Збирач потоків

A SerDes chipset from EverProX, under its Silicon Line brand, aggregates two simultaneous MIPI D-PHY camera streams, each at up to 10 Gbps, over serialized links. As the first entry in the Silicon Line MIPI Serial Data Link (MSDL) family, the MSDL 20G dual-port chipset extends MIPI D-PHY connectivity to tens of meters.

Comprising the SL8582x serializer and SL8581x deserializer, the chipset overcomes the bandwidth, EMI, and reach limitations of conventional MIPI D-PHY while consuming less than 100 mW per link. It enables low-power connectivity between high-resolution cameras, displays, and processors.

The MSDL 20G supports up to two simultaneous single- or stereo-camera transmissions over one or two serialized links. Integrated VCSEL drivers and a transimpedance amplifier (TIA) enable optical links over tens of meters, while differential copper links can extend up to 2 meters. Typical power consumption is 71 mW per optical link and 87 mW per electrical link, excluding the integrated sideband SerDes.

The MSDL 20G (SL8582x/SL8581x) is sampling now to early-access customers in bare-die or 4×4-mm µBGA-78 packages. Evaluation kits are available now for link validation.

Silicon Line

The post Dual-port MIPI D-PHY SerDes delivers 20-Gbps bandwidth appeared first on EDN.

Marelli and Microchip have announced a display connectivity solution that uses the open-standard ASA Motion Link (ASA-ML) to stream graphics and video from a vehicle’s central computer directly to automotive displays. The companies say the approach can simplify display architectures, reduce system costs, and give automakers greater sourcing flexibility for software-defined vehicles.

Microchip is extending its ASA-ML products from camera connectivity to automotive displays, with Marelli providing the display-side integration. The demonstration uses Microchip’s VS7000 ASA-ML chipset to process and transmit graphics and video generated by the vehicle’s central computer over a high-speed standardized link. Marelli configures and optimizes the ASA-ML deserializer to decode the video stream directly at the display, simplifying the display-side electronics.

The ASA-ML connection supports data rates up to 16 Gbps and incorporates link-layer authentication and encryption. The open standard also enables interoperability among products from multiple technology providers, giving automakers greater sourcing flexibility.

For more information about Microchip’s ASA-ML solutions, visit the ASA Motion Link product page.

Microchip Technology 

Marelli

The post Marelli, Microchip extend ASA-ML to displays appeared first on EDN.

SECO has developed a 5-in. industrial HMI panel and a compact SBC, both based on the Qualcomm Dragonwing IQ-2390 processor. The Compact Vision 5 Dragonwing IQ-2390 and SBC-Dragonwing-IQ-2390 target industrial connected devices for HMI, control, vending, building automation, industrial vision, and other compact embedded applications.

With a quad-core CPU and 1.1-TOPS NPU, the Compact Vision 5 Dragonwing IQ-2390 is designed for applications requiring touch interaction, industrial reliability, and entry-level on-device AI. It integrates a 5-in. (800×480-pixel) touchscreen, 3D GPU, up to 4 GB of RAM, and 16 GB of eMMC storage in a 145.5×102.4×33.4-mm enclosure. The panel-mount unit supports Wi-Fi and Bluetooth and includes MIPI-DSI, RS-232, CAN, Gigabit Ethernet, and USB-C interfaces.

Aimed at custom embedded systems, the SBC-Dragonwing-IQ-2390 provides the same processing, memory, and connectivity as the Compact Vision 5 on a small 47×114-mm board. Both platforms run Clea OS, based on Yocto Linux, providing a software environment for development, deployment, and lifecycle management.

Register for the Early Access Program to receive information on evaluation options and next steps for the Compact Vision 5 Dragonwing IQ-2390 and SBC-Dragonwing-IQ-2390.

SECO

The post SECO pairs Dragonwing with HMI and SBC appeared first on EDN.

Ascent Solar Technologies Inc of Thornton, CO, USA – which designs and makes lightweight, flexible copper indium gallium diselenide (CIGS) thin-film photovoltaic (PV) panels that can be integrated into consumer products, off-grid applications and aerospace applications – has added Tom Bawol as its new director of strategic sales & market development, and Lieutenant General Steve Smith to its Strategic Advisory Board in the role of strategic advisor...

A Raspberry Pi Pico W can become an asynchronous web server to control a LED from any browser. The project, by Rui Santos and Sara Santos, uses Arduino IDE and three specific libraries. The result is a web page with two buttons that turn the component connected to GPIO 2 on and off.

The expansion board for Raspberry Pi Pico simplifies the wiring, but a breadboard and jumper wires are enough. The circuit requires a LED and a 220 Ohm resistor in series. The code works with few components and can be adapted to more complex projects.

How the asynchronous web server works

The Pico W is configured as a Wi-Fi access point and creates a server on port 80. The libraries WiFi.h, RPAsyncTCP.h, and ESPAsyncWebServer.h handle connections in a non-blocking way. This means the microcontroller responds to requests without stopping program execution.

