Vishay Intertechnology High Speed PIN Photodiode Enables Improved Bio Sensor Performance

Device Offers Increased Photocurrent of 33 µA in 4.8 mm by 2.5 mm SMD Package With Industry-Low 0.48 mm Profile.

Vishay Intertechnology, Inc. today broadens its optoelectronics portfolio with the introduction of a new high-speed silicon PIN photodiode with enhanced sensitivity to visible and infrared light. Featuring a rectangular 4.8 mm by 2.5 mm top-view, surface-mount package with an industry-low 0.48 mm profile, the Vishay Semiconductors VEMD8081 offers an increased typical reverse light current of 33 µA for improved biosensor performance in wearable devices and medical applications.

The VEMD8081 offers 15 % greater reverse light current than its predecessor, the VEMD8080, while maintaining the same package dimensions. For designers, this provides a drop-in replacement that can improve performance by increasing signal output or extend battery life by reducing LED current.

For heart rate measurement in wearable devices such as fitness trackers and smartwatches, the VEMD8081 is placed between two pulsing green LEDs. The light reflected off the skin is received by the photodiode and converted to an output current, with the device’s increased sensitivity enabling more accurate measurements. The VEMD8081’s rectangular shape maximizes the area of the photodiode receiving reflected light, eliminating the wasted area typically found in square photodiodes. When combined with red and infrared emitters, the device is ideal for SpO2 measurement in medical monitors.

With its high sensitivity and a radiant-sensitive area measuring 5.4 mm², the VEMD8081 utilizes Vishay’s proven wafer technology to detect visible and near infrared radiation over a wide spectral range from 350 nm to 1100 nm. For high sampling rates, the device offers fast switching times and low capacitance of 50 pF.

The VEMD8081 features a ± 65° angle of half-sensitivity, operating temperature range of -40 °C to +85 °C, and 840 nm wavelength of peak sensitivity. RoHS-compliant, halogen-free, and Vishay Green, the photodiode provides a moisture sensitivity level (MSL) of 3 in accordance with J-STD-020 for a floor life of 168 hours.

Samples and production quantities of the VEMD8081 are available now, with lead times of 10 weeks.

More on Vishay at www.vishay.com

BOXER-8521AI: Power AI Edge Computing with Google® Edge™ TPU

AAEON, an industry leader in rugged AI Edge platforms, announces the BOXER-8521AI is now available on a mass-market scale. Winner of the 2021 Taiwan Excellence Award, the BOXER-8521AI combines the flexibility of PoE PD deployment with the Google® Edge™ TPU in a rugged, fanless system designed to bring AI Edge Computing to where it’s needed.

Recently awarded the Taiwan Excellence Award for 2021, the BOXER-8521AI is focused on providing flexibility in deployment and connectivity. The BOXER-8521AI features a PoE PD port, allowing the system to be deployed further away from its power source, as well as enable internet connection and remote monitoring of the system over the same single cable, reducing the complexity of installation. Additionally, by utilizing both the PoE PD port and DC-input, the system can continue operating even if one power supply is cut off.

The BOXER-8521AI powers AI Edge Computing thanks to the Google Edge TPU System-on-Module (SoM) with a rugged chassis and flexible I/O loadout. The Google Edge TPU combines the NXP i.MX 8M SoC (quad Cortex-A53, Cortex-M4F) with the Google Edge TPU coprocessor to deliver speeds up to 4 TOPS at an energy-efficient 2 TOPS per Watt.

Thanks to the Google Edge TPU, developers and users who deploy the BOXER-8521AI have access to Google’s suite of training software, AutoML Vision Edge. This innovative software helps developers quickly develop and train AI models utilizing Google’s vast cloud services, and then export the model to the BOXER-8521AI and Google Edge TPU. The system supports TensorFlow Lite, a framework that allows for more efficient models, better system performance and processing speeds.

