Strategic Objectives
• Master the architecture of lattice-based cryptographic accelerators.
• Optimize polynomial multiplication using Number Theoretic Transform (NTT) techniques.
• Overcome high-bandwidth memory bottlenecks in ASIC and FPGA designs.
• Implement side-channel resistant primitives for long-term data security.
The Core Challenge
Traditional cryptographic hardware is ill-equipped for the massive polynomial multiplications and memory demands of post-quantum algorithms.
01
The Quantum Threat Landscape
02
Lattice-Based Foundations
03
FPGA vs. ASIC Architectures
04
The Polynomial Multiplication Bottleneck
05
Mastering the Number Theoretic Transform
06
High-Bandwidth Memory Integration
07
CRYSTALS-Kyber Hardware Design
08
Digital Signatures in Silicon
09
Side-Channel Attack Mitigation
10
True Random Number Generation
11
The Role of Keccak and SHA-3
12
Error Correction and Noise Sampling
13
VLSI Design for Cryptography
14
Systolic Arrays for PQC
15
Arithmetic Over Finite Fields
16
The RISC-V Cryptographic Extension
17
Hardware Security Modules (HSM)
18
Testing and Verification
19
Power Analysis Countermeasures
20
The Road to NIST Standardization
21