NITIN JHA
🏠 Welcome - H Gate (q₂)
Hello! I'm Nitin Jha, a PhD student at Kennesaw State University in the Department of Computer Science. Welcome to my quantum-inspired portfolio!
Like the Hadamard gate that creates superposition, my research explores the intersection of quantum mechanics and computer science, creating new possibilities in quantum networks and secure communications.
Navigate through the quantum circuit above to explore my research, publications, and professional journey. Each gate represents a different aspect of my work in quantum computing.
🌟 Introduction - H Gate (q₀)
My research interests lie at the cutting edge of quantum technology, focusing on:
- Quantum Networks - Building the infrastructure for quantum internet
- Quantum Communications - Enabling secure information transfer through quantum channels
- Quantum Secure Direct Communication Protocols - Developing novel approaches to quantum-secured messaging
Just as the Hadamard gate puts qubits into superposition, my work explores multiple approaches to solving the challenges of quantum networking and communication.
👤 About Me - H Gate (q₁)
I'm currently pursuing my PhD in Computer Science at Kennesaw State University in Georgia, USA, where I work as a Graduate Research Assistant focusing on quantum network and communication protocols.
My journey in physics and quantum computing began at Ashoka University in India, where I earned my BSc (Hons) in Physics with Cum Laude distinction. This strong foundation in physics, combined with my computer science expertise, allows me to bridge theory and practical implementation in quantum systems.
Research Philosophy
I believe in the transformative potential of quantum technologies to revolutionize secure communications and networking. My approach combines rigorous theoretical understanding with practical protocol development, always keeping real-world implementation challenges in mind.
🔬 Research - CNOT Gate (q₀→q₂)
The CNOT gate creates entanglement between qubits - a fundamental resource in quantum computing. Similarly, my research creates connections between theoretical quantum mechanics and practical networking protocols.
Current Research Focus
- Quantum Network Protocols - Developing efficient protocols for quantum information distribution across networks
- Noise and Topology Effects - Analyzing how different network structures and environmental noise affect multiphoton quantum protocols
- Quantum-Classical Hybrid Networks - Bridging classical and quantum communication systems for practical deployment
- Machine Learning for Quantum Protocols - Applying ML techniques to optimize quantum communication protocols
- Quantum Security - Investigating attacks and developing security measures for quantum networks
Research Experience
- Graduate Research Assistant - Kennesaw State University (August 2023 - Present)
Working on quantum network and communication protocols, including quantum anonymous notification and error correction schemes - Research Assistant - Ashoka University (June 2022 - August 2022)
Worked on permalloy simulations using MuMax3 for spintronics applications
📚 Publications - CNOT Gate (q₁→q₂)
Like the CNOT gate that correlates qubit states, my publications connect theoretical quantum concepts with practical implementations.
Journal Publications
- Scientific Reports (2024)
Jha, N., Parakh, A., & Subramaniam, M. (2024). Joint encryption and error correction for secure quantum communication. Scientific Reports, 14(1), 24542.
DOI: 10.1038/s41598-024-75212-8 - Infocommunications Journal (2025)
Jha, N., Parakh, A., & Subramaniam, M. (2025). Multi-photon QKD for Practical Quantum Networks. Infocommunications Journal.
DOI: 10.36244/ICJ.2025.2.9
Preprints & To-appear
- Jha, N., Parakh, A., & Subramaniam, M. (2025). Quantum Key Distribution: Bridging Theoretical Security Proofs, Practical Attacks, and Error Correction for Quantum-Augmented Networks. arXiv preprint arXiv:2511.20602.Accepted: To appear in Cryptologia (Taylor & Francis)
- Jha, N., & Parakh, A. (2025). Towards A Global Quantum Internet: A Review of Challenges Facing Aerial Quantum Networks. arXiv preprint arXiv:2505.23603Accepted: To appear in IEEE Potentials Magazine.
- Jha, N., Parakh, A., & Subramaniam, M. (2025). An Improved Quantum Anonymous Notification Protocol for Quantum-Augmented Networks. arXiv preprint arXiv:2511.12313. In-review: Frontiers Quantum Science and Technology.