The BOXER-8521AI is built rugged, with fanless construction to keep dust and contaminants out, providing longer-lasting, reliable operations. Additionally, the system can operate in temperatures from -5°C to 50°C without loss in performance. The BOXER-8521AI is equipped with a flexible I/O loadout that includes COM, HDMI, two USB3.2 Gen 1 and two USB2.0 ports. It also features a 40-pin multi-I/O port to connect to more sensors and controllers, such as cameras, temperature sensors, and others.

“The BOXER-8521AI brings the innovative Google Edge TPU to a rugged edge platform, unlocking the Google and Coral ecosystem for embedded AI Edge developers,” said Ken Pan, Product Manager with AAEON’s System Platform Division. “The Google Edge TPU offers an alternative platform at a comparable cost to other popular accelerators while giving developers, system integrators and users access to the services Google provides,” Ken said.

AAEON also offers a range of manufacturer and OEM/ODM services to deliver end-to-end AI Edge solutions, from custom I/O layouts to full embedded system design. AAEON also brings industry-leading service and support to ensure long and reliable service life across all platforms.

Pimoroni PIM534 Inky Impression (7 colour ePaper/eInk/EPD)

Pimoroni PIM534 Inky Impression (7 color ePaper/eInk/EPD) display is a big, beautiful, 5.7″, and 600 x 448 pixel 7 color electronic paper display for Raspberry Pi. The low power consumption e-paper display is crisp and readable in bright sunlight and the image will persist when unpowered. This display comes with four tactile buttons that control what is on the screen without the need for extra hardware. The tactile buttons are side-press, so they are accessible even if the display is mounted on a wall. This inky impression display features seven whole

The inky impression is ideal for displaying detailed graphs and charts from weather stations and sensors. This display can be set it up as a digital dashboard for the kitchen with calendar info and a rotating display for showing off children’s art. The inky impression takes around 15 seconds to refresh the screen, so it is best suited to projects that do not rely on constant screen updates. This display works with any version of the Pi with a 40 pin header, including Pi Zero and Pi Zero W.

Features

  • 5.7″ EPD display (600 x 448 pixels):
    • E Ink Gallery Palette™ 4000 ePaper
    • Advanced Color ePaper (ACeP) 7-color:
      • Black, white, red, green, blue, yellow, and orange
    • >170° ultra-wide viewing angle
    • 0.1915mm x 0.1915mm dot pitch
  • 40-pin female header included boosting height for full-size Pi’s
  • Standoffs included to securely attach to Pi
  • Additional pins, including I2C and SPI, broken out
  • Compatible with all 40-pin header Raspberry Pi models

more information: https://shop.pimoroni.com/products/inky-impression

ams AS5116-HSOT On-Axis Magnetic Position Sensor

ams AS5116-HSOT On-Axis Magnetic Position Sensor is a contactless sensor for accurate angular measurement over a full mechanical turn of 360°. This sensor features a robust architecture based on Hall sensor technology that measures the orthogonal component of the flux density (Bz) over a full-turn rotation. The AS5116-HSOT magnetic position sensor uses a simple two-pole magnet rotating over the center of the package to measure the angle. This magnet can be placed above or below the device and the absolute angle measurement provides an instant indication of the magnet’s angular position. The angle information is provided by means of buffered differential sine and cosine voltages. This sensor offers the highest reliability, durability, low output noise, and high precision analog output. The AS5116-HSOT magnetic position sensor operates at the -40°C to 150°C temperature range and requires a supply voltage of 3.3V or 5V. Typical applications include rotor angle sensing of electric commutated motors, electric power steering systems, electric pumps, actuators in transmission systems, and starter/generator systems.

