Airslide fabric, a versatile material utilized in pneumatic conveying systems, plays a crucial role in the efficient transportation of powdered and granular materials. To ensure its longevity and optimal performance, understanding the maximum operating temperature for airslide fabric is essential.

Factors Influencing Temperature Resistance

Several factors contribute to the temperature resistance of airslide fabric, determining its maximum operating temperature:

  1. Material Composition: Airslide fabrics are typically constructed from synthetic fibers such as polyester, polyamide, polypropylene, or even PTFE-coated materials. Each type of fabric has its own temperature limits based on the properties of the fibers used.
  2. Fabric Weave and Thickness: The weave pattern and thickness of the fabric influence its ability to withstand higher temperatures. Fabrics with tighter weaves and thicker layers generally exhibit better temperature resistance.
  3. Coating and Treatments: Some airslide fabrics come with specialized coatings or treatments that enhance their temperature resistance. These coatings can protect the fibers from heat-induced degradation.
  4. Conveyed Material: The nature of the material being transported also impacts the fabric’s temperature limits. Some materials generate more heat during conveying, affecting the fabric’s performance.

The Maximum Operating Temperature

The maximum operating temperature for airslide fabric typically ranges from 80°C to 120°C (176°F to 248°F). Beyond this range, the fabric’s physical and mechanical properties begin to deteriorate, leading to potential issues and decreased lifespan.

Effects of Exceeding the Maximum Temperature

Operating airslide fabric above its maximum temperature can result in various adverse effects:

  1. Degradation of Fibers: High temperatures cause the fabric’s fibers to weaken and degrade over time, leading to a reduction in mechanical strength and increased susceptibility to tears and damage.
  2. Reduced Permeability: Elevated temperatures can alter the fabric’s structure, reducing its air permeability. This, in turn, disrupts the smooth flow of materials through the pneumatic conveying system.
  3. Fabric Shrinkage and Deformation: Extreme heat can cause the fabric to shrink and deform, negatively impacting the conveying process and creating uneven airflow patterns.
  4. Chemical Reactions: Some materials may undergo chemical reactions at high temperatures, leading to potential corrosion or deterioration of the fabric.

Maximum Operating Temperature for Different Airslide Fabrics

Fabric MaterialMaximum Operating Temperature (°C)Maximum Operating Temperature (°F)

Top 5 Guidelines for Maintaining Airslide Fabric at High Temperatures

To ensure the airslide fabric operates within its temperature limits and maintains its performance, the following guidelines should be observed:

  1. Temperature Monitoring: Implement a reliable temperature monitoring system to keep track of the fabric’s temperature during operation. This helps prevent unintentional overheating.
  2. Material Compatibility: Ensure the fabric’s material is compatible with the conveyed material and its associated temperature. Consider using specialized coatings or treatments to enhance temperature resistance.
  3. Proper Ventilation: Adequate ventilation around the airslide fabric can help dissipate excess heat, reducing the risk of fabric overheating.
  4. Regular Inspections: Conduct routine inspections to identify signs of wear, tear, or damage that may result from exposure to high temperatures.
  5. Timely Replacement: Replace the fabric when it nears the end of its recommended service life or shows signs of degradation due to high-temperature exposure.
airslide fabric
airslide fabric

Top 4 Common Applications for High-Temperature Airslide Fabrics

  • Cement Plants: Airslide fabrics are used in cement plants to transport hot cement and other materials between various stages of production.
  • Steel Industry: These fabrics assist in conveying hot and abrasive materials, such as iron ore and steel slag, in steelmaking processes.
  • Chemical Processing: High-temperature airslide fabrics are utilized for handling hot chemical powders and granules in various chemical manufacturing processes.
  • Power Generation: They are employed in power plants to transport hot fly ash and other byproducts from boilers.


The maximum operating temperature for airslide fabric is a critical consideration for ensuring its reliability and longevity in pneumatic conveying systems. Operating within the recommended temperature range is vital to prevent fabric degradation, reduce downtime, and maintain efficient material flow.

By adhering to the guidelines and understanding the consequences of exceeding the fabric’s temperature limits, industries can optimize their conveying processes and achieve seamless material transportation even under high-temperature conditions.