Shandong Province, China • Centralized Heat Rejection System
To support the continuous operation of a Tier III data center in Shandong Province, Lohabour engineered a centralized 1,500 RT condenser water cooling plant designed for uninterrupted 24/7 service. The installation incorporates two modular induced-draft cooling towers, primary and secondary pump stations, a closed-loop condenser water network, and full PLC + BMS integration. The N+1 redundant architecture ensures reliable heat rejection during maintenance or equipment failure while providing the scalability required for future data hall expansion.
A centralized condenser water network designed around two modular cooling towers operating with N+1 redundancy. The system continuously rejects heat from the water-cooled chiller plant while maintaining reliable condenser water circulation for uninterrupted data center operation.
Unlike industrial production where thermal loads fluctuate with manufacturing cycles, data centers generate a constant heat load every second of the day. Any interruption to condenser water circulation can compromise cooling performance and threaten IT availability. Lohabour engineered a centralized cooling tower system with redundant hydraulic equipment, PLC + BMS automation, and scalable infrastructure capable of supporting continuous 24/7 operation while allowing future expansion.
High-temperature condenser water returning from the water-cooled chiller plant.
Two modular cooling towers reject heat to the atmosphere while operating in an N+1 redundant configuration, ensuring continuous cooling during maintenance or equipment standby.
Stable condenser water temperature with high system availability for uninterrupted data center operation.
Condenser water circulating between chillers and cooling towers.
Maintain balanced condenser water flow, stable operating pressure, and automatic lead/lag pump sequencing across the entire cooling plant.
Reliable water circulation, uniform hydraulic performance, and reduced mechanical wear.
Continuous heat rejection demand from mission-critical server infrastructure.
Transport condenser water between the water-cooled chillers, pump station, and cooling towers through a centralized pipework network engineered for high reliability.
Efficient heat transfer, low pressure loss, and scalable infrastructure for future expansion.
Real-time condenser water temperatures, flow rates, equipment status, and ambient weather conditions.
Automatically stage cooling towers, sequence pumps, monitor operating parameters, and communicate continuously with the Building Management System.
24/7 autonomous operation, optimized energy efficiency, rapid fault detection, and complete plant visibility.
PLC Monitoring · BMS Integration · Alarm Management
Cooling Tower Sequencing · Fan VFD Control · Pump Rotation
Condenser Water Distribution · Primary & Secondary Pump Station
2 Modular Cooling Towers · Water-Cooled Chiller Plant
Design values representing the engineered operating targets of the centralized cooling tower plant. Performance is optimized for continuous mission-critical operation under varying thermal loads.
Mission-critical facilities require continuous heat rejection without creating a single point of failure.
Install two modular cooling towers capable of staged operation and supporting an N+1 cooling strategy.
High system availability, simplified maintenance, and uninterrupted cooling during equipment servicing.
Large data centers require balanced condenser water flow across multiple cooling plant components.
Engineer a centralized condenser water loop with dedicated primary and secondary pump stations.
Stable hydraulic performance, lower pressure losses, and reliable heat rejection throughout the cooling plant.
Cooling demand varies continuously with IT load and outdoor weather conditions.
Integrate PLC sequencing with the Building Management System to automatically stage cooling towers, rotate pumps, and manage alarms.
Improved energy efficiency, automatic equipment protection, and complete operational visibility.
Future data hall expansion requires additional cooling capacity without disrupting existing operations.
Adopt a modular cooling plant architecture allowing new cooling tower cells and hydraulic equipment to be incorporated into the existing network.
Future-proof infrastructure with straightforward expansion and minimal operational impact.
Qualitative engineering assessment based on system architecture, redundancy strategy, automation level, and operational design objectives.
Every mission-critical facility requires a cooling strategy adapted to its IT load, environmental conditions, redundancy requirements, and future expansion plans. Lohabour engineers develop centralized cooling plant solutions combining reliable heat rejection, hydraulic optimization, and intelligent automation.