Introduction: Why Does Cooling Tower Fill Need Troubleshooting?

Cooling tower fill plays a major role in the heat transfer process of an industrial cooling tower. It provides a large surface area for water and air to come into contact, allowing heat to transfer from circulating water into the surrounding air. When the fill works properly, the cooling tower can maintain the required outlet water temperature with reasonable water and air flow rates.

However, even a well-designed cooling tower can develop problems after months or years of operation. You may notice that the outlet water temperature is gradually increasing, water distribution is becoming uneven, or the cooling tower is consuming more energy than before. Sometimes, the problem is not caused by the fan or water pump. The actual reason may be hidden inside the Cooling Tower Media.

This situation is particularly common in Southeast Asia, where high temperatures, humidity, airborne dust, algae growth, and mineral deposits can affect cooling tower performance. Poor water treatment and continuous operation can make the situation even worse.

So, how do you identify problems with cooling tower fill, and what should you do before replacing the entire fill system? Let's look at ten common problems, their causes, and practical solutions.

1. Understanding Cooling Tower Fill and Its Working Principle

Before troubleshooting, it helps to understand what cooling tower fill actually does.

Cooling tower fill, also known as tower fill, cooling fill, or Cooling Tower Media, is installed inside a cooling tower to increase the contact area between hot water and air. As water flows over the fill surface, it spreads into thin films or breaks into smaller droplets. Air moves through the fill at the same time, carrying away heat through evaporation and sensible heat transfer.

Film Fill

Film fill uses closely arranged PVC or PP sheets with corrugated surfaces. Water spreads across these surfaces and forms thin water films, while air passes through the channels between the sheets.

Because it provides a relatively large heat transfer area, Film Fill is widely used in applications where water quality is reasonably controlled. It is especially common in counterflow and crossflow cooling towers.

Splash Fill

Splash fill works differently. Instead of spreading water into thin films, it breaks falling water into smaller droplets through repeated splashing. This design is often suitable for applications where water contains more suspended solids or where clogging is a major concern.

Why Fill Condition Matters

When fill becomes blocked, damaged, or incorrectly installed, the contact between air and water is reduced. This directly affects cooling efficiency. In many cases, replacing damaged tower fill can restore performance without requiring a complete cooling tower replacement.

2. Cooling Tower Types and Their Different Fill Requirements

Not all cooling towers use the same fill structure. Before diagnosing a problem, you need to understand the tower configuration because airflow direction, water distribution, and fill installation methods are different.

Counterflow Cooling Towers

In a counterflow cooling tower, hot water flows downward through the fill while air moves upward in the opposite direction. The two streams come into direct contact, creating an effective heat transfer process.

Counterflow film fill normally uses vertical or inclined corrugated channels. The design must provide sufficient heat transfer area without creating excessive airflow resistance.

Common problems include:

• Fill blockage caused by scale, dirt, and biological growth.
• Uneven water distribution across the fill surface.
• Deformation caused by high water temperature or unsuitable materials.
• Increased air resistance caused by deposits or incorrect installation.

For replacement projects, engineers should check the original fill dimensions, sheet spacing, material, and installation height before ordering new panels.

Crossflow Cooling Towers

In a crossflow cooling tower, air moves horizontally through the fill while water flows vertically downward. Water is generally distributed through a gravity-fed basin above the fill.

Crossflow cooling towers often use relatively wide fill blocks, and the arrangement of the corrugated sheets is important for maintaining uniform airflow and water distribution.

Typical issues include:

• Blocked water distribution holes or nozzles.
• Uneven wetting across the fill surface.
• Damaged or sagging fill blocks.
• Dust and debris accumulating in the air passages.

When replacing crossflow fill, pay attention to the original block width, length, corrugation pitch, and inclination angle. Even a small difference in dimensions can affect installation and airflow distribution.

Industrial Cooling Towers with Splash Fill

Some industrial cooling towers use splash fill instead of film fill. Splash grids are designed to break falling water into droplets and distribute it across multiple levels.

These systems may be preferred when water contains relatively high levels of suspended solids. However, splash fill also requires regular inspection because damaged support grids or uneven installation can reduce water distribution efficiency.

3. Cooling Tower Fill Troubleshooting: 10 Common Problems and How to Fix Them

Problem 1: Cooling Tower Water Temperature Is Too High

Possible Causes

If the cooling tower cannot bring water down to the required temperature, the fill may have lost part of its heat transfer capacity. Dirt accumulation, scale deposits, biological growth, insufficient water distribution, and poor airflow can all contribute to this problem.

