PICKitPlus Team shares more upcoming features for PICKit+ programmer

The PICKitPlus Team shared a few announcements this month with respect to the PICKitPlus software and here is a few upcoming news:

  • Linux version of PKCMD – PKCMD-LX
  • An insight into PKCMD-Pi
  • PICKitPlus updates and release news for Windows

Linux version of PKCMD – PKCMD-LX

They will be announcing the release of the Linux version of PKCMD: PKCMD-LX. They are at the beta stage of development, and the beta-testers are actively involved.  The next stage of the beta program is expected to run for several weeks, or until the product is stable and then they will formally release to the market.  This is the Personal Computer (PC) version, designed to run on all flavors of Linux, both 32 and 64 bit.

A Raspberry Pi version is also in development. A beta program for this will begin when the PC beta finishes.

The PICKitPlus Team is excited to release this software.

PICKitPlus updates and release news for Windows

The PICKitPlus Team are continually enhancing the software.  They get requests for enhancements, and, they are still fixing the latest issues. The current release of the PICKitPlus GUI software is version 4.61.0.55.

  • They have Just added full UserID support for the 18FxxQ10 family, four new scripts and four new sections of logic to support the Read/Write/Verify and Empty processes.
  • The PICKitPlus GUIs now defaults to the WRITE button when writing.  So, this means if you write to a device, you can press the spacebar to write again!!
  • They also added some INI file parameters to assist UserID programming operations
  • PICKitPlus GUIs now shows the application installation directory, by default, when reloading the operating system.  No more hunting around the folders to find the Operating System!
  • And, they have updated the ‘supported file list’ to show the parts that are supported Programmer To Go operation.

The PICKitPlus Team are also continually updating the parts database.  Currently at version 2.61.214

  • They have added new EEPROMs, new Q10 scripts and improved scripts to correct reported errors.
  • Next, they will add the 18FxxQ43 family.
  • Remember, you can use the PICKitPlus GUI application to check and download the parts database, or, check here:  https://github.com/Anobium/PICKitPlus

more: www.pickitplus.co.uk

Microchip Introduces New AVR DA Microcontroller Family

The AVR DA family incorporates several new safety features together with integrated Peripheral Touch Controller

As the Internet of Things (IoT) delivers greater connectivity for industrial and home applications and as connected vehicles enhance cabin and operational features, higher-performance microcontrollers are required for better real-time control as well as to enable enhanced human machine interface applications. Microchip has released its next generation AVR® DA family of microcontrollers (MCUs) – its first Functional Safety Ready AVR MCU family with Peripheral Touch Controller (PTC).

With this AVR DA family of microcontrollers Microchip builds on our legacy of high performance and high code efficiency devices, now meeting new demand across multiple industries with advanced analog and core independent peripherals, and more capacitive touch channels over existing devices, said Greg Robinson, associate vice president of marketing, 8-bit microcontroller business unit. The technology spans applications from connected home security, building automation and sensor systems to automotive and industrial automation, enabling the designs of more robust, accurate and responsive applications.

Microchip’s Functional Safety Ready designation is applied to devices that incorporate the latest safety features and are supported by safety manuals, Failure Modes, Effects, and Diagnostic Analysis (FMEDA) reports, and in some cases, diagnostic software – reducing the time and cost of certifying safety end applications. The AVR DA MCU family includes several integrated safety functions to ensure robust operation – features ensuring a sufficient supply voltage such as power-on reset, brown-out detector and voltage-level monitor. The cyclic redundancy check (CRC) scan ensures the application code in the flash memory is valid. By ensuring code integrity, unintended and potentially unsafe behavior of the application can be avoided.

Microchip’s new AVR DA family of MCUs enables CPU speeds of 24 MHz over the full supply voltage range, memory density of up to 128 KB flash, 16 KB SRAM and 512 bytes of EEPROM, 12-bit differential ADC, 10-bit DAC, analog comparators and zero cross detectors. The PTC enables capacitive touch interface designs supporting buttons, sliders, wheels, touchpads, smaller touch screens as well as gesture controls used in a wide range of consumer and industrial products and vehicles. The AVR DA family of MCUs supports up to 46 self-capacitance and 529 mutual capacitive touch channels and features the latest generation PTC with Driven Shield+ and boost mode technologies providing enhanced noise immunity, water tolerance, touch sensitivity and response time.

