Tags: Coil Cooling Tower

. Prevention of Contamination 2. Reduced Water Treatment Costs 3. Energy Efficiency 4. Longer Equipment Lifespan 5. Water Conservation 6. Flexibility in Operation 7. Lower Risk of Legionella Growth 8. Space Efficiency & Reduced Noise Common Applications: HVAC systems (chillers, heat pumps)Industrial...

Benefits  • Contaminant-free cooling circuit • Dry operation in winter  • Reduced system maintenance  • Lower overall system costs thanks to year-round savings on maintenance, water, energy and water treatment

Principle of operation  Closed-Circuit cooling towers or fluid coolers operate just like the open type, but dissipate the process fluid heat load into the ambient air via a closed-circuit heat exchanger. This isolates the process fluid from the outside air, keeping it clean and free of contamination in a closed loop and creating 2 separate...

Equipped with access channels to facilitate tower maintenance and repair

Customized solutions, tailored for your projects, bringing you more reasonable suggestions and assurance

Hot process fluid enters the tube bundle from the inlet, and the spray system and fan system are started at the same time. Spray water is evenly sprayed on the surface of the tube bundle and a large amount of the air enters from the air inlet louver at the top of the tower and […]

Hot process fluid enters the tube bundle from the inlet, and the spray system and fan system are started at the same time. The spray water flows downward. The heat of process fluid is transferred to the circulating spray water running through the outer surface of the tube bundle in a way of tube wall […]

They have different air inlet directions. In the cross-flow cooler, the air inlet direction and spray water flow direction make a right angle. However, mixed flow Closed-Circuit cooler has two air inlet directions. In one direction, the air enters from the top of the cooling tower. In the other direction, the air enters from one […]

They have different air inlet directions. In the cross flow cooler, the air is introduced from the side of the tower and flows horizontally, making a right angle to the direction of spray water. However, in the counter flow cooler, the air is introduced at the bottom of the tower and flows from bottom to […]

Cross flow cooling tower is a cooling device that is designed to remove the heat of the process fluid, thereby cooling the process fluid. With tubular exchangers placed in the tower and combed with the packing as the heat exchanger, the whole cooling process is achieved through heat change among cross flow air, spray water […]

Counter flow cooling tower is a cooling device that is designed to remove the heat of the process fluid, thereby cooling the process fluid. With coil exchangers placed in the tower, the whole cooling process is achieved through heat change among the air, spray water & circulating water via coil exchanger inside. In the counter […]

Closed-Circuit cooling tower, also known as Closed-Circuit cooler, closed cooling tower or closed loop cooling tower, is a cooling device that is designed to remove the heat of the process fluid, thereby cooling the process fluid. With coil exchangers placed in the tower, the whole cooling process is achieved through heat transfer among the air,...

 Copper Coil Heat Exchanger vs. Stainless Steel Heat Exchanger Coil Heat exchanger coils are critical components in cooling towers, HVAC systems, and industrial processes. The choice between copper and stainless steel coils depends on factors like thermal efficiency, corrosion resistance, cost, and application...

Advantages of Closed-Circuit Cooling Towers Over Open-Circuit Cooling Towers Closed-circuit cooling towers (also called fluid coolers or hybrid cooling towers) offer several key benefits compared to open-circuit cooling towers, making them ideal for applications requiring clean, efficient, and low-maintenance cooling. 1. Prevents...

Closed-Circuit Cooling Tower vs. Open-Circuit Cooling Tower Cooling towers are essential for rejecting heat in industrial and HVAC systems. The key difference between closed-circuit and open-circuit cooling towers lies in how they handle the process fluid (water or coolant). 1. Closed-Circuit Cooling Tower

Closed-Circuit Cooling Tower vs. Open-Circuit Cooling Tower Cooling towers are essential for rejecting heat in industrial and HVAC systems. The key difference between closed-circuit and open-circuit cooling towers lies in how they handle the process fluid (water or coolant). 1. Closed-Circuit Cooling Tower

Role of Fills in Closed Circuit Cooling Towers (CCCTs) Unlike open cooling towers, which rely heavily on fills for heat exchange, Closed Circuit Cooling Towers (CCCTs) primarily use heat exchanger coils to cool the process fluid in a closed loop. However, some advanced CCCT designs incorporate fills (also called adiabatic...

Emerging Trends in Specialized CCCT Use Direct Chip Cooling – For next-gen AI/GPU data centres.

Hospitals & Critical Facilities Silent operation (low-noise fans for medical zones

Aerospace & Automotive Testing

Plastics & Chemical Processing

Military & Marine Cooling Systems Lightweight aluminum coils for portable systems.

