Capacity
Model weights, KV cache, context, concurrency and memory reserves.
AI & digital infrastructure
Connect AI data center assessment, GPU inference feasibility and solution architecture. Review capacity, power, cost and evidence gates with AssetSolve.
More useful inference. A defensible infrastructure decision.
The operating flow
Freeze model, precision, context, concurrency, quality floor and latency targets. Record the source and age of every material input.
Evaluate GPU memory, cache state, bandwidth, compute, utilization, power and facility limits. Keep measured observations distinct from estimates and operator attestations.
Compare future-state demand, quality, latency, power and budget constraints with the current evidence. Unknown inputs remain evidence gates; policy applicability and migration schedules are explicit.
Produce a conditional architecture, traceable decisions and phased acceptance plan. Agree a bounded customer pilot and require qualified approval and verified recovery before production changes.
Data Center AGI Inference / engineering scope
A GPU purchase, a serving-engine change and a cooling investment share one question: how much accepted work will this infrastructure deliver? AssetSolve brings the workload, resource constraints and business case into one reviewable decision.
Full-stack coverage
Open a channel to see the engineering questions and the deliverable. Applicability depends on the workload, platform and evidence available.
Relate IT load to facility overhead, cooling assumptions and the site power envelope. Review liquid- and warm-water-cooling scenarios with qualified facility engineers.
Review output: Facility-boundary energy scenario and constraints register.
Account for host, network and other IT overhead alongside accelerator draw. Preserve separate boundaries for device, server, rack and facility measurements.
Review output: An explicit resource and metering boundary.
Assess idle draw, clocks and power-cap scenarios against throughput, latency and recovery requirements. Average energy use and provisioned peak capacity answer different questions.
Review output: Power/performance scenario with approval and recovery prerequisites.
Evaluate pooling, reserves, headroom, forecast scaling and deferrable demand. Keep queueing and tail-latency targets visible when increasing utilization.
Review output: Demand, headroom and service-target sensitivity analysis.
Evaluate continuous batching, chunked prefill, quantization, speculative decoding and prefill/decode separation where workload and engine support permit.
Review output: Workload-specific candidate levers and quality/latency tests.
Compare model and expert placement, cache locality, communication cost and hardware constraints before choosing a distributed serving layout.
Review output: Placement assumptions, dependencies and bottleneck analysis.
Size model weights and KV cache against context and concurrency. Examine prefix reuse, cache tiering, compaction lineage and state traffic rather than memory capacity alone.
Review output: Capacity and state plan with documented reserves.
Define useful output and token budgets. Count retries, rejected responses and review work; compare alternatives only at an equivalent acceptance boundary.
Review output: Frozen workload manifest and accepted-output definition.
Use capacity, roofline and fleet models to examine memory fit, bandwidth and compute ceilings, device counts and provisioned power. Validate analytical bounds against customer measurements.
Review output: Hardware-fit and fleet-capacity scenarios.
Connect resource use to electricity prices, carbon factors, capital recovery and grid constraints. Keep assumption-driven forecasts separate from realized financial benefits.
Review output: Transparent investment case with sensitivities and exclusions.
Inside the delivered toolkit
The combined registry separates 136 operator attestations, 40 calculator checks, 23 composite checks and 11 metric checks. The nine added quantum/post-quantum checks are operator attestations; they do not scan an enterprise cryptographic estate. Missing evidence stays visible; a completed checklist is distinct from a measured production outcome.
Model weights, KV cache, context, concurrency and memory reserves.
Resident state, attention/cache architectures, storage and traffic.
Bandwidth, compute and arithmetic-intensity limits on prefill and decode.
Device counts, resident workload state and provisioned power.
Energy, cost, carbon and useful throughput within a defined boundary.
Conditional resource, facility and access-economics scenarios with separate workload and verification gates.
The reviewed combined toolkit passed 244 tests and all 22 validation stages in each of 6 Windows/Linux jobs across Python 3.10, 3.12 and 3.14. Its evidence set includes 268 source records, the reproduced inference reference and a reviewed quantum-planning reference. These checks validate toolkit behavior; they do not establish customer fleet efficiency, production serving integration or savings.
Assessment, plan and ledger views support read-only review. The workbench adds stateless feasibility previews and JSON/Markdown design exports. Sequenced recommendations retain applicability, dependencies and conflicts. All four added quantum/post-quantum remediation templates remain manual.
Integration & delivery
Connector code accepts manifests, OpenMetrics, engine arguments, accelerator observations and Kubernetes inventory, including mappings for vLLM, SGLang and DCGM. Live permissions, platform versions, metric semantics and workload coverage are verified within the customer engagement.
Serving changes, GPU controls and cluster mutations require a separately authorized implementation and tested recovery path. Hosted review does not execute production changes.
Bridge the infrastructure value case to investment planning, procurement, asset maintenance and finance through an agreed system-of-record contract. SAP, Oracle, BTP and Joule integration can be scoped as part of the wider enterprise program; it is not a native connector claim for this toolkit.
Define the operating question, workload owner and evidence access.
Deliver the baseline, missing-evidence register, scenarios and prioritized plan.
Compare equivalent quality and latency targets; test failure and recovery.