In Southeast Asian climates, high wet-bulb temperatures can also reduce the cooling tower's available cooling capacity. This means that the fill should not automatically be blamed whenever outlet water temperature increases.

How to Fix It

• Inspect the fill surface for scale, sludge, and biological deposits.
• Check whether water is distributed evenly across the fill.
• Inspect the fan, motor, and air inlet for airflow restrictions.
• Compare actual operating conditions with the original design conditions.
• Replace severely damaged or permanently blocked fill panels.

One useful tip: check the wet-bulb temperature before deciding whether the cooling tower has a fill problem. This helps separate weather-related performance changes from actual equipment deterioration.

Problem 2: Cooling Tower Fill Is Clogged

Possible Causes

Clogging is one of the most common problems in film fill cooling tower systems. Suspended solids, dust, algae, mineral scale, and other contaminants can gradually accumulate inside the narrow corrugated channels.

This problem is particularly common in factories with insufficient water filtration or poor water treatment programs.

As deposits accumulate, water and air passages become smaller. The result is higher pressure drop, uneven water flow, and reduced heat transfer performance.

How to Fix It

• Check the water quality and cooling water treatment system.
• Clean accessible fill surfaces using an appropriate low-pressure cleaning method.
• Remove loose debris from the water basin and distribution system.
• Improve filtration and control biological growth.
• Consider replacing fill blocks that cannot be restored through cleaning.

Avoid using excessive water pressure or aggressive chemicals without checking the fill material's compatibility. Strong cleaning methods can damage PVC and PP sheets, especially when the material has already become brittle.

Problem 3: Cooling Tower Fill Becomes Deformed or Collapses

Possible Causes

Fill deformation is a serious issue because it can change the original air and water passage structure. Some fill blocks may sag in the middle, bend at the edges, or collapse completely.

Common causes include:

• Operating temperatures exceeding the material's recommended limits.
• Incorrect PVC or PP material selection.
• Insufficient structural support.
• Excessive mechanical loading during installation or maintenance.
• Long-term aging caused by heat, chemicals, and UV exposure.

How to Fix It

First, inspect the supporting structure and determine whether the deformation is caused by the fill itself or by a damaged support system. If only a small section is affected, partial replacement may be possible. However, if large areas have collapsed, replacing the affected fill blocks is usually the more reliable option.

For replacement, check material thickness, corrugation geometry, operating temperature, and support spacing. Simply choosing a thicker sheet does not guarantee a stronger fill system if the overall structure is poorly designed.

Problem 4: Uneven Water Distribution Across the Fill

Possible Causes

When water is not distributed evenly, some sections of the fill receive too much water while other sections remain relatively dry. This reduces the effective heat transfer area and can create localized hot spots.

Possible reasons include blocked nozzles, damaged distribution pipes, incorrect basin water levels, or an uneven installation surface.

How to Fix It

• Inspect spray nozzles and distribution holes.
• Check water pressure and flow rate.
• Remove deposits from distribution pipes.
• Make sure fill blocks are installed in the correct position.
• Check whether the fill surface is level and properly supported.

Replacing the fill alone will not solve the problem if the water distribution system remains faulty. Always inspect both systems together.

Problem 5: Excessive Airflow Resistance

Possible Causes

Cooling tower fill needs to provide enough contact area for heat transfer, but it must also allow air to pass through smoothly. When airflow resistance becomes too high, the fan may consume more energy while the actual air volume decreases.

This can happen when corrugated channels are blocked, fill spacing is incorrect, or replacement panels have different geometries from the original design.

How to Fix It

• Inspect the fill channels for dirt and deposits.
• Check the original corrugation pitch and sheet angle.
• Confirm that replacement panels have compatible dimensions.
• Check fan operation and airflow distribution.
• Avoid installing additional fill layers without evaluating pressure drop.

For engineers selecting new Cooling Fill, the goal should be a reasonable balance between heat transfer surface area and airflow resistance, rather than simply choosing the highest-density fill available.

Problem 6: Algae and Biological Growth on Fill Surfaces

Possible Causes

Warm temperatures, sunlight, moisture, and nutrients create favorable conditions for biological growth. In tropical regions, algae and biofilm can develop relatively quickly when water treatment is insufficient.

