What Thermalize delivers for data center operators

Enterprise data centers face growing scrutiny on water usage, energy waste, and environmental commitments. As hyperscale campuses expand behind-the-meter power — including new, onsite natural gas generation — the opportunity to recover heat, water, and CO₂ at meaningful scale becomes even more compelling. We provide real metrics — not marketing narratives — backed by actual resource recovery.

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Reportable ESG metrics

Heat recovery percentage, water reclamation volume, and CO₂ offset — numbers your sustainability team can include in disclosures and audit responses.

CO₂ transcritical, highlighted

As natural refrigerants and heat reuse rise in importance, CO₂ transcritical cooling becomes a high-signal pathway. In the right configurations, it can produce reclaimable heat that aligns unusually well with year-round agricultural demand.

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Zero operational disruption

We integrate alongside your cooling infrastructure using plate heat exchangers and glycol loops. No changes to your CRAC units, no impact on PUE, no downtime risk.

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Water stewardship credits

HVAC condensate that currently drains to storm sewers becomes productive irrigation. Measurable water recovery you can report against WUE targets.

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Retrofit-ready

Works with air-cooled CRAC/CRAH, liquid cooling, and CO₂ transcritical — over 95% of installed data center cooling systems. No new-build requirement.

Turnkey delivery

Thermalize designs, builds, and operates the integration and the aquaponics facility. Your team reviews, approves, and receives results.

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Market differentiation

In a competitive colocation market, "we grow food with our waste heat" is a sustainability story that stands apart — because it's real, local, and visible.

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CO₂ enrichment (optional)

Where it fits and where it is permitted, targeted CO₂ delivery can increase plant productivity in controlled environments — another lever to improve yield density on top of heat and water recovery.

Low-risk entry, structured validation

We begin with a feasibility study — a focused assessment of your facility's thermal profile, condensate potential, and integration pathway. No commitment beyond discovery.

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Feasibility Study

We assess your cooling infrastructure, model heat recovery potential, estimate condensate volume, and identify the optimal integration pathway for your facility. Typical scope: 4–6 weeks.

2

Thermal Proof-of-Concept

If the study confirms viability, we deploy a Stage 0 thermal system to validate real-world heat recovery, condensate capture, and storage performance — before any biology is introduced.

3

Full Integration

Once thermal performance is validated, we scale to full aquaponics integration. You receive ongoing ESG metrics, operational reports, and a facility that converts your waste into food.

Start with a conversation

Whether you're evaluating sustainability initiatives, planning a new facility, or exploring what waste heat recovery could look like — we'd like to hear from you.