Blocked
A supplied requirement or constraint is not met; revise the scope or close the conflict.
AI & digital infrastructure
Turn AI infrastructure assessments and post-quantum requirements into feasibility gates, a conditional architecture and an evidence-led acceptance plan.
Move from an assessment gap to a decision you can defend.
The operating flow
Bring current observations, operator attestations and unresolved findings together with future task, quality, latency, budget and migration requirements.
Assess capacity, resource envelopes, cost, quality, latency, provenance, inventory and migration dates independently. Missing evidence stays unknown; conflicting constraints remain blocked.
Trace proposed components and design choices to requirements, gate IDs and assessment findings. Export the requirements, decisions and architecture proposal in JSON and Markdown.
Sequence the baseline, measured pilots and release criteria. Assign responsibility for evidence, independent verification, recovery and operational acceptance before implementation.
Assessment → feasibility → solution architecture
An assessment identifies current gaps. A future-state design also needs explicit demand, service targets, dates and budgets. AssetSolve joins the two so each proposed component has a reason, each constraint is visible and the next evidence request is concrete.
Evidence-aware feasibility
A serving-size calculation does not settle quality, latency, affordability or migration readiness. The workbench evaluates these boundaries independently and records the basis for each result.
A supplied requirement or constraint is not met; revise the scope or close the conflict.
An input, measurement, relevant inventory or supporting review is missing.
The declared assumptions satisfy this comparison; target-system evidence and acceptance remain necessary.
Use measured accepted-task demand, matching per-replica throughput and explicit reserve headroom. Compare corresponding capital, annual cash operating-cost and power estimates with declared budgets.
Evaluate the quality floor, observed latency and cost per accepted task independently. Meeting one target does not compensate for missing evidence or a failed target elsewhere.
Pin the model, backend, device, workload and measurement boundary. A typed reference remains subject to source and independence review.
Review inventory evidence and a staged migration schedule against selected policy scope and the requested future-state date. Preserve supplier and application dependencies.
Keep actual algorithm negotiation, interoperability, target-workload overhead and recovery as acceptance evidence. Published examples do not pass this gate.
Require a named workload and classical baseline, an independent verifier, supplier/access proof and full resource constraints. Keep quantum pathways outside inference-capacity and savings assumptions.
Serving replica sizing requires accepted-task demand, matching measured throughput and explicit reserve headroom. The estimate describes sustained load; queueing, outages, memory fit and topology still need their own measurements.
Capital, annual cash operating cost and power comparisons need corresponding per-replica evidence and budgets. The same migration plan can meet one selected scope and miss another milestone or the customer’s earlier requested date.
Conditional reference architecture
The generated proposal names controls and links components to requirements, feasibility gate IDs and relevant assessment findings. Inventory, migration and crypto-agility services shown here are proposed architecture responsibilities, not a claim of a deployed customer service.
Propose identity, trust and algorithm-change boundaries with explicit review and recovery requirements.
Define task admission, delegated actions, resource budgets and escalation around an agreed acceptance contract.
Connect model and workload identity to measured capacity, quality, latency, resource use and deployment constraints.
Retain accepted-task criteria, source references, test results and decisions that reviewers can independently inspect.
Specify the cryptographic evidence, policy assumptions, dependencies and migration-calendar responsibilities needed by the proposed design.
Plan comparable baselines, constrained experiments and operating measurements before accepting an improvement.
Requirement → feasibility gate → proposed component → decision → acceptance evidence
Reviewable design deliverables
Workload, service targets, dates, budgets, selected policy scope and the evidence boundary.
Blocked constraints, missing evidence, conditional comparisons, dependencies and responsible review actions.
Proposed components, controls and relationships linked to requirements, gate IDs and assessment findings.
Why a component or pathway was proposed, what assumptions it depends on, and what would change the decision.
A portable requirements-to-architecture record for engineering review and delivery handover.
Baseline, pilot and release criteria, including independent verification, recovery and customer ownership.
The workbench can export JSON and Markdown design packages. Its browser preview is stateless and does not change an assessment ledger, TLS settings, cluster or devices. Customer material is reviewed within the agreed engagement; the public website does not expose that private workbench or collect infrastructure credentials.
Freeze workload identity, accepted-task criteria, inventory evidence and the applicable policy assumptions.
Measure one bounded inference change and scoped PQC behavior, with independent quality, interoperability and recovery evidence.
Require accepted task outcomes, resource constraints, owned migration dependencies and delegated customer approval before widening the deployment.
Optional research pathway
The combined offering prioritizes classical inference infrastructure and post-quantum readiness. An optional quantum study compares remote/cloud access, vendor-operated co-location or an owned facility under the selected workload and constraints.
