Power, PUE, energy price, capex, utilisation, demand, fleet mix, firming, region, commissioning horizon, contracting model — declared under unit contracts, with LLM-assisted ingestion from DCIM and schematic-derived exports.
Subvectio turns declared inputs into golden-value-tested economics across three control points: data-centre economic analysis, AI agent workload control, and enterprise FinOps governance. One deterministic engine is the source of truth for every money number — GenAI drafts and explains, it never computes. Benchmarked to ACU Markets.
Price a site or fleet against global benchmark compute pricing, energy, carbon and fleet efficiency — before capital commits.
For DC financiers, developers, infra investors, CIOsRoute every workload to the most proficient agent on accuracy, economics and speed via Vector AI.
For AI/ML and platform leadsMeter spend and utilisation against the engine's expectations. Catch overspend, leakage and bill-shock before they go structural.
For CFOs, CPOs, FinOpsEvery figure across all three vectors is traceable through the same geometry: declared input vectors, one deterministic simulation engine, golden-value-tested outputs, and an independent ACU Benchmark reference. The vectors differ; the spine does not.
Every figure across all three vectors starts as declared input vectors under explicit unit contracts — no hidden assumptions, no silent defaults. Bills, contracts, telemetry and engineering prints enter as data, not folklore.
Golden-value regression fixtures pin every calculation — across the wire and across releases. Racks, stacks, pathways, routing and spend all resolve through the same simulation core.
VECTOR Copilot classifies, extracts, explains and drafts inputs and scenarios from bills, contracts, telemetry and engineering prints — but never produces a financial figure. That rule is non-negotiable.
Every economic case links to ACU Benchmarks — the AI compute benchmark — so pricing, sensitivity and negotiation positions stand on an independent reference point.
For data-centre financiers, developers, infrastructure investors and CIOs.
Turn engineering prints into an investment-grade economic case — benchmarked against global compute pricing, energy, carbon and fleet efficiency — before capital commits.
Every site and fleet case is priced against ACU Benchmarks and observed rental-market surfaces — hyperscaler, colocation, owned and marketplace pathways side by side, on identical terms. Output: $/PFH-style unit economics and a negotiation corridor.
Power, PUE, energy price and firming enter as declared vectors. The engine computes energy-adjusted economics — useful output per watt, cost of power as a share of delivered compute, PUE and cooling sensitivity, MW forecasts, utilisation break-even.
Carbon intensity is a first-class diagnostic, aligned to the ACCARB carbon-index family — carbon per unit of useful output, grid-mix and firming sensitivity — so the case survives ESG and investment-committee scrutiny.
Accelerator mix, GPU efficiency, useful output per accelerator-hour, power density and workload class feed the useful-output denominator — two sites with identical nameplate MW compared on delivered compute, not capacity.
Capacity, stack design and infrastructure capital simulated across pathways with full sensitivity — capex/opex trade-offs, deployment horizon, and a case a financier can take to an investment committee.
Power, PUE, energy price, capex, utilisation, demand, fleet mix, firming, region, commissioning horizon, contracting model — declared under unit contracts, with LLM-assisted ingestion from DCIM and schematic-derived exports.
Deterministic simulation of racks, stacks and pathways; full economic case, sensitivities and negotiation corridor.
Design analysis, sensitivity tables, benchmarked $/PFH-style unit economics, and an investment-grade case linked to ACU Benchmarks.
Proof: golden-value tested, traceable to declared vectors, ready for investment-grade scrutiny. Scope: Subvectio reads structured DCIM/schematic-derived exports and translates rack, power, cooling, accelerator, utilisation and commercial assumptions into useful-output economics — it is not a DCIM replacement, a CAD/BIM editor, or an arbitrary schematic parser.
For AI/ML leads, platform engineering and product owners running agentic or model workloads.
Maximise AI capability per dollar — Vector AI routes every workload to the most proficient agent on accuracy, economics and speed, deterministically.
Vector AI dispatches each workload to the most capable named or open-source agent on three axes — accuracy, economics and speed. Routing decisions are computed, not guessed.
Match the task class to the model that clears it best per dollar — avoiding over-provisioned frontier-model spend on tasks a smaller or open-source model handles at a fraction of the cost.
Agent chains multiply calls and cost silently. Vector AI makes the cost of an agentic workload explicit and routable before it expands into a structural line item.
Vector Agent is an RBAC-governed entry point for AI-agent workload control — user-facing agent orchestration stays separate from deterministic financial truth.
ROI, model-task routing and bill-shock stress are deterministic calc-engine capabilities — exposed as API endpoints, agent tools and interactive UI. "Which agent, at what cost, for what return" is a computed answer.
Workload definitions, task classes, model/agent catalogue (named + open-source), accuracy/latency/cost constraints, budget envelope.
Deterministic proficiency scoring and routing; ROI and bill-shock stress modules.
Per-workload routing decision, expected cost and ROI, capability-per-dollar view, overspend early-warning.
Boundary: VECTOR Copilot supports ingestion, mapping, prompted insight and report generation. Deterministic engine modules remain the source of financial truth — routing economics are computed, never generated.
