Graduate texts
Develop definitions, notation, proofs, and the mathematical structure of quantum information.
Active learning track · Mathematical foundations and literature study
Quantum Communication
I am building a rigorous foundation in quantum information, quantum key distribution, and quantum networking through graduate textbooks, peer-reviewed literature, and university-produced lectures. I am especially interested in how communication-theoretic modeling and simulation can support hybrid classical–quantum networks.
Transferable foundation
Detection and estimation, probability, BER analysis, channel modeling, and Monte Carlo validation
Building now
Quantum states, measurements, information measures, noisy channels, QKD security, and network protocols
Study practice
How I am building competence
I combine formal mathematical study with several source types so that concepts are understood from more than one perspective.
Research literature
Study foundational protocols, review papers, implementation limitations, and open network challenges.
Recorded lectures
Use university and research-institute courses, including their official YouTube material, to reinforce difficult concepts visually.
Mathematical reconstruction
Work through states, measurements, channel models, error probabilities, and key-rate relationships step by step.
Technical foundation
Mathematics and systems under study
Mathematical foundations
- Complex vector spaces, inner products, tensor products, and Hermitian or unitary operators
- Pure and mixed states, density operators, the Born rule, projective measurements, and POVMs
- Shannon and von Neumann entropy, mutual information, relative entropy, and Holevo information
- CPTP maps, Kraus and Choi representations, and photon-loss, dephasing, and depolarizing channels
- Information reconciliation, privacy amplification, composable security, and finite-key bounds
- Stochastic entanglement generation, secret-key rate, memory lifetime, routing latency, and reliability
Technical scope
- Qubits, entanglement, Bell correlations, no-cloning, teleportation, and entanglement swapping
- BB84, E91, decoy-state, measurement-device-independent, and twin-field QKD concepts
- QBER, secret-key-rate calculation, error correction, privacy amplification, and finite-key analysis
- Practical sources, detectors, channel loss, dark counts, misalignment, and implementation side channels
- Quantum repeaters, memories, purification, and networked quantum nodes
- Fiber, free-space, and satellite quantum links with classical-control coexistence
Structured roadmap
From quantum foundations to network-level concepts
Quantum mechanics for information
Linear algebra, state representation, composite systems, unitary evolution, measurements, and basic information measures.
Quantum channels and QKD performance
Loss and noise models, protocol operation, QBER, reconciliation, privacy amplification, secret-key rate, and practical device limitations.
Entanglement distribution and routing
Repeaters, memories, swapping, resource scheduling, probabilistic link generation, and classical control.
Classical–quantum communication systems
Coexistence across fiber, terrestrial wireless, and satellite infrastructure, with attention to performance, control, and security.
Selected study resources
Books, papers, and recorded university material
These are representative resources guiding my study plan. Listing a source here does not imply that every chapter or lecture has been completed.
Source selection favors established textbooks, peer-reviewed review literature, and material published by universities or recognized research organizations.
Quantum Computation and Quantum Information
Michael A. Nielsen and Isaac L. Chuang. A foundation for quantum states, circuits, protocols, and information theory.
Cambridge University PressQuantum Information Theory
Mark M. Wilde. A rigorous route into quantum entropy, channels, coding, and information-theoretic limits.
Cambridge University PressAdvances in Quantum Cryptography
Pirandola and coauthors. A broad review of QKD protocols, security, implementations, and network directions.
Optica Publishing GroupQuantum Internet: A Vision for the Road Ahead
Wehner, Elkouss, and Hanson. A concise architecture and development-stage perspective for quantum networking.
Science / DOIQuantum Information Science I
MIT OpenCourseWare materials covering foundations, protocols, quantum channels, and QKD.
MIT OpenCourseWareQuantum Communication
An introductory recorded lecture published by QuTech Academy at Delft University of Technology.
QuTech Academy on YouTubeBridge from completed work
What my NOMA research contributes to this learning track
My thesis does not establish quantum-communication experience, but it does provide a useful discipline for studying probabilistic links and performance limits.
Analytical performance modeling The methodology used to formulate BER, throughput, and error-propagation models provides a disciplined foundation for learning QBER and key-rate analysis.
Monte Carlo validation Simulation-based validation is useful for studying photon loss, dark counts, channel noise, and finite statistical effects.
Receiver and channel thinking Detection, estimation, and communication-channel concepts provide a classical foundation for learning quantum measurement and noisy-channel models.
Standards lens
Architecture and interoperability references
IETF RFC 9340
Architectural principles for a quantum internet and the distinct behavior of quantum-network services.
Read the RFCETSI Quantum Key Distribution
Industry specifications and work on QKD interfaces, components, security, and interoperability.
Visit ETSI QKD