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Bell-State Entanglement Visualizer

Quantum

$H$ on $q_0$ followed by $\operatorname{CNOT}(q_0\to q_1)$ . Toggling the initialization ports selects which Bell pair is prepared; amplitudes and the correlation index are derived, and a measure button accumulates real Born-rule shots.

6 components · 5 connections · state-vector + Born sampler

recommended lab 3 of 11

Distinguish an entangled Bell state from a classical mixture using outcomes and CHSH.

Prerequisite: none — start here.

predict · then test

After $H$ and CNOT prepare $|\Phi^+\rangle$ , which outcomes can a $Z$ -basis measurement produce?

Commit before the explanation appears. This is a prediction, not a quiz score.

governing model

|\Phi^+\rangle = \dfrac{|00\rangle + |11\rangle}{\sqrt{2}} \;\cdot\; \langle Z \otimes Z \rangle \in [-1, +1]

structural inventory

$2\times$ qubit register line
Hadamard gate
CNOT control/target
measurement ports

boundaries

$4$ Bell states
amplitudes $\pm 1/\sqrt{2}$
CHSH witness $S\in[0,2\sqrt{2}]$

diagnosis challenge Fault identity withheld: infer it from the changed outputs first.

causal signal trace paused

Prepare $\lvert 00\rangle$ Both qubits begin separable and deterministic.

t_{\mathrm{stage}}=\htmlData{math-slot=value}{\mathtt{0.00}}\,\mathrm{s}

step 1 / 4 Prepare |00⟩

simulation 03 · quantum Bell-state execution field

Bell-State Entanglement Visualizer

Hover an active operator to inspect its transform

state vector · Z basis |00⟩