In addition, the AVR DA family of MCUs brings additional value to embedded real-time control systems. The integrated event system enables inter-peripheral communication without involving the CPU. Events are latency free and never lost, providing enhanced real-time performance and predictability for reliable and safe designs. By reducing the time the CPU needs to be active, the overall power consumption of the application is reduced.

Features of the AVR DA Microcontrollers

  • AVR Core Running at up to 24 MHz
  • Up to 128 kB Flash Memory
  • Up to 16 kB SRAM
  • Up to 22 Channels, 12-bit Analog-to-Digital Converter
  • 10-bit Digital-to-Analog Converter
  • Analog Comparator with scalable reference input
  • Up to three Zero Cross Detectors
  • Cyclic Redundancy Check scan
  • 16-bit Real Time Clock
  • Up to 10-Channel Peripheral Event System
  • Peripheral Touch Controller
  • Internal Voltage Reference
  • USART/SPI/dual-mode Two-Wire Interface
  • In-Circuit Programming

The configurable custom logic peripheral enables the setup of logical functions internally, eliminating the need for external components, reducing board space and bill of material costs. With the new advanced analog features like the 12-bit differential ADC, the AVR DA family of MCUs can measure small amplitude signals in noisy environments, making them well suited for sensor node applications in harsh environments.

The AVR DA family of MCUs’ high memory density and SRAM-to-flash ratio make it attractive for both wireless and wired connected sensors nodes, as well as other stack-intensive applications.

More information on the AVR DA Product Family can be found on the Microchip Web site at Microchip AVR DA main page

PicoScope 6000E 4-Channel 500MHz Mixed-Signal Oscilloscopes

The PicoScope 6000E 8-channel oscilloscope series has grown to include 4-channel versions, bringing very high-speed performance to the 4 or 8 analog channel, 16 digital channel oscilloscope world, with up to 5GSa/s real-time sampling and 4GSa deep memory

Saelig Company, Inc. has introduced the 4-channel PicoScope 6000E Series 500MHz Oscilloscopes, which provide 8 to 12 bits of vertical resolution, and up to 5GSa/s sampling rate with 4GSa memory, allowing these scopes to display single-shot pulses with 200ps time resolution.  The three 4-channel models added to the existing 8-channel 6000 series are the PicoScope 6403E with 300MHz bandwidth and 8-bit A/D resolution, the PicoScope 6404E with 500MHz bandwidth and 8-bit A/D resolution, and the PicoScope 6424E with 8, 10, or 12 bits “FlexRes” resolution. The screen update rate is a remarkable 300,000 waveforms per second.

All models can operate with an extra 4 bits of resolution with the enhanced vertical resolution software feature — a digital signal processing technique built into PicoScope 6. Additionally, these oscilloscopes offer 8 or 16 optional digital channels when using the plug-in TA369 MSO pods, enabling accurate time-correlation of analog and digital channels.

All 6000E models include a 14-bit 200MS/s 50MHz arbitrary waveform generator (AWG). Its variable sample clock avoids the jitter on waveform edges seen with fixed-clock generators and allows generation of accurate frequencies down to 100μHz. AWG waveforms can be created or edited using the built-in editor, imported from oscilloscope traces, loaded from a spreadsheet or exported to a .csv file.  The SuperSpeed USB 3.0 interface and hardware acceleration ensure that the display is smooth and responsive even with long captures.  The free PicoScope 6 software includes decoders for over 20 serial protocols.

With up to a million points, PicoScope’s FFT spectrum display has excellent frequency resolution and a low noise floor. A click of a button will display a spectrum plot of the active channels, with a maximum frequency of up to 500MHz.  Using a 4K monitor attached to the controlling PC, PicoScope 6 software can display more than ten times the information of ordinary oscilloscopes. PicoScope software also supports dual monitors, allowing instrument control and waveforms displayed on one, and large data sets from serial protocol decoders or DeepMeasure results on the second monitor.