Agree customer integration, operational ownership, rollout and support.
Assessment → feasibility → solution architecture
Bring task demand, quality, latency, per-replica evidence, capital and operating budgets, power and explicit target dates into the feasibility review. Blank measurements remain unknown. The output identifies blocked gates, missing evidence, conditional decisions and an owned acceptance plan.
Explore Infrastructure Feasibility & Solution Architecture ↗Review inventory evidence, confidentiality lifetimes, supplier dependencies, policy scope and migration schedules alongside infrastructure choices. The workbench produces a plan for target-system verification; it does not install algorithms, scan live cryptographic systems or authorize a migration.
Explore Post-Quantum Readiness ↗The sixth calculator and nine quantum scenarios support separate research questions about resources, facilities, access economics and migration timing. A quantum roadmap or typed input contributes no inference-capacity or energy-saving credit. Production capacity and cryptographic migration require evidence from the target systems.
The complete operating context
Connect electrical and cooling asset findings to engineering review and approved maintenance.
Retain controlled inspection subjects, readings, failures and accepted corrective evidence.
Coordinate equipment, parts, engineering, work execution and quality handover.
Connect permits, isolation, work eligibility and reinstatement with qualified site authority.
Explore workload quality, context, state, recovery and cost per verified task.
Align accepted operational evidence with investment, cost and financial reconciliation.
Engineering reference points
Independent documentation helps define benchmark scenarios, telemetry and resource boundaries. References describe the underlying technologies; they do not imply certification, partnership or endorsement of AssetSolve.
The business case
Infrastructure decisions separate workload quality, GPU capacity, facility constraints and financial assumptions, leaving teams without a common baseline.
Connect six engineering/planning calculators, a 210-check assessment and 57 remediation templates to future-state requirements, feasibility gates and a conditional solution architecture.
One workload and infrastructure boundary: freeze the input manifest, review evidence coverage, compare resource/cost constraints and produce a conditional design with owned pilot acceptance criteria. Initial assessment is free.
Cost per accepted task = total in-scope workload and facility cost ÷ tasks meeting the agreed quality and service targets. Compare equivalent workloads; validate scenario estimates against customer measurements.
Agree the baseline, comparable scope, adoption, review effort, and realization assumptions. Include delivery and operating costs; count each benefit once.
Application scope
People & systems
Data center operators · AI platform engineers · Infrastructure architects · Capacity and facilities planners · FinOps and investment teams · Enterprise risk reviewers
Governed by design
The hosted toolkit review is read-only. Operational execution is a separate, customer-authorized activity with explicit scope and recovery criteria.
AGI describes the forward-looking infrastructure problem space. The delivered toolkit provides deterministic engineering assessment and planning.
Customer production telemetry, serving-engine integration, quality impact and realized savings must be established in the engagement. Toolkit validation does not establish fleet performance.
Facility controls, production cluster changes and ERP postings remain with the customer’s authorized systems and people.
Read the workflow contract ↗A practical first scope
Start with a free initial assessment. Scope one workload and infrastructure boundary, then define future-state requirements, evidence coverage, capacity/cost scenarios, feasibility gates and a conditional architecture. Add a post-quantum inventory and migration-plan review where relevant. Paid delivery follows a written proposal with pilot acceptance criteria.
Questions, answered
A connected assessment, feasibility review and conditional solution architecture for AI infrastructure. The scope covers GPU sizing, state/cache, utilization, energy, cooling, economics, evidence gaps and an acceptance plan. Customer integration and production outcomes require target-system validation.
The workbench connects current findings with declared future-state requirements and exports a conditional architecture, decisions, evidence gaps and phased acceptance plan in JSON or Markdown. Design generation does not authorize infrastructure changes.
A scoped workstream reviews cryptographic inventory evidence, applicable policy assumptions, supplier dependencies and migration schedules. Quantum scenarios remain planning models. The reviewed toolkit has not scanned a customer cryptographic fleet, tested a live TLS endpoint or performed a production migration.
No. AGI is the research and infrastructure-planning context. The current product is a deterministic assessment and planning toolkit, with reproducible calculators and explicit evidence requirements.
The toolkit includes evidence connectors for manifests, OpenMetrics, engine arguments, accelerators and Kubernetes, with mappings for vLLM, SGLang and DCGM. Each customer’s live access, versions, mappings and outputs require validation. SAP, Oracle, BTP and Joule business integration is separately scoped.
Compare an agreed baseline and candidate using the same workload, quality threshold, latency target and accounting boundary. Include rejected outputs, retries, review effort and facility overhead. Scenario estimates are planning outputs; customer savings require measured results.
Combine the inference capacity and efficiency assessment with AssetSolve’s asset reliability, inspection, maintenance, safe-work and controlled-change offerings. Facility authorization and operational safety remain with qualified site authorities.
The initial assessment is free. The proposal defines the diagnostic, integrations, bounded pilot, acceptance evidence, implementation and support terms. Indicative enterprise engagement ranges are published on the pricing page.
Connected products
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.
AI & digital infrastructure
Connect AI infrastructure and post-quantum readiness assessments to future-state requirements, evidence gates and a conditional solution architecture. Review capacity, quality, latency, cost, resource and migration constraints before committing to implementation.
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.