The web page comes from an HTML template that includes the current LED state. When you click a button, the browser sends a GET request to ‘/lighton’ or ‘/lightoff’. The server intercepts the request, changes the GPIO state, and responds with the updated page.

The processor function replaces the %STATE% placeholder in the template with the current state. This way the page always shows whether the LED is on or off. The request-response cycle is fast and does not require manual refreshes.

An asynchronous server handles multiple requests at the same time without blocking the microcontroller. Synchronous servers, on the other hand, stop everything while processing a connection. This difference makes the Pico W more responsive and suitable for controlling outputs in real time.

In addition, asynchronous handling reduces resource usage and improves network stability. The project demonstrates an efficient approach for home automation and remote device control. You can extend the code to other GPIOs or to sensors connected to the board.

• Wi-Fi as access point
• Port 80 for HTTP requests
• GPIO 2 for the LED
• 220 Ohm resistor
• HTML template with dynamic state

To replicate the project you need few components. Both the Raspberry Pi Pico W and the Pico 2W work with the same code. The plug-and-play kit for Pico also includes everything needed to get started right away.

Programming with Arduino IDE

Arduino IDE simplifies the configuration of the Pico W. You need to install the board support and then add the libraries from the Library Manager. The code is compact and well commented, so it is suitable even for those taking their first steps with web servers.

The project page explains the procedure step by step. Once the firmware is uploaded, the Pico creates a Wi-Fi network with a default name. Connect to the network from your phone or PC and open the IP address shown in the code.

Finally, the project is a great starting point for more ambitious experiments. You can add more LEDs, sensors, or a richer user interface. The asynchronous server remains the heart of the system and handles everything smoothly.

Source: https://randomnerdtutorials.com/raspberry-pi-pico-web-server-outputs-arduino/

The post Asynchronous Web Server on Raspberry Pi Pico W appeared first on Open Electronics.

A Raspberry Pi Pico W can become an asynchronous web server to control a LED from any browser. The project, by Rui Santos and Sara Santos, uses Arduino IDE and three specific libraries. The result is a web page with two buttons that turn the component connected to GPIO 2 on and off.

The expansion board for Raspberry Pi Pico simplifies the wiring, but a breadboard and jumper wires are enough. The circuit requires a LED and a 220 Ohm resistor in series. The code works with few components and can be adapted to more complex projects.

How the asynchronous web server works

The Pico W is configured as a Wi-Fi access point and creates a server on port 80. The libraries WiFi.h, RPAsyncTCP.h, and ESPAsyncWebServer.h handle connections in a non-blocking way. This means the microcontroller responds to requests without stopping program execution.

The web page comes from an HTML template that includes the current LED state. When you click a button, the browser sends a GET request to ‘/lighton’ or ‘/lightoff’. The server intercepts the request, changes the GPIO state, and responds with the updated page.

The processor function replaces the %STATE% placeholder in the template with the current state. This way the page always shows whether the LED is on or off. The request-response cycle is fast and does not require manual refreshes.

An asynchronous server handles multiple requests at the same time without blocking the microcontroller. Synchronous servers, on the other hand, stop everything while processing a connection. This difference makes the Pico W more responsive and suitable for controlling outputs in real time.

In addition, asynchronous handling reduces resource usage and improves network stability. The project demonstrates an efficient approach for home automation and remote device control. You can extend the code to other GPIOs or to sensors connected to the board.

• Wi-Fi as access point
• Port 80 for HTTP requests
• GPIO 2 for the LED
• 220 Ohm resistor
• HTML template with dynamic state

To replicate the project you need few components. Both the Raspberry Pi Pico W and the Pico 2W work with the same code. The plug-and-play kit for Pico also includes everything needed to get started right away.

Programming with Arduino IDE

Arduino IDE simplifies the configuration of the Pico W. You need to install the board support and then add the libraries from the Library Manager. The code is compact and well commented, so it is suitable even for those taking their first steps with web servers.

The project page explains the procedure step by step. Once the firmware is uploaded, the Pico creates a Wi-Fi network with a default name. Connect to the network from your phone or PC and open the IP address shown in the code.

Finally, the project is a great starting point for more ambitious experiments. You can add more LEDs, sensors, or a richer user interface. The asynchronous server remains the heart of the system and handles everything smoothly.

Source: https://randomnerdtutorials.com/raspberry-pi-pico-web-server-outputs-arduino/

The post Asynchronous Web Server on Raspberry Pi Pico W appeared first on Open Electronics.

submitted by /u/SpecialistRare832 [link] [comments]

Epiwafer and substrate maker IQE plc of Cardiff, Wales, UK has reported greater-than-expected revenue of £64.6m for first-half 2026, up 43% from £45.3m in first-half 2025, supported by strong demand across all of the firm’s core segments...

