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Company

Building the intelligence layer for the physical infrastructure behind AI.

The AI era runs on data centers, and those data centers run on power, cooling, and water. AquaWatt exists to make that physical layer intelligent, efficient, and accountable — without ever compromising reliability.

“Every watt and every drop of water behind AI should be measured, understood, and optimized — with humans firmly in control.”

The AquaWatt mission

The principles we build by.

These commitments shape every product decision we make.

01

Reliability before efficiency

Uptime and equipment protection always come first. Efficiency gains never compromise reliability.

02

Optimize the whole system

Power, cooling, water, and compute are optimized together, not as isolated silos.

03

Explain every recommendation

Operators see the reasoning, expected impact, and trade-offs behind every action.

04

Simulate before acting

Changes are tested against a digital twin before they are ever proposed for the real facility.

05

Humans control autonomy

Operators decide how much authority to delegate, and can step in or roll back at any time.

06

Verify actual outcomes

We measure the real-world result of every action, not just the modeled prediction.

07

Keep safety-critical capabilities local

Safety logic runs at the edge and keeps protecting equipment even without a cloud connection.

08

Respect local resource constraints

Optimization reflects the real energy, water, and carbon conditions of each site.

Our team

Leadership and team information coming soon. We’re assembling a team that spans data center operations, control systems, AI, and sustainability.

Company

6050 Cleveland Avenue, Columbus, OH 43231
+1 301 379 8751

Partner with us on the pilot program.

We’re working with a select group of forward-looking data center operators.

Positioning

Where AquaWatt sits in the stack

For data-center operators facing increasing electricity, cooling and water constraints, AquaWatt DC OS is an AI-powered resource operating system that continuously coordinates facilities, workloads and energy systems to reduce cost and environmental impact without compromising uptime.

Unlike conventional DCIM, BMS or sustainability-reporting tools, AquaWatt predicts future conditions, simulates potential actions, optimizes multiple resources simultaneously and safely progresses from recommendations to autonomous operations.

DCIM tells you what happened

AquaWatt predicts what is about to happen

BMS controls one system at a time

AquaWatt optimizes power, cooling, water and carbon together

Sustainability tools report after the quarter

AquaWatt makes sustainability an operating variable

Point tools recommend and stop there

AquaWatt simulates, verifies and progresses safely toward autonomy

Where this could go

Once a facility’s resources are modelled, forecast and verified, a much larger set of problems becomes addressable. These are directions under consideration — explicitly not commitments, and not part of any current release.

Data-center site-selection intelligenceAI-factory capacity planningGrid interconnection planningWater-positive infrastructure planningRenewable power procurementCarbon-aware customer billingResource-aware model trainingChip- and model-level efficiency benchmarkingAutomated hardware replacement recommendationsData-center community impact dashboardsHeat-reuse buyer networksUtility capacity marketplacesAutonomous microgrid coordinationData-center resource digital assetsPortfolio acquisition due diligencePredictive design optimization for new facilities

Comparisons describe general categories of tooling rather than any named product or vendor. Future opportunities are exploratory and carry no delivery timeline.

Release roadmap

From visibility to resource autonomy.

AquaWatt DC OS earns trust before it takes control. The platform begins in observation and recommendation modes and progresses toward controlled automation only after models, integrations and safety controls are validated.

Phase 0

Discovery and design

0–3 months
Customer discoveryPilot selectionIntegration inventoryControl-system safety assessmentUX prototypesData-model definitionBaseline methodologySecurity architecture
Phase 1

Visibility MVP

4–9 months
Edge ingestionCommand centerPUE and WUE analyticsForecastingAnomaly detectionAlertsReportingRead-only copilot
Phase 2

Recommendation intelligence

10–15 months
Multi-objective optimizationCooling recommendationsWater optimizationWorkload-resource attributionDigital-twin scenariosSavings verificationApproval workflows
Phase 3

Guarded automation

16–24 months
Approved control integrationsAutomatic rollbackLocal safety controllerBattery recommendationsFlexible workload schedulingAdvanced model governance
Phase 4

Portfolio orchestration

25–36 months
Cross-facility workload placementRenewable alignmentDemand-response coordinationWater-stress-aware regional optimizationPortfolio capital planningHeat-reuse intelligence
Phase 5

Resource-autonomous data centers

Beyond 36 months
High-autonomy closed-loop optimizationMulti-campus orchestration

Forward-looking product roadmap. Phases, durations and capabilities are planning targets and are subject to change based on pilot validation, customer requirements and engineering findings.

Risks and mitigations

The things that could go wrong

Every one of these has sunk an optimization programme somewhere. We would rather name them here than discover we disagree about them during a deployment.

  • Poor-quality telemetry
    Data-quality scoring, sensor validation, missing-data handling and onboarding diagnostics.
  • Customer reluctance to permit automated control
    Begin with observation, shadow mode and recommendations; provide complete explainability and rollback.
  • Incorrect optimization compromises uptime
    Independent safety-policy engine, digital-twin testing, approval workflows and hard limits.
  • Savings are difficult to prove
    Establish approved baselines before recommendations and retain complete measurement lineage.
  • Different facilities require extensive customization
    Standardized equipment models, protocol adapters and configurable facility templates.
  • Cybersecurity exposure
    Zero-trust architecture, outbound-only edge communication where possible, private connectivity and isolated control channels.
  • Electricity optimization increases water consumption
    Multi-objective optimization with local water-stress weighting.
  • Water optimization increases carbon or cost
    Display trade-offs and enforce customer-defined objective limits.
  • AI model drift
    Continuous monitoring, scheduled validation, shadow deployments and automatic fallback.
  • Equipment vendors restrict external control
    Support recommendation-only mode and use approved vendor APIs and integration partners.
  • Regulatory requirements differ across regions
    Configurable reporting boundaries, policies, data residency and regional deployment.

Mitigations describe the approach AquaWatt DC OS is being designed around. They are engineering commitments under development, not guarantees of outcome at any facility.

Commercial model

How an engagement is likely to be structured

We are not publishing a price list before we have earned one. What we can share is the shape of a commercial relationship we think is fair for infrastructure of this consequence — and the terms we believe belong in every contract.

Platform
  • Annual platform subscription
  • Price per managed facility
  • Price per managed megawatt
  • Price per optimization module
Deployment
  • Implementation and integration fees
  • Digital-twin configuration fees
Ongoing partnership
  • Premium support
  • Managed optimization services
  • Percentage of independently verified savings

Four things every contract should settle up front

Ambiguity in these four areas is where optimisation programmes usually go wrong. We would rather negotiate them at the start than argue about them at the first quarterly review.

Baseline methodology
How the starting point is calculated and normalised, agreed before any optimisation begins.
Data ownership
Your operational data remains yours. Rights, retention and portability are written down, not assumed.
Control responsibility
Exactly which decisions are advisory and which, if any, are automated — and who signs off.
Savings verification
The method, confidence threshold and review process used to declare a saving verified.

Commercial components listed here are working assumptions under active development. They are not an offer, a quotation or a published price list, and pricing will be agreed individually with each early partner.