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Obrynxara

Structured Learning Paths in Quantum Computing and AI

Three progressive tracks designed for different skill levels and career goals

Choose Your Track

We offer three distinct programs covering quantum computing fundamentals through advanced AI integration. Each track builds practical skills with hands-on projects and real-world applications. Students progress through structured modules with direct instructor support.

Foundations Track

12 weeks • Beginner level
Core Topics Quantum mechanics basics, qubit operations, quantum gates, superposition principles, measurement theory
Time Commitment 8-10 hours weekly including lectures, labs, and assignments
Prerequisites Basic programming knowledge (Python recommended), high school mathematics

Applied Quantum AI

16 weeks • Intermediate level
Core Topics Quantum algorithms, variational circuits, quantum machine learning models, optimization problems, hybrid systems
Time Commitment 12-14 hours weekly with project work and peer collaboration sessions
Prerequisites Foundations Track completion or equivalent knowledge, linear algebra, Python proficiency

Advanced Research Track

20 weeks • Advanced level
Core Topics Quantum error correction, topological quantum computing, advanced neural architectures, research methodologies
Time Commitment 15-18 hours weekly including independent research and capstone project development
Prerequisites Applied Quantum AI completion or demonstrated expertise, calculus, research experience preferred

How You Progress Through Each Program

Our programs follow a structured three-phase approach that takes you from initial concepts through practical implementation. Each phase builds directly on previous work with increasing complexity and real-world application.

1

Concept Mastery

Learn theoretical foundations through video lectures, interactive simulations, and guided readings. Complete knowledge checks after each module to verify understanding before moving forward.

2

Practical Application

Apply concepts in hands-on coding exercises using real quantum computing platforms. Work with actual quantum hardware through cloud access, building working implementations of algorithms and circuits.

3

Project Integration

Develop a comprehensive project combining multiple concepts from the course. Present your work for instructor feedback and peer review, demonstrating practical problem-solving skills.

45+
Hands-On Labs
Each track includes multiple practical coding labs using IBM Qiskit and other quantum frameworks
6-8
Major Projects
Build portfolio-worthy implementations ranging from basic circuits to complex quantum-classical hybrid systems
24/7
Platform Access
Continuous access to course materials, quantum simulators, and hardware reservations throughout enrollment

What Makes Our Programs Different

We combine rigorous academic content with practical industry application

Real Hardware Access

Students run algorithms on actual quantum processors through partnerships with major quantum computing providers. You'll experience real noise, decoherence, and hardware constraints rather than just simulations.

Direct Instructor Interaction

Weekly live sessions with instructors who actively work in quantum computing research and development. Get answers to specific questions about your code and project approaches.

Progressive Complexity

Curriculum designed to build skills incrementally. Each new concept connects directly to previous material, with regular reviews ensuring knowledge retention before advancing to more complex topics.

Industry-Relevant Projects

Work on problems drawn from current quantum computing applications including optimization, cryptography, and machine learning. Projects mirror challenges faced by quantum developers in research and industry.

Student Experiences

Henrik Backstrom

Henrik Backstrom

Applied Quantum AI Track

The hands-on labs made abstract concepts concrete. Running my first variational quantum eigensolver on actual hardware was eye-opening. The difference between simulation and real quantum processors taught me more about noise and error mitigation than any textbook could.

Silje Andersen

Silje Andersen

Foundations Track Graduate

I came in with minimal physics background and the progressive structure worked perfectly. Each module built logically on the last. The instructors were patient with my questions during live sessions and provided detailed feedback on my project implementations.

Ready to Start Learning?

Enroll in a track that matches your current skill level and career goals

Contact Us to Enroll

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