Microchip FPGA Solutions: Aerospace and Industrial Applications

Published: 09 June 2025 | Last Updated: 09 June 2025223
Microchip FPGA products offer low power consumption, robust security, and reliability, making them ideal for aerospace, IoT, and industrial applications.

Field Programmable Gate Arrays (FPGAs), particularly those developed by Microchip FPGA, play a pivotal role in shaping modern technology. Their adaptability and performance make them indispensable across industries, from telecommunications to aerospace. In 2023, the FPGA market reached a valuation of $8.27 billion, reflecting its growing significance. Microchip FPGA stands out as a leader in this domain, offering solutions that prioritize low power consumption, robust security, and exceptional reliability. For instance, the U.K. government’s National Cyber Security Centre has recognized Microchip FPGA’s PolarFire FPGAs for meeting stringent security standards, underscoring their commitment to innovation and trustworthiness.

Overview of Microchip FPGA Product Families 

Microchip offers a diverse range of flash-based FPGAs designed to meet the needs of various industries. Each product family delivers unique features, enabling you to choose the right solution for your application.

PolarFire FPGAs

PolarFire FPGAs are ideal for applications requiring low power consumption and high security. These flash-based FPGAs feature defense-grade security and compact form factors, making them suitable for edge computing and industrial automation. With a logic element range of 100K to 500K, PolarFire FPGAs provide scalability for different workloads. Their energy efficiency ensures reduced operational costs, while their robust security features protect sensitive data from cyber threats.

SmartFusion2 FPGAs

SmartFusion2 FPGAs integrate an ARM Cortex-M3 processor, offering you a combination of FPGA flexibility and microcontroller functionality. These flash-based FPGAs support comprehensive I/O options, enabling seamless connectivity across devices. With a logic element range of 166K to 500K, SmartFusion2 FPGAs are perfect for applications requiring high performance and integration. Their hybrid architecture simplifies system design, reducing development time and costs.

IGLOO2 FPGAs

IGLOO2 FPGAs deliver ultra-low power consumption and cost-optimized designs. These flash-based FPGAs are tailored for applications where energy efficiency is critical, such as portable medical devices and IoT systems. With a logic element capacity of up to 150K, IGLOO2 FPGAs offer a balance between performance and affordability. Their extended temperature range options ensure reliable operation in challenging environments, making them a versatile choice for industrial and automotive applications.

Key Insight: Microchip’s FPGA product families cater to diverse needs, from low-power designs to high-security applications.

Product FamilyKey FeaturesLogic Elements Range
PolarFire FPGAsLowest power consumption, defense-grade security, small form factors100K to 500K
SmartFusion2 SoCIntegrates ARM Cortex-M3, comprehensive I/O options166K to 500K
IGLOO2 FPGAsVery low power, cost-optimized design, extended temperature range optionsUp to 150K

RTG4 FPGAs

RTG4 FPGAs deliver unmatched reliability for applications in radiation-prone environments. These flash-based FPGAs are specifically designed for aerospace, defense, and space systems, where consistent performance under extreme conditions is critical.

Key Features of RTG4 FPGAs

  • Radiation Hardness: RTG4 FPGAs offer built-in resistance to radiation effects, including total ionizing dose (TID) and single-event upsets (SEUs). This ensures uninterrupted operation in space and high-altitude environments.

  • High-Speed Connectivity: With support for up to 16 SerDes lanes operating at speeds of up to 3.125 Gbps, RTG4 FPGAs enable fast data transfer for mission-critical applications.

  • Flash-Based Architecture: The non-volatile flash technology eliminates the need for external configuration memory, enhancing security and reliability.

Tip: If your project involves satellites or military-grade systems, RTG4 FPGAs provide the durability and performance you need to succeed.

Benefits of RTG4 FPGAs

RTG4 FPGAs combine radiation tolerance with high performance, making them ideal for space exploration and defense systems. Their flash-based architecture reduces power consumption, ensuring energy efficiency in power-constrained environments. Additionally, their robust design minimizes the risk of system failures, saving you time and resources during development.

FeatureBenefit
Radiation HardnessReliable operation in space and radiation-heavy environments
High-Speed ConnectivityFast data transfer for real-time communication
Flash-Based DesignEnhanced security and reduced power consumption

RTG4 FPGAs empower you to build systems that thrive in the harshest conditions. Their advanced features and proven reliability make them a trusted choice for aerospace and defense applications.

