
Question → model
Turn a research question into a visible workflow
Structure circuits, parameters, classical steps, notes, and review checkpoints on one canvas before committing scarce execution time.
As part of our ongoing work with IBM, we are shaping the next QFlow Studio roadmap around IBM Quantum and Qiskit, visual workflows, AI-assisted development, and a traceable evidence layer—making quantum computing easier to learn, explore, and apply.
01
Understand
Make the question and constraints explicit
02
Build
Connect workflow, code, and runtime context
03
Evidence
Keep results reusable and reviewable

Visual
Question to workflow
Assisted
Workflow to implementation
Traceable
Execution to evidence
QFlow keeps human intent visible while technical detail accumulates. Each stage remains connected, inspectable, and ready for the next learner, engineer, researcher, or reviewer.

Question → model
Structure circuits, parameters, classical steps, notes, and review checkpoints on one canvas before committing scarce execution time.

Model → implementation
Connect implementation artifacts to the model so a learner, developer, or reviewer can move between intent, code, and circuit state without losing context.

Implementation → execution
Make account, instance, backend, execution mode, estimated usage, and transpilation choices understandable before a workload is submitted.

Execution → evidence
Preserve the job reference, runtime context, artifacts, post-processing, baseline, and review outcome as a reusable experiment record.

FIG 02 · Roadmap concept visual — not a released integration screen
IBM Quantum supplies the infrastructure, access services, execution environment, and Qiskit software context. QFlow Studio is being shaped as the layer that helps people move from questions to workflows and from experiments to reusable evidence.
IBM Quantum + Qiskit
QFlow Studio
Roadmap statement: named technologies describe the intended technical context. Capabilities roll out in stages; availability depends on QFlow release status and IBM plan, region, permission, and service terms.
The objective is not simply to demonstrate quantum technology. It is to make learning, experimentation, review, and enterprise evaluation more understandable, practical, and scalable.
Reusable modules for universities and research teams that connect learning objectives to workflows, code, execution records, results, and instructor or peer review.
Guided visual workflows and AI-assisted Qiskit development for students and developers, with human confirmation before code or workloads move forward.
Stage-gated pilots for quantum-safe migration and optimisation, defined by a measurable question, classical baseline, resource budget, evidence criteria, and an explicit stop or scale decision.
Help teams understand account, instance, plan, credit, subscription, and usage context. Provider eligibility and commercial terms remain governed by IBM and can vary over time.
Keep the question, workflow, source, ISA-ready artifact, execution reference, runtime context, raw result, post-processing, and decision connected across every iteration.
Each route starts with a different question, but all three retain the workflow, implementation, execution context, result, and decision that made the work useful.

Education
Roadmap scenario visual
Students build, inspect, and explain quantum workflows while instructors review progress and evidence—not only a final answer.

Research
Current product interface
Research teams retain the implementation and runtime conditions required to inspect, reproduce, compare, or extend an experiment.

Enterprise
Roadmap scenario visual
Teams compare a quantum or quantum-safe approach with an agreed baseline, cost envelope, security constraints, and review gate.
QFlow will publish capability status as the roadmap progresses. AI suggestions remain reviewable, provider access stays subject to provider terms, and no workload reaches hardware without an explicit human action.
A screenshot is not evidence. QFlow’s target evidence model connects the decisions and artifacts required to inspect what ran, under which conditions, what it produced, and why the team accepted or rejected the result.
Evidence manifest · target model
QFLOW-RUN / REVIEWABLE RECORD
The problem, success measure, classical comparator, and stop condition.
Versioned workflow, source code, circuit, parameters, and ISA-ready artifact.
Provider, region, instance reference, backend, execution mode, and calibration context—never secrets.
Qiskit and package versions, transpiler configuration, seed, shots, precision, and mitigation choices.
Job, batch, or session reference; timestamps; status; estimated and actual QPU usage where available.
Raw result, post-processing version, comparison with baseline, reviewer notes, and next action.
Security boundary: account references may be recorded; API keys, tokens, and provider secrets must never enter the experiment manifest.
The roadmap follows Qiskit’s map, optimise, execute, and post-process pattern, while adding the programme, workflow, and evidence context teams need around it.
Infrastructure, plans, instances, systems, runtime, and workload context
Circuits, transpilation, primitives, execution patterns, and post-processing
Workflow definitions, source, OpenQASM where applicable, and portable evidence
Visual orchestration, assisted development, programme flow, and evidence continuity
QFlow Studio is Neura Parse’s visual quantum workflow and evidence product. It is designed to connect questions, workflow models, code, execution context, results, and reviewable evidence in one traceable process.
IBM provides quantum infrastructure, account and instance services, runtime access, and the Qiskit software stack. The QFlow roadmap focuses on the accessible workflow, AI-assisted development, and evidence layer around that technical context. Availability depends on provider plans, regions, permissions, and product rollout status.
No universal credit or subscription entitlement is implied. The roadmap aims to make account, instance, plan, eligibility, and usage choices easier to understand while IBM remains the source of its plans, pricing, credits, and access terms.
They begin as bounded pilots. Optimisation work must retain a classical baseline and resource budget; quantum-safe work is a cryptographic discovery and migration programme, not a QPU algorithm. Production adoption follows only after evidence, security, cost, and governance review.
Plan a university programme, reproducible research workflow, quantum-safe readiness pilot, or bounded optimisation study with explicit scope, access assumptions, review gates, and success measures.