Features

  • Highest reliability and durability
  • Accurate angle measurement
  • Contactless angle management
  • Low output noise
  • High precision analog output
  • Fully differential buffered sine and cosine output signals
  • Enabler for safety-critical applications
  • Fully automotive qualified
  • Low system costs:
    • No shielding required
  • Low inherent INL

Block Diagram

Specifications

  • -40°C to 150°C operating temperature range
  • -55°C to 150°C junction temperature range
  • 150mW PT (Total Power Dissipation)
  • 17mA supply current
  • 3.3V or 5V supply voltage

more information: https://ams.com/as5115

MaaXBoard Nano is a i.MX8M SBC in Raspberry Pi-like style

The MaaXBoard Nano is a low-cost, NXP i.MX 8M Nano processor-based, single-board computer ideal for embedded computing and smart edge IoT applications. The i.MX 8M Nano family of application processors is based on the Arm® Cortex®-A53 and Cortex-M7 cores which provide industry-leading audio, voice, and video processing for applications that scale from consumer home audio to industrial building automation and embedded computers. The MaaXBoard Nano is production-ready, FCC, CE, and RoHS certified. It is available in quantities of five hundred or greater.

The MaaXBoard Nano contains everything necessary to support and create Linux, Android or other OS-based systems. The platform offers several onboard peripherals including 1 GB of DDR4 memory, a Gigabit Ethernet port, quad USB 2.0 host ports, MIPI-DSI, MIPI-CSI, WiFi, Bluetooth, MicroSD card slot, four onboard microphones and an audio jack. A Raspberry Pi hat-compatible expansion connector also provides interfaces for UART, SPI, I2C and GPIO. These combined capabilities make it an ideal platform for investigating AI, IOT and multimedia applications.

Feature list

Processor

  • NXP i.MX 8M Nano Processor
  • Quad Arm CortexA53 @1.5GHz
  • Single CortexM7F @750MHz

Memory

  • 1GB DDR4 SDRAM
  • 256mB QSPI Flash
  • MicroSD Slot
  • Supports 16GB eMMC

Communications and User Interface

  • Gigabit Ethernet
  • Quad USB2.0 Host
  • MIPIDSI Display Interface
  • MIPICSI Camera Interface
  • WiFi 802.11 b/g/n/ac
  • Bluetooth 4.2 and 5
  • External Antenna Connector
  • Four onboard Microphones
  • Audio Jack

User I/O

  • 40 Pin Low Speed Expansion Interface
    • Raspberry Pi Hat Compatible
    • Digital I/O voltage: 3.3V
  • 3 X User Buttons
  • 2 X User Leds

Other

  • PMIC
  • Type C 5V/3A Power input
  • Operating Temperature: 0~70°C

Mechanical

  • 85mm x 56mm form factor

Each MaaXBoard Nano is shipped with a quick start guide to assist developers with their hardware or software development project. A user-supplied 5V/3A USB Type C power supply is required to power the board. A 16 GB microSD card and a UART USB Serial translator are recommended for booting the MaaXBoard Nano out-of-box experience. To jump-start your development, Avnet offers supported Android 9.0 and Linux images available for download. For software debugging, an optional Microchip USB-to-UART evaluation board is recommended, allowing USB terminal access through a UART port on the 40-pin expansion connector.

Block Diagram

To purchase this kit, visit Avnet.me/MaaXBoard-Na

TechNexion’s PICO-PI-IMX7 SBC Now Sells Below $20

A few years ago, one of Google’s hardware partners, TechNexion, launched a 2 board development kit that consists of a System-on-Module and a carrier baseboard – the PICO-PI-IMX7.

PICO-PI-IMX7 is a highly-integrated single board computer with enhanced features designed to enable secure and portable IoT applications. It is aimed at facilitating fast prototyping and product development at predictable scaling costs.

Designed around the popular Pi (85 x 56 mm) form factor, the PICO-PI-IMX7 is equipped with an NXP i.MX 7Dual dual-core Cortex-A7 processor @ 1 GHz with Cortex-M4 real-time core, 512MB DDR3L, 4GB Wi-Fi, 802.11 ac & Bluetooth 4.1.

PICO-PI-IMX7 is lauded for its exceptional processing and low-power performance, thus suitable for a wide range of applications ranging from simple IoT devices to high-level complexity applications. It has been tested and proven to run Android Things, Linux, Yocto, Ubuntu, and Android at optimal performance.