Someday, Somehow, I'll buy a solder. submitted by /u/Curious_Deal5981 [link] [comments]

Courtesy of this circuit’s flexibliity, you can select and adjust both, one, or none of the channels of a dual digipot.

One huge advantage that digital potentiometers have over electromechanicals is, of course, the inherent flexibility the electronic interface provides versus the mechanical alternative. Figure 1 shows an example.

Figure 1 The 256-step (8-bit) resolution, dual-channel DPOT U2 can be programmed up/down with single step-per-push or auto-repeat (button held), with operating mode options including channel X or Y alone per switch S2’s position on X or Y, both ganged together with S2 in X&Y, or setting-protected (where accidental button pushing won’t disturb the setting) with S1 in LOCK.

Wow the engineering world with your unique design: Design Ideas Submission Guide

Dual tandom pots have certainly existed for a very long time, and are sometimes extremely useful. Adusting the volume on a stereo sound system, or tuning a two-pole filter, are obvious examples. But when mechanical pots share a common shaft, of course, they must turn in lockstep together forever, whether that suits the application at hand perfectly. Or not.

Figure 1’s circuit allows U2’s dual pots to step together, singly, or not at all as determined by simple switches S1 (SPST) and S2 (SPDT three position with center off). Convenient autorepeat is accessed by holding the desired step UP/DOWN button depressed for longer than a half second.

Which is certainly a step up in flexibility.

Stephen Woodward‘s relationship with EDN’s DI column goes back quite a long way. Over 200 submissions have been accepted since his first contribution back in 1974.  They have included best Design Idea of the year in 1974 and 2001.

Related Content

• Finger friendly DPOT pushbuttons do ups, downs, and dittos
• Push to increase, decrease a digital potentiometer
• Synthesize precision Dpot resistances that aren’t in the catalo
• Op-amp wipes out DPOT wiper resistance

The post Double DPOT programming: Parallel gang-up, singleton, or none appeared first on EDN.

Upline is a minimal serial protocol that turns any microcontroller into an IoT device. The project sheet describes a system based on newline-delimited ASCII records, with a complete Arduino implementation in a single header. The project, by smlcrft, targets 8-bit chips with very limited resources.

The operation is simple. The byte stream is split into lines using LF or CR terminators, ignoring empty lines and those that do not start with the ‘^’ character. Each line is a list of independent entries, delimited by the same ‘^’ character. Each entry represents an operation on a specific key.

How the Upline protocol works

Entries are only processed if fully delimited by two carets. This way partial data is never applied, and an interrupted communication does not leave the device in an inconsistent state. Writes are confirmed via an echo of the value actually in use: this distinguishes a rejection from a loss of communication.

A periodic heartbeat demonstrates that the device is alive and speaks the Upline protocol. This limits the receiver’s wait time, which immediately knows if the node is operational. The protocol also supports escaping special characters with six symbolic sequences, and does not require floating-point numbers: it uses the fixN format for decimals.

• 4,060 bytes of flash on ATmega328P, 358 bytes of SRAM
• 3,168 bytes of flash on ATtiny85, 253 bytes of SRAM
• 2,100 bytes of flash on ATtiny85 in transmit-only mode
• 98 bytes for a universal line reader on ATmega328P

The numbers are remarkable for a complete protocol. On ATmega328P, 4,060 bytes of flash and 358 bytes of SRAM are needed. On ATtiny85, consumption drops to 3,168 bytes, and in transmit-only mode to 2,100 bytes. The project sheet also reports 98 bytes for a universal line reader on ATmega328P.

Why Upline matters to makers

Upline lets you turn any microcontroller into an IoT device with a minimal, efficient, and robust protocol. The philosophy is the opposite of heavy frameworks: here everything fits in one header and runs even on 8-bit chips with only a few hundred free bytes. An Arduino Nano ESP32 board can use the same protocol as an ATtiny85, simplifying communication between heterogeneous nodes.

The protocol is particularly suited to those building distributed sensors, remote actuators, or small monitoring nodes. Moreover, the echo confirmation makes the system reliable even over noisy radio links. To connect a node to a PC and read the record stream, just use a 3.3 V / 5 V USB-serial converter: Upline speaks over any UART.

Getting started with Upline

To start, simply download the upline-arduino header and include it in an Arduino project. The fact sheet lists support for ATmega328P, ATtiny85, SAMD21, ESP32, and RP2040, among others. An Uno R3 with an ATmega328 is a great test bench to learn the protocol without soldering anything: those are the 4,060 bytes of flash measured by the author.

The source code is a single header file, so integration is immediate. No external libraries or complex build tools are needed. A USB ATtiny85 board is instead the project’s edge case: 3,168 bytes of flash and 253 of SRAM, and the protocol fits entirely inside.

Finally, the project documentation reports precise numbers for each configuration. This helps choose the right microcontroller based on flash and SRAM budget. For the smallest projects, transmit-only mode on ATtiny85 requires just 112 bytes of SRAM.

