Molex examines convergence of ruggedisation and miniaturisation in new report

Molex has released a report that explores the ever-increasing role of ruggedised, miniaturised interconnect solutions in unlocking new possibilities for electronic device innovation across a growing swath of industries. The report, entitled “Breaking Boundaries: Uniting Ruggedisation and Miniaturisation in Connector Design,” looks at the trends, tradeoffs and enabling technologies that remove roadblocks while helping shape the future of electronics.

“Increasing demand for electronics in new vehicle platforms has intensified the need for smaller and rugged interconnects designed to withstand the harshest environments,” said Carrieanne Piccard, VP and GM, Transportation Innovative Solutions, Molex. “As a result, the ruggedisation of miniaturised connectors has emerged as an overarching design principle, requiring a holistic approach across the entire lifecycle of components to achieve optimal product reliability, performance and longevity.”

In this industry report, Molex defines miniature connectors as having a pitch of 2.54mm or less while ruggedness refers to features for withstanding the harshest environments and mechanical stresses. The convergence of interconnect ruggedisation and miniaturisation has enabled major innovations in the automotive industry, especially in supporting electric vehicles (EVs) and zonal architectures. Now the trend is permeating other industries, including consumer electronics (e.g., fitness trackers, smartwatches and smart home devices); industrial automation (e.g., industrial robots, touchscreens and sensors); as well as medical devices (e.g., endoscopes, insulin pumps and wearable health monitors).

Growing adoption of compact, durable connectors is gaining traction in other application areas, such as smart agriculture. Vertical farming systems with dense sensor and lighting installations require space-efficient connectors that work in wet, humid environments without interruption. Smaller, lighter and rugged connectors found in agricultural drones or “flying tractors” also must be protected against extreme temperature and excessive vibration, along with exposure to moisture, dust and corrosive chemicals.

Molex’s new report explores best practices for clearing major design and manufacturing roadblocks to facilitate the design of increasingly smaller, lighter and more reliable connectors. Aluminium alloys and specialised, high-strength steel, as well as high-performance polymers, offer exceptional durability and lightweight construction. Processing these materials into complex connector geometries, however, often calls for specialised techniques, ranging from micro-molding and high-precision machining to laser welding or selective plating.

In addition, dense pitch layouts enable higher-contact density to accommodate smaller device footprints, but they require high-precision manufacturing and assembly. Increased risk of crosstalk and ineffective heat dissipation also can occur. To mitigate these issues, engineers can rely on advanced signal routing techniques, shielding and isolation methods, along with advanced thermal management strategies like heat sinks or thermal vias. Molex DuraClik Connectors feature housings made from high-temperature PBT material and secure terminal retention to withstand extreme automotive environments.

Multi-Functional Terminals (MFTs) represent a significant leap forward in miniaturised connector technology by integrating multiple functionalities — power, signal and even mechanical features, like locking mechanisms, into a single compact connector. Molex’s new report also investigates top environmental factors that can compromise component reliability while offering strategies and solutions to ensure optimal connector performance in harsh conditions. Strain relief features and contact design help optimise connector performance despite constant exposure to the stresses of vibration, shock and repeated mating cycles.

At Molex’s Global Reliability Lab, engineers simulate real-world vibration, temperature cycling and exposure to harsh chemicals. Molex Micro-Lock Plus Connectors address vibration challenges with a positive locking mechanism to ensure secure mating while averting accidental uncoupling in high-vibration environments. The connector’s metal solder tabs provide added strain relief to solder joints for enhanced resistance to mechanical stress and vibration.

Since even a single drop of water or speck of dust can create corrosion, shorts, and ultimately, device failure, ingress protection is essential. Molex’s Squba Connectors feature IP68-rated seals certified as resistant to nearly five feet of water for 30 minutes. These compact connectors optimise power delivery in one of the smallest, most durable form factors available.

As devices continue to shrink in size yet grow in functionality, Molex engineers are pushing the design boundaries of miniaturisation and ruggedisation to solve real-world business problems and exceed customer expectations.

 

http://www.molex.com.

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Infineon extends its AIROC Wi-Fi 6/6E portfolio

Infineon has announced the company’s new AIROC CYW5591x connected microcontroller (MCU) product family. The new family integrates robust, long-range Wi-Fi 6/6E and Bluetooth Low Energy 5.4 along with a secured and versatile MCU to allow customers to build cost-optimised, power-efficient, small form-factor products for smart home, industrial, wearables, and other IoT applications. The flexible platform accelerates customers’ time-to-market with ModusToolbox software, RTOS and Linux host drivers, a fully validated Bluetooth stack and multiple sample code examples, Matter software enablement, and support for Infineon’s worldwide partner network.

