C accuracy for all four tires; data updated every 3 seconds.
  • Connectivity – 433.92 MHz RF
  • Power Supply
    • Solar Panel
    • 5V via micro USB port
    • 900 mAh Li-ion Battery
  • Temperature Range – Storage: -30 to 85 °C; operating: -20 to 80 °C
  • IP Rating – IP5K4K (The “K” in the ingress protection rating means it complies with ISO 20653:2013 Road Vehicles-Degrees of protection)
  • Dimensions – 76 x 50 x 62 (depth) mm
  • Weight – 72 grams

The monitor is only part of the solution as the kit comes with four sensors to connect to your tires, four anti-theft screws, a sensor wrench, a spanner, a charging cable, as well as a user guide, an installation manual, and a warranty card.

The system will alert you by flashing icon and emitting a beep when the pressure is too high or too low, or when the temperature is too high (> 70 °C). It’s also capable of detecting air leakage, and report is the sensors’ battery level is low.

I first found CAREUD U800WF on GeekBuying where it is sold for $79.99 shipped, but you’ll also find it on eBay and Amazon US. I could not find that exact model on Aliexpress, but if you look for CAREUD, you’ll find other models, including some specifically designed for trucks with 6 wheels.

Categories: Hardware Tags: automotive, rf433, security

Linux based iWave Systems OBD-II Dongle Comes with 4G LTE and GPS

March 27th, 2017 1 comment

OBD-II dongles that you connect to your car’s OBD-II port have been around for several years, but they were initially simple devices with USB or Bluetooth connectivity that you control with your smartphone or computer. More recently we’ve seen more complex OBD-II head-up-diplays, and boards such as Macchina M2 open source hardware OBD-II board that takes various XBee modules for 4G, Ethernet, WiFi, Bluetooth, GPS, and so on. iWave Systems, a company better known for their system-on-modules, has now unveiled their own OBD-II dongle with NXP i.MX 6UL processor running Linux, and integrating 4G LTE and GPS by default.

iWave Systems OBD-II dongle specifications:

  • Processor – NXP i.MX 6UL ARM Cortex-A7 processor @ 528/696MHz
  • Memory –  256 MB DDR3 (Optionally upgradeable to higher capacity)
  • Storage – 256 MB NAND Flash (optionally upgradeable to higher capacity).
  • Connectivity – Built-in 4G Modem with antenna, optional WiFi & Bluetooth 4.0 LE module
  • Positioning – GPS Receiver
  • Sensors –  Accelerometer,  Gyroscope, Magnetometer
  • Car Interface – OBD-II connector
  • Misc – Optional status & power LEDs
  • Power Supply – 12V Input via OBD II port; optional battery to keep the dongle on for a few minutes
  • Temperature Range – -10°C to +60°C
  • Dimensions – 63 x 48 x 24mm (excluding OBD II Connector)

The company has not provided that much details on the software side, except that the dongle runs Linux.

iWave Systems OBD-II dongle targets fleet management, emission testing, vehicle testing, and vehicle data logger applications.

The company focuses on the B2B market, so if you want to purchase in quantities for your specific project you can inquire for a quote or more details via their OBD-II device page.

Dell Edge Gateway 3000 Series Are Powered by Intel Bay Trail-I SoCs for Automation, Transportation, and Digital Signage

March 17th, 2017 No comments

Dell has recently introduced Edge Gateway 3000 series with three models powered by Intel Bay Trail-I processor, running Ubuntu Core 16 or Windows 10 IoT, with each model targeting respectively general-purpose automation, transportation & logistics, and digital signage and retail.

The specifications for the three models can be found in the table below.

