World's First Quantum AI Platform

Live · v3.1

Kepler Q-Max

The world's first
Quantum AI Platform.

Powered by an 81-qubit QAOA model trained on IBM's Heron R2 processor. Skip the training — upload your problem and ship verified, actionable quantum results in milliseconds.

81 Qubits IBM Heron R2 QAOA Engine Hybrid Quantum AI
SOC 2 · ISO 27001 ready
156Q Heron R2
99.98% uptime

Kepler Q-Max

81

Qubits · Heron R2

Hilbert Space Intelligence

Exponential state space.
Linear cost to call.

81 qubits expand into a Hilbert space of 2⁸¹ ≈ 2.4×10²⁴ simultaneous states. Our pre-trained QAOA circuits navigate this manifold to find solutions classical solvers can't reach in any practical time.

2.4×10²⁴
States
72 P×
Speedup
11
Dim. layers

|ψ⟩

2⁸¹ states

The Hilbert Advantage

81 classical bits hold one number.
81 qubits hold every number.

A classical 81-bit register stores one of 81 positions at a time. An 81-qubit Kepler Q-Max register exists in a superposition of 2⁸¹ orthogonal basis states — a Hilbert space exponentially larger than anything classical hardware can even address.

dim ℋ = 2⁸¹ · exact decimal

2,417,851,639,229,258,349,412,352

That is roughly 2.42 × 10²⁴ — about 2.4 septillion simultaneous quantum states, more than the estimated number of stars in the observable universe.

vs 81 bits

2⁸¹×

more representable states

vs 8-bit byte

10²³×

Hilbert blow-up

Stars in universe

~10²²

Hilbert > observable cosmos

Encoding

QAOA-81q

11 entangling layers

Metric

Classical 81-bit

CPU / GPU register

Quantum 81-qubit

Kepler Q-Max · IBM Heron R2

Information unit
Bit (0 or 1)
Qubit (α|0⟩ + β|1⟩)
Width
81 bits
81 qubits
Distinct states
81 (one at a time)
2⁸¹ simultaneously
State-space size
81
2,417,851,639,229,258,349,412,352
Order of magnitude
10¹·⁹
≈ 2.42 × 10²⁴
Compute model
Sequential / SIMD
Superposition + interference
Search advantage
Linear / heuristic
Quadratic to exponential (QAOA)

Calculated for a pure-state 81-qubit register on the IBM Heron R2 backend. Effective usable dimensionality on real hardware depends on circuit depth, decoherence, and the QAOA ansatz deployed by the Kepler Q-Max scheduler.

Quantum Architecture

A hybrid system, engineered for production.

Four tightly-coupled layers turn raw quantum capability into a deterministic API call.

Layer 01

81-Qubit Model

Pre-trained variational circuit with 11 entangling layers and 2,673 parameters.

Layer 02

QAOA Algorithm

Quantum Approximate Optimization tuned for combinatorial and ML inference.

Layer 03

Hybrid Pipeline

Classical pre-processing, quantum inference, classical post-correction — one API.

Layer 04

IBM Heron R2

Runs on a 156-qubit Heron R2 processor with continuous calibration.

Stage 1

Input data

Stage 2

Classical encoder

Stage 3

QAOA · 81q

Stage 4

Post-correction

Stage 5

Verified result

Performance & Optimization

Real-time at quantum scale.

Continuous calibration, batched amplitude reads, and an edge-cached classical layer keep production traffic flowing — without ever leaving 81-qubit fidelity.

2.37 ms

p50 Latency

single-shot inference

422 / sec

Throughput

burst, single tenant

23

Parallel jobs

production endpoints

99.98%

Uptime

rolling 90 days

Real-World Applications

Already shipping in production.

Six high-impact verticals are running on Kepler Q-Max today — the same 81-qubit model, tuned per problem class.

Satellite anomaly detection

Pinpoint orbit drift and signal anomalies across telemetry streams in milliseconds.

Bandwidth optimization

Route global traffic through QAOA-optimized paths under live SLA constraints.

Financial intelligence

Risk, fraud, and portfolio search across 10²⁴-state hypothesis spaces.

Infrastructure analytics

Predict failures across power, transport, and energy grids before they cascade.

AI research

Fine-tune classical models with quantum-augmented gradient search.

Geospatial intelligence

Massive-scale spatial classification and routing on heterogeneous data.

Platform Experience

One console.
Every quantum signal.

A premium dashboard and REST API give you live job telemetry, calibration data, webhook delivery, and audit-grade reports — with the same workflow as a classical SaaS.

  • Real-time monitoring across all 23 endpoints
  • Webhook delivery with signature verification
  • Branded PDF reports with precision / recall / F1
  • Role-based access · org-level API keys
console.keplerqmax.app

Jobs / min

1,284

Avg latency

2.41 ms

Success

99.99%

Throughput · last 24h

live

Active job

fraud_detection · 81q

Webhook

delivered · 200

sig sha256 · ok

Enterprise Infrastructure

Built for the largest workloads on Earth.

Every Kepler Q-Max deployment is auditable, observable, and contractually backed by an enterprise SLA.

Secure execution

Tenant-isolated jobs, encrypted at rest and in transit, signed webhooks.

Enterprise-ready APIs

Versioned REST endpoints, idempotency keys, async + sync inference.

Hybrid scalability

Burst into the IBM quantum backend; fall back to classical with verified parity.

Real-time processing

Streaming results with calibration metadata and confidence bounds.

Scientific Foundation

Rigor under every API call.

Kepler Q-Max is built on four established quantum disciplines — and audited end-to-end against classical baselines on every release.

Pillar 01

Quantum optimization

QAOA solves combinatorial structure intractable for classical heuristics.

Pillar 02

Hilbert space computation

Inference operates over 10²⁴ simultaneous basis states.

Pillar 03

Probabilistic intelligence

Amplitude-encoded probabilities deliver calibrated confidence.

Pillar 04

Hybrid AI architecture

Classical pre/post layers anchor quantum results to real-world data.

Final boarding call

Enter the Quantum Intelligence Era.

Spin up the platform in minutes, or talk to our enterprise team about a private deployment on dedicated quantum hardware.