the full stack · hypercube ⊃ gyro ⊃ two dots · entangled
Two Dots, Entangled
three real layers, one honest claim — the entanglement is genuine; the nesting is the stage
A tesseract as the outer shell (its inner cube is the 4D shadow), a 3-axis gyro precessing inside it, and the two dots riding its axle. The dots are two real qubits — press Entangle and watch the true signature: neither dot keeps a state of its own, yet they stay perfectly linked.
The scene
tesseract shell · gyro triad · two dots on the axle
What's really happening to the qubits
each dot's own state — from the real 2-qubit density matrix
Dot A
|r| = 1.00
Dot B
|r| = 1.00
Joint measurement probabilities
Joint state
|00⟩
The entanglement is the real part
The dots run an actual two-qubit state. Entangle applies H to A then a CNOT — the standard recipe for the Bell state (|00⟩+|11⟩)/√2.
Its true signature, shown live: each dot's own Bloch vector collapses to zero — neither has a state of its own — while global purity stays 1.00. That combination means entanglement, not noise. Measure one and the other matches instantly.
The nesting is the stage
Three real things — a tesseract (a 4D shadow), a gyro (real precession), two qubits (real entanglement) — composed inside one another.
But it's composition, not causation: the dots don't entangle because they sit in a gyro in a hypercube. They entangle because of the gate. The geometry stages them; the physics is independent of the stage. Honest to keep those apart.
Honest footing. The tesseract and its projection, the gyro's precession, and the two-qubit entanglement are each real and correctly computed — the Bell state, the vanishing single-dot vectors, the unit concurrence, and the correlated collapse are genuine quantum mechanics, not decoration. What's a staging choice is the nesting and the dots' placement on the axle. The dots inherit no physics from the cube or the gyro; their entanglement is theirs alone.