Conference Presentations
- SPIE Photonics West 2024
Jha, N., Parakh, A., & Subramaniam, M. (2024, March). Effect of noise and topologies on multi-photon quantum protocols. In Quantum computing, communication, and simulation IV (Vol. 12911, pp. 147-160). SPIE. - SPIE Photonics West 2025
Jha, N., Parakh, A., & Subramaniam, M. (2025, March). Towards a quantum-classical augmented network. In Quantum Computing, Communication, and Simulation V (Vol. 13391, pp. 72-86). SPIE. - IEEE QCE 2024
Jha, N., Parakh, A., & Subramanian, M. (2024, September). A ml based approach to quantum augmented http protocol. In 2024 IEEE International Conference on Quantum Computing and Engineering (QCE) (Vol. 2, pp. 591-592). IEEE.
🎓 Education - Rx Gate
The Rx gate represents rotation in quantum state space. My educational journey has continuously rotated my perspective, adding new dimensions to my understanding.
Academic Background
- PhD in Computer Science (August 2023 - Present)
Kennesaw State University, Marietta, GA, USA
Focus: Quantum Networks and Communication Protocols
Advisor: Dr. Abhishek Parakh - BSc (Hons) Physics (August 2020 - May 2023)
Ashoka University, Sonipat, Haryana, India
Graduated: Cum Laude
Relevant Coursework: Quantum Mechanics, Electromagnetic Theory, Computational Physics, Statistical Mechanics
Grants
- IEEE Computer Science Student Society Grant IEEE QCE 2024
- College of Computer Science and Software Engineering Travel Grant 2024, 2025, 2026
- NSF-BEACON Labs Travel Grant for WorkshopBoise State University 2026
⚡ Skills - Rz Gate
The Z-rotation gate manipulates quantum phase. Similarly, my technical skills span multiple phases of quantum research - from theory to simulation to implementation.
Quantum Circuits, Quantum Algorithms, Quantum Cryptography, QKD Protocols, QSDC Protocols
Qiskit, Quantum Network Simulators, Pennylane
Python, MATLAB
TensorFlow, PyTorch, Scikit-learn, Neural Networks, Quantum Machine Learning
MuMax3, Mathematica, MATLAB Simulink
NumPy, Pandas, Matplotlib, SciPy, Data Visualization
Network Protocols, Network Simulation, Network Security
Scientific Writing, LaTeX, Technical Presentations, Literature Review, Experimental Design
Technical Expertise
- Quantum Protocol Development - Design and analysis of quantum communication protocols
- Network Simulation - Large-scale quantum network simulations
- Error Analysis - Quantum error correction and noise characterization
- Security Analysis - Cryptographic protocol analysis and attack modeling
💼 Experience - Ry Gate
The Y-rotation gate changes the quantum state along a different axis. My professional experiences have shaped my research trajectory in diverse ways.
Research Positions
- Graduate Research Assistant
Kennesaw State University | August 2023 - Present
• Developing novel quantum network protocols for secure communication
• Investigating effects of noise and network topology on multiphoton quantum systems
• Creating quantum-classical hybrid network architectures, also termed as Quantum Augmented Networks
• Publishing research in peer-reviewed journals and presenting at international conferences - Research Assistant - Spintronics
Ashoka University | June 2022 - May 2023
• Conducted permalloy micromagnetic simulations using MuMax3
• Analyzed magnetic domain dynamics and spin wave propagation
• Contributed to research on spintronic device optimization
Professional Service
- Peer Reviewer - Reviewing manuscripts for quantum computing and networking journals:
- IEEE Transactions on Mobile Computing
- Scientific Reports
- IEEE Access
- Advanced Quantum Technologies (QUTE)
- ACM Transactions
- Infocommunication Journal (ICJ)
- Student Organizations - Active member of Ph.D. student research groups
📬 Contact - CNOT Gate (q₀→q₁)
The CNOT gate creates quantum entanglement. Let's create connections in the classical world! Feel free to reach out for collaborations, research discussions, or any questions about my work.
Get in Touch
I'm always interested in discussing quantum networking/communication research, potential collaborations, and new opportunities in quantum technology. Best way to contact me is through my email listed here!
Email: njha@students.kennesaw.edu
Location: Georgia, USA
Connect Online
Research Interests for Collaboration
- Quantum network protocol development
- Quantum cryptography and security
- Quantum-classical hybrid systems
- Machine learning for quantum systems
- Quantum error correction
- Quantum internet architecture
Note: This portfolio is designed as a quantum circuit where each gate click reveals different aspects of my work. Try clicking on the quantum gates above to navigate, or use the measurement operators to see random outcomes! The circuit metaphor represents how my different research areas are interconnected, much like entangled qubits in a quantum system.