Source: https://github.com/smlcrft/upline-serial-protocol

Related products

• converter USB-SERIAL 3.3V-5V

The post Upline: a minimal serial protocol for 8-bit IoT appeared first on Open Electronics.

Upline is a minimal serial protocol that turns any microcontroller into an IoT device. The project sheet describes a system based on newline-delimited ASCII records, with a complete Arduino implementation in a single header. The project, by smlcrft, targets 8-bit chips with very limited resources.

The operation is simple. The byte stream is split into lines using LF or CR terminators, ignoring empty lines and those that do not start with the ‘^’ character. Each line is a list of independent entries, delimited by the same ‘^’ character. Each entry represents an operation on a specific key.

How the Upline protocol works

Entries are only processed if fully delimited by two carets. This way partial data is never applied, and an interrupted communication does not leave the device in an inconsistent state. Writes are confirmed via an echo of the value actually in use: this distinguishes a rejection from a loss of communication.

A periodic heartbeat demonstrates that the device is alive and speaks the Upline protocol. This limits the receiver’s wait time, which immediately knows if the node is operational. The protocol also supports escaping special characters with six symbolic sequences, and does not require floating-point numbers: it uses the fixN format for decimals.

• 4,060 bytes of flash on ATmega328P, 358 bytes of SRAM
• 3,168 bytes of flash on ATtiny85, 253 bytes of SRAM
• 2,100 bytes of flash on ATtiny85 in transmit-only mode
• 98 bytes for a universal line reader on ATmega328P

The numbers are remarkable for a complete protocol. On ATmega328P, 4,060 bytes of flash and 358 bytes of SRAM are needed. On ATtiny85, consumption drops to 3,168 bytes, and in transmit-only mode to 2,100 bytes. The project sheet also reports 98 bytes for a universal line reader on ATmega328P.

Why Upline matters to makers

Upline lets you turn any microcontroller into an IoT device with a minimal, efficient, and robust protocol. The philosophy is the opposite of heavy frameworks: here everything fits in one header and runs even on 8-bit chips with only a few hundred free bytes. An Arduino Nano ESP32 board can use the same protocol as an ATtiny85, simplifying communication between heterogeneous nodes.

The protocol is particularly suited to those building distributed sensors, remote actuators, or small monitoring nodes. Moreover, the echo confirmation makes the system reliable even over noisy radio links. To connect a node to a PC and read the record stream, just use a 3.3 V / 5 V USB-serial converter: Upline speaks over any UART.

Getting started with Upline

To start, simply download the upline-arduino header and include it in an Arduino project. The fact sheet lists support for ATmega328P, ATtiny85, SAMD21, ESP32, and RP2040, among others. An Uno R3 with an ATmega328 is a great test bench to learn the protocol without soldering anything: those are the 4,060 bytes of flash measured by the author.

The source code is a single header file, so integration is immediate. No external libraries or complex build tools are needed. A USB ATtiny85 board is instead the project’s edge case: 3,168 bytes of flash and 253 of SRAM, and the protocol fits entirely inside.

Finally, the project documentation reports precise numbers for each configuration. This helps choose the right microcontroller based on flash and SRAM budget. For the smallest projects, transmit-only mode on ATtiny85 requires just 112 bytes of SRAM.

Source: https://github.com/smlcrft/upline-serial-protocol

Related products

• converter USB-SERIAL 3.3V-5V

The post Upline: a minimal serial protocol for 8-bit IoT appeared first on Open Electronics.

I couldn’t find any decent DAC/amp combos locally, and importing one would cost a small fortune. After digging into DIY audio designs, I realized I could build one myself for a fraction of the cost and get around 80–90% of the performance of commercial units. Specs: Controller: ESP32-S3 acting as a USB Audio Class (UAC) device. DAC: PCM5102A breakout board fed via I2S. Power Supply: ±12V linear power supply Two NE5532 dual op-amps: Op-amp 1: Stereo buffer stage. Op-amp 2: Stereo gain stage (~3.1x gain). (Opted for this layout to keep wiring simple for my first major soldering project!) Volume Control: Couldn't source 10k dual-gang logarithmic pots locally, so I implemented software volume control with a rotary encoder. Layout: Everything wired to a single star ground point. Sound Impressions: It drives my Beyerdynamic DT 990 Pro (250 ohm) effortlessly. Going from my laptop's built-in jack to this is night and day—it feels like the headphones were practically starving before. Noise floor is pitch black silence with zero audible hum or hiss. Really happy with how this turned out for my first major electronics build. (Note: I’m currently out and forgot to take photos of the back of the amp perfboard, but I can upload solder-side pics once I'm back home if anyone wants to see them!) submitted by /u/supergamer1185 [link] [comments]

Вітаємо ректора КПІ Анатолія Мельниченка з входженням у топ-100 найвпливовіших українців за версією «Фокусу» KPI4U-2 ср, 09/09/2026 - 12:21

A new flash cost calculator helps OEMs identify potential savings and explore alternative storage strategies for flash chips at a time when market conditions are putting growing pressure on memory costs. The calculator reduces component costs by selecting flash capacity closer to what the product actually requires, rather than paying for oversized managed components.