An optional Pico Oscilloscope Probe Positioning System holds a test board firmly, as well as positioning probes hands-free for up to eight probes simultaneously. Probes with compression tips make contact with points of interest on a PCB and remain in contact while measurements are taken with PicoScope software.

The 6000E’s 4 or 8 analog channels have the timing and amplitude resolution needed to reveal signal integrity challenges such as glitches, runts, dropouts, noise, distortion and ringing.  This series gives the waveform memory, resolution and analysis tools needed to test today’s high‑performance embedded computers and next-generation embedded system designs.  The 6000E oscilloscopes are ideal for design engineers working with signal processing, power electronics, mechatronics, and automotive designs, and for researchers and scientists working on multi-channel high-performance experiments in physics labs, particle accelerators, and similar facilities.  Supported by the PicoScope 6 software, these devices offer an ideal, cost-effective package for design, research, test, education, service, and repair.

The compact design of the PicoScope 6000E (9.7 x 7.6 x 2.5 inches) means that it fits easily on any workbench, whether in the laboratory or at home. Made by Pico Technology, Europe’s award-winning test and measurement manufacturer, all of the PicoScope 6000E oscilloscopes are available now from Saelig Company, Inc. their USA technical distributor.

AOPEN Chromebox Mini is Designed for Digital Signage and Kiosks

When most Chromeboxes nowadays are targetted towards consumer market and educational fields, AOPEN designed the smallest enterprise-ready Chromebox for digital signage, corporate, and kiosks. This device is designed to run 24/7 in tough conditions and can handle shocks and vibrations without any problem. The Rockchip RK3288 powered Chromebox Mini may perform sluggishly if used as a mini PC, but this should not be an issue for digital signage or kiosks.

The Specifications of the Chromebox Mini:

  • Dimension: WxHxD: 146 x 93 x 24 mm
  • Weight: 403g
  • CPU:
    • Rockchip RK3288C
    • Quad-Core Cortex-A17
    • turbo up to 1.8GHz
  • Memory:
    • Dual-Channel 4GB LPDDR3
    • Memory down design
  • Graphics: ARM Mali-T764 MP4 GPU clocked at 600 MHz
  • LAN: Gigabit 10/100/1000 Mbps
  • Front Panel I/O:
    • USB 2.0 port support BC1.2 x 3
    • Power Button with LED x 1
  • Rear Panel I/O:
    • Power switch x 1
    • HDMI x 1
    • Ethernet RJ45 x 1
    • Audio Combo Jack x 1 (Line out/Line in)
    • Antenna hole x 2
    • Wide Voltage Range DC input DC 15~50V power inlet Jack x 1
  • MTBF: 50,000hrs
  • Operating Temperature: 0ºC ~ 40ºC
  • Storage Temperature: -20ºC ~ 60ºC
  • Relative Humidity: 90% (50ºC non-Condensing)
AOPEN Chromebox Mini Rear I/O

The Chromebox mini supports full-HD playback. The video player is capable of delivering content at 1920 x 1080 pixels without any stuttering or tearing. As this product is primarily focused on digital signage and kiosks, a high-resolution output is indeed an important feature to have. It has a fanless and ventless dustproof design allowing it to operate in harsh outdoor conditions without any worry about dust. The ribs on the body help its passive cooling.

The fanless design approach and usage of EMMC instead of HDD ensures the ability to handle shocks and vibrations with ease. Because the device lacks any moving part, it is perfect for, for example, moving vehicles: to show transportation information in busses, or to display signage on cruise ships. The Chromebox Mini also features an extended power switch. That means, even if the device is fixed inside a kiosk or behind the ceiling, the power button can be operated from a small distance.

To get the quotation of the Chromebox Mini or for other information, go to AOPEN’s official product page here.

Meet the New GPD WIN Max Handheld Game Console running Win10

Game consoles are usually smashing hits but the recently announced WIN Max Handheld Game Console from Shenzhen based GamePad Digital (GPD) took things to a new level on Indiegogo as it raised almost 1.4 million dollars in just 24 hours of the campaign launch.

