Qubit
AvailableState vectors, amplitudes, and computational-basis measurement
Build the single-qubit pure-state model and learn how complex amplitudes become measurement probabilities.
Course sequence
A sequenced path from the single-qubit state model to interference and algorithmic reasoning.
Qubit -> Superposition -> Measurement -> Gates -> Entanglement -> Circuits -> Interference -> Algorithms
State vectors, amplitudes, and computational-basis measurement
Build the single-qubit pure-state model and learn how complex amplitudes become measurement probabilities.
Coherence, relative phase, and interference
Explain superposition as a coherent linear combination and show why phase affects later operations.
Basis, Born rule, and post-measurement state
Treat measurement as a physical, basis-dependent operation rather than passive observation.
Unitary operations on state vectors
Study X, Z, and H as reversible linear operators on qubit states.
Prerequisites
Measurement
Correlations beyond separable states
Understand why some multi-qubit states cannot be decomposed into independent factors.
Prerequisites
Quantum Gates
Composing gates into algorithms
Read quantum circuits as ordered transformations followed by selected measurements.
Prerequisites
Entanglement
How amplitudes reinforce or cancel
Analyze constructive and destructive interference as a computational mechanism.
Prerequisites
Quantum Circuits
From principles to algorithmic advantage
Connect the course concepts to canonical algorithmic patterns and their limitations.
Prerequisites
Interference