Dell Edge Gateway 3001
Model for General-Purpose Automation
Dell Edge Gateway 3002
Model for Transportation & Logistics
Dell Edge Gateway 3003
Model for Media & Retail Kiosks
SoC Intel Atom E3805 dual core processor  @ 1.33 GHz (3W TDP) Intel Atom E3815 single core processor @ 1.46 GHz with GPU @ 400 MHz (5W TDP)
System Memory 2 GB DDR3L-1066
Storage 8 or 32 GB eMMC flash
Industrial-grade Micro-SD card: 8GB / 16GB / 32 GB / 64 GB
Connectivity 1 x 10/100 Fast Ethernet (RJ-45)
with PoE (15.4W)
WiFi 802.11 b/g/n
Bluetooth 4.0 LE
Optional ZigBee module.
2x 10/100 Fast Ethernet (RJ-45), main port supports PoE (15.4W)
WiFi 802.11 b/g/n
Bluetooth 4.0 LE
Integrated Zigbee/802.15.4 module for mesh
networking.
2 x 10/100 Fast Ethernet (RJ-45).
Main port supports PoE (15.4W)
WiFi 802.11 b/g/n
Bluetooth 4.0 LE
Optional ZigBee module
Cellular Connectivity 3G or 4G LTE for select countries, US/Canada 4G LTE with AT&T or Verizon
Video & Audio DisplayPort 1.1 up to 2560×[email protected]
3.5mm Line Out/Line
In; RealTek codec
Serial Interfaces 2x RS-232/422/485.
GPIOs 8x channel, independently
programmable, DAC, ADC.
CAN Bus CAN2.0 A/B/FD 1Mbps (CAN2.0), 5Mbps (CAN-FD)
USB 1x USB 2.0, 1x USB 3.0
GNSS Integrated GPS
Sensors Accelerometer, Pressure, Temperature and Humidity
Power Supply 12V-57V wide DC input;
PoE compliant with IEEE 802.3.af standard up to 15.4 W, 48 V over existing Ethernet infrastructure, no
modifications required.
Dimensions 125 mm x 125 mm x 51 mm
Weight Around 1.1 kg

While all three models can run Ubuntu Core 16 and Windows 10 IoT Enterprise LTSB 2016, the latter requires a 32GB eMMC flash. Each gateway also comes with a Trusted Platform Module (TPM) 2.0, secure boot, BIOS password and I/O port disablement, and a fleet of gateway can be managed via Dell Edge Device Manager (EDM) cloud-based manageability suite (sold separately).

Gateway 30001 used for Mining Operations – Click to Enlarge

The gateway can be used for all sort of applications from mining management systems as shown above, to 18-wheelers, and revenue generating city fountains.

Dell Edge Gateway 3000 series will start selling this May for $399 and up. More details can be found on Dell website.

NXP Introduces Kinetis K27/K28 MCU, QorIQ Layerscape LS1028A Industrial SoC, and i.MX 8X Cortex A35 SoC Family

March 15th, 2017 3 comments

NXP pushed out several press releases with the start of Embedded World 2017 in Germany, including three new micro-controllers/processors addressing different market segments: Kinetis K27/K28 MCU Cortex M4 MCU family, QorIQ Layerscape LS1028A industrial applications processor, and i.MX 8X SoC family for display and audio applications, 3D graphic display clusters, telematics and V2X (Vehicle to everything).

NXP Kinetis K27/K28 MCU

Click to Enlarge

NXP Kinetis K27/K28 MCU family is based on an ARM Cortex-M4 core clocked at up to 150 MHz with FPU,and includes up to 1MB embedded SRAM, 2MB flash, and especially target portable display applications.

Kinetis K27/K28 MCUs share the following main features:

  • 2x I2S interfaces, 2x USB Controllers (High-Speed with integrated High-Speed PHY and Full-Speed) and mainstream analog peripherals
  • 32-bit SDRAM memory controller and QuadSPI interface supporting eXecution-In-Place (XiP)
  • True Random Number Generator, Cyclic Redundancy Check, Memory Mapped Cryptographic Acceleration Unit

K28 supports 3 input supply voltage rails (1.2V, 1.8V and 3V) + separate VBAT domain, implements a Power Management Controller supporting Core Voltage Bypass and can be powered by an external PMIC, and is available in 169 MAPBGA (9x9mm2, 0.65mm pitch) and 210 WLCSP (6.9×6.9mm2, 0.4 mm pitch) packages.

