PRISM-Q / DISCRETE PORTFOLIO DECISIONS

More possibilities.
One checked decision.

Explore candidate baskets under your constraints. Refine them with PRISM. Bring back decisions your platform can inspect.

Scope a PRISM-Q pilot
PRISM-Q / FROM PORTFOLIO TO PROPOSALEXPLORE THE TWO COMPUTE REGIONS
PRISM-Q

Your portfolio.
A checked proposal.

Bring holdings, targets and constraints into PRISM. Refine weights and proposed trades, then check the resulting allocation.

01 / OPTIMIZE · REBALANCE · VERIFY

Weights · trades · validationHolding limits · risk · tax · costIllustrative portfolio flow
Conceptual isometric illustration of connected compute boards, server racks and a cryostat representing PRISM-Q’s classical and quantum simulation workflow.

Conceptual architecture · Illustration: NVIDIAPRISM-Q’s simulation workflow is built with NVIDIA CUDA-Q

A WORKFLOW FOR YOUR INVESTMENT PLATFORM

Choose the holdings.
Keep the whole portfolio in view.

01 / FRAME THE CHOICE

Your book. Your constraints.

Define the investable universe, eligible baskets, holding limits and account rules for a scoped asset-selection problem.

02 / EXPLORE & REFINE

Bring candidates into PRISM.

Explore discrete asset-selection choices through quantum simulation. Pass candidate baskets into classical portfolio optimization.

03 / INSPECT THE RESULT

A decision you can review.

Check feasibility, risk, tax and trading costs under the agreed model. Inspect the proposed allocation and trades before execution.

SCOPED PILOT & INTEGRATION

Put your decision
through the workflow.

Bring a representative portfolio and a discrete selection problem. Together we define the model, classical comparison, acceptance gates and integration output.

Request a PRISM-Q pilot Explore PRISM integration

8-week paid pilot · scope and acceptance agreed before kickoff

Method & evidence

Simulation, refinement and verification

PRISM-Q’s simulation workflow is built with NVIDIA CUDA-Q. The simulation workflow explores discrete candidate baskets. Candidate baskets return to classical PRISM optimization and checks; the classical decision remains available when a candidate does not meet the agreed acceptance gate.

No physical QPU execution or measured incremental quantum advantage is established. Historical PRISM-Q numerical records do not establish current speed, quality or deadline performance. A scoped pilot evaluates the agreed workflow against its classical reference on quality, feasibility, deadline and cost.

The NVIDIA NVQLink illustration represents a conceptual hybrid compute environment; it is not a photograph of a deployed Asymmetry facility. Moving trade tickets, candidate rows, weights and timings are explanatory animation; no PRISM solver, CUDA-Q simulation, physical QPU or market order executes in this page.

NVIDIA CUDA-Q simulation backend documentation