Biological deposits can cover the fill surface and narrow the air passages. Over time, this may lead to clogging, odor problems, and reduced cooling performance.

How to Fix It

• Maintain an appropriate water treatment program.
• Control biological growth according to professional water treatment recommendations.
• Remove accumulated deposits through suitable cleaning procedures.
• Inspect water basins and eliminate areas where stagnant water collects.
• Reduce unnecessary exposure to sunlight where the cooling tower design allows it.

Do not rely on occasional cleaning as the only solution. Consistent water treatment and regular inspection are more effective for preventing recurring biological growth.

Problem 7: Cooling Tower Fill Sheets Become Brittle or Cracked

Possible Causes

After years of operation, some PVC fill sheets may become brittle, especially when exposed to high temperatures, unsuitable chemicals, or long-term UV exposure.

Cracks may first appear around the edges, connection points, or areas exposed to mechanical stress. If left untreated, individual sheets can break away and affect the stability of the entire fill block.

How to Fix It

• Check the age and condition of the existing fill.
• Inspect the material for cracking, discoloration, and brittleness.
• Verify whether the operating temperature is suitable for the selected material.
• Consider PP or CPVC when the operating environment requires different material properties.
• Replace severely deteriorated sections before they collapse.

Material selection should always be based on actual operating conditions. PVC is widely used in standard cooling tower applications, while PP and CPVC may be more suitable for certain higher-temperature or chemically demanding environments.

Problem 8: Excessive Water Drift from the Cooling Tower

Possible Causes

Water droplets carried out of the cooling tower with exhaust air are known as drift. Although drift is not directly the same as a fill problem, damaged fill arrangements or poor water distribution can contribute to unstable water movement.

Another important component is the drift eliminator. If the eliminator is cracked, missing, incorrectly installed, or blocked, water losses may increase.

How to Fix It

• Inspect the Drift Eliminators for cracks and missing sections.
• Check whether eliminator panels are installed in the correct direction.
• Inspect the water distribution system for excessive spray.
• Confirm that air velocity is within the equipment's design range.
• Replace damaged eliminator components where necessary.

Remember that fill and drift eliminators have different functions. The fill improves heat transfer, while drift eliminators reduce the amount of water carried out with exhaust air. Both should be inspected during a major cooling tower maintenance project.

Problem 9: Fill Blocks Separate or Lose Their Original Shape

Possible Causes

Film fill is commonly manufactured by forming individual plastic sheets and assembling them into blocks through bonding or other joining methods. If the bonding quality is poor, blocks may separate during long-term operation.

Incorrect installation, excessive mechanical stress, high operating temperatures, and material aging can also affect the integrity of the fill assembly.

How to Fix It

• Inspect bonding points and sheet connections.
• Check whether the supporting structure is stable.
• Avoid applying unnecessary pressure during installation.
• Confirm that replacement blocks are suitable for the tower's operating environment.
• Replace blocks with extensive separation or structural damage.

For large cooling towers, modular fill blocks can make transportation and installation easier. Custom multi-section designs may also help when the original installation space is too wide for a single block.

Problem 10: Cooling Tower Fill Has a Shorter Service Life Than Expected

Possible Causes

Sometimes the problem is not a sudden failure but a gradual reduction in service life. Fill may need replacement much earlier than expected because the material, structure, or operating conditions were not properly matched.

Common reasons include:

• Choosing an unsuitable material for the actual water temperature.
• Using fill with insufficient thickness or structural strength.
• Poor water treatment and frequent chemical exposure.
• Incorrect installation and insufficient support.
• Ignoring regular inspection and cleaning.

How to Fix It

Review the original fill specifications and actual operating conditions. For a replacement project, compare material, thickness, sheet spacing, corrugation angle, block dimensions, and expected service conditions.

A well-matched fill system, combined with proper maintenance, can help reduce premature replacement and unnecessary operating costs.

4. Cooling Tower Fill Materials: PVC, PP, and CPVC

Material selection is one of the most important decisions when purchasing cooling tower fill. Different materials offer different advantages, and the best option depends on water temperature, chemical exposure, mechanical requirements, and operating conditions.

PVC Cooling Tower Fill

PVC is one of the most widely used materials for film fill cooling tower applications. It offers a good balance between cost, formability, and performance under suitable operating conditions.

