Purpose-built PQC silicon IP with hardware-accelerated cryptographic cores. Designed for integration into the systems that matter most.
Codebat's hardware cryptographic technology is independently validated by the U.S. National Institute of Standards and Technology, the federal authority that defines the cryptographic standards used by governments and regulated industries worldwide.
NIST's program for independently testing whether cryptographic algorithm implementations conform to FIPS specifications. CAVP validation is publicly registered with NIST and cited in regulatory submissions, government procurement, and enterprise risk assessments.
Cryptography is invisible by design. The algorithms behind TLS, code signing, identity certificates, and secure boot all rely on RSA and ECC mathematics that quantum computers will break. The vulnerability is not in your firewall or your TLS configuration. It lives in the silicon doing the math.
Q-day is the moment quantum computers break RSA and ECC, and it is approaching. Adversaries are already running "harvest now, decrypt later" campaigns, capturing encrypted data today to crack it tomorrow. Hardware-accelerated PQC is the countermeasure.
Software-only crypto can't keep pace. Purpose-built hardware accelerators deliver throughput and security without the performance penalty.
Our PQC silicon IP features dedicated NTT and Keccak hardware cores, delivering lattice-based cryptography at wire speed. Platform-agnostic: x86, ARM, RISC-V.
Cryptographic implementations independently validated against NIST standards
Countermeasures designed into the silicon, not bolted on afterwards
Purpose-built cryptographic cores running off the main processor at wire speed
Dedicated Number Theoretic Transform engine accelerates the polynomial arithmetic at the heart of lattice-based cryptography. ML-DSA signing and ML-KEM encapsulation run at wire speed, off the critical path of your main processor.
Purpose-built SHA-3 and SHAKE engine handles the hash-intensive operations that lattice schemes demand. Constant-time execution in silicon eliminates timing side-channels by design.
EDA tools and chip design IP worth billions, often under ITAR export controls. Leakage causes catastrophic losses.
Hardware-rooted threshold signing ensures firmware integrity with multi-party authorization, while cryptographic evidence provides tamper-proof audit trails for every design operation.
HFT algorithms are core secrets. SEC requires immutable records of every trading decision.
Cryptographic evidence provides undeniable audit trails for every trading decision, while threshold signing enforces multi-party authorization on critical operations.
Highly sensitive PHI data faces strict HIPAA requirements and ransomware threats.
Immutable cryptographic evidence supports regulatory audit requirements, while distributed key custody protects patient data with post-quantum encryption.
Partnering with system architects and silicon designers to embed PQC at the hardware layer.
Governments and enterprises embedding PQC silicon IP into sovereign infrastructure. Hardware-rooted security that keeps sensitive computation within national boundaries.
Become a PartnerCollaborating with RISC-V chip designers to integrate native PQC acceleration at the silicon level. Post-quantum security for edge and IoT from the ground up.
Explore Tech PartnershipSoC designers and system integrators embedding our cryptographic IP cores into next-generation platforms. Turnkey PQC acceleration for your silicon.
Join the EcosystemEverything you need to know about our technology
Post-quantum cryptography (PQC) refers to cryptographic algorithms designed to be secure against attacks from quantum computers. As quantum computing advances, traditional encryption methods like RSA and ECC will become vulnerable. Our silicon IP implements NIST-standardized PQC algorithms (ML-DSA and ML-KEM) in dedicated hardware.
Lattice-based algorithms like ML-DSA and ML-KEM are computationally intensive, especially the NTT and hash operations they rely on. Dedicated hardware cores handle these operations off the main processor, delivering cryptographic throughput without competing for application cycles. Constant-time silicon execution also eliminates timing side-channels by design.
Threshold cryptography splits a private key across multiple parties so that no single party ever holds the complete key. A configurable T-of-N quorum is required to sign or decrypt, which eliminates single points of failure. Our silicon IP supports arbitrary threshold configurations, accelerated by dedicated hardware cores.
Our silicon IP implements ML-DSA (FIPS 204) for digital signatures and ML-KEM (FIPS 203) for key encapsulation, the NIST-standardized post-quantum algorithms. Designed to support customers building toward their own regulatory requirements.
We provide an FPGA-based reference design and dedicated engineering support throughout the integration process. Our team works alongside your architects to adapt the IP cores to your target platform, whether x86, ARM, or RISC-V.
Get hands-on with our FPGA reference design and explore integration with your architecture.
Request Evaluation KitExplore licensing models and partnership structures for your platform.
Contact BD TeamSoC designers, system integrators, and platform architects building next-generation security.
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