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No PhD in physics required — just ML fundamentals and Python. In 10 live sessions, you'll build QSVMs and QNNs on real datasets, including leukemia, breast cancer, iris, and Yahoo financial data.
Quantum computing is moving from research labs into industry roadmaps. Companies including IBM, Google, and major financial institutions are investing heavily in quantum technologies, creating demand for ML engineers who can understand, evaluate, and build quantum-enhanced machine learning workflows. After the course, you will be able to:
✅ Encode classical data into quantum circuits
✅ Build Quantum Support Vector Machines on real datasets
✅ Train Quantum Neural Networks for classification tasks
✅ Use quantum kernels and clustering techniques
✅ Solve optimization problems with QAOA
✅ Incorporate quantum noise into ML workflows
✅ Understand training challenges such as barren plateaus
✅ Assess when QML may provide an advantage
If you already understand machine learning and want to become quantum-ready before the field reaches wider adoption, this course provides a structured path from fundamentals to practical implementation. This course assumes no background in physics.
You will implement Quantum SVMs, Quantum neural networks, QAOA, Quantum k-means, and hybrid quantum-classical models in Qiskit 2.4.
Design quantum kernels, variational quantum classifiers, and optimization workflows.
Build quantum k-means clustering, quantum support vector machines, and quantum neural network classifiers in Qiskit 2.4.
Transform Max-cut and financial portfolio optimization QUBO-type problems into the QAOA framework
Learn basis, angle, Hamiltonian, and amplitude encoding schemes to select the appropriate strategy for a given problem.
Analyze circuit depth and complexity tradeoffs and understand how feature maps shape models' inductive bias.
Implement techniques for high-dimensional data by using re-uploading layers with Z, ZZ, Pauli, Efficient SU2, and other techniques.
Write, debug, and optimize quantum codes using Qiskit, Qiskit_IBM_Runtime, and Qiskit_Aer for IBM quantum hardware and simulators.
Build hybrid classical–quantum pipelines by integrating quantum models with PyTorch, Tensorflow, and Pandas.
Include quantum noise processes in the ML pipeline to mimic and take advantage of quantum noise in prediction

Quantum Machine Learning Scientist


AI/ML Engineers & Researchers — Who want to implement, benchmark, and evaluate quantum ML models with theoretical depth and practical codes.
Computational Scientists — Who want to expand their computational tools to include practical quantum computing routines for data analysis.
Tech Leads — Who want to develop insights for quantum ML use-cases, hardware limits, and quantum-ready workforce.
This course assumes knowledge and fluency with basic classical ML concepts, including neural networks, supervised and unsupervised ML.
Students with prior experience in ML programming and familiar with Python tools will find the course most useful.
Working experience with matrices is required. Exposure to linear algebra before the course will help you dig deeper.

Live sessions
Learn directly from Dr. Muhammad Faryad in a real-time, interactive format.
Video Recordings
All live sessions will be recorded and made available to students right after each session.
End-to-end code files
All code files used during the live sessions will be delivered to students before showing end-to-end model building for real datasets.
Lecture slides
All lecture slides used during live sessions will be provided to students before each session.
Dedicated Q/A sessions
Live questions/answers sessions and discussion on QML and converting your ML projects to QML projects
Solved Assignments
Theory/coding problems with solutions
Maven Guarantee
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10 live sessions • 38 lessons
Jul
14
Jul
16
Jul
21
Jul
22
Jul
23
Live sessions
3-4 hrs / week
See the syllabus for the detailed schedule.
Tue, Jul 14
3:00 PM—4:15 PM (UTC)
Thu, Jul 16
3:00 PM—4:15 PM (UTC)
Tue, Jul 21
3:00 PM—4:15 PM (UTC)
Playing with Qiskit code files
2-3 hrs / week
You will get the most out of the course if you spend time playing with the Qiskit code files explained during the live lessons.
Reviewing lesson slides
1-2 hrs / week
You should spend time reviewing the lesson slides before and after each live session since the slides have a rigorous treatment of QML theory.
1. Lecturer, Northern Border University, Saudi Arabia
2. Research Assistant, Binghamton University, New York, USA
3. AVP Retail & Projects, Valiram Group, Malaysia
4. PhD Student, Queen’s University, Ontario, Canada
5. Software Engineer, Innovate for Consulting and Technology, Cairo, Egypt
6. Student, IISERM, Mohali, India
7. QC coordinator, Amerisci, New York, USA
8. Staff Machine Learning Engineer, Chewy, Florida, USA
9. Student, Universidad Anáhuac México Norte, México
10. Institut de Mathématiques et de Sciences Physiques, Bénin
11. Actuary, Sompo Insurance, México
12. Associate Professors, LUMS, QAU, Pakistan
13. Student, LUMS, Pakistan
14. Freelance Software Developers, UK, France
15. Post Doc, Saint Louis University, USA
16. Student, Canakkale Onsekiz Mart University, Turkey
17. Lecturer, Aston University, UK
18. Faculty, University Ibn Zohr, Morocco
19. Founder, Quantum Computing Company, USA
20. Research Assistant, Quantum Computing Company, South Korea
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