Quantum Computing: Architecture and Protocols
Master quantum computing fundamentals including algorithms, error-correction, and quantum internet protocols in this comprehensive course from DelftX.
Master quantum computing fundamentals including algorithms, error-correction, and quantum internet protocols in this comprehensive course from DelftX.
This advanced course from QuTech research center at Delft University of Technology explores the operational aspects of large-scale quantum computers. Students will dive deep into quantum computing architecture, error-correction techniques, and fundamental algorithms. The curriculum covers micro-architectures, compilers, programming languages, and quantum internet protocols. Through expert instruction and collaborative learning via forum discussions, participants will gain comprehensive understanding of quantum computing systems, from hardware interfaces to software implementation. The course emphasizes both theoretical knowledge and practical applications in quantum technology.
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What you'll learn
Understand quantum computer interfacing with classical control systems
Master quantum computing micro-architectures and programming languages
Implement quantum error-correction techniques for fault-tolerant computation
Develop and analyze quantum algorithms
Design protocols for quantum internet implementation
Skills you'll gain
This course includes:
PreRecorded video
Graded assignments, exams
Access on Mobile, Tablet, Desktop
Limited Access access
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Module Description
This course provides a comprehensive exploration of quantum computing operations and architecture. Students learn about interfacing quantum computers with classical systems, implementing error-correction techniques, and developing quantum algorithms. The curriculum covers essential aspects of quantum computing infrastructure, including micro-architectures, compilers, and programming languages. Special attention is given to fault-tolerant quantum computation and the fundamentals of quantum internet protocols. The course emphasizes both theoretical understanding and practical applications, preparing students for advanced work in quantum computing technology.
Fee Structure
Instructors
4 Courses
Pioneering Researcher in Quantum Networks and Communications
David Elkouss is a distinguished quantum scientist serving as a group leader at QuTech, Delft University of Technology, and Associate Professor at the Okinawa Institute of Science and Technology. His academic foundation includes dual master's degrees in electrical engineering from Universidad Politécnica de Madrid and Telecom ParisTech, followed by a Ph.D. in computer science from UPM that earned him the extraordinary dissertation prize for his work on quantum key distribution. His career highlights include being part of the team that achieved the first loophole-free Bell experiment at TU Delft in 2015. Elkouss leads research focusing on developing crucial tools for quantum networks, including entanglement purification protocols, error-correcting codes, network protocol benchmarks, and quantum network simulators. His expertise spans quantum Shannon theory, quantum communications channels, and the fundamental limits of quantum information processing, contributing significantly to the advancement of quantum internet technology and networked quantum computation.
4 Courses
Pioneering Expert in Quantum Computing Architecture
Carmen G. Almudéver is a Distinguished Researcher at the Universitat Politècnica de València, following her role as Assistant Professor at TU Delft's Quantum and Computer Engineering Department until 2021. Her academic journey includes a Ph.D. in Electronic Engineering from the Polytechnic University of Catalonia, where she focused on "beyond-CMOS" technologies and earned an Intel Doctoral Student Honor Programme fellowship in 2012. Her research expertise centers on developing scalable quantum computer architectures, particularly the mapping of fault-tolerant quantum circuits onto different qubit topologies. As one of the Principal Investigators in the 10-year Intel-QuTech collaboration on quantum computing, she has made significant contributions to quantum programming languages, compilers, error correction, and fault-tolerant computation. Her work spans the entire quantum computing stack, from fundamental architecture design to practical implementation of quantum systems, establishing her as a leading figure in quantum computing research and development.
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