Raw Material : | |
---|---|
Acid &Alkali Resistance: | |
Fiber Type : | |
Flaming point: | |
Melting Point(℃): | |
Density(g/cm3): | |
Availability: | |
Quantity: | |
XRT-PF
xinrui-te
Factory Price PET Polyester Staple Fiber for Asphalt Concrete
-----XRTF-PET
Polyester Staple Fiber Introduction:
Polyester Staple Fiber Specification:
Raw Material | Polyester | Acid &Alkali Resistance | Strong |
Fiber Type
| Multifilament | Flaming point | >560 C.Deg. |
Melting Point(℃) | >240℃ | Density(g/cm3) | 1.36+/-0.04g/cm3 |
Fiber length (mm)
| 6,10,12,15 | Fiber Diameter | 0.02±0.005mm |
Crack elongation
| 30+/-9% | Tensile strength | > 600 MPa |
Polyester Staple Fiber Characteristics:
Properties | Specific Functions |
---|---|
Prevent asphalt concrete cracking | Inhibits crack formation, resists reflective cracking from base cracks, enhancing pavement integrity. |
Improve high-temperature stability | Enhances deformation resistance in heat, reducing rutting/shoving and prolonging service life. |
Enhance low-temperature crack resistance | Improves cold flexibility, reducing shrinkage cracking from temperature drops and freeze-thaw damage. |
Improve peel resistance | Strengthens asphalt-aggregate adhesion, reducing film stripping from water/loads to enhance durability. |
Enhance fatigue resistance | Distributes stress, delays fatigue crack initiation/propagation, improving cyclic load capacity. |
Improve water stability | Reduces water erosion, minimizing raveling/pothole risks and enhancing water resistance. |
Polyester staple fiber application:
1.New asphalt concrete pavement: Applied in new road construction to enhance pavement performance by improving
durability and load resistance.
2.Old pavement overlay: Used as a renovation layer to inhibit reflective cracks and strengthen structural stability in
aged asphalt surfaces.
3.Low-temperature crack resistance: Enhances asphalt concrete’s ability to withstand cold-induced shrinkage,
reducing cracking risks in frigid environments.
4.Pavement defect repair: Fixes cracks, potholes, and flaws, boosting the durability and load-bearing capacity of
repaired sections.
5.Bridge deck asphalt: Installed on bridge surfaces to strengthen fatigue and water damage resistance, ensuring long-
term structural integrity.
6.High-strength concrete reinforcement: Added to fine aggregates to improve crack resistance and structural
wholeness in high- performance concrete.
PACKING: 1.0kg / small bag, 20 or 25kgs a plastic woven bag, about 12mts/1x20`gp
Also can be made as per customer`s request
Factory Price PET Polyester Staple Fiber for Asphalt Concrete
-----XRTF-PET
Polyester Staple Fiber Introduction:
Polyester Staple Fiber Specification:
Raw Material | Polyester | Acid &Alkali Resistance | Strong |
Fiber Type
| Multifilament | Flaming point | >560 C.Deg. |
Melting Point(℃) | >240℃ | Density(g/cm3) | 1.36+/-0.04g/cm3 |
Fiber length (mm)
| 6,10,12,15 | Fiber Diameter | 0.02±0.005mm |
Crack elongation
| 30+/-9% | Tensile strength | > 600 MPa |
Polyester Staple Fiber Characteristics:
Properties | Specific Functions |
---|---|
Prevent asphalt concrete cracking | Inhibits crack formation, resists reflective cracking from base cracks, enhancing pavement integrity. |
Improve high-temperature stability | Enhances deformation resistance in heat, reducing rutting/shoving and prolonging service life. |
Enhance low-temperature crack resistance | Improves cold flexibility, reducing shrinkage cracking from temperature drops and freeze-thaw damage. |
Improve peel resistance | Strengthens asphalt-aggregate adhesion, reducing film stripping from water/loads to enhance durability. |
Enhance fatigue resistance | Distributes stress, delays fatigue crack initiation/propagation, improving cyclic load capacity. |
Improve water stability | Reduces water erosion, minimizing raveling/pothole risks and enhancing water resistance. |
Polyester staple fiber application:
1.New asphalt concrete pavement: Applied in new road construction to enhance pavement performance by improving
durability and load resistance.
2.Old pavement overlay: Used as a renovation layer to inhibit reflective cracks and strengthen structural stability in
aged asphalt surfaces.
3.Low-temperature crack resistance: Enhances asphalt concrete’s ability to withstand cold-induced shrinkage,
reducing cracking risks in frigid environments.
4.Pavement defect repair: Fixes cracks, potholes, and flaws, boosting the durability and load-bearing capacity of
repaired sections.
