Rapid Quantum Prototyping (RQP) by qubit-lab.ch

Explore finance use cases with your own data, configurable quantum workflows, classical baselines, and structured outputs.

RQP turns quantum exploration into a workbook-driven business workflow: configure a structured use case, upload or define your own data, run controlled classical and quantum experiments — including against your own baselines — inspect logs and diagnostics, then export reports, raw results, and reproducible notebooks.

What RQP is for

Learning by doing

build real quantum intuition on working workflows, not slides.

Testing your own use cases

your data, your constraints — workbook in, certified report out.

Benchmarking honestly

every quantum result checked by an exact classical referee, and compared against your own existing models if you bring them.

Tuning like a pro

adjust QAOA depth, warm starts, feature maps, and shot budgets — and see the effect on certified results.

Deciding with evidence

stop/go and build-vs-buy backed by certified numbers, not vendor claims.

RQP is a controlled lab: deliberately prototype-scale so the exact referee can certify every result. The evidence decides what is worth building for production — and everything you create stays yours.

Typically used within the six-week RQP Exploration — see the Lean Quantum Exploration process.

Evidence, not promises

The numbers behind the demos — unedited.

Three published sample runs: QAOA matching the certified optimum across 8.4 million portfolios, every S&P 500 mandate rule priced in tracking error — and the QML run where the honest, measured answer was “not yet”.

Business-case view

Start from the business problem, then test the quantum workflow.

The public RQP view is intentionally use-case led. The quantum method matters, but the first question is whether a relevant business problem can be formulated, tested, benchmarked, and explained in a structured way.

Business caseWhat RQP helps testWorkflow / methods

Portfolio optimization and capital allocation

Test constrained allocation, budget rules, risk-return trade-offs, QUBO formulation, QAOA sampling behavior, and classical baseline comparison.

Optimization RQP

QAOA

Index replication and lean tracking mandates

Test compact replication baskets under real mandate rules: fixed holdings, building blocks, exclusions, and type budgets, with a certified optimum and the cost of each rule in basis points.

Index Replication RQP

QAOA / MIQP

Credit, fraud, and anomaly classification

Test structured feature sets, quantum feature maps, classifier behavior, suitability diagnostics, and comparison with classical machine-learning baselines.

QML RQP

VQC / QSVM

Client segmentation and behavioral pattern testing

Explore nonlinear pattern-recognition workflows, feature encoding choices, model diagnostics, and benchmark results for segmentation-style problems.

QML RQP

VQC / QSVM

Derivatives pricing and payoff expectation estimation

Test payoff expectation workflows, distribution preparation, sampling budgets, convergence behavior, and amplitude-estimation-style methods.

QMC RQP

QMC / QAE

Risk scenario analysis and rare-event probability estimation

Explore low-probability event estimation, convergence, shot budgets, sampling efficiency, and resource diagnostics.

QMC RQP

QMC / QAE

Scheduling, selection, and constrained optimization prototypes

Test binary or integer decision problems with constraints, penalties, diagnostics, quantum samples, and quantum-classical comparison.

Optimization RQP

QAOA

Why RQP

A practical bridge from use case to quantum evidence.

The advantage is not that every case becomes quantum-ready immediately. The advantage is speed, structure, and comparability: teams can test whether a quantum method is informative before investing in custom implementation.

Portfolio optimization and capital allocation
Index replication and lean tracking mandates
Credit, fraud, and anomaly classification
Client segmentation and behavioral pattern testing
Derivatives pricing and payoff expectation estimation
Risk scenario analysis and rare-event probability estimation
Scheduling, selection, and constrained optimization prototypes

Quantum methods behind the workflows

The algorithms are used as tools, not as the starting point.

RQP keeps the algorithmic details visible for technical review, but the workflow starts from the business use case, input structure, constraints, diagnostics, and benchmark comparison.

QAOA

Quantum Approximate Optimization Algorithm

Samples candidate configurations and aims to bias probability mass toward low-cost or high-quality solutions. Used for portfolio allocation, risk optimization, scheduling, and constrained selection.

QAOA / MIQP

Index Replication

Selects a compact basket from fixed core holdings, basket-traded building blocks, and single lines, with exclusions and type budgets. An exact solver certifies the optimum and reports the tracking-error cost of every mandate rule.

QAOA / MIQP

Feature Selection

Selects features under business rules classical selectors cannot express - must-include policies, all-or-nothing bundles, exclusive variants, and type budgets conserved natively by an XY mixer. An exact solver certifies every selection, an out-of-sample holdout validates it, and the result ships as a ready-to-run QML package.

VQC

Variational Quantum Classifier

Tests structured feature sets for classification use cases such as fraud detection, credit scoring, client behavior, and other nonlinear decision problems.

QSVM

Quantum Support Vector Machine

Maps classical data into quantum feature space and applies kernel-based classification. Used to test whether quantum feature maps can improve pattern recognition for anomaly detection, credit scoring, or segmentation.

QMC / QAE

Quantum Monte Carlo / Quantum Amplitude Estimation

Prepares a probability distribution, maps outcomes to payoffs or events, and reads out the expectation using quantum sampling or low-depth amplitude-estimation variants. The lab compares quantum methods against classical Monte Carlo using accuracy, convergence, budgets, oracle calls, and resource diagnostics.

Data handling

Files you upload to the RQP tools are processed on Google Cloud infrastructure solely to run your prototype job and produce the associated results, reports, and exports. Your data is not shared with third parties and is not used for any other purpose. For early evaluations we recommend working with anonymized or synthetic data; specific data-handling, retention, or residency requirements can be discussed as part of an engagement.

Explore the fit

Want to know more about RQP and the qubit-lab.ch offering?

Please get in touch for a short conversation about how Rapid Quantum Prototyping could support your team, help assess relevant use cases, and shape possible next steps for working together.