Course Description:
This course explores the security implications and risks introduced by quantum computing, with a strong focus on how quantum technologies impact today’s cryptographic systems. Learners will understand why widely used encryption methods such as RSA, ECC, and Diffie–Hellman are vulnerable to quantum attacks, and how organizations can prepare for a post-quantum world. The course covers quantum threat models, quantum-safe and post-quantum cryptography standards, risk assessment strategies, migration planning, and compliance considerations. Through real-world case studies and practical frameworks, participants gain the knowledge required to evaluate quantum risks, design resilient security architectures, and safeguard data against future quantum-enabled cyber threats.
Key Features of Course Divine:
- Collaboration with E‑Cell IIT Tirupati
- 1:1 Online Mentorship Platform
- Credit-Based Certification
- Live Classes Led by Industry Experts
- Live, Real-World Projects
- 100% Placement Support
- Potential Interview Training
- Resume-Building Activities
Career Opportunities After Quantum Computing – Risk and Security Certified Course:
- Quantum Security Analyst
- Post-Quantum Cryptography Engineer
- Cybersecurity Consultant (Quantum Risk)
- Cryptography Researcher
- Quantum Risk & Compliance Specialist
- Security Architect (Quantum-Safe Systems)
- Government & Defense Security Advisor
- FinTech / Banking Security Specialist
- R&D Engineer in Quantum Technologies
- Academic or Industrial Research Fellow
Essential Skills you will Develop Quantum Computing – Risk and Security Certified Course:
- Cryptography and post-quantum cryptography concepts
- Risk assessment for quantum-era cybersecurity
- Quantum-safe security architecture design
- Secure data protection and encryption migration strategies
- Cybersecurity policy, compliance, and governance awareness
- Threat modeling and vulnerability analysis
- Secure communication and key management techniques
- Analytical and problem-solving skills for emerging technologies
- Strategic planning for quantum readiness and resilience
Tools Covered:
- Post-Quantum Cryptography (PQC) libraries
- Quantum Key Distribution (QKD) simulation tools
- IBM Quantum Experience
- Qiskit (quantum programming & simulations)
- OpenSSL (quantum-safe configurations)
- NIST PQC standardization frameworks
- Cryptographic risk assessment tools
- Security modeling and threat analysis tools
- Cloud-based quantum simulators
- Compliance and security audit tools
Syllabus:
Module 1: Introduction to Quantum Computing Basics of quantum mechanics Qubits, superposition, and entanglement Quantum gates and circuits Classical vs quantum computing.
Module 2: Quantum Threat Landscape Overview of quantum threats to cybersecurity Vulnerable cryptographic algorithms (RSA, ECC, DH) Real-world examples of quantum attacks.
Module 3: Fundamentals of Cryptography Symmetric and asymmetric cryptography Hash functions and digital signatures Key exchange protocols.
Module 4: Post-Quantum Cryptography (PQC) Lattice-based, hash-based, code-based cryptography Multivariate and isogeny-based cryptography Standards and guidelines (NIST PQC).
Module 5: Quantum Key Distribution (QKD) Principles of QKD BB84 and E91 protocols Practical implementations and limitations.
Module 6: Risk Assessment & Threat Modeling Identifying quantum vulnerabilities Quantum risk assessment frameworks Threat modeling techniques.
Module 7: Quantum-Safe Security Architecture Designing quantum-resistant systems Secure communication channels Migration strategies for existing infrastructure.
Module 8: Compliance, Governance & Policy Regulatory considerations for quantum security Industry standards and best practices Organizational governance for quantum risks.
Module 9: Case Studies & Practical Applications Real-world scenarios of quantum threats Quantum-safe encryption implementation Lessons from industry and research.
Module 10: Future Trends & Strategic Planning Emerging quantum technologies Preparing organizations for the post-quantum era Career pathways and research opportunities.
Industry Projects:
- Implementing quantum-safe encryption for a simulated banking system
- Assessing quantum vulnerabilities in cloud-based applications
- Developing a secure key exchange using Quantum Key Distribution (QKD) protocols
- Conducting a post-quantum cryptography migration plan for legacy systems
- Risk assessment and threat modeling for a corporate network against quantum attacks
- Designing a quantum-resilient secure communication framework
- Evaluating real-world case studies of quantum security breaches and mitigation strategies
- Simulating quantum attacks on classical cryptography algorithms
- Implementing compliance and governance frameworks for quantum security readiness
- Research project on emerging quantum threats and mitigation technologies
Who is this program for?
- Cybersecurity professionals aiming to prepare for quantum-era threats
- IT and network security engineers seeking quantum-safe solutions
- Cryptography researchers and enthusiasts
- Risk and compliance specialists in finance, defense, and government sectors
- Software developers interested in secure coding for post-quantum systems
- Students and graduates in computer science, IT, or engineering
- Technology consultants advising on emerging quantum risks
- Professionals working in cloud security and secure communication
- R&D engineers in quantum computing and cryptography
- Anyone looking to build a career in quantum security and post-quantum cryptography
How To Apply:
Mobile: 9100348679
Email: coursedivine@gmail.com