K27 supports 1.71V to 3.6V input voltage + separate VBAT domain, and is offered in 169 MAPBGA (9x9mm, 0.65mm pitch) package only.

Click to Enlarge

FRDM-K28F development board will allow you to play with the new MCUs’ capabilities. It features a Kinetis K28F microconroller, on-board discrete power management, accelerometer, QuadSPI serial flash, USB high-speed connector and full-speed USB OpenSDA. Optional add-on boards allows for USB-Type C, Bluetooth low energy (BLE) connectivity, and a 5” LCD display board with capacitive touch.

Software development can be done through MCUXpresso SDK with system startup code, peripheral drivers, USB and connectivity stacks, middleware, and real-time operating system (RTOS) kernels.

Kinetis K27/K28 MCU family will be start selling in April 2017. Visit NXP K2x USB page for more information.

QorIQ Layerscape LS1028A

LS1028A Block Diagram

NXP QorIQ Layerscape LS1028A SoC comes with two 64-bit ARMv8 core, support real-time processing for industrial control, as well as virtual machines for edge computing in the IoT. It also integrates a GPU and LCD controller enable Human Machine Interface (HMI) systems, and Time-Sensitive Networking (TSN) capabilities based on the IEEE 802.1 standards with a four-port TSN switch and two separate TSN Ethernet controllers.

The processor especially targets “Factory 4.0” automation, process automation, programmable logic controllers, motion controllers, industrial IoT gateway, and Human Machine Interface (HMI).

OEMs can start developing TSN-enabled systems using LS1021ATSN reference design platform based on the previous LS1021A processor in order to quickens time-to-market.The reference design provides four switched Gigabit Ethernet TSN ports, and ships with an open-source, industrial Linux SDK with real-time performance. Applications written for LS1021ATSN will be compatible with the LS1028A SoC since the API calls won’t change.

It’s unclear when LS1028A will become available, but it will be available for 15 years after launch, and you’ll find a few more details on the product page. You could also visit NXP’s booth (4A-220) at Embedded World 2017 to the reference design in action.

NXP i.MX 8X ARM Cortex-A35 Processors

Block Diagram of NXP i.MX 8X family

The last announcement will not really be news to regular readers of CNX Software, since we covered i.MX 8X processors last year using an NXP presentation. As previously known, i.MX 8X family comes with two to four 64-bit ARMv8-A Cortex-A35 cores, as well as a Cortex-M4F core, a Tensilica HiFi 4 DSP, Vivante hardware accelerated graphics and video engines, advanced image processing, advanced SafeAssure display controller, LPDDR4 and DDR3L memory support, and set of peripherals. The processor have been designed to drive up to three simultaneous displays (2x 1080p screens and one parallel WVGA display), and three models have been announced:

  • i.MX 8QuadXPlus with four Cortex-A35 cores, a Cortex-M4F core, a 4-shader GPU, a multi-format VPU and a HiFi 4 DSP
  • i.MX 8DualXPlus with two Cortex-A35 cores, a Cortex-M4F core, a 4-shader GPU, a multi-format VPU and a HiFi 4 DSP
  • i.MX 8DualX with two Cortex-A35 cores, a Cortex-M4F core, a 2-shader GPU, a multi-format VPU and a HiFi 4 DSP

The processors are expected to be used in automotive applications such as  infotainment and cluster, industrial control and vehicles, robotics, healthcare, mobile payments, handheld devices, and so on.

The i.MX 8QuadXPlus and 8DualXPlus application processors will sample in Q3 2017 to selected partners. More details may be found on NXP i.MX8X product page.