Key Features and Benefits of Microchip FPGAs

Microchip FPGA products stand out in the market due to their innovative features and the tangible benefits they bring to your designs. These features not only enhance performance but also address critical challenges like power efficiency, security, and system integration.

Low Power Consumption

Microchip FPGA solutions excel in delivering low power consumption, making them ideal for energy-sensitive applications. Their flash-based technology plays a pivotal role in reducing power usage compared to traditional SRAM-based FPGAs. This advantage becomes particularly significant in applications like portable medical devices, IoT systems, and industrial automation, where energy efficiency directly impacts operational costs and device longevity.

Did you know? Microchip's PolarFire FPGAs consume up to 50% less power than competing mid-range FPGAs, offering a clear power consumption comparison advantage.

The non-volatile SoC FPGA architecture further enhances energy efficiency by eliminating the need for continuous power to retain configuration data. This design ensures that your system remains operational even in power-constrained environments, providing a reliable solution for critical applications.

Advanced Security Features

Security is a cornerstone of Microchip FPGA products. With the increasing prevalence of cyber threats, robust design security has become a necessity for modern systems. Microchip integrates advanced security features into its FPGAs, ensuring that your designs remain protected against unauthorized access and tampering.

These FPGAs incorporate hardware-based root-of-trust applications, which establish a secure foundation for your system. This feature is particularly beneficial for applications in defense, aerospace, and financial sectors, where data integrity and confidentiality are paramount. Additionally, the flash-based technology used in Microchip FPGAs enhances security by eliminating vulnerabilities associated with external configuration memory.

Pro Tip: By leveraging Microchip's design security features, you can safeguard your intellectual property and ensure compliance with stringent industry standards.

Integration of RISC-V Cores

Microchip FPGA products take system integration to the next level by incorporating RISC-V cores. These cores offer a range of benefits that enhance the performance and efficiency of your designs. Unlike software-based implementations, hard-core RISC-V integrations are optimized for specific silicon technology, resulting in faster clock speeds and reduced latency.

Performance AdvantageDescription
Higher PerformanceHard-core implementations are optimized for specific silicon technology, leading to faster clock speeds and lower latency.
Lower Power ConsumptionThese implementations utilize custom silicon optimizations, making them more power-efficient, which is crucial for energy-constrained applications.
Higher IntegrationHard-core RISC-V cores can be integrated into larger SoC designs, improving overall system performance and reducing complexity.

The non-volatile SoC FPGA architecture further complements the RISC-V cores, enabling seamless integration into your system. This combination simplifies the design process, reduces development time, and enhances overall system performance. Whether you're working on industrial automation, automotive systems, or aerospace applications, the integration of RISC-V cores in Microchip FPGAs provides a competitive edge.

Radiation Hardness for Space Applications

Space exploration and satellite systems demand components that can withstand extreme conditions. Radiation in space poses a significant challenge, as it can disrupt electronic systems and lead to failures. Microchip FPGAs address this issue with their advanced radiation hardness, ensuring reliable performance in the harshest environments.

Why Radiation Hardness Matters

Radiation in space includes high-energy particles that can cause single-event upsets (SEUs), total ionizing dose (TID) effects, and latch-ups in electronic circuits. These phenomena can corrupt data, damage components, or even render systems inoperable. For space missions, where repairs are impossible, you need components that can resist these effects.

Note: Radiation hardness is not just a feature; it is a necessity for aerospace and defense applications. Without it, systems risk failure in critical moments.

How Microchip FPGAs Excel in Radiation Resistance

Microchip's RTG4 FPGAs are specifically designed to thrive in radiation-prone environments. They incorporate several features that make them a top choice for space applications:

  • Radiation Tolerance: RTG4 FPGAs resist SEUs and TID effects, ensuring uninterrupted operation. This makes them ideal for satellites, space probes, and other high-altitude systems.

  • Non-Volatile Flash Technology: Unlike SRAM-based FPGAs, flash-based designs eliminate the need for external configuration memory. This enhances reliability and security while reducing power consumption.

  • Defense-Grade Security Features: These FPGAs include robust security measures to protect your system from unauthorized access, even in space environments.