The new game console features the Intel i5-1035G7 Ice Lake processor which comes with a 10nm process, 15W TDP, 4 cores, 8 threads, and a 6MB L3 cache, was designed for AAA games like Fortnite and Assasins creed Odyssey.

The console was designed as an upgrade to the GPD WIN 2 which was a great device but fell short in terms of its processor, which is not powerful enough to run the latest AAA gaming titles, and its mouse + keyboard control mode, which is deemed somewhat inconvenient for playing online games. All of this was improved upon in the GPD WIN Max, with a faster processor, more ergonomic setup of controls/keys, and a more durable enclosure made of LG-DOW 121H aviation-grade anti-shock ABS synthetic resin.

To provide the kind of quality graphics that gamers appreciate, the new console, thanks to the processor, features the Intel’s 11th-generation Iris Plus Graphics 940 integrated graphics chip with lower power consumption, heat dissipation, and 3DMark 11 based performance that are nearly as good as the NVIDIA GeForce MX250.

The WIN Max supports a host of communication protocols including Bluetooth 5.0 and WiFi 6 both of which are the latest versions of the standards. With Bluetooth 5.0, the WIN Max is able to connect to up to 7 Bluetooth devices simultaneously, with a transmission speed of up to 3MB/s, while with WiFi 6, WIN MAX brings a theoretical transmission speed and throughput that is 4 times higher than that of Wi-Fi 5, 2.4 times higher than that of current gigabit wired network, and 24 times higher than the 100M wired network.  This gives users the ability to enjoy ultra-smooth cloud gaming sessions in a WiFi 6 based network environment.

The device also comes with multiple ports including a full-featured USB 3.1 Gen2 Type-C port that has a peak bandwidth of 10Gbps and a transmission speed of up to 1.21GB/s, 2 USB Type-A port, an RJ45 port, and a 4k HDMI port through which the device outputs 4K / 60Hz video. More significantly, however, the device comes with a Thunderbolt 3 port which has a transmission rate of 40Gbps and can support HDMI video output to 2 external 4K / 60Hz monitors at the same time. According to GPD, when playing games, the WIN Max can be connected to any Thunderbolt 3 eGFX enclosure, so that the dedicated desktop graphics card (including NVIDIA graphics cards that support 3D stereo mirrors and virtual reality technology) in that enclosure can be used to further enhance the gaming experience.

For battery life, the WIN MAX comprises 3 5000mAh batteries, and its battery life varies between 3 hours when used for heavy-duty applications, to about 14 hours for light use.

Asides being a game console, the amount of power, packed in the WIN Max, and its rugged nature with lots of communication ports, make it an ideal substitute for industrial laptops, PCs, or thin clients. It could serve as a portable universal mobile terminal for IT maintenance or communication engineers.

The crowdfunding campaign for the console on IndieGoGo is still on with 35 days left, and a total of $13,908,619 HKD raised from 2,281 backers. over 6954% of its $200,000 goal.

More information on the product and Crowdfunding plans and terms can be found on the project’s page on IndieGoGo.

Enabling AI on the Edge with iWave’s Corazon-AI

Edge devices have found their way into smart surveillance, autonomous driving, robotics, and medical imaging. With a growing requirement for making decisions on the edge and data privacy concerns, there is a requirement for intelligent devices capable of making real-time decisions. The Edge AI devices are expected to run complex neural networks and deep learning algorithms while maintaining low latency, power efficiency, and accuracy.

iWave’s Corazon-AI built on Xilinx Zynq® UltraScale+™ MPSoC is designed to overcome these challenges. The rugged and innovative FPGA-based AI Inference engine with a Pico -ITX form factor (100mm x 72mm) is coupled with multiple connectivity options while supporting multiple cameras.

The EdgeAI solution provides interfaces to connect 8 IP cameras, multiple USB cameras, and SDI Camera. These options provide the ability to capture multi-angle high-resolution video frames that are proactively processed by the in-built AI Inference engine. The solution also supports a wide range of high-speed connectivity options such as Dual Gigabit Ethernet, 802.11 ac Wi-Fi, BT 5.0, 3G/4G/5G support via an M.2 expansion slot, Dual CAN and USB3.0. There is also a provision for extended storage for an MSATA / NVMe SSD via an M.2 expansion slot. The suite of connectivity help customers towards various use cases based on the on-premise architecture and requirement.

