Infineon and Qualcomm enable standard solution for 3D authentication

A reference design developed by Infineon Technologies, working with Qualcomm Technologies is for 3D authentication based on the Qualcomm Snapdragon 865 mobile platform.

The reference design uses the REAL3 3D time of flight (ToF) sensor and enables a standardised integration for smartphone manufacturers.

At CES 2020, Infineon introduced the 4.4 x 5.1mm ToF sensor, describing it as the world’s smallest yet most powerful 3D image sensor with VGA resolution. It can be used for face authentication, enhanced photo features and authentic augmented

Andreas Urschitz, division president power management and multimarket at Infineon, commented: “3D sensors enable new uses and additional applications such as secured authentication or payment by facial recognition. We continue to focus on this market and have clear growth targets”.

Infineon develops the 3D ToF sensor technology in co-operation with the software and 3D time-of-flight system specialist pmdtechnologies.

From this month, Infineon’s REAL3 ToF sensor will enable the video bokeh function for the first time in a 5G-capable smartphone for optimal image effects even in moving images. Using the precise 3D point cloud algorithm and software, the received 3D image data is processed for the application. The 3D image sensor captures 940nm infrared light reflected from the user and the scanned objects. It also uses high-level data processing to achieve accurate depth measurements. The patented SBI (Suppression of Background Illumination) technology offers a wide dynamic measuring range from bright sunlight to dimly lit rooms for robust operation without loss of data processing quality.

pmdtechnologies is a fabless IC company headquartered in Siegen, Dresden and Ulm with subsidiaries in the USA, China and Korea. It claims to be the leading 3D ToF CMOS-based digital imaging technology supplier. Founded in 2002, the company owns over 350 worldwide patents concerning pmd-based applications, the pmd measurement principle and its realisation. The company operates in industrial applications.

http://www.infineon.com

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Flat connectors withstand higher operating temperatures

Flat flexible cable/flat printed circuit (FFC/FPC) connectors from Hirose Electric can withstand higher operating temperatures than standard FFC/FPC connectors. The FH67 series withstand temperatures ranging from -55 to +125 degrees C. This heat resistance capability enables the connector to be used in harsh automotive environments.

The FH67 0.5mm pitch connectors are characterised by a single action lock and a vertical connection design. 

The robust FFC/FPC connectors’ one-action lock allows an FFC/FPC to be inserted into the connector without opening the actuator. This can be done with one hand or by automated machinery, says Hirose, saving valuable assembly time and reducing the rates of mating failure. Removing the connector is also easy and can be done by one hand or by robot.

The FH67 series is reliable with an independent two-point spring contact design, which includes a wiping element that reduces contact failure due to dust intrusion.

The ground contacts allow a shielded FFC to be used which prevents EMI. The FH67 series has a height of just 5.2mm, making it suitable for space-constrained design for use in automotive equipment, smart home devices, medical equipment and other portable devices.

Hirose Electric is a Japanese manufacturer of high-quality connectors. It was established in 1937 and uses advanced engineering services, customer service and worldwide manufacturing capabilities to provide technically advanced connector products for many industries including industrial, automotive, consumer, testing, broadcasting, and telecommunications.

Hirose established European offices over 30 years ago to compete internationally in Europe. In 2010, the European offices were merged together to form Hirose Electric Europe. The European headquarters is based in Amsterdam, The Netherlands. Other European branches are located in Germany, UK, France and Italy.

http://www.hirose.com/eu

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Lattice supports embedded vision with solutions stack

To accelerate low power, embedded vision development such as image sensor bridging, aggregation, splitting and processing, Lattice Semiconductor has introduced the mVision solutions stack with support for the Nexus platform and CrossLink-NX FPGAs.

It includes the modular hardware development boards, design software, embedded vision IP portfolio, reference designs and demos needed to implement sensor bridging, sensor aggregation, and image processing applications found in machine vision, advanced driver assistance systems (ADAS), drones and augmented reality / virtual reality (AR/VR) for the industrial, automotive, consumer, smart home and medical markets.

Initially used in manufacturing, today embedded vision is used in automated assembly and inventory, explained Jeff Bier, founder of the Edge AI and Vision Alliance. “Many of these applications demand small, low cost, low power solutions,” he continued, adding “Solutions stacks, such as sensAI and mVision . . . help developers more easily integrate smart vision capabilities into their product designs.”

Key features of the Lattice mVision solutions stack are the Video Interface Platform (VIP) modular hardware development boards with support for a variety of video and I/O interfaces commonly used in embedded vision applications (including MIPI, LVDS, DisplayPort, HDMI, USB, and others). The VIP development boards currently support Lattice FPGAs including CrossLink, ECP5 and CrossLink-NX, based on the Lattice Nexus platform.

There is also a comprehensive IP Library. The Lattice mVision solutions stack includes ready-to-implement IP cores for interfacing to MIPI and LVDS image sensors, image signal processing pipelines, common connectivity standards like USB and Gigabit Ethernet, and display standards such as HDMI, DisplayPort, and GigE Vision.

The stack supports both of Lattice’s FPGA design tools, Lattice Diamond and Lattice Radiant. The tools automate many common design tasks.

There are also complete reference designs for common embedded vision applications including sensor bridging, sensor aggregation and image processing.

Customers can also access a  network of design service partners, developed by Lattice, for support ranging from developing individual functional design blocks to complete turn-key solutions.

http://www.latticesemi.com/mvision

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Microcontroller with built-in PUF tech offers multiple layers of security

The MAX32520 ChipDNATM secure Arm Cortex-M4 microcontroller from Maxim Integrated Products is a secure microcontroller with built-in physically unclonable function (PUF) technology for financial- and government-grade security. The technology allows for multiple layers of protection to provide advanced key-protection technology for use in Internet of Things (IoT), health care, industrial and computing systems.

The MAX32520 with ChipDNA offers multiple layers of protection through its PUF technology, a key-protection technology for safeguarding secrets used in cryptographic operations. It uses a tamper-proof PUF key for flash encryption, secure boot for root-of-trust and serial flash emulation. Additionally, the physical security inherent in the PUF key eliminates the need for a battery to actively destroy secret-key materials when under attack. Until now, the most-sensitive applications have always required a battery to provide this highest level of secret-key protection.

The secret keys generated by the ChipDNA PUF circuitry are resistant to physical attacks, ensuring the keys that protect data and systems are out of the reach of attackers. Flash-encryption using PUF protects sensitive information with encryption keys that can withstand advanced physical inspection and prying, as well as providing robust IP security. The DeepCover secure microcontroller can protect all user data, as it is equipped with SP 800-90A and SP 800-90B compliant TRNG and hardware accelerators for AES-256, ECDSA P-521 and SHA-512.

Delivering up to 2MB of secure flash memory means advanced applications can run in a highly secure environment. Built on an advanced process node, this secure microcontroller provides advanced security features, a 120 MHz ARM Cortex M4 processor and plenty of memory. It eliminates several components like a battery, a tamper monitor IC and system management micros that are often found in security-sensitive applications.

“Enabling developers to incorporate PUF-encrypted flash and secure boot loading without system redesign or in-house code development will help them reduce time-to-market dramatically,” said Tanner Johnson, senior analyst, IoT cybersecurity at Omdia.

Kris Ardis, executive director, micros, security and software business unit at Maxim Integrated said: “The threats to IoT systems are getting more advanced all the time, and tools to attack systems move from the realm of academia to the realm of open source every day. MAX32520 with ChipDNA is a step forward.”

http://www.maximintegrated.com

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