NASDAQ:MCHP

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Microchip Expands PolarFire FPGA Platform With EtherCAT and TSN for Industrial AI and Robotics

Microchip Technology (NASDAQ: MCHP) expanded its PolarFire FPGA and SoC platform with EtherCAT and Time-Sensitive Networking capabilities, targeting industrial automation, robotics and intelligent edge applications that require deterministic real-time communications.

The new industrial edge networking stack combines PolarFire hardware with networking IP, development tools and reference designs. Beckhoff EtherCAT IP is now compatible with PolarFire FPGA and SoC devices, while Microchip’s TSN IP is supported on PolarFire FPGA SoCs.

The platform supports EtherCAT connectivity at 10/100/1000 Mbps and deterministic 1 Gbps Ethernet using IEEE 802.1 TSN standards. Microchip said the combination is designed to help developers build scalable industrial networks with predictable latency and interoperability across connected devices.

PolarFire’s architecture also emphasizes power efficiency and security, including instant-on operation, secure boot and anti-tamper features. The FPGA fabric allows developers to combine real-time networking with application-specific processing and customization.

Target markets include motion control, factory automation, industrial robotics, embedded vision, autonomous mobile robots, automotive systems, smart infrastructure, aerospace and defense.

The announcement strengthens Microchip’s industrial-edge offering as manufacturers increasingly integrate AI, machine learning and real-time networking closer to machines and production systems. While the release does not provide financial guidance or expected revenue contribution, the expanded PolarFire stack broadens Microchip’s addressable opportunities in industrial automation and edge computing.
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Microchip Launches New Touch Controllers for Display-Free Human Machine Interfaces

Microchip Technology introduced the MTCH3380P and MTCH3240P, its first turnkey capacitive-touch controllers to use parallel sensing for buttons, sliders and wheels.

The new devices are designed for display-free human machine interfaces used in appliances, industrial equipment and outdoor systems, where large numbers of touch sensors can otherwise slow response times and reduce signal quality.

Both controllers use 12 on-chip analog-to-digital converters operating in parallel. The MTCH3380P supports up to 38 sensors in self-capacitance mode and 64 in mutual-capacitance mode, while the MTCH3240P supports up to 24 and 32 sensors, respectively.

Microchip said the design improves acquisition speed, signal-to-noise ratio and touch reliability, including through thick cover materials and when users are wearing gloves. Target applications include ovens, cooktops, refrigerators, washing machines, EV chargers, parking meters and kiosks.

The devices also support customer-driven IEC 60730 Class B functional safety certification and operation at temperatures up to 105°C.

Pricing starts at $1.06 for the MTCH3380P and $0.80 for the MTCH3240P in 10,000-unit quantities, positioning the products as relatively low-cost components for more advanced capacitive-touch interfaces.
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Microchip Expands Single Pair Ethernet Portfolio for Automotive and Industrial Edge Networks

Microchip Technology has expanded its 10BASE-T1S portfolio with new transceivers and integrated endpoint devices designed to simplify Ethernet connectivity at the network edge.

The new lineup includes the LAN8679 and LAN8680 transceivers, as well as the LAN8660X/1X/2X endpoint family. The products are aimed at automotive zonal architectures, industrial automation, robotics and other applications where designers are trying to reduce wiring, simplify network architecture and connect more edge devices directly to Ethernet.

The LAN8679 uses a standardized Open Alliance 3-Pin interface in a compact package, while the LAN8680 adds system-level functions including power management, wake and sleep control and watchdog supervision. Both are designed to support demanding automotive and industrial environments and are being developed with AEC-Q100 and ISO 26262 requirements in mind.

Microchip’s LAN8660X/1X/2X family goes a step further by integrating the transceiver into a single-chip Remote Control Protocol solution, reducing the need for separate PHY components in applications such as lighting, control systems and audio.

A key advantage of 10BASE-T1S is its multidrop architecture. Multiple nodes, typically eight or more, can share a single bus line, potentially reducing wiring weight, system cost and gateway requirements.

The launch strengthens Microchip’s position in the shift toward all-Ethernet architectures, particularly in vehicles and industrial systems where more sensors and actuators are being connected directly to distributed edge networks.
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Microchip Launches New 65V Digital Power Monitors for 48V AI, Automotive and Industrial Systems

Microchip Technology (NASDAQ: MCHP) introduced its new PAC1761 and PAC1861 families of 65V energy-aware digital power monitors, targeting growing demand for 48V power architectures across AI data centers, automotive, networking and industrial applications.