Name the classical baseline, algorithm, independent verifier, supplier/access contract, usable capability and expected job behavior. Review capital, annual cash operating cost, power, floor space and runtime with explicit assumptions.
Facility and decoder qualification, availability, queues and provider pricing require target-specific evidence. Provider-hosted access is evaluated separately from the cost of owning the provider’s entire facility.
9 registered quantum scenarios and the quantum planning calculator support planning. They do not demonstrate a quantum processor, quantum advantage, production capacity or customer savings.
If a pathway is selected, the proposal adds an isolated asynchronous solver adapter with an independent verifier, bounded error/cost/timeout contract and classical fallback. A roadmap receives no inference-capacity or energy-saving credit.
Validated toolkit, scoped customer evidence
The reviewed toolkit integrates 210 checks, 57 remediation templates and 6 calculators. Its 244 tests and 22 validation stages passed across 6 Windows/Linux cloud jobs. That evidence covers toolkit behavior, missing-evidence gates, traceability, protected requests and exports.
Production capacity, cryptographic migration, live inference performance, hardware recovery and compliance require evidence from the customer’s target environment. A design document preserves those obligations rather than replacing them.
The business case
Current-state findings, future demand and budget assumptions often sit in separate documents, making it difficult to explain whether a proposed architecture is feasible and what still needs proof.
Bind declared requirements to assessment findings, test explicit resource and policy constraints, then export traceable architecture components, decisions and phased acceptance work in JSON or Markdown.
One future-state workload and infrastructure boundary, explicit decision/target dates and budgets, a gate register, conditional design package and owned evidence plan. Initial assessment is free.
A conditional serving estimate uses accepted-task demand, matching measured throughput per replica and reserved headroom. Queueing, outages, model fit and topology need separate evidence before production acceptance.
Agree the baseline, comparable scope, adoption, review effort, and realization assumptions. Include delivery and operating costs; count each benefit once.
Application scope
People & systems
Enterprise and solution architects · AI infrastructure owners · Security and cryptography architects · Capacity and facilities planners · FinOps and investment reviewers · Delivery and assurance leads
Governed by design
The workbench produces a conditional architecture proposal. It does not approve procurement, execute infrastructure changes, establish a production serving size or certify compliance.
Typed measurements and evidence references remain declarations until their source, scope and independence are reviewed. A numerical comparison can be conditional without being operationally accepted.
Post-quantum inventory and migration components are proposed architecture requirements, not an already deployed cryptographic fleet service.
Optional quantum scenarios receive no inference-capacity or energy-saving credit. Workload, supplier capability, independent verification and full resource evidence are separate admission gates.
Read the workflow contract ↗A practical first scope
Start with a free initial assessment, then choose one future-state workload and infrastructure boundary. A scoped feasibility study produces the requirements baseline, gate register, conditional architecture, decision record, JSON/Markdown design package and phased acceptance plan. A written proposal defines any pilot, integration or implementation.
Questions, answered
Assessment describes current findings and evidence gaps. Feasibility adds explicit future-state requirements and constraints. Solution architecture then connects those requirements and findings to proposed components, decisions and an acceptance plan.
The toolkit exports JSON and Markdown containing the requirements, feasibility results, evidence gaps, architecture proposal, decisions, traceability and phased acceptance plan. A customer engagement reviews these outputs before implementation.
The corresponding gate remains in a needs-evidence state. Missing measured task throughput or reserved headroom leaves serving replica sizing unknown. A roadmap, token-rate claim or typed number does not supply independent workload evidence.
No. A conditional comparison means the supplied assumptions meet that calculation. Source evidence, queueing, outages, topology, interoperability, recovery and the customer’s delegated approval still require acceptance.
An optional study can compare remote access, vendor-operated co-location or an owned facility. It requires a named classical baseline, independent verifier, supplier capability, resource constraints and a bounded job contract with classical fallback. Scenarios are planning models, not demonstrated quantum advantage.
The initial assessment is free. Diagnostic, architecture, pilot and implementation work are proposal-based, with agreed scope, evidence, deliverables and acceptance criteria. Published enterprise engagement ranges remain indicative.
Connected products
AI & digital infrastructure
Connect AI data center assessment, feasibility and solution architecture. Evaluate GPU capacity, inference performance, memory, power and cost with explicit evidence gates and a scoped post-quantum readiness workstream.
AI & digital infrastructure
Review cryptographic inventory evidence, data confidentiality lifetimes, platform dependencies and migration schedules. Build a scoped post-quantum readiness and crypto-agility plan with explicit interoperability, performance and recovery gates.
Asset operations
An equipment-centered maintenance and overhaul workflow spanning commercial authorization, engineering, induction, planning, supply, execution, quality, and close.
Work with AssetSolve
Your initial assessment is on us. A first conversation about your challenge, use-case fit, and the right next step.