Embedded processor module paves way for precision robotics

Computer vision, edge artificial intelligence (AI) and deep learning are brought together in the VCS-1 low power, embedded processor module by Sundance Multiprocessor Technology.

The VCS-1 is designed specifically for precision robotics incorporating complex, real-time vision, control and sensor applications.

It has been developed and proven as part of the European Union’s H2020 ‘Fast-Track-Innovation’ pilot programme. The VineScout (VS) uses robotics to collect real-time data from vineyards to devise grape maturation and harvesting strategies.

The PC/104 form factor measures 90 x 96mm and provides industry-standard compatibility and expandability, says Sundance. The VCS-1 embedded processor module is optimised for computer vision, edge artificial intelligence (AI) and deep learning requirements. It weighs just 300g, has a low power consumption of typically 15W and is compatible with a range of commercially available sensors and actuators.

The Sundance VCS-1 is based on a Xilinx Zynq MPSoC, mounted on to the PC/104 board using a system on module (SoM). There is also an Arm Cortex A53 64-bit quad-core processor which combines real time control through engines for graphics, video, waveform, and acceleration with an FPGA. Characteristics include an Arm Mali 400 graphics processing unit (GPU) for graphics acceleration, an Arm Cortex R5 real time processing unit (RPU) for managing real time events and the programmable FPGA logic for hardware acceleration of AI algorithms used for on-the-fly image processing.

The Sundance VCS-1 features extensive I/O capabilities available through the Sundance external interface card (SEIC), including multiple USB3 interfaces for interfacing various cameras and sensors such as the Intel RealSense T265 tracking camera, Intel RealSense D435 and Stereo Labs’ Zed depth cameras and FLIR AX-8 thermal camera. It can also connect with most Arduino and Raspberry Pi actuators and sensors. One interface enables it to mimic a PC with HDMI display, SATA storage and Ethernet networking. An on-board ADC gathers data from an external sensor and there is an on-board DAC to control devices such as servos. I/O standards are also implemented directly on the programmable logic to reduce the latency between the various supported cameras, sensors and servos.

Software support for precision robotics includes the ROS Melodic Morenia (ROS- compatible and ROS2-ready) robotics platform, MQTT machine-to-machine (M2M) connectivity protocol, OpenCV computer vision library of real time programming functions, Xilinx’s Edge-AI solutions and the Python scripting language. The Ubuntu operating system, Xilinx SDSoC environment, TULIPP’s STHEM toolchain and Xilinx DPU (deep learning processing unit) for convolutional neural networks are also supported.

The Sundance VCS-1 is available in a custom enclosure. The PC/104-Blade, is designed to remove the need for any fans and provide a rugged environment for building embedded applications for resilient, precision robotics.

The Sundance VCS-1 precision robotics platform has been developed in conjunction with the VineScout viticulture partners, which includes the French Agri-robotics manufacturer, Wall-YE.

The project’s aim is to develop a robot for vineyard monitoring to help wine producers measure key parameters of their vineyards, including water availability, the temperature of the leaves and plant robustness. Capable of operating 24/7, the VineScout has a battery life of six hours and provides winemakers with real time data on vine and grape growth and maturation, so that they can optimise irrigation and harvesting.

Sundance Homepage

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PCIe Gen4 NVMe SSD controllers are low power for edge computing

Claimed to offer unparalleled performance-power benefits, the PCIe Gen4 NVMe solid state drive (SSD) controller is designed for edge computing and cloud data centre applications.

The SSD controllers are designed to meet the need for lower power and higher performance in next-generation data centres and edge devices as artificial intelligence (AI) and 5G gain momentum, explains Marvell Semiconductor. The SSD controller is claimed to be the industry’s lowest power PCIe Gen4 NVMe solid state drive (SSD) controller, leveraging the company’s system-on-chip (SoC) design expertise and storage IP distributed data.

Nigel Alvares, vice president of marketing for the flash business unit at Marvell Semiconductor, believes the PCIe Gen4 NVMe SSD controllers are “demonstrating Marvell’s leadership in storage, delivering the industry’s first four-channel PCIe Gen4 NVMe SSD controllers with the industry’s lowest power consumption that will help revolutionise SSD solutions for the data economy.”

The 88SS1321, 88SS1322 and 88SS1323 are believed to be the industry’s first PCIe Gen4 DRAM and DRAM-less SSD controllers to be fabricated on a 12nm process.  With support covering all existing and emerging m.2 (22110 to 2230), BGA, EDSFF and U.2 SSD form factors, the controller family is suitable for cloud data centre server compute storage, enterprise boot drives, PC client storage and gaming storage as well as emerging industrial and edge device applications.

The PCIe Gen4 NVMe SSD controllers will enable next-generation 3D and QLC NAND devices that maximise cost efficiency and reduce total cost of ownership, adds Marvell.  The compact, DRAM-less controller architecture allows for a stand-alone SSD controller and NAND unit to be mounted side-by-side on a single-sided, compact m.2230 form factor SSD. The resulting space saving leaves more room to house battery packs compared with m.2280 SSDs and also provides better performance compared to PCIe Gen 3×4 SSDs and lower power consumption compared to eight NAND channel controller-based SSDs, says Marvell.

