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Practical quantum for industry

Superpositions Studio

Describe your problem in plain language. Get quantum code and research-grade PDF report. Run on a classical and quantum computer. Benchmarked against classical.

See sample reports
No credit card to start
1,000 free credits
Runs on simulators & real QPUs

Built for Every Quantum Explorer

From quantum specialists to classical developers exploring quantum advantage, Superpositions Studio serves the entire quantum computing ecosystem.

Quantum
Developers

Export quantum code

Optimize quantum circuit

Test across multiple QPUs

Deploy to quantum hardware

AI/ML
Practitioners

Educate about quantum

Apply quantum to ML task

Guided by AI co-pilot

No physics required

Enterprise
R&D

Build quantum solution

Benchmark vs classical

20+ industry use cases

Run on quantum hardware

Academic
Researchers

From hypothesis to paper

Test on your data

Reproducible experiments

Scientific-style reports

The Quantum Development Platform

From business problem to practical quantum solution in 5 steps.

Describe Your Problem

I need to detect rare fraudulent card transactions in a stream of 20M payments a day using my rules and a trained risk score.

Or choose a template:

Mapped Use Case

Oracle-based rare-event search. Build a reversible oracle that flags a transaction as fraud/not-fraud from rules or a scorer, then search for marked items using amplitude amplification.

Recommended Quantum Algorithm

Grover Search (ML oracle)

Dataset Requirements

Required datasets will appear here...

Recommended

Best for your use case

QSVM (Quantum Support Vector Machine)

Uses quantum kernels for classification. Reaches feature spaces hard to simulate classically; gains depend on the data and the chosen embedding.

Hardware Requirements5+ qubits

Alternative Algorithms

Classical Baseline

Classical SVM (RBF kernel)

Standard support vector machine for comparison
Runtime

~8 minutes

Accuracy

88%

Why QSVM?

Superior feature space mapping via quantum kernels
Handles non-linear classification efficiently
Near-term quantum hardware compatible

Auto-Generated Quantum Circuit

import pennylane as qml
from pennylane import numpy as np
dev = qml.device("default.qubit", wires=4)
@qml.qnode(dev)
def qnn(x, w):
  qml.AngleEmbedding(
      x,
      wires=range(4),
      rotation="Y",
  )
  qml.layers.StronglyEntanglingLayers(w, wires=range(4))
  return qml.expval(qml.PauliZ(0))
w = qml.init.strong_ent_layers_normal(1, 4, seed=1)
print(qnn(np.ones(4), w))

Code Features

Production-ready PennyLane code
Code works on simulators or real devices via plugins
Configurable parameters
Reproducible runs
One-click export to Python script

Available Backends

Quantum SimulatorFree
IBM Quantum (Real)5 credits
IonQ Harmony12 credits

Prediction Visualization

  • Actual Values
  • Predicted Values

Architecture & Model Details

Qubits

8

Layers

3

Weights

114

Training Time

42s

Business Impact

Measurable value delivered by the model
Cost Savings

$127,500

ROI

234%

Accuracy

94%

Time Saved

67%

Quantum solution delivers measurable business value through improved accuracy and reduced operational costs.

Performance Comparison

Classical

Time15 min
Profit11.8%
CPU cores8

Quantum

Time3 min
Profit12.4%
Qubits16

Quantum Advantage

5x faster execution with 5% better returns for this problem size.
Advantage confirmed for 30+ assets

Future Projections

Next 12 months

With error rates improving by 10x, expect 3x additional speedup

2-3 years

Fault-tolerant systems could achieve 100x speedup for large portfolios

Scaling Analysis

Tclassical = O(n3)

Tquantum = O(n2)

Quantum advantage increases with problem size

Key Features

Everything you need to take a real-world problem to a benchmarked quantum result.

AI co-pilot

A multi-agent system designs experiments, recommends algorithms, generates code, and interprets results — in plain language.

Industry templates

Validated starting points for finance, energy, manufacturing, healthcare and chemistry.

Hardware-agnostic execution

Run the same job on simulators or real QPUs (IBM, IonQ, IQM and others). Switch backends without rewriting code.

Reproducible outputs

Seed-controlled runs, downloadable code and a PDF report with full methodology — every result is auditable and repeatable.

Honest benchmarking

Every quantum result is placed next to its classical baseline, with concrete cost, runtime and accuracy figures.

Built for results

Explore the platform
Shareable output

Research-grade PDF reports

Real technical documents — methodology, charts, metrics, recommendations and bibliography. Every run produces a complete paper you can share with stakeholders.

Download Sample Report
Pricing

Transparent and credit-based

Start free, subscribe when you're ready, top up only when you need to. Unused credits roll over — no lock-in.

First month free

€0

for 30 days

1,000 credits included
1,000 credits to start
Full platform access
Runnable code & PDF reports
No credit card required
MOST POPULAR
Pro

€20

/ month

1,000 credits every month
1,000 credits / month
Unlimited platform access
PDF reports & code export
Priority simulator queue
Additional credits

€30

for 3,000 credits

Just €0.01 per credit
3,000 credits per pack
Never expire — roll over
Best per-credit value
Buy any time, top up instantly

Lock in today's price

Sign up now and your €20/month rate is yours to keep even when we raise prices for new customers later.

Ready to see what quantum does
for your problem?

Start with a real use case. In minutes, get runnable code, one-click runs on simulators or QPUs, full cost/speed/accuracy metrics, and a shareable PDF report.

See sample reportsContact us
Practical quantum algorithms — built for results.
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Open-source library, end-to-end platform, and enterprise services for applied quantum computing.

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