Food & Beverage Processing

Power Plants & Energy Industry Hybrid designs cut water usage by 30-50% vs. open towers.

High-Purity Process Cooling (Pharmaceuticals, Electronics, & Semiconductor Manufacturing) Stable temperature control (±0.5°C accuracy).

1. Routine Maintenance Tasks A. Daily/Weekly Checks Visual Inspections – Look for leaks, corrosion, or damaged components.  Water Levels – Ensure proper water levels in the sump (if applicable)  Fan & Motor Operation – Check for unusual noise/vibration.  Strainers & Filters – Clean if clogged to maintain...

Closed Circuit Cooling Towers (CCCTs) are increasingly being used in data centres for efficient and reliable cooling. Here’s how they are applied and their key benefits: 1. How CCCTs Work in Data Centres Closed-Loop Design: CCCTs keep the cooling water isolated from the external environment, circulating it through a heat exchanger 2. Key Benefits...

The material of construction (MOC) for a closed-circuit cooling tower (CCT) depends on factors like durability, corrosion resistance, environmental conditions, and budget. Below is a detailed breakdown of materials used for key components: 1. Casing/Structure (Frame & Enclosure) a) Galvanized Steel (Most Common) Hot-dip...

The heat exchanger coil (primary cooling coil) in a closed-circuit cooling tower (CCT) is a critical component, and its material must balance thermal efficiency, corrosion resistance, durability, and cost. Below are the most common materials used, along with their pros, cons, and typical applications: 2. Stainless Steel (SS 304 / SS 316) –...

A Closed-Circuit Cooling Tower (CCT) consists of several key components that work together to provide efficient cooling while keeping the process fluid isolated from the external environment. Here’s a breakdown of the main parts: 1. Heat Exchanger Coil (Primary Cooling Coil) Function: Contains the process fluid (water/glycol) that needs...

How It Works

Applications Food/pharmaceutical cooling.

Energy Saving Opportunities in Cooling Towers

Benefits of using Closed-Circuit cooling tower in area where what scarcity is available  Using a Closed-Circuit Cooling Tower (CCT)in areas with water scarcity offers significant advantages due to its water-saving design, reduced evaporation loss, and efficient operation. Here are the key benefits in such regions:  1. Minimal Water Loss...

Cooling towers help reduce the environmental impact of industrial cooling by efficiently managing heat dissipation and conserving water through the recirculation of cooled water. A closed loop system protects the quality of the process fluid, reduces system maintenance, and provides operational flexibility at a slightly higher initial cost. If an...

Benefits  • Contaminant-free cooling circuit • Dry operation in winter  • Reduced system maintenance  • Lower overall system costs thanks to year-round savings on maintenance, water, energy and water treatment

Principle of operation  Closed-Circuit cooling towers or fluid coolers operate just like the open type, but dissipate the process fluid heat load into the ambient air via a closed-circuit heat exchanger. This isolates the process fluid from the outside air, keeping it clean and free of contamination in a closed loop and creating 2 separate...

Top air inlet system is available in both single and double air lets. Of which, packing and tube bundle in the cooling tower with double air inlets are  Large access space, access door and channel are available for easy maintenance

Equipped with access channels to facilitate tower maintenance and repair

Customized solutions, tailored for your projects, bringing you more reasonable suggestions and assurance

Hot process fluid enters the tube bundle from the inlet, and the spray system and fan system are started at the same time. Spray water is evenly sprayed on the surface of the tube bundle and a large amount of the air enters from the air inlet louver at the top of the tower and […]

Hot process fluid enters the tube bundle from the inlet, and the spray system and fan system are started at the same time. The spray water flows downward. The heat of process fluid is transferred to the circulating spray water running through the outer surface of the tube bundle in a way of tube wall […]

They have different air inlet directions. In the cross-flow cooler, the air inlet direction and spray water flow direction make a right angle. However, mixed flow Closed-Circuit cooler has two air inlet directions. In one direction, the air enters from the top of the cooling tower. In the other direction, the air enters from one […]

They have different air inlet directions. In the cross flow cooler, the air is introduced from the side of the tower and flows horizontally, making a right angle to the direction of spray water. However, in the counter flow cooler, the air is introduced at the bottom of the tower and flows from bottom to […]

Hot process fluid enters the coil (or tube bundle) from the water intake, and the spray system and fan system are started at the same time. The heat of process fluid undertakes heat transfer via tube walls and is transferred to the spray water running through the outer surface of the tube. The process water […]