Aim
This program is crafted to introduce PhD scholars and academicians to the foundational principles of quantum computing, preparing them to explore and contribute to this cutting-edge field. It aims to cultivate an understanding of quantum mechanics basics, quantum algorithms, and their applications in solving complex computational problems.
Program Objectives
- Quantum Mechanics: Gain a thorough understanding of the principles and mechanics of quantum computing.
- Quantum Algorithms: Learn to implement and test basic quantum algorithms.
- Quantum Hardware: Understand the hardware behind quantum computers and their operation.
- Applications: Explore practical applications of quantum computing in various fields.
- Ethical Considerations: Discuss the broader impacts and ethical considerations of quantum technologies.
Program Structure
Module 1: Introduction to Quantum Computing
- Overview of Classical vs. Quantum Computing
- Key Concepts: Qubits, Superposition, and Entanglement
- The Potential of Quantum Computing
- Applications in Cryptography, AI, and Optimization
Module 2: Quantum Bits (Qubits) and Quantum Gates
- Understanding Qubits and Quantum States
- Single Qubit Operations: Pauli-X, Pauli-Y, Pauli-Z
- Multi-Qubit Gates: CNOT, Hadamard
- Quantum Circuits and Quantum Algorithms
Module 3: Quantum Superposition and Entanglement
- Principles of Superposition
- Quantum Measurement and Probabilities
- Quantum Entanglement and Its Implications
- Bell’s Theorem and Quantum Nonlocality
Module 4: Quantum Algorithms: Basics
- Introduction to Quantum Algorithms
- Shor’s Algorithm for Factoring
- Grover’s Search Algorithm
- Quantum Speedup and Its Significance
Module 5: Quantum Computing Models and Platforms
- Quantum Turing Machine
- Quantum Annealing
- Quantum Circuit Model
- Overview of Quantum Hardware Platforms: IBM Q, Google Sycamore
Module 6: Quantum Error Correction and Noise
- The Need for Error Correction in Quantum Systems
- Basic Quantum Error Correcting Codes
- Challenges of Quantum Noise and Decoherence
- Error Mitigation Techniques
Module 7: Quantum Cryptography
- Introduction to Quantum Key Distribution (QKD)
- BB84 Protocol and Its Significance
- Security in Quantum Networks
- Real-World Applications in Secure Communications
Module 8: Final Project
- Design and simulate a basic quantum algorithm (e.g., Grover’s or Shor’s)
- Practical Implementation on Quantum Simulators (IBM Q Experience or Qiskit)
- Presentation and Documentation of the Results
Participant’s Eligibility
- This program is designed for academicians, researchers, and PhD scholars in fields such as computer science, physics, engineering, and mathematics, who possess a strong foundation in their respective domains and are interested in expanding their research to include quantum computing.
Program Outcomes
- Proficiency in Quantum Computing: Basic concepts and algorithms of quantum computing.
- Programming Quantum Computers: Practical experience in programming quantum simulators and computers.
- Hardware Knowledge: Understand the quantum computing hardware landscape and practical applications.
- Ethical and Societal Impact: Insight into the broader implications of quantum technology.
- Research Preparedness: Preparedness to engage in advanced quantum computing research.
Program Deliverables
- e-LMS Access
- Real-Time Project for Dissertation
- Project Guidance
- Paper Publication Opportunity
- Self-Assessment
- Final Examination
- e-Certification
- e-Marksheet
Future Career Prospects
- Quantum Computing Researcher
- Quantum Algorithms Developer
- Quantum Hardware Specialist
- CTO for Quantum Technologies
- Quantum Computing Consultant
- Academic Faculty in Quantum Computing
Job Opportunities
- Research Laboratories
- Technology Companies Developing Quantum Computers
- Government Agencies with Defense or Research Departments
- Academic Institutions
- Private Quantum Technology Startups
- Consulting Firms Specializing in Technology
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