• views: 118
• date: 28 January 2026
• posted by: voska89

What you'll learn
Identify and distinguish between the finalized NIST standards: FIPS 203 (ML-KEM), FIPS 204 (ML-DSA), and FIPS 205 (SLH-DSA).
Understand the global regulatory timeline, including CNSA 2.0 mandates for 2027/2035 and EU requirements.
Explain the 'Store Now, Decrypt Later' threat and why immediate action is required for long-lived data.
Design a PQC migration plan utilizing crypto-agility and hybrid (Classical + PQC) implementation modes.
Evaluate use cases for specific algorithms, such as when to use Falcon (FIPS 206) over Dilithium.
Requirements
Basic understanding of classical cryptography (PKI, RSA, ECC, Digital Signatures).
Fundamental knowledge of quantum computing concepts (qubits, superposition, Grover's/Shor's algorithms)
Description
Disclaimer: This course contains the use of artificial intelligenceMigrating to PQC is like reinforcing a bridge while traffic is still moving across it. We cannot simply shut down the classical "bridge" of RSA and ECC that has supported the global economy for decades; instead, we use a hybrid approach—adding quantum-resistant structural steel alongside our classical foundations to ensure the bridge stays standing even if the "quantum weight" of future computers becomes too great to bear.Post-Quantum Cryptography: From Strategy, Standards & Migration is a comprehensive technical course designed for engineers, architects, and security decision-makers to navigate the transition from classical to quantum-resistant encryption. Set in the operational reality of 2026, the course moves beyond theoretical discussion to focus on the immediate mandates for securing global digital infrastructure.The primary objective of this course is to equip technology professionals with the tools to mitigate the "Harvest Now, Decrypt Later" (HNDL) threat. It provides a deep dive into the NIST FIPS standards finalised in 2024 and the regulatory requirements set by the Commercial National Security Algorithm Suite (CNSA 2.0). Learners will progress from understanding the mathematical foundations of lattices and hashes to the practical implementation of Cryptographic Bills of Materials (CBOMs) and Hybrid deployment strategies.The "Harvest Now, Decrypt Later" (HNDL) threat means that your current encrypted data is already at risk from future quantum-enabled decryption,. According to Mosca's Theorem, if your data's required shelf-life plus your migration time exceeds the timeline for a functional quantum computer, your security has already failed.Take command of your organisation's quantum transition today by following these immediate action steps:• the Sample CBOM Schema: Start building your Cryptographic Bill of Materials (CBOM) to gain visibility into the hidden, vulnerable legacy cryptography within your software and third-party libraries,.• Perform a "Micro-Discovery" Task: Identify one critical application in your environment and determine which RSA or Elliptic Curve algorithms must be prioritised for replacement with FIPS 203 (ML-KEM) or FIPS 204 (ML-DSA),.• Audit Your Vendor Roadmap: Ensure your cloud and hardware providers are prepared to meet the CNSA 2.0 deadlines, which mandate a transition to quantum-resistant standards for networking equipment and operating systems by 2030,.• Implement Hybrid Trials: Begin testing Hybrid Key Encapsulation—combining classical and post-quantum secrets—to ensure your systems remain secure even if new mathematical foundations are challenged.The transition to a quantum-safe future is not a "patch Tuesday" event; it is a multi-year modernization effort that begins with inventory. Act now, because you cannot protect what you cannot see.
Who this course is for
CISOs, CTOs, CIOs, and Security Managers who must plan for quantum risk, regulatory deadlines (CNSA 2.0, EO 14028, EU mandates), and long-term data protection.
Leaders responsible for risk assessment, compliance, and cryptographic strategy across large organizations.
Security engineers, software engineers, DevSecOps teams, and platform architects who design, deploy, or maintain cryptographic systems.
Engineers working with TLS, VPNs, PKI, certificates, code signing, secure boot, or cloud infrastructure who need practical guidance on ML-KEM, ML-DSA, hybrid TLS, and crypto-agility.
Compliance officers, auditors, and governance teams responsible for meeting NIST, FIPS, CNSA, EO 14028, ENISA, BSI, or ANSSI requirements.
Professionals who need to understand CBOM, cryptographic discovery, and audit-ready quantum-safe reporting.
Professionals working with or selling to government agencies, defense, critical infrastructure, finance, telecom, or healthcare, where post-quantum readiness is becoming mandatory.
Vendors who must ensure their products remain procurement-eligible in the coming years.
Graduate students, researchers, and advanced learners who want a structured, standards-aligned understanding of post-quantum cryptography beyond academic papers.
Homepage

https://www.udemy.com/course/post-quantum/

   
   
   

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