Benefits for Your Space Projects

When you choose Microchip FPGAs for space applications, you gain several advantages:

  1. Enhanced Reliability: Radiation-hardened designs minimize the risk of system failures, saving you time and resources during development.

  2. Energy Efficiency: Flash-based architecture reduces power consumption, which is critical for power-constrained space systems.

  3. High-Speed Connectivity: Support for multiple SerDes lanes ensures fast and reliable data transfer, even in demanding conditions.

FeatureBenefit
Radiation ToleranceProtects against SEUs and TID effects for uninterrupted operation
Flash-Based DesignEnhances reliability and reduces power consumption
High-Speed ConnectivityEnables real-time communication for mission-critical applications

Real-World Applications

Microchip FPGAs have proven their worth in numerous space missions. From satellite communication systems to deep-space exploration, their radiation hardness and robust design make them a trusted choice. By integrating these FPGAs into your projects, you ensure that your systems can withstand the challenges of space while maintaining optimal performance.

Pro Tip: For space applications, always prioritize components with proven radiation resistance and robust security features. Microchip FPGAs offer both, giving you peace of mind for your mission-critical systems.

Design Ecosystem for Microchip FPGAs

Microchip provides a robust design ecosystem that simplifies your development process and enhances productivity. This ecosystem includes powerful tools like the Libero SOC Design Suite and SoftConsole IDE, along with comprehensive support to streamline your FPGA projects.

Libero SOC Design Suite

The Libero SOC Design Suite offers a complete solution for designing and implementing FPGA-based systems. It combines an intuitive interface with advanced features, enabling you to optimize your designs efficiently. The suite supports efficient packing of FPGA logic elements, which reduces costs and maximizes performance. Its compatibility with Microchip’s flash-based FPGAs ensures seamless integration into your projects.

With Libero SOC, you can access a range of tools for synthesis, simulation, and debugging. These tools simplify complex tasks, allowing you to focus on innovation. The suite also supports industry-standard protocols, ensuring your designs meet global requirements. Whether you are working on industrial automation or aerospace systems, this tool empowers you to achieve your goals with precision.

SoftConsole IDE

SoftConsole IDE provides a powerful environment for developing and debugging embedded applications. It supports RISC-V cores, offering you a streamlined workflow for hardware-software integration. The IDE enhances user experience by providing robust features for compiling, debugging, and optimizing your code.

SoftConsole’s compatibility with Microchip’s SOC FPGAs ensures a seamless development process. Its intuitive interface reduces the learning curve, making it accessible even for beginners. By leveraging this IDE, you can accelerate your development cycle and bring your products to market faster.

Comprehensive Ecosystem Support

Microchip’s design ecosystem extends beyond tools to include comprehensive support. You gain access to detailed documentation, training resources, and a global community of experts. This support ensures you can overcome challenges and achieve success in your projects.

The ecosystem also includes pre-verified IP cores and reference designs, which reduce development time and costs. These resources enable you to focus on innovation while ensuring your designs meet industry standards. With Microchip’s ecosystem, you can confidently tackle complex FPGA projects.

Tip: Leverage the full potential of Microchip’s design ecosystem to enhance your productivity and achieve your project goals.

Applications of Microchip FPGAs Across Industries    

Microchip FPGAs have revolutionized various industries by enabling innovative applications. Their versatility and reliability make them indispensable in sectors like aerospace, automotive, and industrial automation.

Aerospace and Defense

In aerospace and defense, reliability and performance are critical. Microchip FPGAs excel in these environments by offering radiation-hardened designs and robust security features. You can use them in satellite systems, radar applications, and avionics to ensure uninterrupted operation under extreme conditions. Their high-speed connectivity supports real-time data processing, which is essential for mission-critical tasks.

Tip: Microchip's RTG4 FPGAs are ideal for space missions due to their radiation tolerance and energy efficiency.

These FPGAs also enhance cybersecurity in defense systems. Their hardware-based root-of-trust applications protect sensitive data from unauthorized access, ensuring the integrity of your designs.

Automotive and Transportation

The automotive industry relies on advanced technologies to improve safety, efficiency, and connectivity. Microchip FPGAs enable you to develop intelligent systems for autonomous vehicles, electric cars, and advanced driver-assistance systems (ADAS). Their low power consumption and high performance make them suitable for energy-efficient designs.