Marvell’s revolutionary SSD controllers are available for sampling today.

https://www.marvell.com

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Skyline RFID inlays and tags can be used on metal

Rain radio frequency identification (RFID) inlays can be used on metal surfaces for and have a reading range of 6m.

The Skyline Rain RFID inlays and tags have an optimised antenna and spacer-based design. A customised ultra high frequency (UHF) inlay is based on NXP’s UCODE 7xm IC with 448-bit EPC memory and extended user memory of 2kbits. The resulting transponder is then folded and applied around a synthetic spacer developed and provided by identytag of Bad Berleburg, Germany.

The advanced antenna design, the IC’s long read range and reliable operation in dense reader and noisy environments through high interference rejection, as well as  optimised spacer material result in an on-metal read range in a compact tag, with a die-cut size of 54 x 25 x 1.8mm.

The inlay is permanently attached to the spacer and a layer of strong and resilient RA-33 adhesive is applied. According to Smartrac, this provides “excellent adhesion” to a range of surfaces. As a finished tag, Skyline’s surface is printable with thermal transfer printers.

The RFID tag can be used for tracking metallic assets, items and components in industrial environments such as automotive, mechanical engineering and aviation. Smartrac’s Skyline inlays and tags comply with VDA recommendations for the automotive industry and supported by the leading automation companies globally.

Smartrac and identytag completed initial product volumes and will be ramping up production in the second half of the year 2019.

Smartrac provides both ready-made and customised products. It makes products smart and enables businesses to digitise, identify, authenticate, track and complement products. Products are used in a wide array of applications such as animal identification, automation, automotive, brand protection, customer experience, industry, library and media management, logistics, retail and supply chain management.

Based in Amsterdam, the Netherlands, Smartac has research and development centres, production and a sales network, complemented by the IoT platform, Smart Cosmos. Smartrac embeds intelligence into physical products for an ecosystem of connected things. The company has also received ARC Quality Certification from Auburn University’s RFID Lab for the design and manufacturing of its RFID inlays.

http://www.smartrac-group.com

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Xilinx introduces PCIe Gen 4 card for critical data centre workloads

Believed to be the industry’s first adaptable compute, network and storage accelerator card which delivers “dramatic improvements” in throughput, latency and power efficiency for critical data centre workloads, says Xilinx.

The Alveo U50 has been added to the Alveo data centre accelerator card range. It is claimed to be the industry’s first low profile adaptable accelerator with PCIe Gen 4 support. According to the company, it boosts a range of critical compute, network and storage workloads in a single, reconfigurable platform.

The Alveo U50 is a programmable low profile and low-power accelerator built for scale-out architectures and domain-specific acceleration of any server deployment, on-premise, in the cloud and at the edge, says Xilinx. It is intended to meet the challenges of emerging dynamic workloads such as cloud microservices and delivers between 10 to 20 times improvements in throughput, latency and power efficiency. The principle is to move the compute closer to the data to help developers identify and eliminate latency and prevent data bottlenecks and thus accelerate networking and storage.

The U50 is powered by the Xilinx UltraScale+ architecture. It is the first in the Alveo family to be packaged in a half-height, half-length form factor and low 75W power envelope. The card features high-bandwidth memory (HBM2), 100Gbit per second networking connectivity, and support for the PCIe Gen 4 and CCIX interconnects.

The 8Gbyte of HBM2 delivers over 400Gbits per second data transfer speeds and the QSFP ports provide up to 100Gbits per second network connectivity. The high-speed networking I/O also supports advanced applications such as NVM Express over Fabrics (NVMe-oF), disaggregated computational storage and specialised financial services applications.

Applications for the Alveo U50 are machine learning inference, video transcoding and data analytics to computational storage, electronic trading and financial risk modelling. For deep learning inference acceleration (speech translation), the Alveo U50 delivers up to 25 times lower latency, 10 times higher throughput and better power efficiency per node compared to GPU-only for speech translation.

For data analytics acceleration (database query), the Alveo U50 runs the TPC-H Query benchmark to deliver four times higher throughput per hour and reduced operational costs by a factor of three, compared to in-memory CPU. It also delviers 20 times more compression/decompression throughput for computational storage acceleration (compression). It also has faster Hadoop and big data analytics, and over 30 per cent lower cost per node compared to CPU-only nodes.

In electronic trading applications, the U50 delivers 20 times lower latency and sub-500 nanosecond trading time compared to CPU-only latency of 10 microseconds. In financial modelling applications, the Alevo U50 runs the Monte Carlo simulation and delivers seven times greater power efficiency compared to GPU-only performance, reports Xilinx.

Xilinx will be showcasing the Alveo U50 at the Flash Memory Summit 2019 (6 to 8 August) at the Santa Clara Convention Center in Santa Clara, California, USA.

The Alveo U50 is sampling now with OEM system qualifications in process. General availability is scheduled for Q3 2019.

http://www.xilinx.com

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