Can kids learn quantum computing?
Why kids should learn quantum the way they learn the rest of physics: through play.
May 7, 2026
Guides
A collection of guides through the space of quantum computing.
Explainers, references, and curated resources.
Why kids should learn quantum the way they learn the rest of physics: through play.
May 7, 2026
Live courses, summer schools, and teacher trainings across North America and Europe, for kids, adults, and teachers. With next start dates, direct links, and interest forms.
May 7, 2026
An opinionated guide to where to actually learn quantum computing.
April 14, 2026
Everything you need to get the most out of your Qubi, gestures, visualization modes, running on real quantum hardware, and the physics behind it.
May 10, 2026
Three gestures, three quantum operations: twist for gates, bump for entanglement, shake to measure.
May 10, 2026
Qubi can record the operations you do and send them to a real quantum computer.
May 10, 2026
Three ways to see a quantum state on Qubi: realistic, single-axis reveal, and all-axis reveal, and when to use each.
May 9, 2026
A qubit is a small thing that points in a direction. Electrons, photons, MRIs, atomic clocks, and what makes a thing a qubit.
May 9, 2026
Two objects, dependent on each other, with no measurable connection between them, not even light. The Bell tests, the Canary Islands experiment, and the 2022 Nobel Prize.
May 9, 2026
The Nobel-prize-winning game that proves quantum entanglement is real. With entangled qubits, you can win 85% of the time, beating the proven classical limit of 75%.
May 10, 2026
Quantum mechanics can't send messages, but it can distribute a one-time-pad key and reveal any eavesdropper. With an interactive 10-round demo you can play as Bob.
May 11, 2026
An interactive guide to the most natural way to visualize a single qubit.
May 4, 2026
Plain-language definitions for the quantum computing terms you keep running into. Qubits, superposition, entanglement, gates, measurement, and the rest.
April 6, 2026
Short, visual explainers for the gates, states, and algorithms you keep running into. Each page has an interactive you can play with.
The gate that puts a qubit into superposition. The most-used gate in quantum computing.
The quantum NOT. A 180° rotation about the x-axis, flips |0⟩ ↔ |1⟩.
A 180° rotation about the y-axis. Like X, but with an added 90° phase.
The phase flip. A 180° rotation about the z-axis, leaves |0⟩ alone, sends |1⟩ to −|1⟩.
A 45° phase rotation about the z-axis. The third gate in the H–T–CNOT universal set.
An operation that rotates a qubit on the Bloch sphere, the basic building block of every quantum algorithm.
The two-qubit gate that creates entanglement. Flips the target qubit only when the control is |1⟩.
The simplest entangled two-qubit state. Built from a Hadamard followed by a CNOT.
The quantum analog of the Fourier transform. The engine inside Shor's algorithm.
A hybrid algorithm that uses a quantum computer to find the ground-state energy of a molecule.
The Quantum Approximate Optimization Algorithm, a near-term approach to combinatorial optimization.
The original quantum key distribution protocol. How quantum mechanics lets two strangers share a secret over an open channel.
One a week. Plain language. No spam.