For CFOs, CPOs, FinOps leads and procurement — AI spend intelligence and workload economics, not generic AI FinOps.
A control tower for AI spend — govern budget, utilisation and efficiency by metering reality against what the engine said it should cost.
SSO/IAM into role-based access, versioned scenarios, a clean API surface and optional MCP/CLI — built for how enterprises actually govern platforms. Every AI dollar gets a decision basis — computed, never generated.
Meter application and agent billing against the engine's expectations to catch overspend, leakage and bill-shock before they become structural line items. Budget exposure is tracked continuously, not reconciled after the invoice.
Detect under-utilisation across models, agents and infrastructure; surface idle and leaking spend; tie utilisation to the useful-output denominator so "are we getting value from what we pay for" is a measured answer.
Model-fit, leakage elimination, right-sized routing (fed from Vector 2) and output-adjusted economics compound into measurable efficiency gains — quantified against the engine's baseline, benchmarked to ACU.
Bills, billing exports, invoices, telemetry, contracts, budgets, EDPs, discounts, private pricing — LLM-ingested, deterministically normalised.
Metered-vs-expected reconciliation; overspend, under-utilisation, leakage and bill-shock detection; budget-exposure and output-adjusted economics.
A live control tower — variance alerts, utilisation view, leakage register, efficiency-gain tracker, auditable decision basis per dollar.
Copilot boundary: the workbench FinOps copilot explains variances and drafts scenarios; the deterministic engine and metered data produce every figure.
Not one vector through a geometry — three linked economic control points across the full delivered-compute lifecycle, reconnected on the same spine.
Subvectio's buy-side layer converts data-centre engineering prints into observed economics (Vector 1).
ACU provides benchmark-based treasury instruments for data-centre and compute exposure — the independent reference the economics link to.
Vector AI routes and prices every workload to its most proficient agent (Vector 2).
The enterprise FinOps control tower meters spend and utilisation against the engine's expectations (Vector 3).
The same declared-input → deterministic-engine → traceable-output geometry runs end to end. A customer can price a proposed 300 MW site, route the workloads that will run on it, and govern the enterprise spend that consumes it — all against one benchmarked source of truth. That is the delivered-compute economic value chain.
The engine is the source of truth for money numbers — GenAI never computes a financial figure.
Fixtures pin every calculation: same inputs, same answer, every release, across the wire.
Independent AI compute reference — powered by ACU Markets, not co-branded or endorsed.
No silent defaults, no hidden assumptions — every input is declared and traceable.
SSO/IAM, RBAC, versioned scenarios, a clean API, optional MCP/CLI.
Restricted-network and true air-gapped modes are distinguished, not blurred — shipped vs. roadmap is always labelled.
Investment-grade site and fleet economics — benchmarked against pricing, energy, carbon and fleet efficiency — before capital commits.
Data Centre Economic Analysis →Maximum AI capability per dollar via deterministic proficiency routing across named and open-source agents.
AI Agent Workload Control →A control tower governing spend, utilisation and efficiency against the engine's expectations — before bill-shock goes structural.
Enterprise FinOps Control Tower →Decades of technology procurement, enterprise software and corporate expertise — applied to the AI compute economy.
Technology procurement expert in cloud infrastructure sourcing and pricing; founded ACU Markets to fill the market gap for standardized AI compute benchmarks.
Gavin is an experienced technology and strategy executive with more than 20 years' leadership experience across cloud architecture, digital infrastructure, enterprise transformation and operational delivery. During nine years at Microsoft, he served as Azure Engineering Director for Australia and New Zealand, where he led regional strategy, capability development and investment across the Azure ecosystem and supported complex enterprise transformation initiatives.
As Chief Technology Officer of ACU Markets and Subvectio.AI, Gavin is responsible for the group's technology strategy and platform development. He leads the technical evolution of ACU Markets' independent AI compute benchmarking and market-data infrastructure, together with Subvectio.AI's enterprise compute-economics and decision-support platform. His experience in building secure, resilient and scalable technology environments is central to the group's objective of establishing trusted infrastructure for the emerging global AI compute economy.
Two decades transforming and scaling businesses; drives execution and operational excellence, building institutional-grade benchmarks for the AI compute economy.
25+ years developing, marketing and selling technology, SaaS and infrastructure across Australia and New Zealand; former senior leadership at Oracle, Infor, TechnologyOne and Civica.
Garth Kerr is a senior corporate executive with extensive international experience as a general counsel, director and strategic adviser to global listed technology companies and high-growth businesses. His expertise spans corporate and commercial strategy, governance, complex transactions, risk management, capital raising, institutional engagement and business scale-up.
As Director and Chief Corporate Officer, Garth supports both ACU Markets and Subvectio across their corporate, commercial, legal, risk and governance functions. He works closely with the CEO, Board and leadership team to advance strategic partnerships, investor engagement, capital initiatives and institutional readiness.
A working session walks your numbers through the deterministic engine — site economics, workload routing or spend governance — against ACU Benchmark reference points.