course
Learn Quantum Computing with Qiskit Textbook
IBM Quantum / Qiskit Team
quantum gates
16 courses · 3 tutorials
Courses
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course
Xanadu Quantum Codebook
Xanadu
-
course
Linear Algebra
Brilliant.org
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course
Fundamentals of Quantum Information
Delft University of Technology (QuTech)
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course
Quantum Optics and Quantum Computing (University of Innsbruck)
Quantum Optics and Spectroscopy Group, University of Innsbruck
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course
Introduction to Quantum Computing
Coursera / Community
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course
Quantum Katas: Self-Paced Quantum Programming Exercises (Microsoft)
Microsoft Quantum
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course
Introduction to Quantum Computing (Qubit by Qubit)
Qubit by Qubit instructors (Stanford PhDs)
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course
IBM Quantum Explorers: Gamified Quantum Learning Journey
IBM Quantum Community
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course
Quantum Computing (Interactive)
Brilliant.org
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course
QSilver: Intermediate Quantum Computing Workshop (QWorld)
QWorld volunteer instructors
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course
Quantum Computing Fundamentals (Munich Quantum Valley)
Munich Quantum Valley / TU Munich / LMU Munich
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course
Introduction to Quantum Computing with Qiskit (openHPI / IBM Quantum)
Hasso Plattner Institute / IBM Quantum
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specialization
The Complete Quantum Computing Course for Beginners
Packt
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course
Quantum Computing Essentials (IBM SkillsBuild)
IBM SkillsBuild
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course
Introduction to Quantum Computing with the Wolfram Language
Wolfram Research
Free Tutorials
- →
- intermediate
- 25 min read
Bloch Sphere Mathematics: From State Vectors to Rotations
The mathematics behind the Bloch sphere: how the angles θ and φ map to quantum state vectors, why single-qubit gates are rotations, and how to read any single-qubit state geometrically.
- →
- beginner
- 15 min read
Quantum Gates Explained
A clear explanation of the fundamental quantum gates, Hadamard, Pauli, CNOT, and Toffoli, with circuit diagrams and what they actually do to qubit states.
- →
- beginner
- 20 min read
Quantum Gates as Matrices: The Linear Algebra Behind Quantum Computing
Understand quantum gates as 2x2 unitary matrices, see the explicit matrices for X, Y, Z, H, S, and T gates, and learn how matrix multiplication corresponds to running gates sequentially.