This flexible device family can be used as the main processor in an IoT device or as a subsystem in more complex designs to fully offload connectivity for IoT applications. The product family is available in three versions: CYW55913 for tri-band (2.4/5/6 GHz), CYW55912 for dual-band (2.4/5 GHz), and CYW55911 for single-band (2.4GHz) support.
Key features
• An Arm Cortex M33 192MHz MCU with TrustZone CC312 with 768 KB SRAM
• Quad-SPI with XIP with on-the-fly encryption/decryption for FLASH and PSRAM
• 1×1 Tri-Band (2.4/5/6 GHz) 20MHz Wi-Fi 6/6E (802.11ax)
• Up to +24 dBm transmit power for Wi-Fi for best-in-class range
• Supports 6 GHz (Wi-Fi 6E) greenfield spectrum for lower congestion and reduced latency
• Matter-over-Wi-Fi support
• Bluetooth Low Energy 5.4 supports Bluetooth low energy 2 Mbps, LE Long Range, Advertising Extensions, and Advertising code selection for LE Long Range
• Bluetooth Low Energy range and power are also optizized with up to +19 dBm transmit power
• Best-in-class LE Longe Range sensitivity of -111.5 dBm
• Extensive peripherals and GPIO support: 3xSCB(I2C/SPI/UART), TCPWM, 7 channel 12-bit ADC, Digital Microphone support, TCM (I2S/PCM), and up to 47 GPIOs
• Hardware support for AES, RSA, ECC, ECDHA, ECDSA, Root-of-Trust
• Multi-layer security supporting lifecycle management, secured boot with firmware authentication and encryption, anti-rollback, crypto key establishment, and management
• PSA Level 2 Certifiable

https://infineon.com

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Now at Mouser u-blox explorer kit for rapid development of high precision GNSS applications

Mouser is now shipping the XPLR-HPG-1 Explorer kit from u-blox. This Explorer kit is comprised of a baseboard populated with a NORA-W106 module, which integrates a powerful dual-core 32-bit microcontroller with 802.11b/g/n Wi-Fi and dual-mode Bluetooth LE 5 connectivity. The baseboard also features three mikroBUS connectors with pre-mounted click boards hosting u-blox positioning and cellular modules. The GNSS RTK 2 click board features the ZED-F9R module, a high-precision dead-reckoning. The LBAND RTK click board includes the NEO-D9S module, a satellite data receiver for the L-band correction broadcast. The 4G LTE 2 click board features the LARA-R6001D, a compact LTE Cat 1 multi-mode module offering global coverage, enabling the reception of PointPerfect correction data via mobile networks. Equipped with its GNSS and communication modules, this Explorer kit can access correction data from a satellite broadcast via L-band satellite GNSS receiver or IP connectivity using LTE or Wi-Fi. PointPerfect, the u-blox GNSS augmentation service, provides correction data delivered via the Thingstream IoT service delivery platform. The XPLR-HPG-1 also supports the Networked Transport of RTCM via Internet Protocol (NTRIP. The XPLR-HPG-1 kit’s modular design also enables users to switch out Mikroe click boards. The Explorer kit provides a flexible, modular development and prototyping platform for centimetre-level accuracy positioning applications, such as autonomous robotics, asset tracking and connected health.

https://www.mouser.co.uk

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Element14 launches “Eye on Intelligence” design challenge

element14, an Avnet Community, in collaboration with AMD, has launched the “Eye on Intelligence” design challenge. This innovative competition invites participants to design and build an embedded vision project using a development kit based on the AMD Zynq-7000 SoC devices.

Embedded vision is increasingly being integrated into various projects, significantly impacting skill sets, technical innovation, and product development. AMD adaptive SoCs and FPGAs are the ideal devices for creating embedded visual intelligence systems. The challenge offers an excellent opportunity for developers to enhance their embedded vision skills by utilizing the AMD Zynq-7000 SoC-based development kit.

15 official applicants will receive a Digilent Arty Z7 (P/N 410-346-20) development platform, designed around the AMD Zynq-7000 SoC, free of charge. To compete for prizes, participants must blog about their design process and the outcome of their embedded vision project, ensuring the kit is used in the final project. The competition encourages creative use of the FPGA components and innovative applications of AMD’s adaptive SoC technology.

Example tasks for the competition include, but are not limited to, Facial Recognition Signage, ANPR Registration Plate Monitoring System, Object Classification, and Object Sorting System.
“This design challenge is a great opportunity for developers to push the boundaries of embedded vision technology using AMD’s adaptive SoCs and FPGAs,” said Andreea Teodorescu, Global Director of Product Marketing & element14 Community. “We’re excited to see the groundbreaking projects our participants will create and how they will leverage the AMD Zynq-7000 SoC to drive advancements in machine learning and AI-powered applications.”

The grand prize includes a Multicomp Pro MP720025 Digital Oscilloscope and a Multicomp Pro MP710082 Bench Power Supply, with a combined value of approximately $900. The runner-up prize consists of a Multicomp Pro MP720857 Handheld Oscilloscope and a Tenma 72-2660 Handheld DC Power Supply, valued at around $380. Lastly, the finisher prize is a Multicomp Pro MP781004 Handheld Digital Multimeter.

Applications are open now until 17 July. The 15 selected challengers will have until 25 October to complete their projects and blog entries. Winners will be announced in October 2024.
To learn more about the design challenge and enter the competition, please visit https://community.element14.com

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