| Specification | Details |
| Tower Type | Closed-Circuit Cooler |
| Cooling Principle | Evaporative Heat Rejection |
| Airflow Design | Induced Draft |
| Airflow Direction | Counterflow |
| Process Fluid Circuit | Closed Coil Circuit |
| Tower Casing | FRP |
| Supporting Structure | Hot-Dip Galvanized Steel |
| Fill Material | Rigid PVC |
| Fill Design | Honeycomb |
| Fill Flute Height | 6 / 12 / 19 mm |
| Fill Sheet Thickness | 1.0 / 1.2 mm |
| Fan Type | Induced-Draft Axial |
| Fan Pitch | Adjustable |
| Fan Materials | Plastic / FRP / Aluminium Alloy |
| Fan Motor | Totally Enclosed Weatherproof |
| Motor Mounting | Adjustable Base Inside Fan Stack |
| Inspection Access | Inspection Doors |
| Process Cooling | Indirect / Closed Circuit |
| Water Distribution | Sprinkler / Nozzle System |
| Drift Control | Drift Eliminator |
| Maintenance Access | Lift-Out Strainer & Sump Access |
An evaporative coil cooling tower removes heat from the process fluid through an indirect evaporative cooling cycle.
Step 1 – Process Fluid Circulation
The hot process fluid enters the closed cooling coil inside the tower.
Step 2 – Water Distribution
Cooling water is distributed over the outside surface of the coil.
Step 3 – Airflow Generation
The induced-draft axial fan draws atmospheric air upward through the tower.
Step 4 – Heat Transfer
Heat moves from the process fluid through the coil wall into the cascading cooling water.
Step 5 – Evaporation
A small portion of the cooling water evaporates, carrying heat away with the moist air.
Step 6 – Atmospheric Heat Rejection
Warm, moisture-laden air is discharged from the top of the tower.
Step 7 – Process Fluid Cooling
The cooled process fluid exits the coil and returns to the connected industrial process.
Step 8 – Continuous Operation
The cycle repeats continuously to maintain the required process-fluid temperature.
Closed-Circuit Process Cooling
The process fluid remains inside the coil, reducing direct exposure to atmospheric contaminants and evaporative water.
Efficient Evaporative Heat Transfer
The combination of water cascading over the coil and upward airflow provides effective heat rejection through evaporation.
Induced-Draft Counterflow Design
Air moves upward while water moves downward, creating an efficient counterflow heat-transfer arrangement.
FRP Corrosion-Resistant Casing
The fiberglass-reinforced polyester casing is lightweight, corrosion-resistant and does not require painting.
Robust Structural Frame
Hot-dip galvanized steel supporting structures help minimize rust and corrosion while providing long-term structural strength.
Energy-Efficient Airflow
Induced-draft axial fans with adjustable pitch are designed for efficient airflow with low operating noise.
High-Surface-Area Fill
Honeycomb PVC fill divides the air and water streams into multiple paths, increasing contact time and supporting heat transfer.
Easy Maintenance Access
Inspection doors provide access for internal inspection, float-valve adjustment, strainer cleaning and sump flushing
Structure
Casing
Air Distribution
Water Distribution
Fill Options
Oil-Injected, Rotary Screw Compressor
Oil-Injected, Rotary Screw Compressor
Oil-Injected, Rotary Screw Compressor
Oil-Injected, Rotary Screw Compressor
Oil-Injected, Rotary Screw Compressor