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OPTIMIZE YOUR COOLING SYSTEM PERFORMANCE

From automatic cleaning and monitoring systems to cooling tower engineering — we improve efficiency, stability and control in industrial cooling systems with innovative cooling technology.

Where we operate in your system:

What we improve:

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EQOBRUSH™

Automatic Tube Cleaning

Continuous cleaning for condensers and chillers. Keeps heat transfer surfaces clean during operation.

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EQOFLUSH™

Automatic Back Flushing

Automatic Backflushing for plate heat exchangers maintains performance without dismantling

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EQOCHECK™

Monitoring and Performance

Monitoring and diagnostics for cooling systems. Insight into performance and predictive maintenance 

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WACON™
AQUAFAN™

Cooling Tower Engineering

Cooling tower engineering solutions. Reliable performance for demanding applications using advanced cooling technology. 

Applied in large-scale industrial and data center cooling systems

Not sure where your system is losing efficiency?

Share your setup — we’ll help to identify the areas for improvement.

Heat rejection in industrial cooling systems

In industrial and HVAC cooling systems, heat rejection is the critical process that determines overall system efficiency. Whether in water-cooled chillers, shell and tube condensers, or plate heat exchangers, unwanted heat must be transferred and discharged effectively.

When heat rejection is limited, system performance drops immediately. Chillers consume more energy, cooling capacity decreases, and system stability becomes harder to maintain. This is especially relevant in high-load environments such as data centers, manufacturing facilities, and process industries.

Efficient heat rejection requires not only properly sized equipment, but also stable operating conditions and clean heat transfer surfaces throughout the system.

Fouling and performance loss in heat exchangers

Fouling is one of the most common causes of performance loss in cooling systems. Over time, contaminants such as scaling, biofilm, and suspended solids accumulate on heat transfer surfaces in condensers and heat exchangers.

Even a thin fouling layer can significantly reduce heat transfer efficiency. This leads to higher condensing temperatures, increased compressor workload, and rising energy consumption. In many cases, these losses remain unnoticed until they result in excessive operating costs or system instability.

Continuous cleaning systems for condensers and automatic backflushing solutions for plate heat exchangers are effective methods to control fouling without interrupting operation.

Cooling towers and system balance

Cooling towers play a central role in the heat rejection process by dissipating heat from the condenser water loop into the atmosphere. Their performance directly affects the efficiency of the entire cooling system.

An imbalance between cooling tower capacity, water flow, and heat exchanger performance can lead to elevated return temperatures and reduced system efficiency. Factors such as airflow, water distribution, scaling, and environmental conditions all influence cooling tower effectiveness.

Proper engineering, sizing, and integration of cooling towers within the overall system are essential to maintain stable operation and achieve optimal heat rejection performance.

Monitoring and predictive maintenance strategies

In many cooling systems, performance degradation develops gradually and remains undetected without proper monitoring. Small deviations in temperature, pressure, or flow can indicate fouling, imbalance, or component inefficiencies.

By implementing monitoring and diagnostics tools, operators gain continuous insight into system performance. This enables early detection of issues and supports predictive maintenance strategies instead of reactive interventions.

Monitoring not only improves reliability, but also helps optimize energy consumption and extend the lifespan of critical equipment such as chillers, heat exchangers, and cooling towers.