Low-Energy Water Recovery for AI Supercomputing Clusters.
Transform cooling tower blowdown into pure recirculating water using magnetic nanotechnology. Slash facility WUE, eliminate scaling, and reduce industrial energy draw by 60%.
Deployed on facility discharge lines — zero operational risk to your cooling loop.
Functionalized magnetic nanoparticles bind silica, heavy metals and dissolved minerals. Low-pressure extraction — no membranes to foul.
The Challenge
AI compute is scaling faster than the water infrastructure that cools it.
Average water consumed per kWh by data center cooling (industry WUE baseline)
Share of cooling tower intake lost as blowdown at 3–4 cycles of concentration
Projected growth in data center water demand by 2030 driven by AI workloads
Indicative industry figures for illustration.
Site Water Balance
Where the water goes — 50 MW reference site
Evaporation is unavoidable. Blowdown is not. Recovering it raises cycles of concentration from ~3 to 12+ and cuts net make-up demand by roughly a quarter.
Our Approach
A measured path from audit to verified savings
- 01
Assess
On-site water audit: blowdown chemistry (TDS, silica, hardness), flow profiling and baseline WUE.
- 02
Model
Site water balance and recovery model; target cycles of concentration and OpEx impact quantified.
- 03
Deploy
30-day pilot with a 20ft skid tied into discharge lines only — no change to the cooling loop.
- 04
Verify
IoT telemetry and monthly reporting against agreed KPIs: recovery %, kWh/m³, CoC, WUE.
Technology Comparison
Blowdown treatment options, side by side
| Metric | MagPure magnetic separation | Reverse osmosis | Thermal evaporator / ZLD |
|---|---|---|---|
| Specific energy (kWh/m³) | < 1.2 | 3.0 – 4.5 | 20 – 40 |
| Operating pressure | Low (< 3 bar) | High (15–70 bar) | Thermal |
| Membrane fouling / scaling risk | None | High (silica) | High |
| Water recovery | Up to 90% | 60 – 75% | 95%+ |
| Footprint / deployment | 20ft skid, weeks | Fixed plant, months | Fixed plant, 12+ months |
Typical ranges for high-silica cooling tower blowdown; site results vary.
The Technology
Magnetic nanotechnology, engineered for continuous duty
MagPure binds contaminants onto functionalized nanoparticles and pulls them out with a low-pressure magnetic field. Recovered water flows straight back into the cooling loop.
Intake & Conditioning
Blowdown is drawn directly from facility discharge lines — the cooling loop itself is never touched, so there is zero operational risk.
Magnetic Core Separation
Functionalized magnetic nanoparticles bind silica, heavy metals and dissolved minerals. A low-pressure field extracts them — no membranes, no clogging.
Polish & Recirculate
Polished water returns to the cooling loop at up to 90% recovery, pushing cycles of concentration beyond 12 while the concentrate is dewatered.
Data Center Solutions
Deployed where the water leaves your facility
Cooling Tower Blowdown (CTBD) Recovery
Zero operational risk: the skid operates strictly on facility discharge lines, never touching your cooling loop.
Low-Pressure Magnetic Separation
Extracts silica, heavy metals and dissolved minerals without membrane clogging — even at high salinity.
Mobile Plug-and-Play 20ft Skids
Containerized units with remote IoT telemetry for rapid site deployment — from delivery to recovery in days.
Technical Specs
The MP-20 skid, on paper
MP-20 Skid Datasheet
Full engineering package: performance curves, feed-water envelope, tie-in requirements and pilot deployment plan.
- Water recovery rate
- Up to 90%
- Specific energy consumption
- < 1.2 kWh/m³
- Operating pressure
- < 2 bar (low-pressure field)
- Cycles of concentration
- 12+ (CoC ceiling)
- Feed tolerance
- Up to 45,000 ppm TDS
- Footprint
- 20 ft ISO container skid
- Deployment
- Plug-and-play, operational in days
- Monitoring
- Remote IoT telemetry, 24/7
- Cooling loop contact
- None — zero operational risk
ROI Calculator
What blowdown recovery is worth at your site
Estimates assume 330 operating days, 90% recovery, and blended water, discharge-disposal and chemical savings of $1.50/m³. Site-specific figures are provided with every pilot proposal.
Global Deployment
Built for zero-discharge mandates — worldwide
MagPure skids are engineered for hot, arid and water-constrained environments everywhere hyperscale compute is growing. Recovering cooling tower blowdown is the fastest path to compliant, low-WUE data centers in any jurisdiction.
Middle East & Gulf
Vision 2030 giga-projects, MEWA reuse compliance, and NEOM / center3 zero-discharge targets for next-generation compute.
North America
Water-stressed hyperscale corridors — Arizona, Texas and Nevada — where municipal discharge limits keep tightening.
Europe
EU water-reuse frameworks and national zero-liquid-discharge mandates for industrial cooling operators.
Asia-Pacific
High-humidity, high-load compute hubs adopting closed-loop cooling standards and industrial water reuse.
Deployments in the field
Representative pilot and production sitesGiga-project pilot skid
89.2% recovery over 30 days
Hyperscale campus · 2 skids
1,480 m³/day recovered
Colocation cluster retrofit
Commissioning underway
AI factory build-out
Skid delivery scheduled
Explore
Evaluate MagPure in depth
ROI & WUE Calculator
Model water recovered, OpEx savings and WUE for your facility.
OpenLive Pilot Telemetry
Watch a 20 ft skid's salinity, silica and power data in real time.
OpenTechnology Core
The 4-stage magnetic nano-separation process, compared with RO and ZLD.
OpenGlobal Hubs
Regional regulation, partners and deployment metrics worldwide.
OpenBook a 30-Day Pilot
Three steps: facility profile, water chemistry, logistics.
Open