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Microchip

Microchip PolarFire FPGAs for Smart Robotics

Low-Power, Deterministic FPGA and SoC Solutions for Intelligent Robotic Systems

Modern robotics systems demand real-time responsiveness, efficient power usage, and the flexibility to integrate sensing, control, and AI at the edge. The Microchip PolarFire FPGA family is purpose-built to meet these requirements across industrial, collaborative, mobile, and autonomous robotic platforms.

The PolarFire portfolio includes PolarFire FPGAs, PolarFire SoC FPGAs, and the new PolarFire Core SoC FPGAs. Together, they provide scalable logic density, embedded multi-core RISC-V processing, fast I/O, and edge AI enablement while maintaining industry-leading power efficiency and robust security. This combination allows robotics designers to build precise, intelligent, and reliable systems that operate safely in dynamic environments.

Features

  • Ultra-low power consumption and excellent thermal performance for always-on robotic systems
  • Deterministic real-time operation for precise motion control and sensor fusion
  • Embedded multi-core RISC-V processing for unified control and application workloads
  • Scalable logic densities up to 460K logic elements across the family
  • Flexible I/O and packaging options to support diverse robotic architectures
  • Defense-grade security features to protect robotic IP and system integrity
  • Edge AI acceleration support for vision, perception, and decision making

Applications

  • Industrial robots and robotic arms
  • Collaborative robots and human machine interaction systems
  • Autonomous mobile robots and automated guided vehicles
  • Machine vision and robotic perception systems
  • Smart factory automation and material handling
  • Robotics control units and safety subsystems

 

Built for Intelligent, Connected Robotics

Microchip PolarFire devices are designed to simplify robotics development while enabling advanced functionality at the edge. The PolarFire SoC family combines deterministic multi-core RISC-V CPUs with FPGA fabric, making it well suited for robotics platforms that require Linux based applications alongside real-time control. For cost- and power-sensitive robotic designs that do not require high-speed serial transceivers, the new PolarFire Core SoC FPGAs deliver an optimized balance of performance, integration, and flexibility.

PolarFire FPGAs further extend robotics capabilities with edge AI solutions such as VectorBlox Accelerator SDK for low-power inferencing and sensor bridge architectures that connect high-bandwidth vision sensors to AI processing platforms. Together, the PolarFire family enables robotics developers to move seamlessly from sensor input to intelligent action while maintaining deterministic behavior, security, and efficiency across the system.
 

NEW: PolarFire Core SoC FPGAs for Cost-Optimized Robotics

Scalable RISC-V SoC Integration for Value-Focused Robotic Designs

PolarFire Core SoC FPGAs extend the PolarFire SoC portfolio with devices optimized for robotics applications that do not require high-speed serial transceivers. These devices are well suited for embedded robotic controllers, compact motion subsystems, and distributed intelligence nodes where power efficiency, determinism, and cost control are critical.

By combining embedded RISC-V processing with FPGA fabric, PolarFire Core SoC FPGAs allow designers to consolidate control logic, peripheral interfacing, and real-time processing within a single device. A wide range of logic densities up to 460K logic elements, along with flexible packaging and I/O options, enables precise right-sizing across diverse robotic platforms.
 

Ideal robotics use cases include:

  • Embedded robot controllers and subsystem nodes
  • Compact robotic joints and actuator control modules
  • Cost-sensitive industrial and commercial robotic platforms
  • Distributed control architectures with deterministic behavior
Microchip PolarFire Core SoC FPGAs

 

PolarFire SoC FPGAs

Deterministic Multi-Core RISC-V SoC FPGAs for Advanced Robotics Control

PolarFire SoC FPGAs are designed for robotics systems that require tight coordination between high-level processing and real-time control. Built around a coherent multi-core RISC-V CPU cluster with a deterministic L2 memory subsystem, these devices support the simultaneous execution of Linux-based applications and hard real-time workloads.

This architecture makes PolarFire SoC FPGAs well suited for robotics platforms that integrate perception, planning, safety, and motion control within a single system. Industry-leading power efficiency and excellent thermal performance enable sustained operation in space-constrained and thermally challenging robotic environments, while built-in security features help protect system integrity and intellectual property.

Ideal robotics use cases include:

  • Autonomous mobile robots and navigation controllers
  • Collaborative robots requiring real-time safety response
  • Robotics control units combining Linux and real-time tasks
  • Intelligent robotic platforms with long operational lifetimes

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PolarFire FPGAs

Edge AI Acceleration and Sensor Integration for Intelligent Robotics

PolarFire FPGAs enable robotics developers to implement low-power, deterministic edge AI and high-bandwidth sensor processing without relying on external accelerators. Through the VectorBlox Accelerator SDK, developers can deploy optimized neural network inference directly in FPGA fabric using SmartHLS compiler flows, supporting real-time perception with predictable latency.

For vision-centric robotics systems, the PolarFire Ethernet Sensor Bridge provides a scalable path to connect multi-protocol sensors such as MIPI CSI-2, SLVS-EC, and CoaXPress to NVIDIA IGX and AGX platforms over 10G Ethernet. This architecture supports flexible sensor placement, long cable runs, and secure data transport from the robot edge to centralized AI processing.

Ideal robotics use cases include:

  • Robotic vision and perception systems
  • AI-enabled inspection and quality control robots
  • Sensor aggregation and preprocessing at the robot edge
  • Secure sensor-to-AI pipelines for autonomous platforms