5.Bridge deck asphalt: Installed on bridge surfaces to strengthen fatigue and water damage resistance, ensuring long-
term structural integrity.
6.High-strength concrete reinforcement: Added to fine aggregates to improve crack resistance and structural
wholeness in high- performance concrete.
PACKING: 1.0kg / small bag, 20 or 25kgs a plastic woven bag, about 12mts/1x20`gp
Also can be made as per customer`s request
Have you ever wondered why foam control is crucial in industrial processes? Foam can disrupt operations, reduce efficiency, and affect product quality. The key to managing foam lies in understanding the role of defoaming agents and anti-foam agents. In this post, you'll learn the differences between these agents and their applications in various industries to maintain smooth operations and ensure product quality.
Foam can disrupt food processing, leading to inefficiencies. But what are defoaming agents? These substances control unwanted foam, crucial for smooth operations. The FDA plays a vital role in approving defoamers, ensuring safety and compliance. In this post, you'll learn about FDA approved defoamers, their benefits, and importance in food safety.
Foam in refineries can disrupt operations and reduce efficiency. Why is foam control critical in refining processes? Foam leads to equipment inefficiencies and safety hazards. Antifoaming agents are vital for managing foam. In this post, you'll learn about foam causes, impacts, and the role of defoaming agents in refineries.
Foam can disrupt production, causing inefficiencies and quality issues. Effective foam control is crucial in industrial processes. Anti-foam agents are key to managing foam. In this article, you'll learn how to add defoaming agents effectively to optimize production and maintain product quality.
Foam in paint can ruin a smooth finish, causing imperfections and defects. How do manufacturers tackle this issue? Enter the defoaming agent, a crucial additive in paint formulation. In this post, you'll learn about defoamers' role in ensuring paint quality and the significance of foam control in industrial applications.
IntroductionSodium gluconate is a white, crystalline substance derived from gluconic acid, produced through the fermentation of glucose. It dissolves easily in water, making it a versatile additive in various industries.
IntroductionWhat are Foam and Foam Formation?Foam is essentially a collection of air bubbles trapped within a liquid or solid. It forms when gases are dispersed in a liquid, causing the liquid’s surface to create a bubbly structure. One common example is the foam produced when soap is mixed with wat
IntroductionWhat is Sodium Gluconate?Sodium gluconate is a white, water-soluble compound made from gluconic acid. Its chemical formula is C₆H₁₁NaO₇. You’ll often find it as a powder or granules. But don’t let that simple appearance fool you—it’s powerful.
Have you ever looked at a soaring skyscraper or a massive bridge and wondered how concrete can be shaped into such complex and resilient forms? The secret isn’t just in the mix of cement, water, and stone. Often, the magic lies in powerful chemical additives that transform regular concrete into a hi
In many industrial production processes, foam generation presents a significant challenge. Foam can cause disruptions, reduce product quality, and damage equipment, making effective foam control a necessity.
In the chemical manufacturing industry, foam generation is a frequent and often problematic challenge. Foam can interfere with process efficiency, product quality, and equipment performance.
Are you feeling the pressure of rising steel costs and unpredictable supply chains? For contractors, engineers, and project owners, the post-pandemic construction landscape has presented significant challenges, forcing the industry to seek smarter, more efficient materials. If you're looking for a w
Foam formation is a prevalent issue in numerous industrial processes, ranging from wastewater treatment and chemical manufacturing to food and beverage production.
In modern concrete construction, achieving the perfect balance between workability, strength, and durability is critical. One of the most significant ways to enhance the performance of concrete is through the use of water-reducing admixtures.
IntroductionSelf-leveling concrete has become increasingly popular in modern construction due to its ability to produce smooth, durable, and high-quality surfaces.
IntroductionIn modern construction, the demand for high-performance concrete is ever-increasing.
IntroductionPolycarboxylate Superplasticizer (PCE) is a crucial component in modern concrete technology. Known for its exceptional water-reducing capabilities, it enhances the fluidity of concrete while maintaining its strength and durability.
Innovative Applications of Polymer Macro Synthetics Fibers in Transportation Engineering In the realm of transportation engineering, the pursuit of durability, efficiency, and sustainability is paramount. Among the innovative materials revolutionizing this field, polymer macro synthetics fibers (PMS
Concrete has long been the backbone of construction, prized for its compressive strength and durability. However, its inherent weakness in tension often leads to cracking, especially under load or due to environmental factors. The evolution of reinforcement techniques has addressed this challenge, w
Concrete walls are a cornerstone of modern construction, providing structural integrity and aesthetic appeal. However, the challenges of ensuring durability and preventing structural failures remain a constant concern for engineers and builders. Among the innovative solutions to these challenges, Po