Data Centers

Before water reaches a cooling system, its quality plays a critical role in the performance, longevity, and efficiency of data center operations. Whether drawn from municipal supplies, reclaimed sources, or alternative sources like seawater or rainwater, source water must be conditioned properly to prevent issues that can disrupt operations.

Without effective pretreatment, contaminants such as minerals, dissolved solids, and organics can lead to scaling, corrosion, fouling, and biofilm growth in cooling systems. These problems reduce heat transfer efficiency, increase energy consumption, and can result in costly downtime or equipment replacement.

By implementing reliable pretreatment processes and real-time monitoring, data centers can protect critical infrastructure while enabling higher cycles of concentration in cooling towers, saving millions of gallons of water each year. Early treatment also helps facilities adapt to changes in water supply quality and reduce their overall operational risk.

Quality Monitoring Solutions For:

• Mechanical Filtration
• Ion Exchange
• Activated Carbon
• Reverse Osmosis (RO)
• UV Disinfection

Cooling systems are the heart of most data center operations, accounting for the largest source of water consumption onsite. As servers generate intense heat, especially in AI-driven environments, maintaining reliable and efficient cooling is critical to guarantee uptime and protect equipment.

Traditional evaporative cooling towers remain common due to their thermodynamic efficiency, but they consume significant amounts of water through evaporation and blowdown. Closed-loop liquid cooling and hybrid systems are emerging, offering lower water use but requiring careful monitoring of water quality to prevent scaling, corrosion, and fouling in sealed systems.

Optimizing cooling performance means balancing water and energy demands. Higher cycles of concentration in cooling towers can save millions of gallons annually, while smart control systems and real-time monitoring help maintain ideal conditions, reduce chemical overuse, and prevent unplanned downtime.

With accurate instrumentation and proactive water management, data centers can lower their total water use, improve energy efficiency, and extend the life of critical cooling infrastructure while meeting their sustainability and operational targets.

Suggested Parameters to monitor:

• Conductivity
• Silica
• pH
• Alkalinity
• Hardness
• Iron
• Chloride
• Free & Total Chlorine
• Total Organic Carbon (TOC)
• Flow Rate
• Temperature

Every efficient cooling strategy starts with the quality of your source water. Whether it comes from municipal supplies, reclaimed water, or alternative sources like seawater or rainwater, the consistency and purity of incoming water directly impacts cooling system performance and equipment health. Poor source water quality accelerates scaling, corrosion, and fouling and drives up maintenance costs and unplanned downtime.

With growing sustainability goals and rising operational demands, data centers must evaluate and treat source water early in the process. Pretreatment helps ensure water chemistry is optimized before it enters critical cooling loops or other systems, protecting infrastructure and reducing total water consumption.

By utilizing accurate, real-time monitoring and robust treatment solutions, operators can detect fluctuations in source water quality, maintain optimal system chemistry, and prevent problems before they start. This proactive approach minimizes both operational risk and long-term costs while supporting water efficiency and sustainability goals.

Suggested parameters to monitor:

• Conductivity / Total Dissolved Solids (TDS)
• pH
• Hardness
• Total Organic Carbon (TOC)
• Free & Total Chlorine
• Turbidity
• Silica

As data centers grow to meet the rising demand of AI, they face mounting pressure to reduce their environmental impact while maintaining operational reliability. Cooling towers generate blowdown water that must be managed carefully to meet sustainability and compliance goals.

Effective effluent treatment begins with accurate monitoring and control. By tracking key water quality parameters in real time, operators can respond quickly to fluctuations, prevent violations, and optimize treatment performance.

Modern data centers are moving beyond basic treatment toward integrated solutions that enable recycling and reuse of cooling tower blowdown. This approach not only reduces freshwater demand but also minimizes discharge volumes, lowering both environmental footprint and operational costs.

From chemical dosing to filtration and advanced membrane technologies, continuous, reliable monitoring provides the foundation for efficient effluent management—helping facilities meet regulatory requirements and advance toward water-positive goals.

Suggested Parameters to Monitor

• pH
• Turbidity
• Total Suspended Solids
• Phosphate
• Total Organic Carbon (TOC)
• Chlorides

As water scarcity grows worldwide, optimizing water reuse is becoming essential for data centers. Reusing reclaimed or recycled water helps facilities reduce their reliance on potable sources while supporting broader community water sustainability goals.

For data centers, water reuse often begins with cooling tower blowdown, which can be treated and cycled back into the system. This approach not only reduces overall freshwater demand but also minimizes discharge volumes, lowering environmental impact and operational costs.

Advanced reuse strategies also allow facilities to integrate non-traditional water sources such as municipal reclaimed water, treated effluent, or even seawater into cooling operations. This reduces competition for local drinking water supplies while maintaining high-performance cooling essential for uptime.

Successful reuse programs require careful monitoring and treatment throughout the process. By tracking key parameters and optimizing treatment, operators can ensure consistent water quality, protect equipment, and continually improve reuse efficiency.

Suggested Parameters to Monitor

• pH
• Total Organic Carbon (TOC)
• Biochemical Oxygen Demand (BOD)
• Total Suspended Solids (TSS)
• Conductivity / Total Dissolved Solids (TDS)
• Ammonia
• Phosphate
• Turbidity