Macchina M2 is an Open Source Hardware OBD-II Development Platform for Your Car (Crowdfunding)

March 10th, 2017 11 comments

ODB-II Bluetooth adapter and head-up displays to monitor and diagnose your car have been around for a while. I actually got two models to use with a Toyota Avanza and Torque Lite app, but never managed to make it work with my phone. Macchina M2 board is doing much of the same thing and more, as it is open source hardware, and supports more communications protocols including GPS, WiFi, 3G/LTE,  BLE, and Ethernet using XBEE boards.

M2 with Xbee Cellular Board

Macchina M2 specifications:

  • MCU – Atmel SAM3X8E ARM Cortex M3 processor @ 84 MHz (also used on Arduino DUE) with 96 KB SRAM, 512KB flash
  • Storage – micro SD card socket, 32KB EEPROM via I2C
  • USB – 1x micro USB port (USB device or host mode)
  • Wireless XBee Socket – For Bluetooth LE, WiFi, GSM, 3G, LTE,
  • I/Os
    • 6x automotive level I/O pins to control 12V devices (Examples: relays, fans, lights, etc) OR act as analog input (like temp sensor)
    • 2x channels of CAN, 2x channels of LIN/ K-line, J1850 VPW/PWM, single-wire CAN interfaces for maximum car compatibility.
  • Misc – 5x user LEDs, 1x RGB LED
  • Power Supply – 5V@ 3A, [email protected] amps for connecting add ons
  • Dimensions – 56.4mm x 40.6mm x 15.7mm

Once you’ve done the hardware setup – very easy with the ODB-II connector, and a little bit more difficult under the hood -, you can hack your car away, programming it with the Arduino IDE to gather RPM, speed, diagnostics data, etc…. This will also allow you it to tune it, or even control it remotely, for example starting it with a mobile control app. If you don’t want to program the board, ELM327 emulation will allow support for popular apps such as Torque for Android, or Dashcommand for iPhone, Android, and Windows App. The developers also uploaded some video tutorials on YouTube, some guides can be found on M2 Wiki, and one of the member of the team wrote a book called “The Car Hacker’s Handbook“.

Macchina M2 launched on Kickstarter a few weeks ago, and the project has already raised over $90,000, surpassing its $25,000 goal. Rewards start at $45 with M2 interface board only, which requires you to add your own MCU/CPU board, but most people will be interested in the $79 pledge to get a complete Macchina M2 board including the Atmel SAM3X board. Shipping is free to the US, but adds $15 to the rest of the world. Deliver is scheduled for July 2017.

Thanks to Thomas for the tip.

Linux 4.10 Release – Main Changes, ARM & MIPS Architectures

February 20th, 2017 3 comments

Linus Torvalds has just released Linux 4.10:

So there it is, the final 4.10 release. It’s been quiet since rc8, but we did end up fixing several small issues, so the extra week was all good.

On the whole, 4.10 didn’t end up as small as it initially looked. After the huge release that was 4.9, I expected things to be pretty quiet, but it ended up very much a fairly average release by modern kernel standards. So we have about 13,000 commits (not counting merges – that would be another 1200+ commits if you count those). The work is all over, obviously – the shortlog below is just the changes in the last week, since rc8.

Go out and verify that it’s all good, and I’ll obviously start pulling stuff for 4.11 on Monday. Linus

Linux 4.9 added Greybus staging support, improved security thanks to virtually mapped kernel stacks, and memory protection keys, included various file systems improvements, and many more changes.

