We support financial institutions in their quantum journey through a simulated quantum approach. Through Quantum Finance Industry Experimentation (Q-FINEX) as a platform, we bring a business challenge to a scaled, operational quantum solution, powered by the combined capabilities of GFTN (platform initiator and orchestrator), The University of Western Australia’s Quantum Information, Simulation and Algorithms (UWA QUISA) research group (research and validation), and ST Engineering (engineering and implementation).
GFTN created this testbed initiative to bring together three critical enablers: a global network of experts facilitating the gathering of use cases, specialised research capability, and a proven implementation partner. It provides a structured approach for finance teams to evaluate and compare classical, simulated, hybrid. and quantum-ready approaches grounded in data.

Journey of Quantum Development
Discover the journey of quantum development and how it has evolved into today's early machines, to industry-shifting breakthroughs by the 2030s, and a quantum-connected world beyond 2040.
IBM Eagle - 127 qubits
IBM Osprey - 433 qubits
IBM Condor - 1,121 qubits
2019
2021
2022
2023
2029
2035 and beyond
| What you care aboux t | Classical approaches (today) | What Q-FINEX adds | Why it matters |
|---|---|---|---|
| Decision confidence | Mature methods yield reliable outputs. | Evaluates your models against hybrid and quantum-inspired techniques. | See where classical already dominates, and where new methods are worth testing. |
| Speed & scale | Strong, but large problems can bottleneck fast. | Looks at optimisation and sampling challenges where hybrid methods may assist. | Even marginal improvements can translate to major institutional gains. |
| Risk & governance | Well-controlled, but rigid in experimentation. | Provides benchmarking, documentation, and recommendation packs. | Test safely, without early production commitment. |
| Future readiness | Incremental progression of existing tools. | Prepare quantum-ready solutions and repeatable specifications for future use. | Your models stay compatible with tomorrow’s hardware and software. |
GFTN Quantum Work Focus
There are 4 key quantum domains. The main focus for GFTN is on Quantum Computing and Quantum Security.
Quantum Domain |
Purpose |
Financial Services Examples |
Lead Partner(s) |
Q-FINEX Role |
|---|---|---|---|---|
QUANTUM COMPUTING |
Solve complex computational problems using quantum algorithms | Portfolio optimization, Monte Carlo simulations, risk analytics, derivatives pricing, fraud detection | GFTN, UWA QUISA (research & algorithms), GFTN (industry use cases), ST Engineering (PoC & implementation) | Core focus |
QUANTUM SECURITY |
Protect systems against future quantum attacks | Post-Quantum Cryptography (PQC), Quantum Key Distribution (QKD), crypto migration, digital identity | GFTN, ST Engineering | Supporting capability |
QUANTUM COMMUNICATIONS |
Secure transmission of information using quantum technologies | Quantum-safe networks, secure financial communications, satellite QKD | GFTN, ST Engineering | Future capability |
QUANTUM SENSING |
Ultra-precise measurement and sensing | Limited direct financial applications today | GFTN, UWA QUISA (research) | Monitor developments |
Quantum Computing — Core focus
Purpose: Solves complex computational problems using quantum algorithms
Financial Services Examples: Portfolio optimisation, Monte Carlo simulations, risk analytics, derivatives pricing, fraud detection
Lead Partner(s): GFTN (industry use-cases), UWA QUISA (research & algorithms), ST Engineering (PoC & implementation)
Quantum Security — Supporting capability
Purpose: Protects systems against future quantum attacks
Financial Services Examples: Post-Quantum Cryptography (PQC), Quantum Key Distribution (QKD), cryptographic migration, digital identity
Lead Partners: GFTN, ST Engineering
Quantum Communications – Future capability
Purpose: Secure transmission of information using quantum technologies
Financial Services Examples: Quantum-safe networks, secure financial communications, satellite QKD
Lead Partner(s): GFTN, ST Engineering
Quantum Sensing – Monitor developments
Purpose: Ultra=precise measurement and sensing
Financial Services Examples: Limited direct financial applications today
Lead Partner(s): GFTN, UWA QUISA (research)
The Q-FINEX Engagement Journey
With the understanding that no two organisations are the same, every financial institution we engage with enters at the point that matches where they are today. Two separate pathways are created to accommodate institutions that are new to quantum, and institutions that are quantum-ready.
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Why Participate In Q-FINEX
Explore practical quantum options
Structured approach to real financial challenges
Work with emerging talent
Supervised groups trained in applied quantum algorithms
Plan for the future
Reviews and evaluations to guide investment and capability development
Connect globally
Selected work may be shared at GFTN Forums with industry and policy leaders
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What You'll Receive
For each selected use case, you will get a tailored package that may adequately include one or more of the following:
Prototype for testing
Model definition, classical baseline, hybrid test setup, and runnable environment.
Benchmark summary
Metrics, assumptions, datasets, and side‑by‑side results.
Challenge specification
One‑page summary of objectives, constraints, and success metrics.
Optional: demo & pilot discussion
Short walkthrough and partner evaluation if both sides agree to explore further.

How Q-FINEX Can Support You
Ideal Use Cases
- Portfolio optimisation, liquidity or treasury management
- Collateral allocation or scheduling
- Risk scenario generation or Monte Carlo sampling
- Pricing and calibration challenges
- PQC transition planning (optional track)
Have an idea for a quantum use case?
Contact us for a workshop or meeting to assess fit, scope, and timeline.
Frequently Asked Questions
In most cases, no. Classical approaches remain dominant for practical applications. Q‑FINEX helps you explore whether quantum or hybrid methods might add value and provides realistic, evidence-based recommendations for next steps tailored to your specific use case. Quantum advantage is not guaranteed and strongly depends on the structure and complexity of the problem.
Not yet for most practical applications. Current quantum systems only outperform classical machines in very specific benchmarks. However, hybrid and quantum-inspired approaches are beginning to show benefits in modelling and scalability, which may pave the way for future improvements.
You’ll receive a prototype to review and a concise decision memo to help guide your evaluation. These are exploratory and not intended for production use.