Quantum computers are no longer science fiction. In July 2026, IBM already offers access to the 1121-qubit Condor processor, and Google in 2024 claimed quantum supremacy on Sycamore. Simultaneously, NIST completed the standardization of post-quantum cryptographic algorithms — CRYSTALS-Kyber, Dilithium, FALCON, and SPHINCS+. If your business or career is related to information security, you’re already late. The course 'Quantum Computing and Post-Quantum Cryptography' on the asibiont.com platform is a bridge between current knowledge and a world where RSA and ECC no longer work.
What This Course Is and Who It’s For
The course is not a superficial overview but a full immersion into two closely related fields: quantum computing (how qubits, gates, Shor’s and Grover’s algorithms work) and post-quantum cryptography (algorithms resistant to quantum computer attacks).
Target audience:
- Developers and engineers who want to understand how to migrate existing systems to quantum-resistant protocols.
- Security architects responsible for crypto-agility and inventory of cryptographic assets.
- Technical students planning a career in one of the fastest-growing fields.
- Technical managers who need to make decisions about implementing PQC (Post-Quantum Cryptography).
What You Will Learn
The program builds from fundamental principles of quantum mechanics to practical migration. Here are the key blocks:
1. Quantum Algorithms — the 'Enemy' of Modern Cryptography
You will understand how superposition, entanglement, and measurement work. Learn to build circuits from Pauli, Hadamard, CNOT, and Toffoli gates. Study Shor’s algorithm, which factors numbers in polynomial time (the basis of RSA), and Grover’s algorithm, which speeds up brute-force search by a square root. Without understanding these algorithms, it is impossible to grasp why post-quantum cryptography is necessary.
2. Post-Quantum Algorithms — the 'Shield'
The standardized NIST algorithms are covered in detail:
- CRYSTALS-Kyber — a key encapsulation mechanism based on lattices.
- CRYSTALS-Dilithium, FALCON — digital signatures based on lattices.
- SPHINCS+ — hash-based signature.
Alternative approaches are also studied: code-based cryptography (McEliece, BIKE, HQC), multivariate schemes, hash-based signatures (XMSS, LMS). All this is not just theory: you will delve into the mathematics of LWE, Ring-LWE, NTRU and understand why they are resistant to quantum attacks.
3. Migration: Crypto-Agility and Hybrid Schemes
The most important practical block. You will learn to inventory cryptographic assets, build hybrid schemes (PQ/TLS 1.3), and implement crypto-agility — the ability to quickly change crypto algorithms without rewriting the entire system. This is what 90% of companies lack today.
How Learning Works on asibiont.com
The platform uses AI-generated personalized lessons. Unlike classic courses with a fixed program, the neural network analyzes your starting level and goals (e.g., 'I want to learn to program in Qiskit for quantum simulation' or 'I need corporate PKI migration'). Based on this, the AI forms a unique track.
Learning takes place in text format — this allows you to delve deeper into the math and algorithms without distractions from video. All materials are available 24/7: you can return to complex topics at any time. The neural network not only presents theory but also generates practical tasks, adapting the difficulty to you. If you get stuck on lattice algebra, the AI simplifies the explanation, provides analogies, and real-life examples.
Why AI Learning Is Modern and Effective
- Personalization for every student. No 'average hospital temperature': the AI considers your background (math, programming, cryptography) and learning pace.
- Explanation of complex topics in simple language. Quantum mechanics and lattice cryptography are among the most complex fields. The AI can decompose them into understandable micro-steps.
- Practice without limits. The AI generates an infinite number of tasks on quantum circuits, PQ algorithm implementation, and cryptographic system auditing. You are not limited to exercises from a single textbook.
- Accessibility. Learn when and where it’s convenient — from a computer or phone. No schedule ties to webinars.
Who Will Get Maximum Results from This Course
- Information security specialists who want to retrain into post-quantum security — this niche is currently occupied by few, while the market demands hundreds of thousands.
- Python/C++ developers planning to implement PQC libraries (e.g., liboqs) or integrate Qiskit/Cirq into their projects.
- Students dreaming of working in quantum labs (IBM Quantum, Google Quantum AI, IonQ) or companies developing quantum-resistant solutions.
- Tech leads responsible for product security: migration has only just begun, and the first engineers with crypto-agility experience will be worth their weight in gold.
Conclusion
The quantum threat is not hypothetical — according to experts, a cryptographically relevant quantum computer could appear as early as the 2030s. Companies that start implementing post-quantum algorithms now will gain a huge competitive advantage. The course 'Quantum Computing and Post-Quantum Cryptography' on asibiont.com provides exactly the skills that will define the information security market in the next 5–10 years. Don’t wait for standards to become obsolete — start mastering the future today.
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