According to Gartner, NAND flash prices are forecast to rise 234% in 2026 with a meaningful pricing relief not expected until late 2027. But much of the industry conversation has focused on supply constraints and component prices, noted Steffan Schumacher, CEO of Tuxera. “The more important question is what engineers can do in response.”

Source: Tuxera

Schumacher added that the opportunity isn’t simply to source a cheaper component today, but to design storage architectures that use flash more efficiently and give manufacturers more choice as costs, availability, and technology inevitably change again. Here, Tuxera’s flash cost calculator gives OEMs greater flexibility in how they design and manage embedded storage.

In other words, the calculator increases sourcing flexibility by opening a wider choice of supported raw flash parts and vendors. It also reduces dependence on a single component roadmap. For instance, a product may need only 4 GB of storage, but manufacturers can face increasingly limited choices at lower eMMC capacities.

If the required capacity is no longer available, OEMs may be forced to move to a significantly higher-capacity alternative, potentially paying for far more storage than the product actually needs. Here, the calculator enables OEMs to move from managed flash such as eMMC to raw NAND. “Manufacturers cannot control NAND prices, component availability or suppliers’ product roadmaps, but they can build greater flexibility into how they use flash,” Schumacher said.

This design flexibility is crucial for manufacturers of automotive electronic control units (ECUs) and zone control units (ZCUs), smart meters, industrial equipment, and medical devices, where the impact comes not only from higher flash prices but also from the capacity options available to them. NAND flash prices and sourcing pressures are also likely to rise in edge AI and physical AI designs because devices will demand more storage and data infrastructure.

This is how the calculator works. OEMs can enter their required capacity, annual production volumes, and production lifetime to estimate potential savings, for instance, from moving from managed flash to right-sized raw flash. Moreover, they can enter their own supplier pricing to reflect their individual purchasing agreements.

The flash cost calculator is available now at Tuxera.com/flash-cost-calculator.

Related Content

• AI Triggers a New Memory Super Cycle
• NOR Flash Next in AI-Driven Memory Crunch
• Kioxia’s Flash-for-DRAM Initiative Eyes AI Workloads
• Flash vendors show pricing restraint in surging market
• The Truth About Memory Supply, Pricing and What Comes Next

The post Flash calculator promising cost savings, design flexibility appeared first on EDN.

In a significant addition to India’s growing portfolio of home-grown enterprise intellectual property, Novac Technology Solutions, a distinguished leader in technology and AI solutions, has secured an Indian patent for its proprietary innovation, “System and Method for Managing a Project by Integrating Set of Modules” (Patent No. 595218). Designed and developed in India, the platform addresses one of the software industry’s most persistent challenges: fragmented project execution, highlighting the country’s growing role in creating globally relevant enterprise technologies through indigenous engineering and innovation.

Granted by the Indian Patent Office under the Controller General of Patents, Designs and Trade Marks (CGPDTM), the patent provides protection for Novac’s patented invention to enterprise software delivery. The innovation brings together every critical stage of the software development lifecycle, including project estimation, scheduling, project reviews, testing, defect tracking and maintenance, into a unified platform that enables organisations to manage software projects through a connected ecosystem rather than disconnected tools and workflows.

As software development becomes increasingly complex, organisations often rely on multiple tools to manage project estimation, planning, scheduling, testing and maintenance. While each serves a specific purpose, disconnected systems often result in fragmented workflows, manual coordination, inconsistent tracking and limited visibility across teams. Novac’s patented innovation addresses this challenge by integrating the key stages of software project management into a single integrated platform, enabling integrated information flow, stronger collaboration and a unified view of project execution.

A key differentiator of the patented platform is its dynamic scheduling and task-dependency management capability, which automatically updates interconnected tasks whenever changes are made to lower-level activities. This reduces manual intervention, improves planning accuracy and helps organisations improve resource utilisation while adapting to changing project requirements. The platform also integrates testing, defect management and project reviews, providing end-to-end traceability, better governance and timely insights that enable better-informed decision-making throughout the software delivery lifecycle.

Speaking about the patent, Mr. N.S Nanda Kishore, Managing Director & CEO, Novac Technology Solutions said, “Software engineering is becoming increasingly interconnected, yet many organisations continue to manage complex projects through disconnected systems and fragmented workflows. The future of enterprise software delivery lies in creating intelligent ecosystems that connect every stage of the development lifecycle, enabling greater visibility, seamless collaboration and informed decision-making. This patented solution reflects Novac’s continued commitment to engineering innovation by bringing an integrated approach to software project management.”