Some newsworthy changes for Linux 4.10 include:

  • Virtual GPU support – Intel GVT-g for KVM (KVMGT) is a full GPU virtualization solution with mediated pass-through, starting from 4th generation Intel Core processors with Intel Graphics. Unlike direct pass-through alternatives, the mediated device framework allows KVMGT to offer a complete virtualized GPU with full GPU features to each one of the virtualized guests, with part of performance critical resources directly assigned, while still having performance close to native.
  • New ‘perf c2c’ tool, for cacheline contention analysis – perf c2c (for “cache to cache”) is a new tool designed to analyse and track down performance problems caused by false sharing on NUMA systems. The tool is based on x86’s load latency and precise store facility events provided by Intel CPUs. Visit C2C – False Sharing Detection in Linux Perf for more details about the tool.
  • Improved writeback management – Linux 4.10 release adds a mechanism that throttles back buffered writeback, which makes more difficult for heavy writers to monopolize the I/O requests queue, and thus provides a smoother experience in Linux desktops and shells than what people was used to. The algorithm for when to throttle can monitor the latencies of requests, and shrinks or grows the request queue depth accordingly, which means that it’s auto-tunable, and generally, a user would not have to touch the settings. Read Toward less-annoying background writeback for more details about this improvement.
  • FAILFAST support –  This release also adds “failfast” support. RAID disk with failed IOs are marked as broken quickly, and avoided in the future, which can improve latency.
  • Faster Initial WiFi Connection – Linux 4.10 adds support for using drivers with Fast Initial Link Setup as defined in IEEE 802.11ai. It enables a wireless LAN client to achieve a secure link setup within 100ms. This release covers only the FILS authentication/association functionality from IEEE 802.11ai, i.e., the other changes like scanning optimizations are not included.

Some notable ARM architecture improvements and new features:

  • Allwinner:
    • Allwinner A23 – Audio codec driver
    • Allwinner A31/A31s – Display Driver (first pipeline), audio codec support
    • Allwinner A64 – clock driver
    • Allwinner A80 – External SDIO WiFi
    • Allwinner H3 – Audio codec driver, SPI
    • New boards support: NextThingCo CHIP Pro, Pine A64, NanoPi M1
  • Rockchip:
    • Initial support for Rockchip PX5 & PX3 automotive platforms
    • Added Rockchip RK1108 evaluation board
    • Added support for Rikomagic MK808 Android TV stick based on Rockchip RK3066
    • Update Rockchip PCI driver to support for max-link-speed
    • Rockchip rk3399,rk3066 PLL clock optimizations
  • Amlogic
    • Support for the pre-release “SCPI” firmware protocol shipped by Amlogic in their GXBB SoC
    • Initial support for Amlogic S905D, and S912 (GXM) SoCs
    • Added support for Nexbox A1 and A95X Android TV boxes
    • Cleanup for the Amlogic Meson PWM driver
    • New Amlogic Meson Graphic Controller GXBB (S905)/GXL (S905X/S905D)/GXM (S912) SoCs (meson)
    • Resets for 2nd USB PHY
    • Initial support for the SD/eMMC controller in the Amlogic S905/GX* family of SoCs
    • Updated DTS to enable support for USB, I2C, SPI, maibox/MHU, PWM, ethernet MAC & PHY, secure monitor, IR, and watchdog.
  • Samsung
    • Device Tree for Samsung Exynos5433 mobile phone platform, including an (almost) fully supported phone reference board
    • Added support for TOPEET itop/elite board based on exynos4412
    • DeviceTree  updates:
      • Add Performance Monitor Unit to Exynos7.
      • Add MFC, JPEG and Gscaler to Exynos5433 based TM2 board.
      • Cleanups and fixes for recently added TM2 and TM2E boards.
      • Enable ADC on Odroid boards
      • Remove unused Exynos4415 DTSI
  • Qualcomm
    • Add support for Qualcomm MSM8992 (Snapdragon 808) and MSM8994 (Snapdragon 810) mobile phone SoCs
    • Added support for Huawei Nexus 6P (Angler) and LG Nexus 5X (Bullhead) smartphones
    • Support for Qualcomm MDM9615 LTE baseband
    • Support for WP8548 MangOH Open Hardware platform for IOT, based on Qualcomm MDM9615
    • Other device tree changes:
      • Added SDHC xo clk and 1.8V DDR support
      • Add EBI2 support to MSM8660
      • Add SMSC ethernet support to APQ8060
      • Add support for display, pstore, iommu, and hdmi to APQ8064
      • Add SDHCI node to MSM8974 Hammerhead
      • Add Hexagon SMD/PIL nodes
      • Add DB820c PMIC pins
      • Fixup APQ8016 voltage ranges
      • Add various MSM8996 nodes to support SMD/SMEM/SMP2P
  • Mediatek
    • Added clock for Mediatek MT2701 SoCs
    • New Mediatek drivers: mtk-mdp and mtk-vcodec (VP8/VP9/H.264) for MT8173
    • Updated the Mediatek IOMMU driver to use the new struct device->iommu_fwspec member
  • Other new ARM hardware platforms and SoCs:
    • Hisilicon – Hip07 server platform and D05 board
    • NXP – LS1046A Communication processor, i.MX 6ULL SoC, UDOO Neo board, Boundary Devices Nitrogen6_SOM2 (i.MX6), Engicam i.CoreM6, Grinn i.MX6UL liteSOM/liteBoard,  Toradex Colibri iMX6 module
    • Nvidia – Early support for the Nvidia Tegra Tegra186 SoC, NVIDIA P2771 board, and NVIDIA P3310 processor module
    • Marvell – Globalscale Marvell ESPRESSOBin community board based on Armada 3700, Turris Omnia open source hardware router based on Armada 385
    • Renesas “R-Car Starter Kit Pro” (M3ULCB) low-cost automotive board, Renesas RZ/G (r8a7743 and r8a7745) application processors
    • Oxford semiconductor (now Broadcom) OX820 SoC for NAS devices, Cloud Engines PogoPlug v3 based on OX820
    • Broadcom – Various wireless devices: Netgear R8500 router, Tenda AC9 router, TP-LINK Archer C9 V1, Luxul XAP-1510 Access point
    • STMicro  – stm32f746 Cortex-M7 based microcontroller
    • Texas Instruments – DRA71x automotive processors, AM571x-IDK industrial board based on TI AM5718
    • Altera – Macnica Sodia development platform for Altera socfpga (Cyclone V)
    • Xilinx – MicroZed board based on Xilinx Zynq FPGA platforms