Advantages include:

• Cost-effective for many standard cooling tower projects.
• Easy to form into corrugated film fill sheets.
• Suitable for many industrial and commercial cooling applications.
• Available in different thicknesses and structural designs.

PVC is often a practical choice for cooling towers operating within the material's specified temperature and chemical compatibility limits.

PP Cooling Tower Fill

Polypropylene, commonly known as PP, is another popular option. Compared with standard PVC, PP generally offers better heat resistance and good chemical resistance in many applications.

Advantages include:

• Suitable for applications requiring higher temperature resistance.
• Good chemical resistance in many operating environments.
• Useful for industrial cooling tower replacement projects.
• Available for different film fill and splash fill structures.

However, PP has different stiffness and forming characteristics from PVC. The final design should consider both material properties and the mechanical structure of the fill block.

CPVC Cooling Tower Fill

CPVC is used in applications where higher temperature resistance is required compared with standard PVC. It may be considered for special industrial cooling conditions.

Although CPVC can offer advantages in certain high-temperature environments, it usually involves a higher material cost. Engineers should evaluate whether its temperature and chemical resistance properties are actually needed before selecting it.

How to Choose the Right Material

There is no single material that is best for every cooling tower. Before placing an order, consider:

• Normal and maximum operating water temperatures.
• Water chemistry and chemical treatment methods.
• Required mechanical strength.
• Expected service life and replacement budget.
• Environmental exposure and installation conditions.

5. Fill Types and Structures: What Should You Know?

Different cooling tower applications require different fill structures. Understanding these designs helps prevent purchasing the wrong product during maintenance or replacement.

Corrugated Film Fill

Corrugated Fill uses formed sheets with repeated ridges and channels. These structures help distribute water, increase contact area, and maintain air passages.

The corrugation pitch, sheet angle, and channel arrangement influence heat transfer and airflow resistance. A smaller pitch may provide more surface area, but it may also increase the risk of blockage when water quality is poor.

Counterflow Film Fill

Counterflow Film Fill is designed for cooling towers where air moves upward and water moves downward. Its channel arrangement supports direct contact between the two streams.

It is commonly used in industrial and commercial counterflow cooling towers. Proper block dimensions and installation orientation are essential for achieving the intended performance.

For replacement projects involving counterflow towers, you can explore our Counterflow Cooling Tower Film Fill, which is available for different dimensions and OEM requirements.

Crossflow Film Fill

Crossflow Film Fill is designed for horizontal airflow and downward water flow. It is often manufactured in wider blocks to match the structure of crossflow cooling towers.

When selecting this type, pay attention to the sheet angle, width, length, and water distribution arrangement.

For crossflow cooling tower applications, take a look at our Crossflow Cooling Tower Heat Transfer Fill, designed for industrial heat transfer and customized replacement projects.

Splash Grid Fill

Splash grid fill uses a grid or bar structure to break falling water into smaller droplets. It is often considered when water contains more suspended solids or when a film fill structure may be more vulnerable to blockage.

Its performance depends on grid spacing, installation arrangement, and the overall distribution of water and air.

6. How Cooling Tower Fill Performance and Efficiency Are Affected

Cooling tower fill performance is influenced by more than just the material or thickness of the sheets. Several operating parameters work together to determine the final cooling result.

Heat Transfer Surface Area

A larger effective contact area can improve heat transfer, provided that water and air are distributed properly. However, simply increasing the amount of fill does not always improve cooling efficiency.

Airflow Resistance

The fill structure must allow sufficient air to pass through. Excessive resistance can reduce airflow and increase fan energy consumption. Engineers should evaluate both thermal performance and pressure drop when selecting a new design.

Water Distribution

Uniform water distribution helps make full use of the fill surface. Dry areas reduce effective heat transfer, while excessive water loading can increase pressure drop and affect operating stability.

Ambient Temperature and Humidity

In Southeast Asia, high ambient temperatures and humidity are important factors in cooling tower operation. The wet-bulb temperature is particularly important because it influences the theoretical cooling limit of an evaporative cooling tower.

During hot and humid periods, the cooling tower may have less available cooling capacity even when the fill is in good condition. Therefore, performance evaluation should consider local weather conditions rather than relying only on standard design figures.

Fill Geometry and Installation Quality

Corrugation pitch, sheet inclination, thickness, block arrangement, and support spacing all influence the final performance of a fill system. Incorrect installation can create bypass airflow, uneven water distribution, and unnecessary pressure losses.

