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Characteristics And Types Of Fiberglass Mesh Filters

The Fiberglass Filter is an inorganic, non-metallic material that meets specified performance requirements. It is produced from glass beads or recycled glass through high-temperature melting, drawing, winding, weaving and other processes. It offers effective insulation, high heat resistance, resistance to corrosion and strong mechanical strength, while its limitations are brittleness and low wear resistance. In this article we examine the characteristics and types of Fiberglass Mesh Filters in detail.

Characteristics and Types of Fiberglass Mesh Filters

Characteristics of Fiberglass Mesh Filters

  1. The filter exhibits high tensile strength and low elongation (3%).
  2. The filter has a high elastic modulus and stiffness.
  3. The filter demonstrates a large elongation within its elastic range and high tensile strength, thereby absorbing impact energy.
  4. The filter is composed of inorganic fibres that are non-flammable and resistant to chemicals.
  5. Water absorption by the filter is low.
  6. It withstands high temperatures.
  7. It provides high filtration efficiency.

Types of Fiberglass Mesh Filters

  1. ULPA (Ultra Low Penetration Air) Filter

ULPA Filters provide a filtration efficiency greater than 99,999% for particles measuring 0.1–0.2μm, smoke, micro-organisms and other dust particles.

Characteristics of the ULPA filter: Its filter element is made from ultra-fine glass fibre filter material that is bonded and folded. The outer frame may be constructed from laminated wood, galvanised copper, stainless steel and aluminium alloy and is firmly joined with polyurethane adhesive. It is designed to have low weight, high air permeability and a dust removal efficiency in the range of 99.95–99.999%, while also resisting alkali and high temperatures.

ULPA Filter applications: It is suitable for Class 10 000–100 cleanrooms and air conditioning systems, and has been applied in electronics, microelectronics, semiconductors, optical devices, biological and medical equipment, cameras and optical instruments, precision machinery and other areas.

  1. High Temperature Air Filter

The High Temperature Air Filter comprises a divider structure made from high-temperature resistant glass fibre or ultra-fine glass fibre filter paper, an aluminium foil, a stainless steel frame and a specialised high-temperature resistant sealing compound.

High Temperature Air Filters are principally used in ultra-clean ovens for drying in food and pharmaceutical manufacturing, or in high-temperature air cleaning devices and systems. The maximum operating temperature is 350°C.

  1. High Humidity-Resistant Air Filter

The High Humidity-Resistant Air Filter features a divider structure that utilises special moisture-resistant, ultra-fine glass fibre filter paper, a dedicated rubber layer or an aluminium foil divider, galvanised sheet metal or a profile frame made of aluminium alloy. It is appropriate for conditions with high humidity at normal temperature and pressure, for example in infusion production in the pharmaceutical industry. The maximum operating humidity is 100%.

The Disadvantage of Fiberglass Mesh Filters

Owing to the low elongation of glass fibres, the Fiberglass Filter may be easily damaged. Consequently, caution is required during installation.

Conclusion

We thank you for reading our article and trust that it assists in understanding the characteristics and types of Fiberglass Filters. Should you require additional information on Fiberglass Filters, we recommend that you visit Stanford Advanced Materials (SAM) for further details.

As a leading supplier of Fiberglass Mesh Filters, SAM has over two decades of experience in the manufacture and distribution of Fiberglass Mesh Filters and provides its customers with high quality Fiberglass Mesh Filters to meet their research, development and production requirements. Given that SAM has a long record of meeting technical standards, we are confident that SAM will be your preferred supplier and business partner for Fiberglass Mesh Filters.

About the author

Chin Trento

Chin Trento holds a bachelor's degree in applied chemistry from the University of Illinois. His educational background gives him a broad base from which to approach many topics. He has been working with writing advanced materials for over four years at Stanford Advanced Materials (SAM). His main purpose in writing these articles is to provide a free, yet quality resource for readers. He welcomes feedback on typos, errors, or differences in opinion that readers come across.

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