The EdgeAI Solution is built around a highly adaptive MPSoC that features a heterogeneous Arm® + FPGA architecture providing customers the advantage of using the processor cores as a regular SoC for high-level management functionalities such as system boot, peripherals management, server communication, while the freely programmable FPGA can be configured to implement AI-specific features or dynamically accelerate functions for real-time AI inference. The Zynq® UltraScale+™ MPSoC is an integrated ARM Mali-400MP2 GPU engine, H.264/H.265 VCU, and other core signal processing, memory, networking and transceiver sub-systems that further enhances the AI deployment efficiency on the edge. The MPSoC also incorporates multiple levels of security, increased safety, and advanced power management, enabling an intelligent Edge AI device.

The Corazon-AI integrated with Xilinx Vitis AI Stack enables faster time to market while reducing complexity. The Xilinx AI Stack includes advanced pre-optimized deep learning models from the mainstream frameworks such as Tensor-flow, Caffe, Darknet, and Computer Vision Libraries. The Xilinx Vitis AI Stack enables developers to accelerate the development flow of AI applications even without in depth-knowledge of FPGA and deep learning. The Stack support C++/python API’s which provides the programming flexibility to the developers.

The solution also incorporates a configurable deep-learning processor unit in the PL of the Zynq MPSoC chip. The DPU is an AI inference engine dedicated to Convolution Neural Networks such as VGG, SSD, Yolov2/v3, FPN, Resnet50, and others, which can be found on https://github.com/Xilinx/Vitis-AI/tree/v1.0/AI-Model-Zoo. The DPU AI inference engine provides scalable multi-dimensional parallel architecture capable of performing major convolutional calculations and batch normalization through deep pipelined computing engines. They consist of specialized encoders and decoders which squeeze network model size and have a unique instruction scheduler that dynamically adjusts FIFO.

Through the support of key features such as cameras, connectivity and the Zynq MPSoC providing for an intelligent heart of the EdgeAI Solution and support for the Xilinx Vitis AI Stack, the Corazon-AI is a perfect fit for various machine learning and computer-vision based applications such as video surveillance, ADAS, medical robotics, industrial automation and augmented reality.

iWave Systems Pvt. Ltd. with over 18 years’ experience on FPGA, provides custom design services, and a wide array of Xilinx System on Modules – Zynq 7000 Series and UltraScale+ MPSoC.

To complement, iWave also provides an extensive suite of FPGA IP Cores such as ARINC818 Complete SuiteStorage & Video Processing IPs.

iWave assures customers of product longevity of 10+ years, providing customers with technical support from ideation to production. iWave can help customers with custom FPGA design implementation, porting well-trained network weights, hardware, and software pipeline optimization for performance-critical functions on the edge.

More detailed information on Corazon-AI can be found here.

To get in touch with us for inquiries and further information, please write to mktg@iwavesystems.com or contact our Regional Partners.

Solar Integrated ULP Feather Needs No batteries

Long battery-life and Low power consumption are usually top on the list of requirements for most hardware devices these days, as the weariness of having to constantly charge a device continues to have significant effect on customers’ choice. Asides from consumer applications, another reason fueling this demand is the growth in the deployment of IoT devices, most of which are designed for “deploy and forget” applications where changing batteries is impractical.

Image Credit: Hackster.io

Several approaches to this currently include wireless charging, longer-lasting but more expensive batteries, and energy harvesting. Energy harvesting is expected to play a big role in our future but most of the solutions at the moment still require battery backup and are not able to provide power in a reliable manner. Leading the way into that future, at least for makers, Jake Wachlin recently shared a project he has been working on; the light-powered, Ultra-Low Power, Feather MCU board.

The board which runs the ATSAML21 MCU, a low power variant of the SAM D21 used in the Adafruit feather Mo board, comes with two KXOB25 monocrystalline solar cells that provide 4.46V/5.5mA and serve as the primary source of power to the board. The ATSAML21 is based on the Cortex mo+  running at 48MHz with 256kB Flash, and 32kB RAM.

