Every industry faces unique security challenges. Our silicon IP integrates into your architecture to deliver post-quantum protection where it matters most.
From high-frequency trading to treasury management, financial institutions face relentless threats and regulatory scrutiny. Our post-quantum solutions ensure your algorithms stay secret and your audit trails stay unbreakable.
Trading strategies worth billions are vulnerable to insider theft, reverse engineering, and nation-state espionage.
SEC, MAS, and global regulators demand immutable audit trails for every trading decision and data access.
"Harvest now, decrypt later" attacks mean today's encrypted transactions could be exposed when quantum computers arrive.
Single points of failure in custody solutions create catastrophic risk for institutional assets.
HFT strategies are your crown jewels. Leaked algorithms mean lost competitive advantage worth hundreds of millions.
Our Approach: Execute trading algorithms in chip-level isolated environments. Even system administrators cannot access the running code. Every execution generates tamper-proof evidence.
Regulators require proof that every trade decision followed approved logic. Traditional logs can be tampered with.
Our Approach: Automatically generates fixed-length cryptographic evidence for every decision — verifiable, tamper-proof records built for regulatory scrutiny.
Corporate treasury and crypto custody require multi-party authorization without single points of failure.
Our Approach: Multi-party authorization with hardware-level isolation. No single person can sign; no single breach can compromise funds.
NIST mandates quantum-resistant cryptography by 2035. Migration is complex and risky.
Our Approach: Native post-quantum cryptography support. Crypto-agile architecture enables seamless transition without system rewrites.
Healthcare organizations need to leverage AI and share data for research—without compromising patient privacy. We enable secure innovation that protects your patients and your organization.
PHI exposure triggers HIPAA fines up to $1.5M per incident. Ransomware attacks increasingly target healthcare data.
FDA 21 CFR Part 11 requires complete audit trails for clinical data. Manual compliance is expensive and error-prone.
Multi-hospital research requires data sharing, but patient records cannot leave institutional boundaries.
AI can transform diagnostics, but training on sensitive data creates liability and ethical concerns.
Clinical trial data requires complete audit trails for regulatory submission. Any tampering invalidates years of research.
Our Approach: Cryptographic evidence generates immutable records for every data operation — building the tamper-proof audit trail foundation that regulatory frameworks demand.
You want to use AI for diagnosis assistance, but feeding patient data to models creates massive liability.
Our Approach: Patient data stays encrypted during AI processing. Models see only what they need; raw data never leaves the secure boundary.
Joint research across institutions is blocked because patient records cannot be shared externally.
Our Approach: Federated computation enables collaborative research. The model travels to the data—patient records never leave your hospital.
Manual compliance tracking is expensive and prone to human error. Audits disrupt operations.
Our Approach: Automatic cryptographic evidence generation. Always audit-ready without dedicated compliance staff.
Chip designs worth billions face theft, tampering, and supply chain attacks. Our PQC silicon IP provides semiconductor-grade protection — from design to deployment with hardware-rooted security.
Chip designs represent years of R&D. Nation-state actors and competitors actively target semiconductor IP.
Firmware and bitstreams can be tampered with at any point from fab to deployment. Hardware trojans are nearly undetectable.
ITAR and EAR regulations require strict control over who accesses sensitive designs. Violations mean massive fines.
FPGAs and embedded systems need authenticated boot chains. Unauthorized firmware compromises entire product lines.
Chip designs worth billions pass through EDA tools. Designers, vendors, and contractors all have access.
Our Approach: Design files remain encrypted throughout the EDA workflow. Processing happens in isolated environments—even tool vendors cannot see the design.
FPGAs deployed in the field are vulnerable to bitstream extraction and unauthorized reconfiguration.
Our Approach: Post-quantum authenticated boot chain. Bitstreams are cryptographically signed and verified by hardware root of trust before loading.
Firmware updates distributed to thousands of devices. A single compromised update infects the entire fleet.
Our Approach: Hardware-accelerated threshold signing with threshold ML-DSA ensures no single person can sign malicious firmware. Every release requires multi-party authorization with tamper-proof audit trail.
Export-controlled designs require strict access controls and audit trails. Manual tracking is unreliable.
Our Approach: Cryptographic access control with automatic evidence generation. Prove exactly who accessed what, when, and why—every time.
Our team will work with you to design an integration tailored to your platform and security requirements.