FLUIX unlocks stranded power with autonomous cooling at TenHatsRead the Utility Dive report ↗
FLUIX unlocks stranded power with autonomous cooling at TenHatsRead the Utility Dive report ↗
FLUIX unlocks stranded power with autonomous cooling at TenHatsRead the Utility Dive report ↗

A.I.M.I. / AUTONOMOUS COOLING

Control the heat.
Unlock the headroom.

Less cooling waste. More room for productive infrastructure.

A.I.M.I. continuously coordinates cooling, airflow, and facility signals inside operator-defined limits. It turns changing thermal conditions into real control actions—helping data centers reduce energy use and recover capacity from the equipment already in place.

Explore your cooling opportunity
LOCAL EXECUTIONOPERATOR AUTHORITYEXISTING INFRASTRUCTURE

THE PRODUCT / IN ACTION

See the decision.
See the equipment respond.

One workspace for facility conditions, autonomous actions, and the energy impact. Every command stays inside your operating limits.

ILLUSTRATION
EXISTING EQUIPMENT

Read the facility.

Autonomous cooling control · illustration

A.I.M.I.©Autonomous CoolingPRODUCT DEMO
40%Cooling demand · illustration
60%Autonomously adjusted
Compressor usageAI workload +25% · illustrative
40%15%AUTONOMOUS ACTIONBeforeAfter AIMI
Action logTRACEABLE BY DESIGN
AI workload ramp detected

IT load increased 25% in the last minute. Hot aisle reached 93°F.

01
·
A.I.M.I.™ evaluates response

A.I.M.I.™ increases minimum fan speed to reduce compressor usage.

02
·
Autonomous control applied

Minimum fan speed ramps from 60% to 80% within operating limits.

03
·
Response verified

Compressor usage (cooling demand) reduced from 40% to 15%.

04

Illustrative product walkthrough. Example signals, autonomous actions, and compressor usage demonstrate the workflow; actual control limits and outcomes are site-specific.

A FACILITY CONTROL LOOP

Every system, in thermal balance.

01 / SENSE

Sense the whole facility

Bring temperatures, humidity, equipment state, and energy signals into a shared view of thermal demand.

02 / PREDICT

Predict the response

Anticipate how cooling and airflow changes will affect conditions across the facility, rather than tuning each unit in isolation.

03 / ACT

Act within guardrails

Adjust approved setpoints continuously, with rate limits, action validation, and fallback to native control.

ADAPTIVE CONTROL / ILLUSTRATIVE RESPONSE

Respond to the load.
Stay inside the envelope.

As thermal demand changes, coordinated control can reduce oscillation and unnecessary cooling effort. Explore two views of the same illustrative operating cycle.

Demand-matched cooling

Normalized cooling effort is shown for a comparable thermal demand profile.

COOLING EFFORT / NORMALIZED INDEX

12010080EarlierLaterOPERATING CYCLE →
Conventional response Coordinated control

Illustrative control profiles, not measured site telemetry or a savings forecast. Actual operating bands, responses, and energy impact are site-specific.

THE OPERATOR ADVANTAGE

Efficiency that respects uptime.

Reduce cooling overhead

Coordinate fans and cooling equipment around actual demand to limit overcooling and unnecessary energy use.

Protect the operating envelope

Keep thermal constraints and operator authority at the center of every control decision.

Recover usable headroom

Convert lower cooling overhead into potential capacity for additional IT load, without assuming a physical expansion.

RELEVANT CASE STUDIES

Real facilities. Documented control.

TenHats server racks and exterior cooling systems

U.S. AI FACTORY

~10% cooling-load reduction during a grid event.

Up to 23% cooling-load optimization during grid events and facility operation. A.I.M.I. autonomously coordinates HVAC response while maintaining operating constraints and uptime.

Bogotá data center and facility infrastructure

LATAM COLOCATION

~15% stranded capacity unlocked.

The existing deployment summary describes lower baseline cooling consumption recovering usable capacity without physical expansion.

HVAC energy comparison with and without A.I.M.I.

FLUIX / TECHNICAL RESEARCH

Explore the control methodology.

Read the A.I.M.I. 1.0 whitepaper for the research behind continuous control of data center cooling.

Read our whitepaper
Explore all case studies

DEPLOYED IN THE REAL WORLD

Built for live facilities.
Already in the field.

The most deployed autonomous AI for data centers.* From colocation and neoclouds to powered shells, across the United States and Latin America.Autonomous control across the U.S. and Latin America.*

150 MW+Contracted data center capacity
10data centers
99%Data center compatibility

FLUIX controls power + cooling without server ownership. Compute orchestration requires control of the servers.

*FLUIX AI is the most deployed autonomous AI control layer in live facilities—executing real control of physical infrastructure, beyond insights and simulation. Markers show approximate city locations.

North and South America

Tennessee, United States

Active

Knoxville · TenHats

AI data center

Read Utility Dive case study ↗

LOCAL INTELLIGENCE / EXPLICIT AUTHORITY

Built around your operating limits.

Connect existing facility systems, validate the control scope, and define the autonomy envelope before rollout. On-premises execution supports environments where control must remain local.

ACTION VALIDATIONRATE LIMITSNATIVE-CONTROL FALLBACKLOGGED ACTIONS
Talk through your facility