FEATURES AND SPECIFICATIONS INCLUDE:

PICO-iMX7 System-on-Module

  • NXP i.MX 7Dual dual-core Cortex-A7 processor @ 1GHz plus Cortex-M4 real-time core @ 200 MHz
  • NEON MPE Coprocessor
  • 512MB DDR3L onboard storage
  • Up to 4GB eMMC flash storage
  • Atheros AR8035 Gigabit Ethernet transceiver
  • Broadcom BCM4339 wireless module for 802.11 a/b/g/n/ac WiFi 5 and Bluetooth 4.1 BR+EDR+BLE connectivity
  • u.FL antenna connector
  • NXP PF3000 Power Management Integrated Circuit (PMIC)

Baseboard

  • 1x 24-bit TTL RGB signals (expansion header)
  • MIPI CSI+DSI signals on 33-pin FPC connector
  • 3.5mm audio jack
  • NXP SGTL5000 stereo audio codec
  • Gigabit Ethernet RJ45 port
  • 1x USB 2.0 host port
  • 1x USB 2.0 OTG Type-C port
  • MikroBUS header with ADC, GPIO, I2C, PWM, SPI, UART
  • 40-pin GPIO header with  GPIO, I2C, I2S, PWM, RS232, SPI, USB
  • 1x Micro USB debug port
  • 1x Reset Button
  • 5V DC via USB Type-C port
  • Dimensions: 85.6 mm x 56.5 mm x 17.5 mm
  • Weight: 43 g
  • Temperature Range: 0°C to +60 °C
  • OS Support: Android Things, Linux, Yocto, Ubuntu, and Android

PICO-PI-IMX7 is currently available in case you’re interested in buying one for yourself. Arrow Electronics used to sell the board for $120, but judging from what we saw recently on their official product page, it looks like the company is trying to get rid of some stock. They are now selling the Amazon version of the PICO-PI-IMX7 board for a promo price of $19.58 with free shipping promised only to ArrowPerks members.

You may want to check the Digikey Wiki website for some further information about the PICO-PI-IMX7 board, including details on how to build the code from source and how to set up a Debian 10 or Ubuntu 20.04 root file system. There’s also a tutorial on Hackster.io that gives a detailed explanation on how to set up the Yocto environment, build a basic image and install it on your baseboard.

tCam-Mini Radiometric Thermal Imaging Camera with Desktop App

PCB of tCam-Mini thermal imaging camera

We saw thermal imaging cameras for the evaluation of the hardware temperature of various devices. Open thermal camera is compatible with mobile phone applications for thermal imaging and FLIR ETS320 a non-contact thermal imaging camera solution for electronic testing are some of the examples. Talking more about thermal imaging, Dan Julio’s tCam-Mini is a radiometric camera for thermal imaging using a windows application.

The wireless streaming camera features a compact size dedicated to measuring temperature for thermal imaging. The radiometric data collection becomes easier by using the Flir Lepton 3.5 sensor. The acquisition of radiometric data contains the temperature information of every pixel. Hence, it opens up many options for performing thermographic analysis, along with using the different colors to show the thermal images.

The tCam-Mini camera can function both in radiometric as well as in AGC modes. The radiometric mode provides the temperature info for each pixel whereas the AGC mode focuses to provide better quality images. The camera supports JSON-based commands for interfacing using TCP/IP socket making it compatible with custom applications. The tCam-Mini thermal imaging camera also supports AP and STA Wifi modes for dynamic connectivity.

Desktop Application for tCam-Mini Camera

The camera supports single image capturing as well as it can operate on data streaming mode. This includes display images and streaming with multiple palettes. The tCam-Mini thermal imaging camera also provides the feature of saving and loading images or streams in the files storing the radiometric data for later use. The files can be video as well as image files. Additionally, it also provides the option of exporting the images in jpg, png, or tiff format and copying the current image to the clipboard of the device.