The patent marks an important milestone in Novac’s innovation journey and further strengthens its intellectual property portfolio. More broadly, it reflects the evolution of India’s technology ecosystem, where companies are increasingly creating proprietary enterprise technologies alongside delivering world-class technology services. As organisations worldwide continue to modernise software engineering and digital operations, innovations developed in India are playing an increasingly important role in shaping the future of enterprise technology.

The post Novac Technology Solutions Secures Indian Patent for Home-grown Innovation Transforming Enterprise Software Delivery appeared first on ELE Times.

Critical Manufacturing, the Industrial Operations Platform company that unites execution, connectivity, analytics and trusted AI, will exhibit at SEMICON India from September 17–19, demonstrating how semiconductor manufacturers can establish connected, data-driven operations that support intelligent production.

Exhibiting in collaboration with ASMPT, Critical Manufacturing will bring its vision of the factory of the future to life, showing how manufacturers can transform operational complexity into actionable intelligence through a unified platform.

India is moving from semiconductor ambition towards ecosystem development, with investment spanning fabrication, compound semiconductors, assembly and testing, advanced packaging and chip design. As new manufacturing capacity is established, companies will need to build digital production foundations that can support quality, traceability and coordination from the outset.

From execution to intelligence

At SEMICON India, Critical Manufacturing will demonstrate how its Industrial Operations Platform extends beyond traditional Manufacturing Execution Systems (MES). MES acts as the execution core within a broader platform that continuously connects production data, analytics and AI, enabling a closed-loop system where insights are generated and acted upon in real time.

For manufacturers developing new semiconductor operations, decisions made at an early stage can shape production performance for years to come. Establishing consistent processes, data structures and traceability from the beginning helps prevent fragmented systems from developing as facilities, product portfolios and production volumes grow.

The platform captures data at source, structures it across equipment, systems and sites, and provides the operational context needed to support informed decisions. This gives manufacturers a foundation that can scale with their operations while maintaining control over quality and production processes.

Experience the Factory of the Future

Visitors will be invited to “step into the factory of the future” through live demonstrations showing how machines, processes and data can be connected across the shopfloor.

The demonstration will highlight how real-time information flows between equipment and manufacturing systems, helping teams understand relationships between process conditions and production outcomes. This supports a shift from reacting to problems towards anticipating and addressing issues before they affect quality, output or delivery.

Together, these capabilities reflect the industry’s transition from digital transformation to intelligence-driven operations. By incorporating connectivity and manufacturing intelligence from the beginning, manufacturers can support continuous learning and improvement while avoiding isolated systems that later become difficult and costly to integrate.

“India has an important opportunity to build modern semiconductor operations without being constrained by the fragmented legacy systems found in many established manufacturing environments,” said Weng Keong Lan, Managing Director of Critical Manufacturing Malaysia, responsible for India’s Go-to-Market. “As new facilities and capabilities are developed, manufacturers can put the right execution, connectivity and data foundations in place from the outset rather than attempting to integrate them later.”

AI copilots for smarter decision-making

A key feature of the demonstration will be Critical Manufacturing’s AI Copilots, embedded directly within the MES environment. The copilots enable users to interact with manufacturing data using natural language and generate dashboards, charts and insights without complex queries or specialist expertise.

By making production information easier to access and interpret, AI Copilots can help engineers, operators and decision makers investigate changing conditions, identify trends and respond with greater confidence.

A joint approach with ASMPT

The joint presence with ASMPT reinforces the importance of considering manufacturing equipment and software as part of one coordinated production environment. Closely connected equipment and software ecosystems can provide greater coordination, control and performance across the production lifecycle.

Lan added, “At SEMICON India, we will demonstrate how a unified Industrial Operations Platform can help manufacturers standardise processes, establish end-to-end traceability and maintain control as production scales. Building these capabilities early will be essential if India’s growing semiconductor ecosystem is to translate investment into reliable, high-quality manufacturing.”

Experience the platform in action

Visitors to SEMICON India 2026 can experience live demonstrations at the ASMPT booth 1346, where Critical Manufacturing experts will showcase how the Industrial Operations Platform supports connected and intelligent semiconductor manufacturing.

Attendees are invited to explore how the platform can help manufacturers establish scalable operations, maintain production traceability and manage increasing complexity as facilities and output grow.

The post Critical Manufacturing to Showcase MES-Powered Industrial Operations Platform for Intelligent Semiconductor Manufacturing at SEMICON India 2026 appeared first on ELE Times.

The demand for low-voltage clock drivers continues to grow with the rapid adoption of advanced FinFET process nodes used in high-performance FPGAs, SoCs, AI accelerators and next-generation CPUs. Printed circuit board designers face increasing challenges due to the limited availability of standard 1.2V LVCMOS clock buffers and level-translating buffers capable of converting higher-voltage clock signals to the lower-voltage levels required by these advanced devices. Conventional approaches that rely on discrete components and voltage-divider techniques can compromise signal integrity and clock duty cycle accuracy while increasing board complexity and component count.

