0.6mm Thickness Titanium Fiber Felt in Drawing Process
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0.6mm Thickness Titanium Fiber Felt in Drawing Process

0.6mm Thickness Titanium Fiber Felt in Drawing Process

Thickness: 0.6mm
Diameter: 120mm
The diameter of fiber: 25 microns
Porosity: 30%-40%
Technical: drawing
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Product Introduction

0.6mm thickness titanium fiber felt is a high-performance material crafted from titanium fibers drawn through precision dies. This felt exhibits a uniform thickness of 0.6mm, providing a balance between strength and flexibility. With a dense yet porous structure, it offers superb thermal stability, corrosion resistance, and mechanical strength.

 

The drawing process used to create 0.6mm Thickness Titanium Fiber Felt ensures that the fibers are aligned and stretched uniformly, enhancing their mechanical properties and overall performance. Because of its excellent strength-to-weight ratio, this material is durable without gaining extra weight. Its excellent thermal stability allows it to withstand high temperatures, while its corrosion resistance makes it suitable for use in harsh and corrosive environments.

 

Products Specifications

 

Material: pure titanium fiber
Thickness: 0.6mm
Diameter: 120mm
The diameter of fiber: 25 microns
Porosity: 30%-40%
Technical: drawing

 

Products Features
06mm Thickness Titanium Fiber Felt in Drawing Process 3

1. Uniform Thickness: The drawing process ensures that the titanium fibers are stretched to a consistent thickness, providing uniformity in the felt structure.

2. Enhanced Mechanical Properties: Drawing titanium fibers aligns their microstructure, resulting in improved mechanical properties such as tensile strength and flexibility.

3. Superb Thermal Stability: Titanium fiber felt exhibits excellent thermal stability, making it resistant to high temperatures without compromising its structural integrity.

 

06mm Thickness Titanium Fiber Felt in Drawing Process 5

4. Corrosion Resistance: Titanium is inherently corrosion-resistant, and the drawing process further enhances this property in titanium fiber felt.

5. Consistent Performance: The uniformity achieved through the drawing process ensures consistent performance of titanium fiber felt across different batches and applications.

6. Customizable Dimensions: Titanium fiber felt can be tailored to meet specific requirements in terms of thickness, width, and length. The drawing process allows for the production of felt with precise dimensions to suit diverse applications.

What is the difference between drawing and cutting in the production process of titanium fiber?

 

In the production of titanium fibers, two common methods are drawing and cutting.

 

Drawing
Drawing is a process where titanium is pulled through a series of dies to reduce its diameter and increase its length, forming continuous fibers. This method is commonly used for producing continuous titanium fibers with high strength and uniformity. The process involves:
1. Heating: The titanium is heated to make it more malleable.
2. Drawing: The heated titanium is pulled through a series of dies, each with a smaller diameter, to gradually reduce its size and elongate it into fibers.
3. Cooling: After cooling, the fibers are wrapped onto spools for usage or additional processing.

 

Cutting
Cutting involves slicing titanium into fibers using methods like laser cutting or mechanical cutting. This method is typically used for producing shorter or specific-shaped titanium fibers. The process includes:
1. Preparation: Titanium are prepared for cutting.
2. Cutting: The titanium is cut using laser, water jet, or mechanical methods to produce fibers of desired length and shape.
3. Finishing: The cut fibers may undergo additional processing to achieve the required specifications.

 

Differences:
- Purpose: Drawing is primarily focused on reducing diameter and elongating the material to form continuous fibers with improved properties, while cutting is focused on dividing a material into smaller segments for specific applications.
- Resulting Fiber: Drawing results in continuous fibers with improved alignment and mechanical properties, while cutting produces discrete fiber segments of defined lengths.
- Process: Drawing involves a continuous stretching process, whereas cutting is a discrete process that segments the material.
- Properties: Drawing can enhance the strength and uniformity of the fibers, while cutting mainly affects the length of the fibers without significant alterations to their properties.

 

 applications

 

1. Industrial Filtration:
Filtration media at high temperatures for industrial operations.
Fuel cells use gas diffusion layers to produce energy.

 

2. Automotive:
Catalytic converter substrates for pollution control in the automotive industry.
Lightweight parts for increased fuel economy.

 

3. Chemical Processing:
Corrosion-resistant filtration media for aggressive chemicals.
Catalyst support structures for chemical reactions.

 

4. Energy Industry:
Materials for battery electrodes used in energy storage applications.
Thermal insulation for equipment used in power generation.

 

5. Medical:
Biocompatible and corrosion-resistant implantable medical devices.
Surgical devices and tools for robustness and longevity.

 

6. Electronics:
Electrical equipment shielding components.
Solutions for dissipating heat in electronic systems.

 

Contact us
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Tel: 0917-3873009

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Phone: +86 18992731201

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Fax: 0917-3873009

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Address: No. 195, Gaoxin Avenue, High-tech Development Zone, Baoji City, Shaanxi, China

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Whatsapp: +86 18992731201

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