The desktop application which is compatible with the camera allows histogram display and analysis of pixel populations. The application also includes a spotmeter and up to four additional markers for displaying the temperature at various points of an instance. The graphing function plots the spotmeter and marker data with respect to time. The text file exports the graph data for analysis by different tools and programs. Print graph function allows creating a PDF on computers for printing purposes.

Building tCam-Mini Thermal Imaging Camera

The tCam-Mini thermal imaging camera uses the ESP32 WROVER module as it comes with a PSRAM chip. This chip allows the camera to use a sufficient size of buffers. “The most common ESP32 dev boards are based on the WROOM module. These will not work because they lack the PSRAM expansion memory.” Hence it is recommended to use a development board that is based on WROVER.

Assembled protoboard

Dan Julio says “ It is a simple-to-build streaming radiometric thermal imaging camera with powerful desktop software.”

For information about setting up the camera and getting started with the desktop application visit Dan Julio’s post on Hackster. To access the dependencies and necessary files visit Dan Julio’s Github repository.

Images and technical specifications have also been taken from Hackster’s post.

AppSens’s BLE Wearable ECG Sensor Powered By Nordic nRF52832 Detects Arrhythmia

AppSens, a Norway-based medical technology manufacturer, designed ‘ECG247 Smart Heart Sensor‘ – a Bluetooth LE enabled wearable ECG sensor, powered by Nordic’s nRF52832 SoC, to detect irregular heartbeats. This device is a wearable electrocardiographic (ECG) heart monitor designed to detect atrial fibrillation and other major cardiac arrhythmias. Atrial fibrillation is the most commonly occurred cardiac rhythm disorder and is a common cause of stroke.

AppSens’ ECG247 Smart Heart Sensor
AppSens’ ECG247 Smart Heart Sensor

ECG247 Smart Heart Sensor has two parts – a disposable electrode-patch to fasten the sensor to the patient’s chest and a reusable electronic component for measuring the ECG signal. The patient can use this solution to self-diagnose their heart condition. This can also be used during exercise/physical activity.

The brain of this ECG247 Smart Heart Sensor is an nRF52832 SoC, based on a 64MHz, 32-bit ARM Cortex M4 processor with a floating-point unit (FPU). This processor is capable of handling the proprietory algorithm for continuously measuring and analyzing the electrical activity in the patient’s heart and detect any irregularity in the rhythm. Such complex algorithms need fast and accurate floating-point operations – here comes the powerful FPU of nRF52832. The nRF52832 is an ultra-low-power SoC that draws only a 5.5mA peak current while transmitting or receiving over the 2.4GHz band. This lets the patch run continuously for 14 days with a single CR2032 coin-cell battery.

The sensor sends the measurement data using BLE to an android or iOS smartphone so that the patient can monitor everything using the application. The heart rhythm recordings are automatically transferred to secured cloud-based storage where a sophisticated AI-based algorithm analyzes the data. Then, either it confirms the episodes of arrhythmia or rejects as electrical interference in rhythm monitoring. Cardiologists can see the recorded ECG data and make decisions accordingly.

It’s difficult for any RF device to transmit or receive when in close proximity to human skin. Despite the ECG247 Smart Heart Sensor is positioned just 6mm above the patient’s skin, nRF52832’s high sensitivity comes to the rescue and enables flawless RF communication. Tord Ytterdahl, CEO of AppSens, said:

We have worked closely with our technology partners Jetro and Kitron and together have developed a solution taking advantage of Nordic’s technology,

He also added,

Nordic’s SoftDevices implement the Bluetooth LE protocol stack in an efficient way and leave enough CPU resources to the application code, enabling real-time data processing to be embedded in the product.

more information: https://www.nordicsemi.com/News/2021/02/AppSens-ECG247-Smart-Heart-Sensor-employs-nRF52832-SoC

Tibbo Technology’s Plus1 SP7021 SoC with Linux-capable Processing

Plus1 SP7021 SoC

Generally, the SoCs have complex integration processes for deployment purposes. Even if the integration is simple then there is a compromise with the performance factor of the device. Tibbo Technology’s Plus1 SP7021 SoC ensures simple integration with efficient performance comparable with Linux-capable processing. Also, the I/O ports for easy interfacing make it a good fit for IoT applications.