Microchip Technology has introduced the SY757xx family, a comprehensive portfolio of 1.2V-output LVCMOS clock buffers, designed to address these challenges. The new devices simplify system design by eliminating the need for traditional discrete component implementations while delivering ultra-low additive jitter performance. To provide flexibility for supporting legacy board power supplies and different clock-source voltage levels, the devices support a broad range of supply voltage (VDD) and a wide operating frequency range. The SY757xx family enables ultra-low additive jitter clock distribution while maintaining the high clock resolution and signal integrity required for today’s high-speed FPGA, SoC and CPU platforms.

“Our SY757xx family of clock buffers helps customers overcome the growing clock distribution challenges associated with next generation high-performance FPGA, SoC and CPU platforms,” said Maamoun Abou Seido, appointed vice president of Microchip’s timing and communications business unit. “By combining ultra-low additive jitter performance with broad VDD and wide frequency support in a single-chip solution, the SY757xx devices simplify board design, reduce component count and help customers maintain the signal integrity and timing accuracy required in today’s high-performance computing applications.”

Microchip’s SY757xx family strengthens the clock buffer’s role as a critically important SoC and FPGA interface for clock distribution and clock fanout functionality in application platforms where signal integrity is paramount. These platforms demand high-speed parallel processing, hardware reconfigurability, low latency and efficient real-time computing. These capabilities are required for applications ranging from embedded vision and video processing to AI/ML acceleration, industrial control and IoT, networking and communications, and signal processing and embedded systems.

Launching three products in production and eight that are sampling in limited volumes, the family spans a wide array of configurations in three space-saving packaging options. The devices protect against clock distortion across a 0 Hz to 250 MHz frequency spectrum while also offering a broad range of power supply input and output options across the 1.2V to 3.3V voltage-translation input range. This includes a single-chip option that reliably interconnects 3.3V components to FPGAs and SoCs with a 1.2V clock signal requirement. Additive jitter is as low as 26 femtoseconds (fs).

Compared to traditional discrete component solutions for these FPGA and SoC applications, the Microchip buffers simplify design and reduce bill-of-materials costs while helping to optimize AC coupling and biasing and maintain signal integrity. Voltage dividers using discrete components may not provide adequate design margin and can degrade signal integrity by causing duty-cycle distortion.

Microchip clock buffers complement the company’s comprehensive range of flash-based FPGAs and SoC FPGAs spanning ultra low density to mid-range density devices. These and other Microchip products that range from microcontrollers and analog components to power management, timing, connectivity and memory devices are pre-engineered and validated to enable a simplified, lower-risk and more holistic approach to system design.

The post Microchip’s 1.2V Clock Buffers Link Latest SoCs and FPGAs with Higher Voltage Components appeared first on ELE Times.

The Y2K wrist sequencer is a musical device worn like a watch. It composes music by selecting sounds for each step and playing them back in sequence. The transparent 3D-printed case and snap-band bracelet make it a fashion accessory as well as an instrument. The project comes from 3DSage, who chose simple components and a retro aesthetic that hits the mark.

The heart of the system is an ESP32, which handles the sequencer logic and sound generation. A rotary encoder enables the standard sequencer workflows: scroll through steps, select a sound, and store it in the desired position. The LCD display shows the state of the composition, while the speaker plays the tones. There is also a headphone jack for private listening.

How the Y2K wrist sequencer works

The operation is simple and straightforward. For each step, the user selects a sound to store in that position, such as a square-wave A note at 440Hz. The rotary encoder allows navigating between options and confirming choices. The touch pins, made from brass bar, cover an octave and make the device work more like a Stylophone synthesizer. The sequential playback lets you hear all stored sounds, creating a rhythmic melody.

The ESP32 can produce more complex waveforms, but the basic square-wave tones chosen for the default sounds fit the aesthetic perfectly. This approach keeps the project simple and true to the Y2K spirit. Additionally, the choice of a rechargeable AA battery makes the device portable and easy to recharge. The transparent PETG case adds a visual touch that recalls late-1990s gadgets.

Why this project is interesting

It is a simple and stylish way to make music, with a retro Y2K aesthetic that hits the nostalgia sweet spot. You don’t need to be a synthesis expert to use it: the controls are immediate and the visual feedback on the display guides you step by step. Moreover, the project is fully reproducible with easily available components. To get started you need only a few parts: an ESP32 board with 32 GPIOs, a 12mm rotary encoder with knob, and a 0.25-watt speaker. The transparent case is printed in PETG, the same material chosen by 3DSage.

The choice of the rotary encoder is spot-on for physical interaction: rotation and pressure give tactile feedback that recalls old synthesizers. The brass pins, on the other hand, add a live performance element. The result is a device that can be used both for planned composition and for improvisation. Thanks to the transparent case, you can see the internal circuit, a detail makers will appreciate.

