Master the fundamentals of quantum computing hardware platforms, from superconducting systems to trapped ions and spin-based implementations
Master the fundamentals of quantum computing hardware platforms, from superconducting systems to trapped ions and spin-based implementations
This advanced course explores how quantum phenomena are realized in various material platforms for quantum computing. Students learn about different qubit implementations, including superconductor-based, atom/ion trap-based, and spin-based systems. The curriculum covers qubit manipulation, system interconnection, and error sources in each platform, providing essential understanding of modern quantum hardware.
Instructors:
English
English
What you'll learn
Understand superconducting quantum platforms
Master atom and trapped-ion quantum systems
Analyze spin-based quantum implementations
Evaluate qubit manipulation techniques
Assess quantum hardware error sources
Compare different quantum computing platforms
Skills you'll gain
This course includes:
Live video
Graded assignments,Exams
Access on Mobile, Tablet, Desktop
Limited Access access
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Module Description
The course provides comprehensive coverage of quantum computing hardware platforms. Students explore how fundamental quantum phenomena are implemented in various material systems, focusing on leading candidates like superconductor-based qubits, atom/ion traps, and spin-based platforms. The curriculum examines qubit definition and manipulation, system interconnection methods, and platform-specific error sources. Emphasis is placed on understanding the practical challenges and implementations in current quantum computing systems.
Fee Structure
Instructor

7 Courses
Pioneering Spintronics and Quantum Physics Researcher
Pramey Upadhyaya is a distinguished Associate Professor of Electrical and Computer Engineering at Purdue University, whose academic journey includes a B.Tech from IIT Kharagpur (2009), followed by MS (2011) and Ph.D. (2015) degrees from UCLA, where he worked as a resident theorist in Prof. Kang Wang's Device Research Laboratory. Following his doctoral studies, he completed a postdoctoral fellowship at UCLA's Physics and Astronomy Department under Prof. Yaroslav Tserkovnyak. His groundbreaking research in quantum physics and spintronics has led to pioneering demonstrations of current-induced room-temperature skyrmion manipulations, spin torque switching using topological surface states, and NV-center probing of spin-caloritronics. His work has resulted in over 30 publications in prestigious journals including Science, Physical Review Letters, and Nature Nanotechnology, achieving an H-index of 24. His exceptional contributions to the field have been recognized with several prestigious awards, including an NSF Career Award (2020), Qualcomm Innovation Fellowship (2013), and Intel Summer Fellowship (2011), while his current research at Purdue focuses on advancing quantum phenomena and material science for next-generation computing applications.
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