Dual camera mezzanine aids fast prototyping in embedded vision systems 

To develop embedded vision applications with camera sensor modules at a low cost of entry, Avnet has introduced the 96Boards ON Semiconductor dual camera mezzanine development and prototyping platform for the AP1302 imaging processor coupled with dual imaging camera modules. The platform will enable design and system engineers to create cost-effective embedded vision applications using industry-standard technologies, says the distributor.

The two Imager Access System (IAS) camera modules on the mezzanine use the AR0144 monochrome digital image sensor from ON Semiconductor. The AR0144 is a 1Mpixel Mobile Industry Processor Interface (MIPI) sensor (1280 horizontal by 800 vertical resolution) and will run at 60 frames per second at full resolution. Its ability to capture clear images is critical for applications such as scanning, industrial inspection and drone navigation, explains the company.

By using the 96Boards standard, the card can enable low latency vision system prototyping by leveraging the capabilities of the Xilinx Ultra96-V2 platform.

“This prototyping platform is specially created for design engineers, system engineers and suppliers to focus on IoT vision, AI and computer imaging applications,” said Jim Beneke, vice president of products and emerging technologies, Avnet. “It simplifies the complex process of developing applications with imaging sensors. In addition, Avnet has matched this card with our Ultra96-V2 to provide a very high performance, cost effective AI vision platform.”

The platform uses MIPI and the camera serial interface (CSI2) standards which are specifications of the MIPI Alliance. The MIPI-CSI2 specification defines the interface between the image sensors, ISP and a host processor, and is widely used for high-speed communications output from image sensors in most embedded systems.

The API 1302 image co-processor from ON Semiconductor performs image processing functions within the platform, including turning, configuration and calibration of the sensors. These processing functions also help to reduce design efforts of developing an embedded camera system. The AP1302 interfaces the sensors and the host processor using MIPI-CSI2 lanes.

The Avnet-designed 96Boards ON Semiconductor dual camera mezzanine development and prototyping platform comes with two IAS sensor modules and an AP1302 imaging co-processor.

http://www.avnet.com

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Geo Semiconductor chooses OmniVision image sensors

OmniVision Technologies’ OX03C10 automotive image sensor is combined with Geo Semiconductor’s automotive camera video processors (CVPs) in an automotive viewing camera.

The OmniVision’s OX03C10 is claimed to be the only automotive image sensor available that combines a large 3.0 micron pixel, high dynamic range (HDR) of 140dB for minimised motion artefacts, and the highest LED flicker mitigation (LFM) performance. The collaboration allows camera designers to process images captured by two image sensors with full HDR and LFM, using a single Geo CVP.

Intended for use in rear view cameras (RVCs), surround view systems (SVS) and e-mirrors, the image sensor takes advantage of the Geo GW5 CVP family’s ability to process 140dB HDR images with full LFM at 60 frames per second. The GW5 family’s advanced local tone mapping enables it to make optimal use of the OX03C10’s HDR and LFM image captures, adds OmniVision.

Using the GW5’s ability to process the captures from two image sensors simultaneously, with the HDR and LFM performance of OmniVision’s OX03C10 allows SVS camera designers to get the highest possible image quality without the added system bill of materials cost, complexity and power consumption of two CVPs, explains Geo.

The collaboration allows automotive designers to create the highest quality viewing cameras, across all lighting conditions, and in the presence of flickering LEDs from headlights, road signs and traffic signals, says the company.

This sensor’s integration of OmniVision’s HALE (HDR and LFM engine) combination algorithm provides the highest HDR and LFM performance simultaneously, claims Geo and the Deep Well dual conversion gain technology significantly reduces motion artefacts. Additionally, OmniVision’s split-pixel LFM technology with four captures provides the best performance over the entire automotive temperature range, claims the company. The OX03C10 is also the first viewing image sensor with HDR and LFM that can deliver 1920x1280p resolution at a frame rate of 60 frames per second, enabling faster camera view switching for drivers. The power consumption of the OX03C10 is 25 per cent lower than that of the nearest 2.5MP LFM image sensor, claims OmniVision and it has the industry’s smallest package size. As a result, cameras can continuously run at 60 frames per second and be placed in even the tightest spaces.

OmniVision’s PureCel Plus-S stacked architecture enables pixel performance advantages in the OX03C10 over non-stacked technology, in addition to a smaller die and lower power consumption. For example, 3D stacking allows OmniVision to boost pixel and dark current performance, resulting in a 20 per cent improvement in the signal-to-noise ratio (SNR) over the prior generation of its 2.5MP automotive viewing sensors.

