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Jun 29, 2026
Why Software PQC Fails Against Physical Side-Channel Attacks
How power analysis, clock jitter, and memory bus probing compromise software post-quantum encryption — and why silicon masking is essential.
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Automation
Data
Integration
Product
System
Inside Our NTT Core: Microsecond Latency for ML-KEM & ML-DSA
Architecting dedicated polynomial multipliers and Number Theoretic Transform engines to accelerate lattice cryptographic primitives.
Analog-In-Memory Compute: Overcoming the Memory Wall
How sparsity-aware row activation and dynamic thermal compensation controllers ensure analog computation precision.
Synthesizable PQC IP Integration for Modern SoCs
Drop-in AXI4/APB bus interfaces and verified SystemVerilog cores for immediate foundry integration.
Transistor-Level Side-Channel Defense with DOM Masking
Eliminating first-order differential power leakage in hardware NTT units through Domain-Oriented Masking.
Hardware-Level DOM Masking: Defeating Differential Power Analysis
Mathematical proofs and physical silicon verification ensuring zero side-channel leakage under DPA/CPA attacks.
Architecting the Quantum-Safe Hardware Root-of-Trust (PQC TPM)
Hardware-enforced state validation, PUF-based key binding, and cryptographic isolation on physical silicon.
Physical Unclonable Functions (PUF) in Silicon Security
Leveraging inherent semiconductor manufacturing variations for tamper-proof cryptographic device identity.
Tape-Out Readiness across TSMC, GF, and Intel Foundry
Full timing closure, physical DRC/LVS cleanliness, and comprehensive linting sign-off for advanced nodes.
Post-Quantum Cryptography in Sovereign Defense Systems
Protecting classified military datacenters and aerospace communication from quantum algorithm decryption.
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