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Anastasios Markellos

This course is constructed for students interested in Quantum Computing. Whether you are new to quantum computers or someone already familiar with the subject, this is a course for you. Each section of the course has a τheoretical part and a Coding part so that you can become a master in Quantum Computing. I have constructed this course in a way that you will use as little as possible maths while at the same time you will explore every possible aspect of Quantum programming using Qiskit.

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This course is constructed for students interested in Quantum Computing. Whether you are new to quantum computers or someone already familiar with the subject, this is a course for you. Each section of the course has a τheoretical part and a Coding part so that you can become a master in Quantum Computing. I have constructed this course in a way that you will use as little as possible maths while at the same time you will explore every possible aspect of Quantum programming using Qiskit.

Use this course to get ahead of the technology and be useful for the future. Companies like IBM, Microsoft, D-Wave, Google, Intel, Toshiba, Xanadu, Rigetti Computing, Zapata Computing are engaged in the development of quantum computing and are looking for people to work in this field.

Learn Quantum Computing and you will be one step ahead.

Quantum Computers will change our lives and unsolvable problems will be solved. Quantum Computers will offer new drugs, better AI, new encryption schemes and solve problems more efficiently. Industries that evolved in finance, data science, communications, chemicals, software engineering, and academics are investing large amounts of money in this field.

Seize the opportunity to be one of the first.

Τhe topics that will be covered throughout the course:

  1. Mathematics primaries for Quantum Computing

  2. Quantum Computing Theory

  3. Single Qubit Quantum States and Single Qubit Quantum Gates

  4. Multiple Qubits Quantum States and Multiple Qubit Quantum Gates

  5. Qiskit's Tools for Quantum Computing

    • Run experiments on Real Quantum Computers

    • IBM's Quantum Composer

    • Obtain information about Backends

    • Visualization of Circuits and Results

    • Quantum Information using Qiskit

  1. Quantum Communication Protocols

    • Quantum Teleportation

    • SuperDense Coding

    • BB84 Protocol

  1. Quantum Oracles Algorithms

    • Deutch-Jozsa Algorithm

    • Bernstein-Vazirani Algorithm

    • Simon's Algorithm

  1. Grover's Algorithm

  2. Quantum Phase Estimation

  3. Quantum Fourier Transformation

  4. Shor's Algorithm

  5. Quantum machine Learning

All the materials used in this course is completely free and downloadable. Through this course, you will solve many practical tests and coding exercises to get your Certificate of completion and become master in Quantum Computing. Training starts from Zero and ends with Hero.

Reach me on the Q&A for questions.

Enjoy Quantum Programming.

Markellos Anastasios

MSc Theoretical Physicist

Enroll now

What's inside

Learning objectives

  • Qiskit
  • Quantum computing
  • Quantum information
  • Python
  • Quantum mechanics
  • Quantum protocols
  • Quantum algorithms
  • Quantum machine learning

Syllabus

Complex Numbers
Introduction
Arithmetics with Complexs
Complex Conjugate
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Calculate How the S gate operates in the |0>

Traffic lights

Read about what's good
what should give you pause
and possible dealbreakers
Uses Qiskit, a leading open-source SDK for working with quantum computers at the level of pulses, circuits, and application modules
Covers quantum communication protocols like quantum teleportation and superdense coding, which are essential for understanding quantum information theory
Explores quantum algorithms such as Deutsch-Jozsa, Bernstein-Vazirani, Simon's, Grover's, and Shor's, which are fundamental to the field
Includes a section on quantum machine learning, which is a rapidly growing area with potential applications in various industries
Requires familiarity with complex numbers and linear algebra, which may pose a challenge for learners without a strong mathematical background
Teaches how to run experiments on real quantum computers using IBM's Quantum Composer, which provides hands-on experience

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Reviews summary

Quantum computing fundamentals with qiskit

According to learners, this course provides a largely positive introduction to quantum computing with a strong focus on practical application using Qiskit. Many appreciate the blend of theory and hands-on coding, finding the coding exercises and the opportunity to run experiments on real quantum computers particularly beneficial for solidifying understanding. The instructor is often described as knowledgeable and explanations are generally found to be clear. However, some students note that the theoretical sections can be dense or that the course might require more math background than initially implied, potentially challenging absolute beginners. While marketed as 'Zero to Hero', learners generally view it as a solid starting point that builds a good foundation in practical Qiskit rather than complete mastery.
Instructor explains complex topics well.
"The explanations were clear, and the coding exercises really solidified my understanding."
"The instructor explains complex topics in a digestible way."
"Instructor is knowledgeable."
Hands-on coding and real hardware access praised.
"The blend of theory and practical Qiskit coding was perfect."
"Fantastic hands-on labs! Running experiments on real quantum computers was a game-changer."
"One of the best introductions to practical quantum computing. The coding exercises are very practical."
"Learning to implement the algorithms with Qiskit was incredibly helpful."
'Zero to Hero' claim viewed as ambitious.
"It's a good starting point, but don't expect to be a 'hero' by the end without further study."
"Not really 'zero to hero'."
"Overall, it's considered a valuable course for learning practical Qiskit."
Theory sometimes dense or feels rushed.
"The theoretical parts were sometimes a bit dense..."
"The course jumps around a bit. The theory sections feel rushed..."
"Needs better structure and clearer explanations..."
Math prerequisites might be heavier than expected.
"However, the math prerequisites were heavier than expected, especially in the early sections on linear algebra."
"Might be tough for absolute beginners with no math background."
"Found the initial math/theory parts okay, but I have a physics background. Others might struggle."

Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in Quantum Computing in Python using Qiskit with these activities:
Review Linear Algebra Fundamentals
Strengthen your understanding of linear algebra concepts, which are essential for grasping quantum computing principles.
Browse courses on Linear Algebra
Show steps
  • Review vector and matrix operations.
  • Practice solving linear equation systems.
  • Study eigenvalues and eigenvectors.
Brush Up on Complex Numbers
Revisit complex number arithmetic and Euler's formula, which are fundamental to representing quantum states.
Browse courses on Complex Numbers
Show steps
  • Review complex number arithmetic.
  • Practice converting between Cartesian and polar forms.
  • Study Euler's formula and its applications.
Qiskit Coding Challenges
Practice implementing quantum gates and circuits using Qiskit to solidify your coding skills.
Show steps
  • Implement single-qubit gates in Qiskit.
  • Create and simulate simple quantum circuits.
  • Debug and optimize Qiskit code.
Four other activities
Expand to see all activities and additional details
Show all seven activities
Quantum Computing Blog Post
Write a blog post explaining a specific quantum computing concept to reinforce your understanding and share your knowledge.
Show steps
  • Choose a quantum computing topic.
  • Research and gather information.
  • Write and edit the blog post.
  • Publish and promote the blog post.
Quantum Random Number Generator
Develop a quantum random number generator using Qiskit to apply your knowledge of quantum circuits and randomness.
Show steps
  • Design a quantum circuit for random number generation.
  • Implement the circuit in Qiskit.
  • Test and analyze the randomness of the output.
  • Optimize the circuit for better performance.
Read 'Quantum Computation and Quantum Information'
Study a comprehensive textbook on quantum computation to gain a deeper understanding of the theoretical concepts.
Show steps
  • Read chapters on quantum gates and circuits.
  • Work through the examples and exercises.
  • Take notes on key concepts and theorems.
Contribute to Qiskit Documentation
Improve your understanding of Qiskit by contributing to its documentation, helping other users learn and use the library effectively.
Show steps
  • Identify areas in the documentation that need improvement.
  • Write clear and concise explanations.
  • Submit your contributions to the Qiskit project.

