Basler introduces embedded vision dev kit for Nvidia Jetson

An embedded vision development kit and two add-on camera kits with Basler’s BCON for MIPI interface powered by Nvidia Jetson have been added to the Basler portfolio.

Jetson is the AI platform for autonomous machines and Basler is a preferred partner for Nvidia.

Image processing for today’s AI at the edge applications in robotics, logistics, smart retail, smart factories, and smart cities requires high computing power. The compute and energy efficiency advantages of the Nvidia Jetson platform and Basler’s vision expertise are combined for use in automatic optical inspection and intelligent video analytics.

The Embedded Vision Development Kit, includes the Jetson Nano developer kit, and comes with a Basler dart BCON for MIPI camera with a 13 Mpixel, S-mount lens, an adapter board specifically developed for the Jetson Nano module and accessories. Basler has also integrated a new camera driver and sample reference applications to provide developers with a ready-to-use development package for edge AI use cases.

The two add-on camera kits provide the appropriate vision extension for developers already working with a Jetson Nano processor board. The kits contain either a 5 Mpixel or a 13 Mpixel Basler dart BCON for MIPI camera with S-mount lens, an adapter board and accessories. The required driver packages and the Basler pylon software development kit are available for download.

“With the Basler vision kits for the Jetson Nano, developers get an integrated, easy to use solution for vision-based embedded applications in robotics, manufacturing and industrial IoT,” said Murali Gopalakrishna, head of product management for autonomous machines at Nvidia. “Basler’s ongoing support for the Nvidid Jetson platform brings a wealth of experience in industrial cameras into our partner ecosystem,” he added.

Nvidia Jetson has support for cloud-native technologies, enabling manufacturers of intelligent machines and developers of AI applicationsto build and deploy high-quality, software-defined features on embedded and edge devices targeting robotics, smart cities, healthcare, industrial IoT and more, says Basler. Cloud-native support helps manufacturers and developers implement frequent improvements, improve accuracy, and use the latest features with Jetson-based AI edge devices.

A further add-on camera kit for the recently released Jetson Xavier NX is under development. Additional camera kits for Jetson TX2 and AGX Xavier will follow by Q3/2020, added Basler. The company is also developing an embedded vision system with access to cloud services based on a Jetson Nano due to its specific suitability for AI computing tasks on edge devices. This software solution, which extends embedded vision development kits with machine-learning application software, will also be available by Q3/2020.

http://www.baslerweb.com

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Industrial I/O is software-configurable for automation and control

Analog Devices claims to have developed the industry’s first software configurable industrial I/O for building control and industrial automation. The AD74412R and AD74413R are intended for building control and process automation, allowing manufacturers and industrial operators to achieve greater control system flexibility while reducing product complexities.

Traditional control systems require costly and labour-intensive manual configuration, with an array of channel modules, analogue and digital signal converters, and individually wired I/Os to communicate with the machines, instruments, and sensors on the operating floor.  The AD74412R and AD74413R enable flexible control systems to be designed with reconfigurable module channels remotely and without requiring extensive re-wiring, explained Analog Devices. This not only increases the speed of implementation, but increases flexibility to make changes without incurring significant cost and system downtime.

The AD74412R and AD74413R will allow manufacturers to adopt industry 4.0, and adapt to changing requirements, driven by changes in consumer behaviour and demand. Flexible systems will react quicker than fixed, large-scaled systems as they can be reconfigured quickly with minimal downtime and capital investment, said Analog Devices. ADI’s software configurable I/O can be used by manufacturers to efficiently implement new projects and achieve more flexible automated control, reduce design and installation costs, as well as commissioning delays.

Software configurable I/O also allows manufacturers to develop a platform that replaces multiple aging fixed function I/O modules or be applied across multiple customer applications where the I/O dynamic changes with each installation.

For systems traditionally reliant on control cabinets with multiple I/O modules and specified wiring for each channel type, users can reduce hardware by installing a single module type programmable from the control room, which decreases logistic, manufacturing and support costs, added ADI.

Software configurable I/O also acts as a bridge to Ethernet-based control networks, as it can further be applied to brownfield installations requiring updates to 10BASE-T1L industrial Ethernet systems. It enables development of standardised, configurable field I/O units capable of translating between installed HART-enabled 4-20mA sensors and actuators and 10BASE-T1L or 100M Fibre backhaul.

Both the AD74412RBCPZ and AD74413RBCPZ are available, both in a 64-lead LFCSP, measuring 9.0 x 9.0mm.

http://www.analog.com

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Murata packages 6 DoF inertial sensor in automotive package

For safety-critical automotive applications, Murata offers the SCHA600, six degrees of freedom (DoF) xyz axis MEMS inertial sensor with patented self-test function for continuous monitoring.

