M.Sc. Quantum Computing

This Master’s program is currently undergoing formal accreditation.

Overview

A degree in quantum computing opens up opportunities to work on fundamental future technologies and highly challenging projects at the interface of physics, computer science, and mathematics. After a brief introduction to quantum mechanics and quantum information theory, the program covers models of quantum computing (e.g., quantum bits, quantum registers, quantum logic gates, circuit models) and key quantum algorithms such as Shor's, Grover's, and variational algorithms. The course then moves on to the implementation and architecture of quantum processors, quantum communication, and applications in optimization, cryptography, material simulation, and machine learning. At the end of the program, students write a research-oriented master's thesis in which they independently work on a current problem in quantum computing, hardware development, or a specific application.

Program Objectives

Graduates of the M.Sc. Quantum Computing will:

• Acquire state-of-the-art knowledge in quantum algorithms, quantum logic, quantum simulations, and quantum information science.
• Understand the hardware principles behind superconducting qubits, trapped ions, photonic and topological systems.
• Gain hands-on experience with quantum programming frameworks such as Qiskit, Cirq, PennyLane, and quantum-inspired simulators.
• Learn to develop and analyze quantum‑resilient cryptographic systems, including PQC, quantum entropy sources, and hybrid classical–quantum security architectures.
• Understand both the mathematical foundations and practical applications of quantum error correction, noise modeling, and error mitigation.
• Apply quantum methods to real-world sectors such as:
• • Financial optimization
  • AI and machine learning acceleration
  • Cybersecurity and post‑quantum encryption
  • Materials science and molecular simulation
  • Logistics and industrial optimization
• Develop deep research methods and contribute to applied research projects with industry partners.
• Complete a Master’s Thesis + Final Project (30 ECTS), either applied, interdisciplinary, or research-based.

Electives

Students choose from an extensive pool of electives, enabling specialization in areas such as:

• Quantum Algorithms & Complexity
• Quantum Error Correction & Fault‑Tolerance
• Post‑Quantum Cryptography
• Quantum Machine Learning
• Quantum Hardware Systems
• Quantum Entropy & Secure Randomness
• Quantum Cryptanalysis
• Simulation of Quantum Systems
• Advanced Topics in Quantum Information

As with all UDS programs, 50% of electives must come from the designated area for this degree; the rest are fully open across the university’s electives pool.

Unique Features

• Learn how quantum technologies are reshaping cryptography, finance, cybersecurity, AI, logistics, and high‑performance computing.
• Benefit from UDS’s industry partnerships, including companies developing quantum‑resilient infrastructure, providing real-world project opportunities.
• Work with quantum development toolchains from the first quarter onward.
• Collaborate with students from AI, cybersecurity, and digital transformation to solve interdisciplinary challenges.
• Participate in workshops and digital masterclasses led by researchers and industry practitioners in quantum computing.
• Join a community of scholars committed to shaping the future of secure digital systems, including quantum-resilient vault technologies and advanced cryptographic infrastructure.

Why study this Master's program?

• Quantum computing is expected to be one of the defining technologies of the 21st century, with exponential growth in research and commercial adoption.
• Demand for quantum specialists far exceeds supply, especially in Europe, making graduates extremely competitive.
• The program provides the skills needed to work in research, advanced engineering, cryptography, finance, and high-tech industry.
• Graduates can pursue careers as:
• • Quantum software engineers
  • Quantum algorithm researchers
  • Post‑quantum cryptography specialists
  • Quantum security architects
  • Applied quantum scientists
  • Technical founders in quantum or security startups

Why German UDS?

• Study in one of Europe’s first fully online Quantum Computing Master’s programs, designed to meet national and international workforce shortages.
• Learn from pioneers such as Prof. Meinel and Prof. Friedrichsen, connecting theory, applied research, and real industry deployments.
• Collaborate on research areas including AI, cybersecurity, extended reality, and digital transformations.
• Gain access to a complete online toolset supporting flexible, global, asynchronous learning.
• Graduate with a qualification at the forefront of a transformative field—and help shape the secure digital ecosystems of tomorrow.