The new devices are designed to monitor not only real-time voltage, current and power, but also accumulated energy consumption over time. Microchip said the monitors provide up to 65V measurement capability and 75V transient spike protection, helping designers improve efficiency, reliability and system resilience in higher-power 48V environments.

Key features include programmable alerts for voltage, current and power excursions, step-limit detection for sudden load changes, and configurable accumulated-energy thresholds. The products are available in 12-bit PAC1761 and 16-bit PAC1861 versions, with pin-compatible package options intended to reduce redesign and qualification requirements.

The PAC1761 and PAC1861 families are available now, with pricing starting at $0.56 per unit in 10,000-unit quantities. The products are aimed at applications including AI/data centers, servers, telecom infrastructure, automotive systems and 48V power distribution.
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Microchip Technology Completes Hailo Acquisition to Expand Edge AI Portfolio

Microchip Technology said it completed its acquisition of Hailo, adding AI accelerators, vision processors, robotics processors and related software to its semiconductor portfolio. Financial terms were not disclosed, and Microchip said the transaction is not expected to have a material impact on its financial results.

The acquisition strengthens Microchip’s position in Edge AI, machine vision, robotics and Physical AI. By combining Hailo’s AI and vision technologies with Microchip’s embedded processing, connectivity, security, analog, FPGA and power products, the company aims to offer more complete platforms for intelligent systems at the edge.

Hailo’s portfolio supports computer vision, transformer-based models, multimodal workloads and advanced video analytics. Microchip said the combined offering could address applications ranging from low-power smart cameras to autonomous machines and high-performance robotics.

Hailo also brings more than 100 customers and a developer community of over 10,000 users. Microchip plans to continue supporting Hailo’s existing products and software environment while investing in future AI acceleration and vision-processing technologies.

The deal reflects Microchip’s broader push to capture growing demand for AI inference outside centralized data centers, particularly in industrial, automotive, robotics and other embedded applications.
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Microchip Technology Expands Edge AI Reach With AnalogAI Partnership

Microchip Technology (NASDAQ: MCHP) said AnalogAI has selected memBrain SAGE technology from its Silicon Storage Technology subsidiary for AnalogAI’s first real-world edge AI processors. The processors are designed to train and run AI models directly on devices rather than relying on cloud infrastructure.

AnalogAI will use Microchip’s analog compute-in-memory technology to target AI performance at or below one watt, enabling ultra-low-power applications including humanoid robots, drones and vehicles that can adapt to changing environments in real time.

The memBrain SAGE platform integrates computation and memory functions and is already deployed using 40-nanometer and 28-nanometer manufacturing processes, while Microchip is developing a 22-nanometer version. AnalogAI said it selected the technology following an industry-wide evaluation, citing its combination of power efficiency, performance and faster development time.

The deal expands Microchip’s exposure to the growing edge-AI market, where robotics and autonomous systems increasingly require AI inference and adaptation directly on devices with tight power constraints.
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Microchip Launches 1.2V Clock Buffers for AI, FPGA and SoC Applications

Microchip Technology (NASDAQ: MCHP) introduced its new SY757xx family of 1.2V-output LVCMOS clock buffers, targeting growing demand from high-performance FPGAs, SoCs, AI accelerators and next-generation CPUs.

The new clock buffers are designed to connect advanced processors requiring low-voltage clock signals with components operating at higher voltages. The devices support voltage translation across a 1.2V-to-3.3V input range and frequencies from 0 Hz to 250 MHz, providing a single-chip alternative to discrete components and voltage-divider designs.

Microchip said the SY757xx family delivers additive jitter as low as 26 femtoseconds, helping preserve signal integrity and clock accuracy in applications where precise timing is critical. Potential uses include AI and machine-learning acceleration, industrial control, embedded vision, networking, communications and real-time computing.

Three products in the family are already in volume production, while another eight are sampling in limited quantities. The production devices offer configurations with two or four LVCMOS outputs and are available in compact VDFN and TDFN packages.

Pricing for the SY75707TWL-TR, SY75712TWL-TR and SY75714TWL-TR ranges from $0.50 to $0.83 per unit in quantities of 10,000.