Given that the energy generated by solar panels vary, a typical DC-DC switching converter is usually applied, but this takes up space and increases cost, so for this board, Wachlin decided to stick with the basics and passed the output the solar panels to an LDO regulator, the MCP1810, which then provides the system with the 3.3V voltage level required by the board.

Image Credit; hackster.io

Thanks to the SAM L21 microcontroller, the board has an incredibly low power consumption of only; 9uA in a standby state, 194uA in idle state, and 285uA inactive state. This and the “sleep when idle” nature of IoT devices means the panel will be generating excess energy when not really powering the device. To provide some energy storage features, on the rev2 version of the board, Wachlin added a supercapacitor (0.33F).

Asides the low-power and energy harvesting features of the board, it also comes with a host of sensors including; an ST LIS3DH triple-axis accelerometer, and a BOSCH BMP280 temperature and humidity sensor.

The board’s design is completely open-source, and available on wachlin’s github page. A guide to building the project is available on Wachlin’s website.

Apollo S10 SOM

Terasic’s Apollo S10 SOM for scalable FPGA prototyping and HPC solutions which provide up to 90x performance increase over CPUs for critical workloads.

Terasic’s Apollo S10 system on module (SOM) is designed for modular and scalable high-performance FPGA prototyping and high-performance computing (HPC) solutions. The Apollo S10 SOM packs unbeatable performance and energy efficiency into a tiny form factor. It provides up to 90x performance increase over CPUs for critical workloads such as simulation acceleration, molecular dynamics, and machine learning.

Apollo S10 SOM takes advantage of the latest Intel® Stratix® 10 SoC with 2800 K logic elements to obtain speed and power breakthrough (with up to 70% lower power). Combining several high-end hardware interfaces, such as high-capacity and high-bandwidth DDR4 SDRAM (up to 32 GB), on-board USB-Blaster™ II, and FMC/FMC+ connectors for I/O expansion, the board delivers more than 2x the performance of previous-generation development kits.

Features

  • Apollo S10 module board
    • Stratix 10 SX FPGA with 2800 K logic elements
      • Core speed grade: -2
      • Transceiver speed grade: -1
    • On-board USB-Blaster II for programming Stratix 10 and EPCQ/microSD™ card for booting device
    • Two independent banks of DDR4 on-board memory with error correction code (ECC), up to 16 GB at 1066 MHz for each bank
    • FMC+ and FMC connectors for interface expansion
      • Support 336 FPGA I/O
      • 34 high speed transceivers
    • Support USB 2.0 OTG, USB to UART, and Gigabit PHY interface for HPS communication
  • Apollo developer kit
    • Includes Apollo S10 module board and Apollo carrier board
    • The carrier board is an I/O based board for developers to experience the peripherals of the module board
  • Apollo carrier board
    • Provides 12 VDC to Apollo S10 via SAMTEC 2 x 6 power connector
    • PCIe® Gen3 x4 via Thunderbolt 3 (Type-C connector)
    • Two QSFP28 connectors (40 G Ethernet)
    • Supp

Apollo S10 SOM is also extensible. Apollo carrier board is designed to assist Terasic clients’ development of Apollo S10 SOM. The carrier board features two ultra-low-latency, straight connections, 40 Gbps QSFP+ module, and Thunderbolt™ 3 to evaluate the I/O planned for systems and build custom systems around it.

Sitara AM65xx processor module has real-time capable Ethernet

TQ has expanded the company’s range of modules with the TI Sitara processor family with a module suitable for real-time communication and fieldbuses. by Ally Winning @ eenewsembedded.com

The new TQMa65xx is supported by software from Kunbus GmbH and the module will become available from August.

Up to 3x PRUs (Programmable Realtime Units) can be used to provide up to six real-time capable Ethernet ports for TSN or fieldbus applications. The TQMa65xx allows industrial connections through Ethercat, Profinet or Profibus.