Plus1 SP7021 SoC comes with multi-core processors and up to 512MB of DDR3 memory with I/O ports in a single LQFP package. Also, the core includes quad-core ARM Cortex-A7 working up to 960MHz with NEON multimedia processing engine for multimedia applications. It comes with an ARM926 real-time core with an operating frequency of 202 MHz. It also features a low-power 8051 with selectable operating speeds.

GPIO ports include nine 8-bit ports (P0-8) out of which P1-8 are 5V-tolerant. All the GPIO lines of Plus1 SP7021 SoC have 3.3V logic levels along with 16mA source/sink current for all lines of port 0. Interestingly, while researching hardware capabilities, I stumbled upon a polskie kasyno online that featured a detailed guide on using GPIO for interactive gaming setups. It features 8 separate interrupt lines that can be configured as wake-up lines of the chip. Also, each GPIO line can be individually tri-stated to work as an input or enabled to work as outputs. There are two ways of controlling GPIO lines through the 8-bit registers or by using the bitwise access to individual lines.

Technical Specifications

  • Easy-to-use 20x20mm LQFP176-EP package
  • Quad-core ARM Cortex-A7 (CA7) with 16KB L1 I-cache and 16KB L1 D-cache and 512KB unified L2 cache
  • ARM926 real-time core with 16KB I/D cache and 32KB L1 I-cache and 32KB L1 D-cache
  • 8051 low-power core with Intended to be used as a supervisory core with 500uA consumption for IC.
  • Single 3.3V power with on-device regulators for 1.5V, 1.2V, and 0.9V power
  • DDR3 DRAM with SP7021-IS: 128MB and SP7021-IF: 512MB
  • General-purpose I/O (GPIO) ports
  • Dual PinMuxable Ethernet MACs with support for half and full-duplex communications
  • Five UARTs include Four PinMuxable Enhanced UARTs, one fixed console UART (TX and RX lines only) in P0, and also Baudrates up to 921,600bps
  • Flash interface comes with eMMC, SPI NAND, and SPI NOR memories and supports BCH error correction
  • Four PinMuxable SPI modules
  • Up to four 8-bit or up to two 16-bit PinMuxable timers/counters
  • Four PinMuxable capture modules
  • MIPI video interface supports resolutions up to 1366×768/1312×816
  • HDMI 1.4 video interface supports resolutions up to 720p
  • TFT LCD controller with parallel bus interface (res. up to 320x240x24)
  • I2S/SPDIF/PWM audio output for up to five channels
  • PDM interface for 8-channel MEMS microphone array
  • 32-bit FPGA bus IO (FBIO) interface
  • Temperature sensor for estimating the internal temperature of the IC
  • Real-time clock (RTC) with alarm function with a dedicated output pin and backup power input
  • 128-byte one-time programmable (OTP) memory with 64 bytes are available to the user
  • SWD and JTAG debug interfaces
  • Watchdog timer
  • Secure boot with boot image verified by ED25519 algorithm
  • Crypto engines include PKA engine (RSA), Hash engine (SHA3, MD5), and Encryption/decryption engine (AES)

Integration of Plus1 SP7021 SoC

The device comes with a MIPI-CSI camera port that supports up to two cameras compliant with MIPI CSI-2 and MIPI D-PHY interface specifications. The supported modes of the interface include high-speed mode at 1.0Gbps per lane and low-power mode at 10Mbps per lane. The camera resolution offers up to 1328×864 including non-image data. It features a frame rate of up to 60fps with 10 bits per pixel color depth and hence a total bandwidth of 810Mbps.Plus1 SP7021 SoC features flexible peripheral multiplexing with lines of the peripherals interfacing with any line of P1-8. It also includes dual Ethernet MACs, SDIO interface, 2 PWM modules, 4 SPI modules, 4 I2C modules, 4 timers/counters, and 8 interrupts.