7. What to Consider When Purchasing Replacement Cooling Tower Fill

Buying replacement fill is not simply a matter of choosing PVC or PP. If the new fill does not match the original tower structure, installation can become difficult and cooling performance may not meet expectations.

Confirm the Cooling Tower Type

First, identify whether your tower is counterflow or crossflow. This determines the fill structure and the direction of water and air movement.

Check the Original Dimensions

Measure the existing fill blocks carefully. Important dimensions include:

• Block width and length.
• Overall fill height or thickness.
• Corrugation pitch.
• Sheet inclination angle.
• Individual panel and assembly dimensions.

Do not assume that two products with similar external dimensions will have identical performance. Their internal channel structures may be different.

Confirm the Material and Thickness

Check the water temperature, chemical environment, and required mechanical strength before selecting PVC, PP, or CPVC. Sheet thickness should also be evaluated together with the corrugation design and support conditions.

Consider the Existing Support Structure

Replacement fill should fit the existing support system whenever possible. If the new block is too wide, too tall, or too heavy for the original structure, additional modifications may be required.

Evaluate the Supplier's Customization Ability

For older cooling towers, standard dimensions may not be available. A supplier with different molds and OEM production experience can help manufacture replacement fill according to drawings, samples, or existing measurements.

8. Fill Sizing and Customization for Replacement Projects

Many cooling tower maintenance projects involve replacing only the internal fill rather than purchasing a complete new cooling tower. In these cases, accurate sizing is especially important.

Custom Width and Length

Different cooling tower manufacturers use different fill dimensions. Some projects require standard-width blocks, while others need specially manufactured panels to fit existing structures.

Custom width and length help reduce unnecessary cutting, installation gaps, and material waste.

Custom Thickness and Corrugation Pitch

Sheet thickness and corrugation pitch should be selected according to the required structural strength, heat transfer characteristics, and water quality.

For example, a fill design used in a relatively clean industrial water system may not be the best option for an application with high suspended solids. In the latter case, engineers may need to consider a more open structure.

OEM Production Based on Drawings or Samples

For replacement projects, experienced suppliers should be able to evaluate customer drawings, original product samples, or actual fill measurements.

OEM customization may include:

• Special block width and length.
• Different corrugation pitches and angles.
• Customized sheet thickness.
• PVC, PP, or CPVC material options.
• Multi-section glued fill blocks.
• Special arrangements for crossflow and counterflow towers.

Why Multi-Section Fill Blocks Can Be Useful

Some large cooling towers require fill blocks that are too wide to manufacture, transport, or install conveniently as a single unit. A multi-section design allows individual blocks to be manufactured separately and assembled during production or installation.

This can make handling easier and provide more flexibility for replacement projects with special dimensions.

9. Daily Maintenance: How to Prevent Cooling Tower Fill Problems

Good maintenance can significantly reduce the risk of unexpected fill damage. You do not need to wait until the cooling tower loses a large amount of cooling capacity before checking the fill condition.

Daily Checks

• Monitor inlet and outlet water temperatures.
• Observe whether water distribution is uniform.
• Check for unusual vibration or changes in fan operation.
• Look for abnormal water leakage or excessive drift.

Monthly Inspections

• Inspect accessible fill areas for dirt and biological deposits.
• Check water distribution nozzles and pipes.
• Remove accumulated debris from accessible areas.
• Check the condition of drift eliminators and air inlet louvers.
• Review water treatment records.

Annual or Scheduled Maintenance

• Inspect fill blocks for deformation, cracks, and separation.
• Check the supporting structure and installation stability.
• Evaluate fill pressure drop and cooling performance where measurements are available.
• Review whether the existing fill material remains suitable.
• Plan partial or complete replacement if deterioration is extensive.

Important Safety Reminder

Before entering a cooling tower or carrying out internal maintenance, follow the site's lockout and safety procedures. Isolate fans and pumps, confirm safe access conditions, and use appropriate protective equipment. Never perform internal inspection while the equipment is operating.

10. When Should You Replace Cooling Tower Fill Instead of Cleaning It?

Cleaning is useful when the main problem is removable dirt, scale, or biological deposits. However, it cannot restore the original structure of fill that has become brittle, cracked, permanently deformed, or separated.