The GW5 CVP family integrates an innovative HDR image signal processor (ISP) that supports the simultaneous 140dB HDR and industry’s highest LFM output of the OX03C10, providing great image detail in scenes with both bright and dark areas. Additionally, the GW5 includes Geo’s fifth-generation eWARP geometric processor to de-warp fish eye lenses exceeding a 180 degree wide field of view. The GW5 reduces system complexity and cost by requiring no external DDR memory and supporting dual sensor input that can process the captures from two OX03C10 sensors simultaneously, continues Geo.

OmniVision’s OX03C10 image sensor is available for sampling, and GEO’s GW5 CVP family is in mass production now. Both companies’ devices provide advanced ASIL functional safety and AEC-Q100 Grade 2 certification for automotive applications.

http://www.ovt.com

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Rohde & Schwarz upgrades FSW analyser to 8.3GHz bandwidth

Extending the internal analysis bandwidth of the Rohde & Schwarz FSW signal and spectrum analyser, Rohde & Schwarz has introduced the FSW-B8001 option, which enables the signal and spectrum analyser to support an industry leading 8.3GHz internal analysis bandwidth. According to Rohde & Schwarz it offers unequalled dynamic range and sensitivity.

The R&S FSW covers an input frequency range of up to 90GHz, and is claimed to provide an unmatched dynamic range and sensitivity, precision and EVM performance. The analyser, equipped with the extended analysis bandwidth option and dedicated measurement applications, can be used to meet current and future test and measurement requirements for wideband signal analysis across different industries. The FSW can include pulse measurements of aerospace and defence radar systems, satellite payload testing and amplifier pre-distortion tests. The instrument also covers chirp analysis for automotive radar and research on the next generation of wireless communication.

Wideband acquisition makes it possible to analyse frequency hops in detail while examining different radar systems operating at different frequencies, when developing and verifying both radar systems and radar jammer systems.

In wireless communications, increased bandwidths use higher data throughput. For example, says Rohde & Schwarz, the IEEE 802.11ay standard for Wi-Fi supports channel bonding, which leads to signals with bandwidths greater than 8GHz. Suitable wideband T&M equipment is also needed for Gbit communications sub-THz bands, such as D-Band and G-Band, which have been viewed as potential frequency ranges for a future 6G wireless communication standard.

Satellite systems’ bandwidths are expected to increase to 3.0 or 5.0GHz at frequencies up to 90GHz, for example for high throughput satellites designed to support Tbit connectivity.

The R&S FSW-B8001 internal analysis bandwidth option is now available from

Rohde & Schwarz supplies customers in the fields of test and measurement, broadcast and media, aerospace, defence, security and networks and cybersecurity with communications, information and security products.

The company is headquartered in Munich, Germany, and has subsidiaries in more than 70 countries, with regional hubs in Asia and America.

https://www.rohde-schwarz.com

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Wireless power receiver from Renesas has WattShare TRx mode

Renesas Electronics has added the P9415-R wireless power receiver to its portfolio. The 15W receiver uses WattShare technology and enables smartphones, power banks, and portable industrial and medical equipment, to wirelessly charge other mobile devices and accessories that also have wireless charging capabilities.

The P9415-R features up to 5W of transmit power capability in transmitter/receiver (TRx) mode, as well as receive up to 15W on Qi transmitters, enabling quick and convenient mobile device charging on the go.

Renesas believes the P9415-R will bring WattShare technology to a wider audience. It combines receiver and transmitter capabilities, allowing smartphones, smart watches, wireless ear buds and other devices to be wirelessly charged simply by placing them on top of a smartphone or other industrial and medical portable devices.

In WattShare TRx mode, the P9415-R enables these mobile devices to change the power flow direction and deliver up to 5W of power to charge other devices. Customers can use the same wireless power coil and same P9415 circuitry to both receive and transmit power wirelessly.

The P9415-R wireless power receiver has an MTP non-volatile memory for easy firmware and device function updates. It also has graphic user interface (GUI) support for user customisation.

It receives up to 30W in proprietary mode and has under voltage lockout down to 2.7V which increases the available charging area and connection times. Sensory accuracy has been improved compared with earlier devices in Renesas’ wireless portfolio to increase foreign object detection capabilities.

The receiver also has bi-directional communications to support proprietary authentication with encryption and x-y alignment circuitry for better receiver/transmitter device alignment.

It is also Renesas’ first WPC 1.3-ready wireless power receiver based on the Wireless Power Consortium’s latest inductive standard.

 Renesas produces both the power receivers (PRx) used in smartphones and other applications, as well as the power transmitters (PTx) used in charging pads and automotive in-car applications.

The P9415-R 15W WattShare wireless power receiver is available now.

http://www.renesas.com

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