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Achieving Crypto Agility Through eFPGA: A Prerequisite for Secure ASIC and SoC Designs

Achieving Crypto Agility Through eFPGA: A Prerequisite for Secure ASIC and SoC Designs

In an era where digital threats evolve daily and quantum computing looms on the horizon, the need for true crypto agility has never been more urgent. From increasingly advanced AI attacks to regional regulatory requirements, the only certainty is that static security models are no longer sufficient. Hardware adaptability is now a critical component of secure chip design.

Enter eFPGA (embedded field-programmable gate array) technology—an ideal solution to modern cryptographic and hardware security challenges. In this article, we explore nine compelling reasons why embedding Menta eFPGA into your ASIC or SoC design is essential for achieving crypto agility and long-term product resilience.

  1. Support for Future Cryptographic Algorithms

Post-quantum cryptography (PQC) is here. With RSA and ECC set to fall to quantum attacks, NIST is leading the charge to standardize quantum-safe alternatives. Solutions from partners like Xiphera and PQSecure show that eFPGA can efficiently implement PQC algorithms such as Kyber and Dilithium with excellent performance and small footprint, ensuring forward-compatibility.

  1. Mitigate Side-Channel Attacks Today—and Tomorrow

eFPGAs support hardened hardware logic resistant to over 100 known side-channel attacks, including power analysis, EM radiation, and fault injection. Techniques like constant-time execution, masking, and redundant logic empower designers to adapt to evolving vulnerabilities.

  1. Anti-Tamper Defense That Evolves in the Field

The reconfigurable nature of eFPGA enables runtime updates to protect against reverse engineering and physical tampering. Features like secure bitstream updates and dynamic logic obfuscation provide an evolving security perimeter within the silicon itself.

  1. Take Control of Your Security Stack

Avoid vendor lock-in by designing your own cryptographic mechanisms within your chip. With eFPGA, you own the critical logic paths, enabling full control of IP, security updates, and certification processes—without exposing yourself to third-party supply chain risks.

  1. Obfuscation = Protection Against IP Theft

Reverse engineering an eFPGA-implemented cryptographic block is nearly impossible. Unlike fixed-function ASIC logic, an unprogrammed eFPGA presents as an indistinguishable fabric, making it extremely difficult to analyze or clone.

  1. Smart Hardware/Software Co-Design for Crypto Acceleration

Balance performance and cost by offloading only critical cryptographic operations to eFPGA. In our collaboration with PQSecure, we accelerated the XMSS algorithm by partitioning tasks between CPU and eFPGA, reducing silicon area while maintaining performance.

  1. OS and IPC Authentication at the Har dware Layer

By using eFPGA logic running at Ring 0, you can embed OS-level authentication and secure inter-process communications directly into the CPU architecture. This low-level binding greatly reduces the attack surface for privilege escalation or IPC tampering.

  1. Traceability and Uniqueness with Bloc kchain-Protected IP

Every Menta eFPGA IP is delivered with a unique blockchain-registered ID and certificate, ensuring zero risk of IP duplication, tampering, or unauthorized reuse. This guarantees traceability for your silicon’s entire lifecycle.

  1. 9. Instant Tamper Response Capabilities

Thanks to the use of D Flip Flop scan chains, Menta eFPGA designs can be erased and shut down in a single clock cycle upon tamper detection. This enables zero-data recovery even under real-time physical attack scenarios.

Conclusion

Cryptographic threats are evolving. Regulations are tightening. And the cost of security breaches is rising. Implementing Menta eFPGA into your ASIC or SoC gives you the hardware agility to keep pace. Whether to resist side-channel attacks, accelerate PQC adoption, or support dynamic threat mitigation—adaptable security is now the baseline, not a bonus.

We invite chip designers, security architects, and compliance officers to rethink their current architectures. The future of security is flexible—and with eFPGA, it’s already here.

About the Author

Achieving Crypto Agility Through eFPGA: A Prerequisite for Secure ASIC and SoC DesignsJayson Bethurem is the Vice President of Business Development at Menta, a leading provider of embedded FPGA IP solutions for ASIC and SoC designers. He is an experienced leader, architect, and engineer with a strong track record in the computer software and semiconductor industries. Jayson has successfully led initiatives across marketing, electronic design, technical sales, product management, and business development.

He brings deep expertise in Field-Programmable Gate Arrays (FPGA), Embedded Systems, SoC architecture, microcontroller design, Verilog development processes, and social media marketing.

Jayson is passionate about enabling crypto agility, protecting edge devices, and helping organizations prepare for post-quantum threats through adaptable, hardware-driven security architectures. He maintains a vast technical and professional network and can be reached online at [email protected] and via the Menta website at https://www.menta-efpga.com/

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