You can also leverage their flexibility to integrate multiple functions, such as sensor fusion, real-time data processing, and communication protocols. This integration simplifies system design and reduces development costs. In transportation, these FPGAs support applications like traffic management systems and railway signaling, enhancing operational efficiency and safety.

Industrial Automation

Industrial automation demands reliable and efficient solutions to optimize processes and reduce costs. Microchip FPGAs provide the performance and flexibility you need to develop advanced automation systems. Their low power consumption ensures energy efficiency, which is crucial for industrial environments.

Did you know? Microchip's PolarFire FPGAs are widely used in factory automation and robotics due to their scalability and robust design.

These FPGAs support real-time control and monitoring, enabling you to implement smart manufacturing solutions. Their compatibility with industry-standard protocols ensures seamless integration into existing systems. Whether you're working on robotics, process control, or IoT-enabled devices, Microchip FPGAs empower you to achieve your automation goals.

Medical and Healthcare

Microchip FPGAs have transformed the medical and healthcare industry by enabling advanced solutions that improve patient care and operational efficiency. Their low power consumption, high reliability, and robust security features make them an excellent choice for developing cutting-edge medical devices and systems.

Key Benefits of Microchip FPGAs in Healthcare

  1. Enhanced Imaging Systems: You can use Microchip FPGAs to power high-resolution imaging systems like MRI and CT scanners. Their ability to process large amounts of data in real-time ensures accurate diagnostics and better patient outcomes.

  2. Portable Medical Devices: The ultra-low power consumption of IGLOO2 FPGAs makes them ideal for portable devices such as glucose monitors and wearable health trackers. These devices benefit from extended battery life and compact designs.

  3. Secure Patient Data: Protecting sensitive patient information is critical. Microchip FPGAs integrate advanced security features, including hardware-based root-of-trust, to safeguard data against unauthorized access and cyber threats.

Tip: When designing medical devices, prioritize solutions that combine energy efficiency with robust security to meet industry standards and regulations.

Real-World Applications

Microchip FPGAs support a wide range of applications in healthcare. For example, they enable real-time monitoring systems in intensive care units, ensuring timely interventions. In surgical robotics, their high-speed connectivity and precise control capabilities enhance the accuracy of complex procedures. Additionally, their scalability allows you to develop customized solutions tailored to specific medical needs.

FeatureBenefit
Low Power ConsumptionExtends battery life in portable devices
High-Speed ConnectivityEnables real-time data processing for critical systems
Advanced SecurityProtects sensitive patient data from cyber threats

By leveraging Microchip FPGAs, you can create innovative medical technologies that improve healthcare delivery and patient experiences.

Competitive Advantages of Microchip FPGAs

Microchip FPGA products offer distinct advantages that set them apart in the competitive mid-range FPGA market. These advantages empower you to create innovative solutions while addressing critical challenges in power efficiency, security, and adaptability.

Superior Power Efficiency

Microchip FPGAs excel in power efficiency, making them ideal for energy-sensitive applications. Their flash-based architecture consumes significantly less power compared to traditional SRAM-based FPGAs. This design reduces operational costs and extends the lifespan of devices, especially in industries like IoT, medical devices, and industrial automation.

Did you know? PolarFire FPGAs consume up to 50% less power than competing mid-range FPGAs, offering a clear advantage in energy efficiency.

The non-volatile nature of Microchip FPGAs eliminates the need for continuous power to retain configuration data. This feature ensures reliable operation in power-constrained environments, such as remote monitoring systems or portable devices. By choosing Microchip FPGAs, you can achieve superior energy efficiency without compromising performance.

Robust Security Features

Security remains a cornerstone of Microchip FPGA products. With the rise of cyber threats, protecting your designs from unauthorized access is more critical than ever. Microchip integrates advanced security features into its FPGAs, ensuring your systems remain secure.

These FPGAs include hardware-based root-of-trust applications, which establish a secure foundation for your designs. This feature is particularly valuable in sectors like defense, aerospace, and finance, where data integrity is paramount. Additionally, the flash-based architecture enhances security by eliminating vulnerabilities associated with external configuration memory.

Pro Tip: Leveraging Microchip's robust security features helps you safeguard intellectual property and meet stringent industry standards.

