Alice & Bob's Virtual Labs
Test the fundamentals of the quantum world for yourself — is it real, or is it spooky?
Explore our other interactive 3D virtual labs below.
RUN YOUR OWN VIRTUAL QUANTUM TEST LAB →
Run entangled-particle trials and watch the statistics build up live.
DISCOVER THE HIDDEN MYSTERIES OF QUANTUM SPIN →
Configure your own 3D Stern-Gerlach and fire spin particles from any angle and see how they land.
DISCOVER THE SECRET PATH OF HIDDEN VARIABLES →
Step through an interactive 3D particle experiment and follow the chain of events.
FOLLOW THE PARTICLE SUPERPOSITION AND COLLAPSE YOU WERE TOLD WAS IMPOSSIBLE →
Step through the atomic particle's simple structure and see how this mechanism untangles quantum mysteries.
BUILD YOUR OWN ATOM, NUCLEON BY NUCLEON →
Build any atomic nucleus, proton by proton, neutron by neutron.
MORE FROM THE PROJECT
- Herald Replay: A Heralded Bell Test, Step by Step →Replay the Delft-style heralded Bell test one explanation at a time: the pair is emitted, the primary lab turns, the link rods carry that turn to the secondary only when it is in step, each lab records its result, the herald decides, and the records are compared to build the CHSH value.
- Bell Solutions Matrix →What each answer to Bell's theorem explains, and what it gives up, set out side by side.
- Two-Electron NV-Center Model →A stage-by-stage walkthrough of a real diamond NV-center Bell test, from the green laser reset through microwave rotation, photon emission and readout.
- One NV Spin: The Three Standard Curves →Rabi oscillations, Ramsey fringes and rotated readout, compared against the model's own rule with the hidden phase drawn out as a cloud of shots.
- Two-Lab Statistical Test Rig →A visual CHSH test rig with two labs, a shared phase clock, ghost dots on the 720° loop, and a hot-spot panel for exploring the trigger mechanism directly.
- Clean Presentation Mode →The same mechanism as above, stripped down to just the electron pair, the ghost dots and the live CHSH number.
- Reference Model & Independence Test →Instant-maths comparisons between the model's distribution and alternatives, including a minimal-dependence benchmark and a history/repeat-setting test.
- Comparison With Other Hidden-Variable Models →A sourced side-by-side table against pilot-wave theory, superdeterminism, retrocausal models and other published local hidden-variable approaches.
- Delft NV Bell Test: Expected Result With Imperfections →Rebuilds the real 2015 loophole-free Bell test's expected outcome from its own measured state and readout fidelities, adjustable live.
- Mechanism Animation →A short animated walkthrough of the proximal correlation method's core mechanism.
- Raw Test Rig — Final-Sequence Mechanism →The bare mechanism with nothing else added, for checking exactly what the model computes at each step.
- Two-Lab Visual Test Rig (earlier version) →An earlier two-lab visual rig, kept for reference alongside the current foundation rig above.
- 3D Visual Test Rig (earlier version) →An earlier 3D single-lab test rig, kept for reference.
ABOUT THE NUCLIVIZ PROJECT
LGA Model — A Proximal Correlation Method
NucliViz is a place to visualize nuclei and explore how they may work — and, more broadly, an open space to explore the foundations of quantum mechanics for yourself. If you've ever wondered whether spin, entanglement, and Bell's theorem might have a genuinely local, mechanistic explanation rather than an abstract one, the models above are built for you to test that question directly, not to take our word for it. Every simulation here runs from first principles in your browser — nothing is fitted or faked to match the answer in advance.
Run the core entanglement experiment and watch the CHSH statistics converge in real time; step a single particle through a Stern-Gerlach measurement; follow the six stages of causality between two entangled particles, with nothing travelling faster than light; watch a spin-1/2 particle's 720° internal mechanism from the inside; or build and explore atomic nuclei directly, isotope by isotope.