That’s a long list of changes and new boards and devices… Linux 4.10 only brings few MIPS changes however:

  • KVM fixes: fix host kernel crashes when receiving a signal with 64-bit userspace,  flush instruction cache on all vcpus after generating entry code (both for stable)
  • uprobes: Fix uprobes on MIPS, allow for a cache flush after ixol breakpoint creation
  • RTC updates:  Remove obsolete code and probe the jz4740-rtc driver from devicetree for jz4740, qi_lb60
  • microblaze/irqchip: Moved intc driver to irqchip. The Xilinx AXI Interrupt Controller IP block is used by the MIPS based xilfpga platform and a few PowerPC based platforms.
  • crypto: poly1305 – Use unaligned access where required, which speeds up performance on small MIPS routers.
  • MIPS: Wire up new pkey_{mprotect,alloc,free} syscalls

You can also read Linux 4.10 changelog with comments only, generated using git log v4.9..v4.10 --stat, in order to get a full list of changes. Alternatively, you could also read Linux 4.9 changelog on kernelnewbies.org.

Dride is a Voice Controlled Dashcam Driving Assistant Powered by a Raspberry Pi Board (Crowdfunding)

February 8th, 2017 4 comments

Next Thing introduced Dashbot Car Dashboard Assistant based on CHIP Pro module late last year, and it will get some competition with Dride, a driving assistant powered by Raspberry Pi, that can also be voice controlled like Dashbot, but includes a Pi camera to record videos, and alert the users of dangers using computer vision, for example when they drive too close to the car in front.