The launch expands Microchip’s timing portfolio as increasingly advanced semiconductor architectures move toward lower operating voltages. By integrating voltage translation and low-jitter clock distribution into a single device, Microchip aims to reduce component counts, lower bill-of-materials costs and simplify board designs for next-generation computing systems.
Microchip and Marelli Launch Open-Standard Display Connectivity Solution for Software-Defined Vehicles

Microchip Technology (NASDAQ: MCHP) and automotive technology supplier Marelli have introduced a new open-standard display connectivity solution designed for the rapidly developing software-defined vehicle market.

The joint solution allows graphics and video generated by a vehicle’s centralized computer to be streamed directly to automotive displays using ASA Motion Link, or ASA-ML. The technology is intended to simplify vehicle display architectures, reduce system costs and give automakers greater flexibility when selecting component suppliers.

The system uses Microchip’s VS7000 ASA-ML chipset to process and transmit video and graphics over a standardized high-speed connection. Marelli provides the display-side integration, enabling standardized streams carrying camera feeds, navigation maps, infotainment graphics and vehicle-control interfaces to be decoded directly at the display.

A key aspect of the technology is its use of an open standard rather than a proprietary automotive video interface. ASA-ML was developed by the Automotive SerDes Alliance, whose members include automakers, Tier 1 suppliers and semiconductor companies. Microchip is a founding member of the alliance. The standard is designed to allow components from different technology suppliers to operate together, potentially reducing vendor dependence for automakers.

The solution supports data rates of up to 16 Gbps, along with link-layer authentication and encryption, lossless data transmission and resistance to electromagnetic interference. It also provides a pathway toward increasingly Ethernet-centric vehicle architectures.

For Microchip, the collaboration expands its automotive connectivity opportunity as vehicle manufacturers increasingly shift toward centralized computing and software-defined architectures. Rather than using separate computing resources for individual displays and functions, next-generation vehicles are moving toward powerful central computers connected to distributed displays, cameras and other endpoints. Microchip’s ASA-ML technology positions the company to provide part of the high-speed connectivity infrastructure required by that transition.
# Microchip Technology Expands Space Semiconductor Portfolio With New Atomic Clock

Microchip Technology (NASDAQ: MCHP) announced the launch of its Space CSAC-SA65, a radiation-tolerant Chip Scale Atomic Clock designed for satellites and other space systems.

The new device combines atomic-clock accuracy with low power consumption and a compact design. It offers radiation tolerance of at least 30 kRad, operates across temperatures from -40°C to +80°C and consumes less than 120 mW.

## Targeting Growing Satellite Demand

The CSAC-SA65 is designed particularly for Low Earth Orbit missions, including satellite communications, navigation, Earth imaging and satellite cross-linking. Its built-in synchronization capabilities allow spacecraft to maintain precise timing even when external references such as GNSS signals are unavailable.

Microchip said the product uses radiation-tolerant commercial components, potentially providing lower costs and shorter lead times than traditional radiation-hardened space timing systems.

The launch strengthens Microchip's position in aerospace and defense semiconductors while giving the company additional exposure to growing demand for smaller, lower-cost satellite platforms and New Space applications.
Microchip Advances Edge AI Push With New NVIDIA-Compatible PolarFire Sensor Bridge

Microchip Technology (NASDAQ: MCHP) announced the release of its second-generation PolarFire FPGA Ethernet Sensor Bridge, expanding its hardware offering for NVIDIA-powered edge AI applications.

The new Rev 2.0 platform is 60% smaller than its predecessor, supports twice as many cameras and uses 10Gb Ethernet connectivity. It is designed to work with NVIDIA Holoscan Sensor Bridge technology and edge computing platforms including NVIDIA Jetson and IGX.

The platform supports up to four cameras and enables real-time multi-sensor processing with end-to-end latency measurement. Microchip said the architecture can reduce power consumption, system costs and integration complexity for applications including humanoid robotics, industrial automation and AI-enabled medical systems.

The launch strengthens Microchip's exposure to the growing edge AI ecosystem, where increasingly complex AI workloads require high-speed connections between cameras, sensors and local computing hardware.

For Microchip, the NVIDIA-compatible platform also provides another potential growth avenue for its PolarFire FPGA portfolio as AI adoption expands beyond data centers into robotics, industrial equipment and other physical AI applications.
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01-17-26WS News