

Our solution harnesses reject heat to offset cooling costs and
turn data centers truly water positive



Converts ambient air into water.

Uses excess heat from your data centre.

Zero groundwater. Zero plastic. Zero waste.

Supports ESG mandates and green building ratings.




Uses reject heat from your
data centre

Cuts cooling operational costs

Transforms air into millions of liters of water

Supports ESG mandates and
speeds up permits




Uravu’s FromAir® solution uses waste heat from the immersion coolant loop (30–65°C) to
1) Drive water generation from air through a liquid desiccant cycle
2) Thermally cool the coolant loop, reducing reliance on chillers, cooling towers, or dry coolers
It converts unavoidable heat rejection into cooling + fresh water.
Uravu does not replace immersion cooling. It integrates after the immersion loop, replacing the facility cooling infrastructure (chillers, cooling towers, dry coolers), not the server cooling system.
Yes. Uravu only requires the heat from the coolant loop, not the coolant itself. It works with: - Single-phase immersion - Two-phase immersion - Hybrid liquid cooling systems - CDU/HDX architectures As long as a warm water loop (30–65°C) is available, Uravu integrates seamlessly.
Uravu’s reactor performs best with: - Inlet temperature: 40–65°C - Return temperature: 25–40°C Lower-grade heat (30-35°C) can still be utilized with minor derating.
Yes. In many climates, Uravu can fully replace chillers. In hotter zones, Uravu significantly reduces chiller runtime and energy demand. Chiller load reductions of 10–80%+ are typical.
Performance remains stable even in: - 40–50°C climates - High humidity or low humidity - Heatwave periods - Tropical or arid regions The absorber operates from 20–99% RH, making it suitable for all geographies.
Each Uravu module handles 150 kW of heat and produces: 3,000 litres/day of water Scaling is linear: - 1 module → 150 kW → 3,000 LPD - 10 modules → 1.5 MW → 30,000 LPD - 30 modules → 4.5 MW → 90,000 LPD Modules can be deployed in parallel for multi-MW data centers.
No. Uravu’s water output is isolated, high-quality distilled water. It does not interact with cooling fluid, nor is it used inside the server tanks.
Common uses: - Mechanical plant usage - Humidification - Cleaning/maintenance water - Drinking water (after mineralization) - Green cover - Supply to external buyers (revenue stream) Excess water often makes facilities water-positive.
No. Uravu never contacts the coolant. We only use the heat rejected through heat exchangers.
Yes. Uravu connects on the facility side of the CDU or directly to the warm-water loop. Interconnect points: - Post-CDU warm loop -Pre-dry cooler / chiller - Secondary loop
Uravu reduces chiller/dry cooler load → lowers total facility power → lower PUE. WUE
Uravu requires zero water input and produces water → negative WUE (first in the world).
Uravu uses a proprietary desiccant that is: - Chemically stable - Non-volatile - Lasts 10+ years - Functions across humidity ranges (20–99%) No hazardous material handling is required.
Uravu consumes significantly less energy than chillers because it uses heat as the primary input. Electricity demand is limited to pumps, fans, sensors, and auxiliaries. Typical consumption is 60–80% lower than equivalent chilling capacity.
A typical 150 kW module occupies: - ~15 m² footprint - Outdoor containerized format available (20 ft) Multi-module arrays can be arranged like battery energy storage systems.
Works in all climates, including: - Cold (free-cooling periods) - Temperate - Arid - Humid - Tropical In cold climates, facilities use free cooling in winter and Uravu the rest of the year.
Yes. Hybrid configurations are common: - Uravu + Free Cooling - Uravu + Dry Coolers - Uravu + Cooling Towers (only for redundancy) Reduces need for large chiller farms.
Low maintenance: - Quarterly filter changes - Annual vacuum system check - Pump/valve inspection - LD health check (minimal degradation) No water treatment or chemical dosing required.
Modules are designed for 15–20 years of operational life with minimal degradation.
Yes, Uravu delivers: - Lower lifetime OPEX - Water revenue stream - Negative WUE - ESG credits - No water procurement/treatment costs This makes total cost of cooling dramatically lower.
For many climates: Yes. For extreme peaks: Uravu + free cooling or Uravu + small auxiliary chiller ensures resilience.
Zero risk. No water or desiccant enters the IT space. Heat exchangers and loop plumbing follow standard data center practices (ASHRAE, ISO).
Single pilot module: 6–8 weeks - 1 MW modular array: 12–16 weeks - Commissioning: typically 7–10 days - Plug-and-play, containerized options available.
-ISO water quality - ASHRAE thermal guidelines - Local electrical, safety, and environmental codes (region-specific) - CE/UL compliance possible depending on region
Dry coolers provide zero WUE but increase PUE. - Uravu provides: - Zero water input - Negative WUE - Lower PUE - Lower OPEX - Water as a by-product - Works in hot climates where dry coolers struggle
Uravu provides an Atmospheric Water Generation (AWG) + Thermal Recovery system that uses waste heat from data centers (including immersion cooling loops) to: - Generate water from air - Reduce chiller load - Provide supplemental cooling - Improve water sustainability credentials This enables partners to offer regenerative cooling as an add-on to their existing immersion or liquid cooling solutions.
Immersion cooling produces a warm water loop that normally requires chillers or dry coolers. Uravu uses this same warm loop to: - Produce water from the atmosphere - Pre-cool the loop - Reduce peak load on chillers Partners can position Uravu as an energy-saving + water-regenerative enhancement to immersion deployments.
