A shared Galois Field computation unit runs AES encryption and CRC checking in one engine, cutting power and IC area for secure embedded links.
Encoded historic blockchain state is split, hashed, and deleted locally to cut node storage while preserving verification and recovery.
Selective erasure coding in a TEE splits infrequently used blockchain blocks across nodes to cut storage load while preserving authenticity.
LFSR-based scrambling randomizes repeated HDMI control symbols to reduce EMI, preserve bandwidth, and limit interference with Wi-Fi and cellular services.
State requests and valid ECHO replies let a blockchain node recover missing transactions without interrupting BFT consensus or adding latency.
On-chip CES memory cells store logic-encryption keys inside the IC, removing boot-up key transfer exposure and blocking reverse engineering.
Compressing and encrypting blob data at the front-end layer reduces transfer latency while simplifying account-level key management.
LFSR-based scrambling spreads repeated HDMI control symbols to suppress clock-pattern EMI while preserving reliable signaling and wireless coexistence.
Two-way parity checks across segmented AES datapaths detect encryption and decryption faults with high coverage and lower area overhead.