Career center

Learners who complete Quantum Computing in Python using Qiskit will develop knowledge and skills that may be useful to these careers:
Quantum Software Developer
A Quantum Software Developer builds and maintains software tools and applications that leverage quantum computers. This role requires a strong understanding of quantum computing principles and proficiency in programming languages. This course, with its focus on Qiskit and Python, helps build a foundation for creating quantum algorithms and software. The practical coding exercises provide hands-on experience crucial for developing real-world quantum software solutions. Specifically, the sections on Qiskit tools and quantum algorithms may be particularly useful for a Quantum Software Developer.
Quantum Algorithm Developer
The Quantum Algorithm Developer designs, implements, and optimizes quantum algorithms for various applications. These applications include optimization, simulation, and machine learning. This course may be particularly useful, as it includes an exploration of quantum algorithms using Qiskit. Working through the Deutch-Jozsa Algorithm, Bernstein-Vazirani Algorithm, Simon's Algorithm, Grover's Algorithm, Quantum Phase Estimation, Quantum Fourier Transformation, and Shor's Algorithm sections may help those looking to explore and master quantum algorithms.
Quantum Research Scientist
A Quantum Research Scientist investigates new quantum algorithms, protocols, and architectures. This advanced role typically requires a PhD and a deep understanding of quantum mechanics and computer science. This course helps build a practical introduction to quantum computing, covering essential theoretical concepts and hands-on coding experience with Qiskit. The sections on quantum computing theory and quantum information may provide insights for research endeavors. The coverage of Quantum Machine Learning may be relevant to research in that subdomain.
Quantum Data Scientist
A Quantum Data Scientist applies quantum computing techniques to solve complex data analysis and machine learning problems. This role requires expertise in both quantum computing and data science. This course helps build a foundation in quantum computing, with coverage of quantum machine learning and practical experience using Qiskit. The course's introduction to quantum algorithms and protocols may be useful for those looking to apply quantum computing to data science challenges. This course is a practical introduction to this burgeoning field.
Quantum Computing Engineer
A Quantum Computing Engineer focuses on the design, development, and testing of quantum computing hardware and infrastructure. This role requires knowledge of physics, electrical engineering, and computer science. This course helps build a valuable foundation for understanding quantum computing principles and how quantum algorithms can be implemented. While this course focuses on the software side of quantum computing, the coverage of Qiskit and quantum mechanics may be beneficial for those seeking to contribute to quantum hardware development.
Quantum Applications Engineer
The Quantum Applications Engineer works to identify and develop practical applications of quantum computing across various industries. Quantum Applications Engineers must understand the capabilities of quantum computers and how they can be applied to solve real-world problems. This course helps build a foundation in quantum computing principles and programming with Qiskit. The exploration of quantum algorithms and protocols may be useful for exploring diverse applications of quantum computing. The course may be particularly helpful in understanding how to translate theoretical quantum concepts into tangible solutions.
Quantum Educator
A Quantum Educator teaches quantum computing concepts and programming to students and professionals. Educators need a strong understanding of the subject matter and the ability to explain complex topics clearly. This course, by providing a comprehensive overview of quantum computing with practical examples in Qiskit, may be useful for refining one's knowledge. The course's structure, which combines theoretical concepts with coding exercises, may also be helpful for designing effective teaching materials and lesson plans.
Quantum Research Engineer
Quantum Research Engineers focus on developing and implementing quantum technologies, often working in academic or industry research labs. This role requires a strong background in physics, computer science, and engineering. This course helps build an understanding of quantum computing principles and practical experience with Qiskit. The exploration of quantum algorithms and quantum information may be particularly useful for those involved in cutting-edge quantum research projects.
Quantum Cybersecurity Analyst
A Quantum Cybersecurity Analyst specializes in protecting computer systems and networks from quantum-based cyber threats. Quantum computers pose a risk to current encryption methods, so these analysts develop new security protocols. This course helps build a valuable understanding of quantum computing principles, including quantum key distribution and quantum-resistant cryptography. The sections on quantum communication protocols and Shor's algorithm may be particularly relevant for this role, as they address the potential threats and solutions related to quantum cybersecurity.
Machine Learning Engineer
The Machine Learning Engineer develops and implements machine learning models and algorithms for various applications. This role requires a strong understanding of machine learning principles and proficiency in programming languages like Python. This course may be useful, as it provides an introduction to quantum machine learning and practical experience with Qiskit. The understanding of quantum computing concepts may set an engineer apart, especially as quantum machine learning becomes more prevalent. The course may be particularly relevant for exploring novel approaches to machine learning problems.
Software Engineer
A Software Engineer designs, develops, and maintains software applications. While this is a broad field, knowledge of quantum computing may provide a unique advantage in certain areas. This course may be useful, as it introduces quantum computing principles and provides hands-on experience with Qiskit, a popular quantum computing framework. By understanding the basics of quantum algorithms and quantum programming, a software engineer may be able to contribute to projects that leverage quantum technologies or develop new software tools for the quantum computing community.
Data Analyst
A Data Analyst collects, cleans, and analyzes data to identify trends and insights that can inform business decisions. A Data Analyst uses tools like Python to perform statistical analysis and create visualizations. This course may be useful in a Data Analyst's career. While not directly related, exposure to quantum computing concepts and the Python-based Qiskit may provide a unique perspective on data processing and analysis techniques. The course may be useful in exploring novel approaches to data-driven problem-solving.
Systems Analyst
A Systems Analyst studies an organization's current computer systems and procedures, and designs solutions to help the organization operate more efficiently and effectively. This course may be useful to a Systems Analyst career, as it may expose the applicant to quantum computing concepts and potential applications. Even a basic understanding of quantum computing may help Systems Analysts be better prepared as quantum computers become more integrated into various industries. The curriculum, which focuses on the practical use of Qiskit, may also facilitate this understanding.
Technical Consultant
A Technical Consultant provides expert advice and guidance to organizations on how to best use technology to achieve their business goals. This course may be useful to a Technical Consultant's career, as it may expose the applicant to quantum computing concepts and potential applications. This knowledge can be valuable in advising clients on emerging technologies and their potential impact on various industries. The exploration of quantum algorithms and protocols may provide insights into the capabilities and limitations of quantum computing, which may be beneficial for making informed recommendations.
Financial Analyst
Financial Analysts provide guidance to businesses and individuals making investment decisions. Financial Analysts assess the performance of stocks, bonds, and other types of investments. This course may be useful to a Financial Analyst's career because quantum computing is expected to revolutionize finance. While not directly related, this exposure to quantum computing concepts may provide a unique perspective on emerging technologies and their potential impact on financial markets. The curriculum provides a high-level overview of quantum computing, which may be helpful for making informed decisions.

Reading list

We've selected one books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Quantum Computing in Python using Qiskit.
Comprehensive and widely used textbook on quantum computation and quantum information theory. It provides a rigorous treatment of the mathematical foundations and key algorithms in the field. It valuable resource for students seeking a deeper understanding of the theoretical underpinnings of quantum computing. This book is commonly used as a textbook at academic institutions.

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