Q
QAtlas laboratory / representation v1

Quantum State Sculptor

Methodology
A three-branched W-state quantum sculpture suspended over a dark measurement grid.
W state / reference view

One excitation is shared across three qubits. Branch size shows probability; the phase marks and ribbons make the representation’s relationships inspectable.

Read the visual language
computational-basis field · v1
Purity
1.000
Mixedness
0.000
Entropy q₀|rest
0.000 bits
Ribbons
6

Representation limitation. This sculpture is a deterministic explanatory encoding, not literal physical space. It is computational-basis dependent; visual similarity cannot establish state equivalence, entanglement, or operational fidelity.

OpenQASM 2.0 subset

Accepts qreg/creg, X/Y/Z/H/S/T/RX/RY/RZ/CNOT/CZ/SWAP, barriers, and terminal measurements only.

Timeline & measurement

Every gate produces an exact stored state. Discrete gates use a labelled visual transition; rotations can be interpreted as intermediate unitaries.

|0025.0%|0125.0%|1025.0%|1125.0%

Export & share

Exports are generated from this same deterministic geometry. GLB contains representation metadata and is not a 3D-print claim.

About State Lab

What does Quantum State Sculptor show?

Quantum State Sculptor is a transparent explanatory representation of a quantum state. It keeps the computational basis explicit: branch size encodes probability, phase marks encode relative phase, ribbons show selected coherence, and the inspector reports purity and a labelled subsystem entropy. It is useful for developers, researchers, educators, and advanced students who want to inspect state structure without treating a visual resemblance as physical proof. The sculpture is not literal quantum geometry, does not establish entanglement by appearance, and remains dependent on the selected computational basis.

Inputs and supported circuits

Use curated states, safe amplitude syntax, manual gates, or the documented OpenQASM 2 static-circuit subset. Inputs are parsed locally; arbitrary code, OpenQASM 3, and unsupported dynamic control are rejected clearly.

What the visual encodes

The representation exposes probability, relative phase, selected density-matrix coherence, purity, and the entropy of a disclosed first-qubit-versus-rest reduction. It keeps every mapping labelled rather than implying a universal spatial model.

Move between tools

Use Circuit X-Ray to inspect routing and hardware topology, or Noise Lab to run bounded local noise simulations. Compatible OpenQASM stays in this browser session.

Frequently asked questions

Is this a literal picture of a quantum state?
No. It is a deterministic visual language with disclosed computational-basis conventions and selected visual channels.
Can the sculpture prove entanglement or state equivalence?
No. Use the labelled mathematical metrics and the underlying state; visual similarity alone is not proof.
Where are the representation details?
Read the public State Sculptor methodology.