Ψ-1024 ONLINE · 11.7 mK · LATTICE STABLE
We compute every possible outcome at once.
HILBERT DYNAMICS builds superconducting quantum processors that hold 21024 states
in simultaneous superposition. Ψ-1024 runs surface-code error correction at
99.94% two-qubit fidelity — and it is accepting workloads now.
Move your cursor. You are measuring the field.
Collapse
01 The qubit
A bit is a switch.
A qubit is a direction.
Every state of a single qubit is a point on this sphere. Apply gates — they are literally rotations. Drag to orbit. Then measure, and watch the whole continuum snap to one of two poles.
Bloch Sphere · Live State Vector
coherentdrag to orbit · scroll-free · gates are rotations
Single-qubit gate palette
|ψ⟩ = 1.000|0⟩ + 0.000|1⟩
P|0⟩
100.0%
P|1⟩
0.0%
Measurement record
02 Superposition
One particle.
Both paths. Every time.
Fire electrons one at a time and they still build an interference pattern — each one went through both slits. Switch on the which-path detector and the interference vanishes instantly. That difference is the entire computational advantage we sell.
Young Interferometer · Single-Emission Mode
detector offline — wave regimeDetections
0
No which-path information exists. The amplitude passes through both apertures and self-interferes. Fringe visibility ≈ 1.00.
Fringe visibility
Ψ-1024 keeps 1,024 of these superpositions coherent for 412 μs. Every stray photon is a detector. Our shielding removes them.
03 Entanglement
Two qubits.
One indivisible fact.
This is a real CHSH test. Set the two measurement angles, run the trials, and the correlation exceeds S = 2 — the hard ceiling for any theory where the outcomes existed beforehand. Nature goes to 2√2 ≈ 2.828. Hit the preset and watch it.
Bell Pair |Φ⁺⟩ · CHSH Violation Rig
pair coherent · thread intact
Δθ 45° · predicted E(a,b) −0.707
trials 0 · measured E —
trials 0 · measured E —
CHSH parameter S
Run the preset. Anything above 2.000 is impossible classically.
04 The instruction set
Write a circuit.
Watch the amplitudes move.
A live 3-qubit statevector simulator — all 8 complex amplitudes, computed in your browser. Click any cell to cycle gates, or load a preset. Bar height is probability; colour is phase.
QASM Sandbox · 3 Qubits · 8 Amplitudes
click a cell to cycle: · H X Y Z S T
Statevector · |q₂q₁q₀⟩
phase2π
purity 1.000 · entropy 0.000 bits · depth 0/0
05 Ψ-1024 "Obsidian"
The machine that
does the impossible part.
A 1,024-qubit transmon lattice on a single 300 mm die, held at 11.7 millikelvin — colder than interstellar space by a factor of 230.
01 / LATTICE
0
Physical qubits
Fixed-frequency transmons in a heavy-hex topology with tunable couplers. 118 logical qubits after surface-code overhead.
02 / FIDELITY
0%
Two-qubit gate fidelity
Median CZ fidelity across the full lattice, randomised-benchmarked hourly. Below threshold, error correction wins.
03 / COHERENCE
0μs
T₁ relaxation
Tantalum-on-sapphire fabrication with a subtractive etch. Roughly 41,000 gate operations inside one coherence window.
04 / THERMAL
0mK
Base plate temperature
A six-stage dilution refrigerator moves 32 μW at 20 mK. The dilution unit runs continuously for 18 months between service windows — the coldest cubic metre on the continent.
05 / THROUGHPUT
0M shots/hr
Cloud execution
Sub-40 ms queue latency via dedicated FPGA control planes. Submit OpenQASM 3, Qiskit, Cirq, or raw pulse schedules — we compile to the lattice and return the histogram.
06 / CLAIMED ADVANTAGE
A molecular ground-state problem that costs a classical exaflop cluster 9,400 years resolves here in 4.1 hours.
06 Trajectory
From lab curiosity to
fault tolerance.
Qubit count is a vanity metric. Logical qubits are the only number that matters — and ours doubles every eleven months.
2023
Ψ-64 · First coherent lattice
Sixty-four transmons, no error correction, 61 μs coherence. Enough to prove the fabrication stack and embarrass our own simulator.
64 physical · 0 logical2025
Ψ-256 · Below threshold
The distance-5 surface code outperformed distance-3 for the first time on our hardware. Adding qubits started reducing errors instead of adding them.
256 physical · 9 logical2026
Ψ-1024 · Obsidian
1,024 qubits, real-time decoding at 1 μs latency, and a public cloud endpoint. Shipping to eleven partners in energy, pharma and cryptography.
1,024 physical · 118 logical2028
Ψ-8K · Magic state factory
Distilled T-states at 40 kHz feed a universal fault-tolerant gate set. The first machine on which Shor's algorithm is a scheduling problem, not a research programme.
8,192 physical · 1,100 logical2031
Ψ-100K · Chemistry, solved
Full configuration-interaction accuracy for nitrogenase, FeMoco, and high-temperature superconductor candidates. The catalyst-design bottleneck moves from physics to imagination.
100,000 physical · 15,000 logical— Access
Stop approximating
reality.
Ψ-1024 is open to research and commercial workloads. Bring a Hamiltonian, an optimisation, or a hunch — we will tell you honestly whether a quantum computer helps.
Response within one decoherence window · 412 μs (or two business days)