The system leverages Raspberry Pi board and Pi Camera, and adds an outer shell, Dride’s Raspberry Pi HAT, and a car charger & cable. Some of the key features listed for the Dride include:

  • Cloud support – Upload and store driving videos to your Dride profile
  • ADAS – Safety alerts in case of lane deviation or frontal collision
  • Voice – Voice commands for navigation & messaging
  • Connectivity – Bluetooth, WiFi, and GPS

The developers also provide “Dride – Passenger Seat Driver” app for Android & iOS in order to easily share videos, and use third party services like Google Maps, Alexa Assistant, or Spotify. The video below will give you a good idea of what Dride is capable of.

Dride software will be open source, and you can already find some documentation about the SDK.

The project has just launched on Kickstarter with the goal of raising $100,000 for mass production. If you already own a Raspberry Pi and Pi camera, a $99 pledge will get you the extra parts with the HAT, outer shell, and car charger. A complete system with the board, camera, and micro SD card pre-installed with DrideOS, requires a $139 pledge (Early bird). Shipping adds $20, and deliver is planned for September 2017.

Source: Raspberry Pi Spy, via Nanik

Supermicro A2SAV mini-ITX Board Powered by Intel Atom E3940 SoC Features 6 SATA Ports, Dual GbE, and Up to 9 USB Interfaces

February 6th, 2017 14 comments

Intel introduced three Atom E3900 series Apollo Lake processors last fall that target IoT, industrial and automotive applications, and Supermicro has designed A2SAV mini-ITX board powered by Atom x5-E3940 SoC that comes with lots of interfaces include 6 SATA ports, two Gigabit Ethernet RJ45 ports, and up to 9 USB interfaces accessible from connectors or headers.

Click to Enlarge

Supermicro A2SAV motherboard specifications:

  • SoC – Intel Atom x5-E3940 quad core “Apollo Lake” processor @ 1.6 / 1.8 GHz with 2MB L2 cache, 12 EU Intel HD graphics (6.5W TDP)
  • System Memory – 1x 204-pin DDR3 SO-DIMM socket for 2, 4, or 8GB 1866/1600/1333MHz Unbuffered non-ECC 204-pin SO-DIMM DDR3
  • Storage
    • 6x SATA3 ports include 2x from SoC, and 4x via Marvel 88SE9230 controller
    • 1x SATA DOM (Disk on Module) power connector
    • 64Mb SPI Flash EEPROM with AMI UEFI BIOS supporting Plug and Play (PnP), DMI 2.3, ACPI 5.0, USB Keyboard, SMBIOS 2.7.1, and UEFI
    • mSATA and M.2 (See  expansion below)
  • Connectivity – Dual GbE LAN with Intel i210-AT controller
  • Video Output – 1x VGA, 1x Display Port, 1x HDMI, 1x eDP (Embedded Display Port)
  • USB – 2x USB 3.0 ports (rear), 7x USB 2.0 port (2x rear, 4 via headers, 1x type A)
  • Serial – 3x COM ports using RJ45, RS232 and RS485 ports
  • Expansion
    • 1x PCIe 2.0 (in x8) slot
    • 2x M.2 PCIe 2.0, M Key 2242/2280
    • 1x Mini-PCIe with mSATA
  • Misc – Voltage and temperature monitors, chassis intrusion header and detection, system overheat LED, 2x 4-pin fan headers
  • Power Supply – ATX Power connector, 4-pin 12V DC power connector
  • Dimensions – 17.145cm x 17.145cm (Mini-ITX form factor)
  • Temperature Range – 0°C to 60°C

The company can provide mid and mini-tower chassis for the board, as well as a 1U chassis all “optimized for A2SAV motherboard”. There’s no list of supported operating systems yet, but Windows 10 (IoT), and various Linux distributions will certainly run on the board.

Supermicro product page has a few more details including some documents, but it does not mention pricing information. However, the board is listed for back order on Arrow Electronics for $253.73 (back order), and TigerDirect has the light version of the board, named A2SAV-L, with just two SATA ports and fewer USB ports for $169.99.

Thanks to Paul for the tip.