The single package sensor offers cm-level accuracy for vehicle dynamics and position, for safe, robust and verified autonomous driving and in advanced driver assistance systems (ADAS).

The SCHA600 is qualified to AEC-Q100, includes advanced self-diagnostic features and complies to ASIL-D.

With an Allan variance down to 0.9 degrees/h at room temperature and gyro RMS noise level below 0.007 degrees/s, the sensor is claimed to deliver best in class performance for automotive applications in regard to bias stability and noise. The orthogonality of the measurement axis is calibrated at Murata to save systems integrators time and money.

The SCHA600’s failsafe functions and error bits for diagnostics include internal reference signal monitoring, checksum techniques for verifying communication and signal saturation/over range detection. Its component-level dynamic cross-axis calibration enables better than 0.3 degrees cross axis error over temperature.

The three-axis accelerometer contains a diagnostic feature of a continuously operating self-test function to monitor the sensor during measurement. This patented self-test function verifies the proper operation of the entire signal chain from MEMS sensor movement to signal conditioning circuitry for every measurement cycle.

The component is supplied in a SOIC housing body with dimensions of 18.7 mm x 8.5 mm x 4.5 mm and with 32 pins. Operating temperature range is −40 to +110 degrees C. Samples are available now.

Murata manufactures electronic components, modules and devices. The company’s range includes ceramic capacitors, resistors/thermistors, inductors/chokes, timing devices, buzzers, sensors and EMI suppression filters. As well as ceramic capacitors, the company manufactures Bluetooth and Wi-Fi modules, board-mount DC/DC converters and standard and custom AC/DC power supplies.

Established in 1944, Murata is headquartered in Japan and has European offices in Finland, France, Germany, Hungary, Italy, the Netherlands, Spain, Switzerland and the UK.   

http://www.murata.com

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UltraSoC and Canis Labs address automotive cybersecurity

UltraSoC and Canis Automotive Labs have partnered to develop hardware-based intrusion detection and mitigation techniques to secure the CAN bus for automotive cybersecurity.

The project is to address the lack of security features within the CAN bus, which is commonly used to interconnect in-vehicle systems such as brakes, steering, engine, airbags, door locks, and headlights. This includes automatic hardware anti-spoofing, defence against bit-level attacks such as the bus-off attack and bit-glitching and resistance to denial of service (DoS) attacks. The collaboration deploys Canis Labs’ CAN-HG technology, a compatible augmentation of the standard CAN bus protocol that includes bus guardian security features which can carry payloads 12 times larger than standard CAN frames.

When combined with UltraSoC’s semiconductor IP for detection and mitigation of cyber threats, CAN-HG allows designers to secure CAN bus designs at the hardware level. The cybersecurity capabilities employ fast bits within the CAN-HG augmented part of a CAN frame to add security information to CAN frames. This can be used by UltraSoC’s protocol-aware monitoring hardware to identify and block suspicious or unauthorised traffic traveling over CAN. These new capabilities will be refined and proved for deployment as part of Secure-CAV, a project that seeks to improve the safety and security of tomorrow’s connected and autonomous vehicles (CAVs).

Aileen Ryan, UltraSoC CSO, commented “Incorporating Canis Labs’ innovative CAN-HG technology into UltraSoC’s products allows us to secure the vehicle ‘from the inside out’ within the underlying electronic hardware.”

Ken Tindell, Canis Labs’ CTO, added: “The most effective way to protect a CAN bus from attacks is to deploy a hardware security device – or better still, use semiconductor IP to incorporate hardware protections into the underlying system”.

CAN is used in the automotive industry but also in industrial, cyberphysical and robotics applications, where safety is paramount. While CAN is physically robust, it lacks cybersecurity features.

Most existing approaches to CAN security are software-based, meaning that they are often unable to react quickly enough to prevent protocol-level attacks. The hardware based Canis Labs / UltraSoC solution can react quickly to prevent an attack from completing, said UltraSoC. Many exploits rely on creating a window of opportunity during which the system is in a vulnerable or unknown state. A fast reaction time can eliminate this window and significantly improve the overall robustness of cybersecurity defences. Secondly, CAN bus is used in many cyberphysical systems, in which elapsed time equates to distance travelled. A faster response time has significant benefits in terms of mitigating the physical consequences of an attempted intrusion, better protecting the safety of citizens and infrastructure.

http://www.ultrasoc.com

http://www.canislabs.com

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