Consider replacement when:

• Large areas of fill have collapsed or sagged.
• Sheets have become brittle and break easily.
• Cleaning cannot remove heavy deposits from internal channels.
• Fill blocks have lost their original shape or bonding strength.
• Cooling performance remains poor after other operating problems have been corrected.
• The existing material is unsuitable for current operating temperatures or water conditions.

In some projects, partial replacement is sufficient. In others, replacing the complete fill package is a better long-term solution. The decision should be based on the actual condition of the fill and the cost of repeated maintenance.

11. Choosing a Reliable Cooling Tower Fill Manufacturer

For industrial replacement projects, product quality is only one part of the purchasing decision. Manufacturing capability, mold availability, customization, and delivery time can also have a significant impact on the project.

Manufacturing Experience

Ask whether the supplier has experience producing fill for different cooling tower designs. A manufacturer familiar with both crossflow and counterflow applications can better understand replacement requirements.

Available Molds and Product Range

A wide selection of molds can make it easier to match different corrugation pitches, angles, and panel dimensions. This is particularly useful when dealing with older cooling towers or non-standard replacement projects.

Material and Production Quality

Ask about material specifications, sheet thickness control, forming quality, bonding quality, and inspection procedures. These factors all contribute to the consistency and reliability of the finished fill blocks.

OEM and Replacement Support

A supplier should be able to work with drawings, samples, or existing fill dimensions. This is especially important when the original cooling tower manufacturer no longer supplies replacement parts.

Delivery and Long-Term Cooperation

For maintenance contractors and cooling tower service companies, delivery time can be just as important as product price. A supplier with stable production capacity and flexible customization can help reduce project delays and support future replacement orders.

12. Frequently Asked Questions About Cooling Tower Fill Troubleshooting

How often should cooling tower fill be replaced?

There is no fixed replacement interval for every cooling tower. Service life depends on material quality, operating temperature, water treatment, chemical exposure, and maintenance conditions. Regular inspections are more reliable than following a fixed number of years.

Can clogged cooling tower fill be cleaned and reused?

In many cases, yes. If the fill is structurally sound and deposits can be removed safely, cleaning may restore much of its original performance. However, heavily blocked or damaged fill may need replacement.

Is PVC or PP better for cooling tower fill?

Both materials have their own advantages. PVC is widely used for standard cooling applications because of its cost-effectiveness and forming characteristics. PP may be more suitable for certain higher-temperature or chemically demanding environments. The correct choice depends on actual operating conditions.

What is the difference between crossflow and counterflow fill?

The main difference is the direction of airflow. In crossflow towers, air moves horizontally through the fill while water flows downward. In counterflow towers, air moves upward against the downward water flow. Their fill structures and installation requirements are therefore different.

Can cooling tower fill be customized according to existing dimensions?

Yes. Many manufacturers offer OEM production based on customer drawings, samples, or measured dimensions. Width, length, thickness, corrugation pitch, material, and other specifications can be customized according to the project requirements.

Does thicker cooling tower fill always mean better quality?

No. Thickness is only one factor affecting mechanical strength. Material properties, corrugation structure, bonding quality, support spacing, and operating conditions also matter. The best design is the one that meets the project's requirements without creating unnecessary airflow resistance or cost.

13. Conclusion: Solve Fill Problems Before They Become Expensive Repairs

Cooling tower fill problems often develop gradually. A small amount of dirt, uneven water distribution, or minor deformation may not seem serious at first. However, if these issues are ignored, they can eventually reduce cooling capacity, increase operating costs, and lead to unexpected equipment shutdowns.

The most practical approach is to identify the actual cause before deciding whether to clean, repair, or replace the fill. Check water quality, airflow, water distribution, material condition, and installation structure together. This helps avoid replacing perfectly usable components while overlooking the real problem.

For cooling tower maintenance contractors, industrial plant operators, and cooling tower manufacturers, choosing the correct replacement Cooling Tower Media is equally important. Make sure the new fill matches the tower type, dimensions, material requirements, and operating conditions.

At Fengbei Plastic, we manufacture cooling tower film fill for crossflow and counterflow applications, with PVC, PP, and CPVC material options. We support customized dimensions, different corrugation structures, and OEM production based on drawings or existing samples.

If you are planning a cooling tower fill replacement project, feel free to share your existing fill dimensions, material requirements, or project drawings with us. We would be glad to help you evaluate a suitable replacement solution.