How does Peak+ solve new construction constraints?

In new data center construction, system capacity is constrained by extreme ambient conditions, not average performance. During peak temperatures, air-cooled systems lose capacity and consume more power, limiting deployable IT load. Peak+ integrates adiabatic precooling into the design to reduce inlet air temperature, stabilize performance, and unlock more usable capacity.

How does Peak+ solve failing external CFDs?

External CFD models often fail to capture heat recirculation, localized hotspots, and wind-driven airflow disruptions. Peak+ mitigates these risks by reducing inlet air temperature variability, stabilizing condenser performance, and creating a buffer against modeling inaccuracies.

How does Peak+ increase revenue by lowering peak PUE?

Even if annual PUE looks strong, peak conditions drive power draw, capacity limits, and operational cost spikes. By lowering peak PUE, more IT load can be deployed, power is used more efficiently at critical hours, and revenue per MW increases.

How does Peak+ control ambient air temperatures?

Extreme heat drives performance loss in air-cooled systems. Peak+ systems reduce entering air temperature during peak conditions, flatten performance degradation curves, and maintain consistent cooling performance.

Can Peak+ help capture utility rebates for demand reduction?

Yes. Lowering peak electrical demand can qualify sites for utility rebates, demand response programs, and reduced infrastructure requirements. Peak+ helps reduce peak kW draw, improve grid friendliness, and strengthen financial project models.

Close-up of industrial HVAC units and piping on a rooftop.

Design for Peak Conditions

Adiabatic precooling enables air-cooled infrastructure to maintain capacity during extreme ambient conditions—unlocking more deployable IT load from day one.

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Solve Failing External CFDs

External CFD models often fail to capture:

Heat recirculation
Localized hotspots
Wind-driven airflow disruptions

Peak+ mitigates these risks by:

Reducing inlet air temperature variability
Stabilizing condenser performance
Creating a buffer against modeling inaccuracies

Large circular industrial ventilation fans on a rooftop with metal grates and railings.

Increase Revenue by Lowering Peak PUE

Even if annual PUE looks strong, peak conditions drive:

Power draw
Capacity limits
Operational cost spikes

By lowering peak PUE:

More IT load can be deployed
Power is used more efficiently at critical hours
Revenue per MW increases

Control Ambient Air Temperatures

Extreme heat drives performance loss in air-cooled systems. Controlling inlet air temperature is key to maintaining consistent output.

Peak+ systems:

Reduce entering air temperature during peak conditions
Flatten performance degradation curves
Maintain consistent cooling performance

Capture Utility Rebates for Demand Reduction

Lowering peak electrical demand can qualify sites for:

Utility rebates
Demand response programs
Reduced infrastructure requirements

Peak+ helps:

Reduce peak kW draw
Improve grid friendliness
Strengthen financial project models

Proven Results in Real Climates

Enhanced Heat Rejection for High Density Data Center Design

Higher performance compute. Higher density server racks. Higher demand for power...

Regional Site Analysis: Phoenix, AZ

This is part of an ongoing series where we will publish site performance studies in specific...

Austin Energy Rebate Incentive

In 2019, Austin Energy issued a $300,000 rebate, its largest in 10 years, to Riata Corporate Park...

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Projects That Deliver

Confidential Data Center

State: AZ
Size: 32 MW
Cooled Temp: 95F

Peak+ eliminated chiller capacity degradation at high ambient temperatures.

Confidential Data Center

State: OH
Size: 53 MW
Cooled Temp: 95F

The power draw of chiller plant at temperatures above 95F would cause this data center site to oversubscribe the utility power allocation, causing an electrical outage. Suppressing condenser inlet temps to <95F kept the chiller plant power draw within a safe range

Confidential Data Center

State: VA
Size: 50 MW
Cooled Temp: 106F

Peak+ eliminated chiller capacity degradation at high ambient temperatures.

Design for Peak Performance From Day One

Request a Site Evaluation

Design for Peak Conditions

How Peak+ Solves New Construction Constraints

Solve Failing External CFDs

Increase Revenue by Lowering Peak PUE

Control Ambient Air Temperatures

Capture Utility Rebates for Demand Reduction

Proven Results in Real Climates

Enhanced Heat Rejection for High Density Data Center Design

Regional Site Analysis: Phoenix, AZ

Austin Energy Rebate Incentive

Projects That Deliver

Confidential Data Center

Confidential Data Center

Confidential Data Center

Design for Peak Performance From Day One