| Availability: | |
|---|---|
| Quantity: | |
XRT-PLS
xinrui-te
550340
------XRT-MS
Made from 100% virgin polypropylene, Polypropylene mesh fiber resembles a fine net of interconnected monofilaments. When you mix it into concrete, the stirring and rubbing can break apart the horizontal connections, and the filaments or netting stretch out fully — so the concrete ends up being reinforced by a huge number of polypropylene fibers (over 7 million per m²).
Density (g/cm3) | 0.91+/-0.01 | Elastic Modulas (mPa) | > 4000 |
Equivalent Diameter (um) | 100 | Shape | Beam-like Net |
Crack Elongation(%) | ≥ 15 | Acid &Alkali Resistance | Strong |
Tensile Strength (MPa) | 400min. | Length (mm) | Times of 4mm or 6mm |
Melting Point (℃) | 160 –170 | Tensile Ratio (%) | 5-10 |
◆Inrease seepage resistance ◆Prolong endurance ◆Increase cracking resistance ◆Increase fire resistance ◆Strengthen spurt & fatigue
◆Improve tensile, bending & folding strength
◆Strong acid & alkali resistance and good endurance
◆Improve plastic deformity
Generally, the proper length of the fiber added to concrete is 18mm, and for spray concrete, it is 12mm.
Usually, the proper amount of concrete is 0.9kg/m3; the waterproof layer of the bridge requires 1.20-1.8kg/m3; the spray concrete in the tunnel is also 1.8kg/m3. The fiber has greater effects on concrete with active compound materials, such as silicon ash, coal powder, ground slag, and zeolite powder.
A double-axle horizontal mixer is preferable; a self-dropping cylinder mixer is also acceptable.
Crushed stones, fibers, and sand are fed into the mixer sequentially. After stirring for about 2-3 minutes, the fiber will fully spread. Then add cement and water, and stir again as per the normal process. The addition of materials can also be performed as usual, but the stirring time should be extended to more than 4 minutes to ensure the fiber is completely dispersed.
Here is s a quick, back‑of‑the‑envelope estimate—based on a few reasonable assumptions and typical U.S. labor‑rate ranges—of the approximate added labor cost per cubic meter / cubic yard when polypropylene mesh fibers are mixed into concrete.
Extra labor time (per m³ of concrete) | Lower-end hourly labor rate | Typical hourly labor rate |
$30/hr | $40/h | |
Negligible impact:0 min | 0 | 0 |
Low impact:5 min | $2.50/m³ | $3.33/m³ |
Moderate impact:10 min | $5.00/m³ | $6.67/m³ |
Noted:
1. If the fibers are just mixed in dry and the pumping/placement goes smoothly,
It’s usually “low impact” or “negligible.”
2.Quick formula: added cost ($/m³) = (hourly rate ÷ 60) × extra minutes.
Conclusion: In most cases, adding mesh fibers won’t raise labor costs — or only adds a tiny bit.
As a leading polypropylene mesh fiber factory, we specialize in producing premium virgin PP fibers for the global construction market. We offer high-quality polypropylene mesh fiber for sale in various lengths (such as 12mm and 18mm) to meet specific project requirements from tunnel shotcrete to bridge deck overlays. Whether you are looking for a trusted PP mesh fiber manufacturer or a wholesale concrete fiber supplier that provides competitive factory prices, XRT-MS is your ideal partner. Our advanced fibrillated design makes us a top-tier concrete reinforcement fiber supplier, delivering easy-to-disperse solutions that minimize labor impact while maximizing engineering performance.
Upgrade your concrete performance with our industry-leading XRT-MS mesh fibers. As a dedicated polypropylene fiber manufacturer, we offer comprehensive technical support, customized dosage recommendations, and competitive wholesale pricing for bulk international orders. Contact us now to receive our latest price list, technical data sheets, and a professional consultation to ensure your next project achieves the highest standards of stability and crack resistance
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
Fibers have been an integral part of the construction industry for a long time. They are used in concrete to improve its mechanical and physical properties. Different types of fibers are used for various purposes, but polypropylene fibers are the most versatile and widely used. This article will ex
Concrete durability refers to the ability of concrete to withstand the effects of environmental media and survive long-term use without being damaged if it meets the design requirements. Improving the durability of concrete has important practical and long-term significance for extending the service
A concise, engineered reinforcement for concrete, macro synthetic fibres add post-crack strength and reduce surface cracking without the corrosion risks linked to steel.
IntroductionSelf-leveling concrete has become increasingly popular in modern construction due to its ability to produce smooth, durable, and high-quality surfaces.
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
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.
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 is a fundamental building material in the construction industry. However, its brittleness and susceptibility to cracking have long been challenges for engineers and builders. To address these issues, innovative solutions such as polypropylene (PP) hybrid macro synthetic fibers have emerged
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.
Across the global construction industry, innovation often begins with small but powerful changes in materials.
In the construction industry, the demand for stronger, more durable materials is ever-growing. As the need for high-performance building materials increases, 100% virgin concrete fiber is emerging as a game-changer in plaster applications. Traditionally, plaster has been used for both aesthetic and functional purposes in construction, but with advancements in material science, concrete fiber is transforming the way plaster is applied and utilized.
In the world of modern construction, the demand for durable flooring solutions is ever-increasing. Floor screeds, which are essential for providing a smooth and even surface for floors, often face the challenge of maintaining their integrity under extreme conditions such as high temperatures and heavy traffic. For many years, traditional screed materials have been used in various types of buildings, but there’s always room for improvement, especially when it comes to durability and performance. That’s where heat-resistant concrete fiber comes into play.
Foam formation is a prevalent issue in numerous industrial processes, ranging from wastewater treatment and chemical manufacturing to food and beverage production.
Concrete has long been recognized for its strength and versatility in construction projects. Whether it’s for roadways, buildings, or infrastructure, concrete is the backbone of modern construction. However, one of the challenges engineers and builders often face is ensuring that the concrete maintains its structural integrity over time, especially under stress. To overcome this challenge, innovations in concrete materials have been developed, with polymer concrete fiber emerging as a key component in boosting the strength and durability of cement.
IntroductionSpray concrete, also known as shotcrete, is a versatile and efficient method of applying concrete that is widely used in construction and engineering. Its ability to adhere to complex surfaces and structures makes it ideal for a variety of applications, from tunnel linings to slope stabi
Fibre-reinforced concrete has become an essential material choice for projects that demand durability, crack resistance, and long-term performance.
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.
IntroductionIn modern construction, the demand for high-performance concrete is ever-increasing.
Concrete has long been a fundamental material in construction, but its production is responsible for a significant portion of global carbon dioxide emissions. As the construction industry seeks more sustainable practices, the use of macro synthetic fibers in concrete walls is gaining attention as a