Microchip FPGAs also support secure boot processes and encrypted bitstreams, further enhancing protection against tampering. These features make them a trusted choice for applications requiring high levels of security.

Versatility in Application Scenarios

Microchip FPGAs provide unmatched versatility, enabling you to adapt to a wide range of applications. Their programmability allows you to modify designs even after deployment, reducing the risk of obsolescence. This flexibility ensures your systems remain relevant as technologies evolve.

  • Key Advantages of FPGA Versatility:

    • High design flexibility due to programmability.

    • Shorter time-to-market compared to ASICs, allowing quicker responses to market demands.

    • Reprogrammability, which makes them adaptable to new technologies.

The global FPGA market reflects this versatility. For instance, the telecommunications sector accounts for over 32% of revenue share, driven by the increasing use of FPGAs in optical transport networks. In military and aerospace, advancements in embedded FPGAs have led to a growth rate of 12.7%. The Asia Pacific region, with over 46% revenue share in 2022, highlights the growing demand for FPGAs in government-backed semiconductor initiatives.

SectorRevenue Share (%)Growth Rate (CAGR)
TelecommunicationsOver 32.0%N/A
Military/AerospaceN/A12.7%
Asia Pacific RegionOver 46%N/A
North America RegionOver 23%N/A

The adaptability of Microchip FPGAs ensures they remain a preferred choice across industries. Whether you are developing solutions for telecommunications, aerospace, or industrial automation, these FPGAs provide the flexibility and performance you need to succeed.

Note: The global FPGA market is projected to grow significantly, with a market size of $26.85 billion in 2025 and a forecasted revenue of $40.31 billion by 2034. This growth underscores the increasing demand for versatile FPGA solutions like those offered by Microchip.


Microchip FPGA products deliver a unique combination of low power consumption, robust security, and radiation immunity, making them a standout choice across industries. Their innovative features address critical challenges, ensuring reliable performance in demanding applications. For example, Microchip integrates AES-256 and SHA-256 encryption for unmatched security, while competitors often lack such advanced protection. Additionally, Microchip FPGAs consume less power, extending battery life and reducing operational costs.

FeatureMicrochip FPGAsCompetitors' FPGAs
SecurityBuilt-in design protection, AES-256, SHA-256, etc.Lacks strong security features
Power ConsumptionLow power, longer battery lifeHigher power consumption
Radiation ImmunityImmune to configuration errorsRequires mitigation

By choosing Microchip, you gain access to cutting-edge FPGA solutions that empower your designs and drive innovation. Explore their offerings to unlock new possibilities for your industry.

FAQ

What makes Microchip FPGAs unique compared to competitors?

Microchip FPGAs stand out due to their low power consumption, robust security features, and radiation hardness. Their flash-based architecture ensures energy efficiency and reliability, while advanced encryption protects your designs. These features make them ideal for industries like aerospace, defense, and medical technology.

Can Microchip FPGAs support RISC-V cores?

Yes, Microchip FPGAs integrate RISC-V cores for enhanced performance and efficiency. These cores enable faster clock speeds, lower latency, and better power optimization. You can use them to simplify system design and accelerate development in applications like industrial automation and automotive systems.

Are Microchip FPGAs suitable for space applications?

Absolutely! Microchip’s RTG4 FPGAs are radiation-hardened, ensuring reliable performance in space environments. They resist single-event upsets and total ionizing dose effects, making them perfect for satellites, space probes, and other high-altitude systems.

Tip: Choose RTG4 FPGAs for projects requiring durability in extreme conditions.

What tools does Microchip offer for FPGA design?

Microchip provides the Libero SOC Design Suite and SoftConsole IDE. Libero SOC simplifies FPGA design with synthesis, simulation, and debugging tools. SoftConsole supports RISC-V development, offering a seamless workflow for hardware-software integration. Both tools enhance productivity and reduce development time.

How do Microchip FPGAs improve energy efficiency?

Microchip FPGAs use flash-based technology, which consumes less power than traditional SRAM-based FPGAs. This design eliminates the need for continuous power to retain configuration data, reducing operational costs and extending device lifespan. Their energy efficiency benefits applications like IoT, medical devices, and portable systems.

Did you know? PolarFire FPGAs consume up to 50% less power than competing mid-range FPGAs.

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