Requirements for Large-Scale Universal Quantum Computation is a four-week online course that explores the prerequisites for realizing and operating larger-scale quantum computers in a fault-tolerant manner over extended periods of time.
Course Overview:
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Week 1: Classical and Quantum Error Correction
- Concepts of classical and quantum error correction
- Review of simple examples of quantum error correction codes
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Week 2: Fault Tolerance and Noisy Qubits
- Principles of fault tolerance and the threshold theorem
- Building reliable classical computers from unreliable components
- Generalizing fault tolerance to quantum computing with noisy qubits
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Week 3: Quantum Error Mitigation and Error Correction in Practice
- Introduction to composite pulses and dynamical decoupling sequences
- Implementing the surface code for error correction
- Challenges and principles of practical quantum error correction
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Week 4: Computational Complexity and Quantum Supremacy
- Understanding computational complexity for classical and quantum computers
- Different approaches to envisioning quantum supremacy
- Coding dynamical error suppression protocols on the IBM Quantum Experience computer
Course Features:
- Video lectures, real-world case studies, and interactive projects
- Practice activities with immediate feedback
- Self-reflection exercises with peer review
- Utilizing the IBM Quantum Experience for implementing error suppression protocols
- Faculty-led webinars for additional insights and Q&A sessions
Target Audience:
- Professionals and leaders in business, government, and technology
- Those seeking to understand the business and technical implications of quantum computing
- Individuals interested in leading the quantum revolution in their field
Prerequisites:
- Basic knowledge of vector and matrix multiplication (linear algebra)
- Recommended understanding of prerequisite knowledge (refer to FAQ article for more details)
Course Benefits:
- Understanding the challenges of transitioning quantum computing from niche applications to large-scale implementations
- Knowledge and practice in implementing strategies for counteracting errors in quantum computation
- Insights into the practical aspects of quantum computing algorithms and quantum communication protocols
- Familiarity with techniques to mitigate current quantum computing challenges
- Anticipation of the trajectory of quantum computing applications
Completion and Recognition:
- Successful completion of the course earns participants 2.25 Continuing Education Units (CEUs) from MIT
- CEUs are nationally recognized and demonstrate commitment to professional development
- CEUs are not applicable towards MIT undergraduate or graduate-level courses
By completing the "Requirements for Large-Scale Universal Quantum Computation" course, participants will gain a comprehensive understanding of the prerequisites for large-scale quantum computing and be equipped to navigate the practical challenges in implementing quantum computing systems.
Please review the Course Schedule for more details!