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Macro Synthetic PP Polypropylene Embossed Fibre for construction
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Polypropylene Embossed Fibre Introduction
Polypropylene embossed fibre is made from 100% polypropylene through a special molding and surface treatment, and its textured surface locks into the cement matrix better—so it bonds more strongly and transfers stress more effectively than smooth fibers.
Polypropylene embossed fibre is also acid- and alkali-resistant, has good tensile strength, disperses easily, and is easy to work with—won't harm vehicles or pavement, and needs no special upkeep. So it can replace steel fibers to reduce cracking in cement concrete and noticeably improve concrete's toughness and flexural performance.
Polypropylene Embossed Fibre Data sheet:
| Tensile Strength | >650 MPa |
| Elastic Modulus (MPa) | >10GPa |
| Size | 48mm,50mm,54mm, or customized |
| Melting point ( C. Deg) | 165-175 |
| Density(g/cm3) | 0.91 +/- 0.01 |
| Resistance to acid & alkali | Strong |
| Appearance | White or black, grey, and Embossed |
Polypropylene Embossed Fibre Feature
An embossed surface can provide better bite force with FRC. Available in diameters of 20-30mm, it performs well in shotcrete.
Length | Application | Properties |
30mm | Shotcrete | Reduce internal cracks in concrete and significantly lower the rebound rate. |
40mm | Concrete, concrete slabs, composite metal decks, exterior pavements, and floor. | Excellent wear resistance, reducing internal cracking in concrete and extending service life. |
◆Appearance consistency
White/natural-colored fibers aren't easily seen in concrete, making them
suitable for fair- faced concrete and decorative exposed surfaces, helping to
maintain a uniform appearance.
◆Raw material purity
White is usually uncolored natural polymers (e.g., PP, PE), which means no
Colorants or fillers are added, so the chemical makeup is easier to control.
and the performance is more reliable.
◆Ease of visual inspection and sampling
White fibers are easier to spot during mixing and placing, so you can quickly check distribution by eye, and they're simpler to
identify and sample in test specimens.
◆Cost
Most synthetic fibers are naturally white — coloring them adds extra steps and expense, so white is typically the go-to.
Noted: If UV protection, zone identification, safety signaling, or special decorative effects are needed, you can opt for colored fibers or add functional coatings.
Macro Synthetic PP Polypropylene Embossed Fibre for construction
------ XRT-EPF
Polypropylene Embossed Fibre Introduction
Polypropylene embossed fibre is made from 100% polypropylene through a special molding and surface treatment, and its textured surface locks into the cement matrix better—so it bonds more strongly and transfers stress more effectively than smooth fibers.
Polypropylene embossed fibre is also acid- and alkali-resistant, has good tensile strength, disperses easily, and is easy to work with—won't harm vehicles or pavement, and needs no special upkeep. So it can replace steel fibers to reduce cracking in cement concrete and noticeably improve concrete's toughness and flexural performance.
Polypropylene Embossed Fibre Data sheet:
| Tensile Strength | >650 MPa |
| Elastic Modulus (MPa) | >10GPa |
| Size | 48mm,50mm,54mm, or customized |
| Melting point ( C. Deg) | 165-175 |
| Density(g/cm3) | 0.91 +/- 0.01 |
| Resistance to acid & alkali | Strong |
| Appearance | White or black, grey, and Embossed |
Polypropylene Embossed Fibre Feature
An embossed surface can provide better bite force with FRC. Available in diameters of 20-30mm, it performs well in shotcrete.
Length | Application | Properties |
30mm | Shotcrete | Reduce internal cracks in concrete and significantly lower the rebound rate. |
40mm | Concrete, concrete slabs, composite metal decks, exterior pavements, and floor. | Excellent wear resistance, reducing internal cracking in concrete and extending service life. |
◆Appearance consistency
White/natural-colored fibers aren't easily seen in concrete, making them
suitable for fair- faced concrete and decorative exposed surfaces, helping to
maintain a uniform appearance.
◆Raw material purity
White is usually uncolored natural polymers (e.g., PP, PE), which means no
Colorants or fillers are added, so the chemical makeup is easier to control.
and the performance is more reliable.
◆Ease of visual inspection and sampling
White fibers are easier to spot during mixing and placing, so you can quickly check distribution by eye, and they're simpler to
identify and sample in test specimens.
◆Cost
Most synthetic fibers are naturally white — coloring them adds extra steps and expense, so white is typically the go-to.
Noted: If UV protection, zone identification, safety signaling, or special decorative effects are needed, you can opt for colored fibers or add functional coatings.
Concrete is one of the most commonly used materials in construction and industrial applications, but the constant challenge has always been improving its durability and strength. One of the most innovative solutions to enhance concrete's performance has been the introduction of monofilament plastic synthetic fibers. These fibers have transformed how industries approach concrete reinforcement, offering enhanced performance, longevity, and flexibility. In this article, we will explore the significance of monofilament plastic synthetic concrete fibers, how they work, and the industries they are revolutionizing.
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In the realm of modern construction, the search for stronger, more durable materials is ongoing. One such innovation that has dramatically changed the way concrete is used in construction is staple concrete fiber. This specialized material, when mixed into concrete, significantly enhances its strength, performance, and longevity. Whether used in pavements, highways, or structural elements, staple concrete fiber provides numerous advantages that traditional reinforcement methods can’t match.
What is the best concete admixture to strength in South America ? In South America, coastal salt spray, tropical high temperatures, heavy rainfall, and seismic activity pose common challenges to concrete structures, such as early cracking, chloride ion corrosion, insufficient compressive strength,
In infrastructure projects worldwide, concrete's crack resistance, durability, and construction efficiency directly determine project costs and lifespan. Many projects incur rework, delays, and additional maintenance expenses due to difficulties with concrete pumping, failure to meet early strength
How to determine whether the concrete admixture is excessive or insufficient, or whether the water content is too high or too low?
Across the global construction industry, innovation often begins with small but powerful changes in materials.
Polycarboxylate Superplasticizer is a high-performance additive that has transformed modern concrete construction. 、
Polycarboxylate Superplasticizer (PCE) has become a cornerstone in modern concrete technology, offering unmatched performance in workability, strength, and durability.
Fibre-reinforced concrete has become an essential material choice for projects that demand durability, crack resistance, and long-term performance.
Concrete technology has advanced rapidly in recent years, and one of the most significant innovations is the use of macro synthetic fibers.
A concise, engineered reinforcement for concrete, macro synthetic fibres add post-crack strength and reduce surface cracking without the corrosion risks linked to steel.
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.
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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.