A 150 kW Uravu module fits in a footprint of ~14.9 m² (8 ft × 20 ft). Higher capacities can be modularly stacked.
Partners should look for: - Immersion or warm-water cooled data centers - Facilities with high PUE/WUE focus - Water-stressed geographies - Hyperscale, edge, colocation, or AI-HPC clusters - Data centers needing ESG or green-certification improvements
Three revenue models: - Solution Resell Margin – earn margin on each module sold. - Design + Integration Services – consulting and engineering fees. - Recurring Services – AMC or long-term O&M contracts. Uravu provides full technical support so partners can scale without building new expertise.
A 150 kW module typically requires: - 1–2 weeks site preparation - 1 week installation - 1 week integration & commissioning Partners can complete projects end-to-end in 3–4 weeks.
Yes. Uravu systems comply with: - ASHRAE TC 9.9 (thermal guidelines) - ANSI/UL 60335 (HVAC safety standards) - ISO 50001 & LEED sustainability frameworks - Local code requirements (varies by state) Compliance documentation provided to partners.
Uravu can: - Reduce chiller energy demand - Generate fresh water onsite - Improve WUE (Water Usage Effectiveness) significantly - Enhance green certifications This is a strong selling point for partners targeting ESG-focused clients.
Maintenance is low and typically includes: - Filter replacement - Heat exchanger cleaning - Annual inspections - Remote monitoring Partners can offer these services as recurring revenue.
Yes. Performance varies with humidity and temperature, but the system can be configured with: - Pre-heaters - Desiccant boosters - Hybrid modes Uravu provides design support for climate-specific deployments.
No. Uravu interfaces with: - Secondary loops - Return warm-water circuits - Heat exchangers It does not interfere with the primary immersion fluid loop, ensuring full reliability and uptime.
Partners get full technical and commercial onboarding. - Standard 12-month warranty - Extended service plans - Remote monitoring - On-site engineering support - Partner training for installation & commissioning
Uravu is positioned as: - A water-regenerative cooling enhancement - A chiller load reducer - A heat-to-water valorization system - A ESG booster - A Capex + Opex optimization tool Uravu provides pitch decks, ROI calculators, brochures, and case studies. Shape
Yes, the system can optionally produce potable or industrial-grade water based on integration. This creates additional sustainability value for campuses or hyperscale sites.
Local representation Engineering design assistance Bid support Joint marketing activities Product training & documentation Pilot support for key customers
Uravu connects to the warm-water return loop in liquid/immersion-cooled systems. For greenfield builds, we coordinate early with: - MEP consultants - Cooling architects - Rack/row-level thermal engineers This ensures the AWG-cooling module is part of the primary cooling architecture, not an afterthought.
Yes. By pre-cooling the warm water loop using recovered heat, Uravu reduces: - Chiller design load - Peak cooling requirements - Operating hours Many new-build facilities size chillers 10–20% lower when Uravu is integrated.
Uravu improves both: - PUE: reduces energy used by chillers & mechanical cooling - WUE: Negative WUE due to onsite water generation+ reduces reliance on municipal or groundwater For new data centres seeking WUE < 0.2 L/kWh, Uravu becomes a key enabler.
A 150 kW Uravu unit occupies ~14.9 m² (8 ft × 20 ft). Modules scale linearly.
Yes. Supported topologies: - N + 1 redundancy - N + N redundancy - Hot-swappable module configurations - Remote monitoring through BMS or DCIM Uravu can be part of the mission-critical cooling chain with full resiliency.
Uravu performs best in: - 15–45°C temperature - 30%–100% RH For low-RH regions, we offer: - Hybrid desiccant mode -Pre-stage heat recovery - Modular boosting systems This ensures predictable output year-round.
Yes. Uravu uses waste heat, not ambient air temperature alone, ensuring stable production even when humidity dips. Performance curves are provided during design.
For new data centres, CTOs value long-term operating stability — which aligns with Uravu’s design philosophy. - 20+ year system life - Minimal moving parts - Industrial-grade heat exchangers - IoT-enabled diagnostics
No. Uravu connects on the secondary side using a heat exchanger interface, ensuring: - No fluid contamination - No added thermal resistance - Zero impact on rack-level cooling performance Servers see no operational change.
Very low: - Quarterly filters - Annual heat exchanger checks - Software/IoT monitoring Most maintenance can be done during scheduled mechanical downtime windows.
No. Uravu is designed to be run by: - Standard mechanical/electrical facility teams - With minimal training Remote support and predictive analytics are provided.
For CTOs designing from scratch, Uravu enables: - Smaller chiller plants - Lower water procurement cost - Lower carbon intensity per MW IT load - Strong ESG differentiation - Better community acceptance, especially in water-stressed zones This helps with government approvals, green funding, and hyperscaler audits.
Yes. You may allocate part of the generated water for: - Drinking - Landscaping - Humidification - Facility operations Water quality can be upgraded to potable, process, or cooling tower quality as needed.
Greenfield deployments often see ROI from: - Reduced chiller Capex - Lower operating energy - Reduced water sourcing costs - Reduction in carbon/water usage fines or penalties Payback typically 3–5 years, depending on climate and load.
We provide: - Concept design - BIM & layout integration - Thermal modelling - Chiller load optimisation - WUE/PUE impact analysis - Detailed engineering & drawings This makes Uravu easy to adopt during the conceptual and detail design phases.