The choice of the Sitara AM65xx processor for this module adds to the modules that TQ already provides featuring AM335x and AM57xx CPUs. AM65xx CPUs feature five different processor derivatives to allow them to fill many different applications. The processors are available from a dual-core variant up to a quad-core with 2x dual-core clusters of Cortex-A53 cores at speeds of up to 1.1 GHz. All usable CPU signals are available through the industry-standard connector strips.

A hypervisor can be used to distribute tasks between operating systems and individual cores and can manage each core independently. The AM6528 and AM6548 CPU variants feature 3D graphics support and Full HD resolution for several displays at the same time.

The main CPU is supported by two Cortex-R5F cores with extended security functions. Available interfaces include 1x Gbit Ethernet, 2x USB3.0, 1x USB 2.0 and 2x PCIe. Up to 8 GB LPDDR4, 256 MByte Quad SPI NOR Flash and up to 64 GB eMMC Flash are used as the main memory. The module has an EEPROM and a battery-buffered and power-saving real-time clock.

More information: https://www.tq-group.com/

Axiomtek’s Embedded Vision/AI Motherboard with Real-Time Vision I/O and PoE – MIRU130

Axiomtek – a world-renowned leader relentlessly devoted in the research, development and manufacture of series of innovative and reliable industrial computer products of high efficiency – is pleased to introduce the MIRU130, a high-end embedded vision and AI motherboard optimized for machine vision and deep learning applications. It is powered by the onboard AMD RYZEN™ Embedded V1807B/V1605B processor with AMD Radeon™ RX Vega graphics. The embedded vision board has two PoE GbE LAN ports for camera interfaces and an integrated real-time vision I/O that includes 4-CH isolated DIO. The MIRU130 was designed to help developers to deploy vision-based AI applications faster and easier.

The size of MIRU130 is 244 x 170mm – the size between Micro-ATX and Mini-ITX form factor, which provides customers with the convenience of finding chassis on the market. Its vision-specific I/O integrates 2-CH trigger input, 2-CH LED lighting controller, 2-CH camera trigger output and an encoder input for conveyor tracking. Furthermore, the MIRU130 is integrated with AMD Radeon™ RX Vega graphics with support of DirectX 12 and offers dual display capability through one HDMI and one DisplayPort interfaces.

“According to MarketsandMarkets Research, the global computer vision market size is expected to grow from USD 10.7 billion in 2020 to USD 14.7 billion by 2025, at a CAGR of 6.5% during the forecast period. The major driver for the growth of the computer vision market is the growing demand for automated vision inspection and increasing adoption of vision-guided robot systems,” said Michelle Mi, product manager at Axiomtek. “The MIRU130 comes with two IEEE 802.3at PoE ports and two GbE LANs for connecting industrial cameras. Its vision I/O integrates a full range of isolated I/O interfaces and real-time controls essential which bring accurate interaction between lighting, camera, actuator and sensor devices. The motherboard is a multi-function embedded solution that addresses the needs and requirements of the computer vision market.”

The MIRU130 offers multiple expansion interfaces with one M.2 Key E slot for wireless modules, one M.2 key B slot for 22×42 storage module or 30×42 cellular module and one PCIe x16 golden finger with PCIe x8 signal for graphics cards. Two 260-pin SO-DIMM sockets support up to 16GB of DDR4-2400 (V1605B) and DDR4-3200 (V1807B) memory. In addition, it has four USB 3.1 Gen2, three RS-232, one RS-232/422/485 and one SATA-600 allow users to connect multiple devices. The embedded board has a +12V DC power input with an optional +24V DC-in power board. The embedded platform was designed for reliable operation in harsh environments with a wide operating temperature range of -20°C to +60°C.

Advanced Features:

  • AMD® Ryzen™ Embedded V1807B and V1605B processors
  • 2 DDR4 SO-DIMM for up to 16GB of memory
  • 2 GbE LAN and 2 IEEE 802.3at PoE GbE LAN
  • 2-CH camera trigger output
  • 2-CH LED lighting control
  • 1-CH incremental quadrature encoder input
  • 4-CH isolated DIO

Axiomtek’s MIRU130 is now available for purchase. For more product information or pricing, please visit our global website at www.axiomtek.com or contact one of our sales representatives at info@axiomtek.com.tw.

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