How to remake the project

To build the Y2K wrist sequencer you need few components. Besides the ESP32, you need a rotary encoder, an LCD display, a speaker, and a rechargeable AA battery. The touch pins are made from a brass bar, while the case is 3D-printed in transparent PETG. The snap-band bracelet completes the wearable design.

• ESP32 for logic and sound generation
• Rotary encoder for navigation and selection
• LCD display for visual feedback
• Speaker and headphone jack for audio output
• Rechargeable AA battery for power
• Brass bar for touch pins
• Transparent PETG for the 3D-printed case

Assembly requires some soldering and 3D printing of the case. Once assembled, the device is worn on the wrist and you can start composing. The sequential playback makes everything immediate: press the pins, select sounds, and listen to the result. The 3DSage video shows the step-by-step build, from printing the case to mounting the brass pins.

For power, a rechargeable AA battery is sufficient thanks to the ESP32’s low consumption. If you want to experiment with other boards in the ESP32 family, you can easily adapt the code. The project is a great starting point for anyone wanting to explore music synthesis with open-source hardware. Finally, the transparent case is customizable: you can change the color or add decorations.

Source: https://youtu.be/RrWw1gm3UEo?si=SbXtYVeqWxJHxh0B

Related products

• 12mm rotary encoder with knob

The post Y2K Wrist Sequencer: Retro Music with ESP32 appeared first on Open Electronics.

The Y2K wrist sequencer is a musical device worn like a watch. It composes music by selecting sounds for each step and playing them back in sequence. The transparent 3D-printed case and snap-band bracelet make it a fashion accessory as well as an instrument. The project comes from 3DSage, who chose simple components and a retro aesthetic that hits the mark.

The heart of the system is an ESP32, which handles the sequencer logic and sound generation. A rotary encoder enables the standard sequencer workflows: scroll through steps, select a sound, and store it in the desired position. The LCD display shows the state of the composition, while the speaker plays the tones. There is also a headphone jack for private listening.

How the Y2K wrist sequencer works

The operation is simple and straightforward. For each step, the user selects a sound to store in that position, such as a square-wave A note at 440Hz. The rotary encoder allows navigating between options and confirming choices. The touch pins, made from brass bar, cover an octave and make the device work more like a Stylophone synthesizer. The sequential playback lets you hear all stored sounds, creating a rhythmic melody.

The ESP32 can produce more complex waveforms, but the basic square-wave tones chosen for the default sounds fit the aesthetic perfectly. This approach keeps the project simple and true to the Y2K spirit. Additionally, the choice of a rechargeable AA battery makes the device portable and easy to recharge. The transparent PETG case adds a visual touch that recalls late-1990s gadgets.

Why this project is interesting

It is a simple and stylish way to make music, with a retro Y2K aesthetic that hits the nostalgia sweet spot. You don’t need to be a synthesis expert to use it: the controls are immediate and the visual feedback on the display guides you step by step. Moreover, the project is fully reproducible with easily available components. To get started you need only a few parts: an ESP32 board with 32 GPIOs, a 12mm rotary encoder with knob, and a 0.25-watt speaker. The transparent case is printed in PETG, the same material chosen by 3DSage.

The choice of the rotary encoder is spot-on for physical interaction: rotation and pressure give tactile feedback that recalls old synthesizers. The brass pins, on the other hand, add a live performance element. The result is a device that can be used both for planned composition and for improvisation. Thanks to the transparent case, you can see the internal circuit, a detail makers will appreciate.

How to remake the project

To build the Y2K wrist sequencer you need few components. Besides the ESP32, you need a rotary encoder, an LCD display, a speaker, and a rechargeable AA battery. The touch pins are made from a brass bar, while the case is 3D-printed in transparent PETG. The snap-band bracelet completes the wearable design.

• ESP32 for logic and sound generation
• Rotary encoder for navigation and selection
• LCD display for visual feedback
• Speaker and headphone jack for audio output
• Rechargeable AA battery for power
• Brass bar for touch pins
• Transparent PETG for the 3D-printed case

Assembly requires some soldering and 3D printing of the case. Once assembled, the device is worn on the wrist and you can start composing. The sequential playback makes everything immediate: press the pins, select sounds, and listen to the result. The 3DSage video shows the step-by-step build, from printing the case to mounting the brass pins.

For power, a rechargeable AA battery is sufficient thanks to the ESP32’s low consumption. If you want to experiment with other boards in the ESP32 family, you can easily adapt the code. The project is a great starting point for anyone wanting to explore music synthesis with open-source hardware. Finally, the transparent case is customizable: you can change the color or add decorations.

Source: https://youtu.be/RrWw1gm3UEo?si=SbXtYVeqWxJHxh0B

Related products

• 12mm rotary encoder with knob

The post Y2K Wrist Sequencer: Retro Music with ESP32 appeared first on Open Electronics.