The company also has the LTPP3(G2) development board which is a Linux-based Tibbo Project PCB. The board comes with a quad-core 1GHz Cortex-A7 Plus1 SP7021 SoC. It supports I/O ports located directly on the board along with dual Ethernet ports allowing interfacing with other Ethernet devices. It also features integrated HDMI and serial-over-USB console ports along with the two USB 2.0 Host ports with Type-A connectors and an onboard microSD slot.

Plus1 SP7021 has an industrial operating temperature ranging from -40°C to 85°C. It supports Modern and Yocto-based Linux distribution. It comes with 2 OTG USB2.0 ports with Linux boot and USB video class support. The SoC is available for 20$ at the Tibbo store. Images and technical specifications have also been taken from the Tibbo store’s product page.

RadSee Launches High-Performance Automotive 4D Imaging Radar that Slashes Costs

Leading global defense technology company, RADA, signs letter of intent to invest $3M in RadSee

RadSee Technologies Ltd. announced the availability of the automotive industry’s first 4D imaging radar for ADAS and autonomous vehicles able to deliver ultra-high performance and scalability to OEMs and Tier 1 suppliers at up to one-third the cost of previous solutions. By combining the company’s algorithms and patented antenna and system architecture with 77GHz commercial off-the-shelf (COTS) components, RadSee eliminates development risk as well as the usual trade-off between cost and performance.

The relevance of the company’s game-changing approach to automotive radar was emphasized last week when RADA Electronic Industries Ltd., (Nasdaq: RADA, TASE: RADA) announced its intent to make a $3M investment in RadSee. RADA is a global defense technology company focused on proprietary radar solutions.

The RadSee platform scales to accommodate different autonomy levels – standard, premium and LiDAR-like – that are easily integrated, enabling widespread adoption across the entire spectrum of current and future automotive requirements. RadSee’s technology is available for immediate integration into current ADAS design cycles as well as emerging autonomous vehicles.

Features and benefits of the RadSee 4D automotive imaging radar include:

  • Scalable, portable and flexible for quick time-to-market
  • Processor-agnostic, automotive-grade COTS implementations (unlike competing ASIC approaches)
  • 400-meter range
  • Angular resolution of 0.25°
  • Static and dynamic object detection in a 120° field of view
  • Complete flexibility to fit into existing Tier 1 and OEM systems
  • Dramatically reduced development risks
  • Small form-factor architecture for easy and elegant design integration

“The automotive radar industry, poised to a market increase to above $10 billion by 2025*, is eager for an innovative solution to make 4D imaging radar happen, but still the cost matters,” asserts Cédric Malaquin, Technology & Market Analyst at Yole Développement. “An approach combining cost-effective off-the-shelf automotive grade components with cutting-edge performance, is likely to be a winning solution. At Yole, we track the many alternatives, analyze their strengths and drawbacks and deliver a comprehensive and accurate vision of this industry.”

As a key safety feature, automotive cameras alone are unreliable when driving conditions are dark or glaringly bright, or when the weather is bad, and LiDAR remains prohibitively expensive. Radar, however, is proven effective under any conditions using radio-frequency transmitters and receivers to accurately determine the shape, size, and movement of all objects in view, no matter the environmental conditions.

“With constant progress in ADAS, and direct feedback from key automotive industry players, the need for affordable, high-accuracy radars has never been greater,” said RadSee Co-founder and CEO, Arnon Afgin. “Our team focused on developing a radar solution that specifically addresses cost and risk – the key obstacles to widespread adoption by OEMs and Tier 1s.”

Co-founder and CSO Dr. Dani Raphaeli added,

“Industry-leading performance has historically come with a high price tag plus significant development complexities and risks. In contrast, RadSee’s radar technology eliminates the usual trade-offs between cost, risk and performance, making widespread adoption of 77GHz radars a real possibility for the first time.”

Interested OEMs and Tier-1s may contact RadSee directly for more information and design consultation.

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