Ma'anshan Xincheng Nano New Material Technology Co., Ltd. is strategically positioned in the heart of Ma'anshan Economic and Technological Development Zone, nestled within the Dangtu County Economic Development Zone Science and Technology Innovation Park. This prime location is in a nationally recognized, civilized city renowned for its breathtaking landscapes and pristine environment.
Currently, Ma'anshan Xincheng Nano New Material Technology Co., Ltd. is thriving with a diverse and expansive range of products. Our offerings include geotextile, geomembrane, composite geomembrane, composite geotextile, geoglery, geoglage, geoglage mat, plastic blind ditch, and three-dimensional geoglage mat. These products form an innovative series of multi-element, multi-level geosynthetic materials, each designed to meet the varied demands of modern construction and engineering.
POLYPROPYLENE SHORT FIBER NEEDLE PUNCHED GEOTEXTILE
Crafted using ultra-high-strength polypropylene staple fiber or ES fiber, this geotextile is manufactured through advanced non-woven technology. It delivers exceptional capabilities in isolation, reinforcement, protection, filtration, drainage, and buffering, making it a versatile solution for diverse applications.
Product specifications: Our geotextile is available in a range from PP100 to PP1200, with widths spanning 2m to 6m. Lengths can be tailored to meet specific user requirements.
Boasting physical and mechanical properties that are 2 to 3 times superior to conventional alternatives, this geotextile stands out with its low product weight ratio. It offers outstanding resistance to acids and alkalis, excellent hot melt adhesion, and robust wear resistance, making it ideal for CRTS/slab ballastless track sliding layer systems. This capability significantly reduces interaction between the track system and bridge surface, enhancing overall performance.
Specification |
unit |
100g |
200g |
300g |
400g |
500g |
600g |
700g |
|
unit weight variation |
% |
± 6 |
|
Grab strength |
MD |
N |
≥450 |
≥900 |
≥1200 |
≥1600 |
≥2000 |
≥2400 |
≥3200 |
|
TD |
≥450 |
≥900 |
≥1200 |
≥1600 |
≥2000 |
≥2400 |
≥3200 |
|
Trapezoidal tear strength |
MD |
N |
≥170 |
≥350 |
≥420 |
≥500 |
≥580 |
≥660 |
≥900 |
|
TD |
|
≥170 |
≥350 |
≥420 |
≥500 |
≥580 |
≥660 |
≥900 |
|
CBR mullen brust strength |
kN |
≥1.3 |
≥2.5 |
≥3.5 |
≥4.3 |
≥5.5 |
≥6.5 |
≥9.0 |
|
breaking strength |
MD |
kN/m |
≥5.0 |
≥11 |
≥16 |
≥22 |
≥28 |
≥35 |
≥48 |
|
TD |
≥5.0 |
≥11 |
≥16 |
≥22 |
≥28 |
≥35 |
≥48 |
|
Elongation at break |
MD |
% |
40~70 |
50~80 |
70±20 |
|
TD |
|
puncture resistance |
N |
≥210 |
≥430 |
≥650 |
≥900 |
≥1200 |
≥1500 |
≥2500 |
|
- Polypropylene needle-punched non-woven geotextile is primarily employed as the sliding layer between CRTS slab ballastless tracks and beam surfaces on passenger-dedicated railways. It also serves as an isolation layer in various settings and extends its functionality to hydropower, highways, railways, ports, airports, sports venues, tunnels, beaches, reclamation, and environmental protection fields, where it plays vital roles in isolation, filtration, drainage, reinforcement, and protection. Technical Dataa
Geotextile Installation Instructions
How to install geotextile fabric
Explore the simplicity of installing geotextile fabric with our comprehensive guide, enriched with practical tips to enhance your installation experience. In this demonstration,
Step 1 - Prep the road surface
Begin by excavating the roadway to your desired elevation. Ensure optimal compaction of your subgrade, meticulously removing all air to achieve a tightly bound soil base.
Step 2 - Unroll the reinforcement geotextile fabric
Carefully unroll the geotextile fabric over the compacted subgrade, ensuring it lies flat without wrinkles or folds. Adhere to fabric overlap guidelines as specified by your engineer. Cherokee offers pre-sewn fabric options if a stitched seam is required. Reach out to your Cherokee representative for pricing on factory-seamed rolls available in wider widths.
Step 3 - Sewing the geotextile fabric
For this project, on-site fabric stitching is necessary. Employ a dual thread lock stitch to secure the seams and prevent unthreading. We provide equipment for purchase or rental to execute stitching tasks. Depending on your engineer's discretion, choose from a prayer seam, j-seam, or butterfly seam. In this case, a j-seam is utilized, with a recommendation of double stitching each seam to avert installation failures.
Step 4 - Apply Aggregate
Distribute the aggregate to the prescribed thickness, ensuring no equipment traverses directly on the engineered fill. Confirm full compaction of the fill before proceeding to the final stage.
Step 5 - Lay Asphalt
Now that your subbase is perfectly positioned, you are all set to proceed with the application of your pavement layer (or multiple layers, depending on the intricate demands of your project).
Project Case Study for Enhanced Reference:
Widespread Applications:
Municipal environmental enhancement, anti-seepage technologies in landscaping, municipal projects, and metallurgy areas, anti-corrosion measures, transportation infrastructure improvements, agricultural reservoir waterproofing projects, and dynamic fisheries aquaculture solutions. Additionally, our materials are tailored for waterproofing of diverse facilities, anti-erosion strategies, seepage prevention, reinforcement integrity, water collection systems, and the strategic preparation of temporary tanks and specialized structures.
Reinforced Concrete Considerations: Be aware that reinforced concrete may necessitate regular maintenance due to typical issues such as cracks, corrosion, and other common structural problems.
Landfill Waterproofing Solutions: Ensures complete watertight integrity in both sanitary and industrial landfills.
Agricultural reservoir waterproofing projects and innovative fisheries aquaculture applications.
Noteworthy Project Cases in CHINA
Impressive Project Cases in Vietnam
Distinguished Project Cases in Japan
Strategic Project Cases in Russia
Pioneering Project Cases in UK
Trailblazing Project Cases in Tanzania
Innovative Project Cases in USA
Geotextile Functions Explored
1. Separation Function
The separation function of geotextile plays a critical role, particularly in road construction. It effectively prevents the intermixing of adjacent soils. For instance, by separating the finer subgrade soil from the aggregate base course, geotextile preserves both the drainage efficiency and the inherent strength characteristics of the aggregate material.
Geotextile Applications Include:
- Placement between subgrade and stone base in both unpaved and paved roads, as well as airfields.
- Utilization between subgrade layers in railroad constructions.
- Implementation between landfills and stone base courses.
- Positioning between geomembranes and sand drainage layers.
2. Filtration Expert Functionality
The equilibrium of the geotextile-to-soil system is critical, allowing for sufficient liquid flow while ensuring minimal soil loss across the plane of the geotextile.
Key properties such as porosity and permeability are vital for the geotextile's filtration action.
A typical application demonstrating the filtration function is the inclusion of geotextile in a pavement edge drain, as depicted in the figure above.
3. Reinforcement Capabilities
The inclusion of geotextile in soil structures significantly enhances tensile strength, mirroring the effect of steel reinforcement in concrete. This strength increment is achieved through three primary mechanisms:
- Lateral restraint is provided through interfacial friction between the geotextile and the soil/aggregate.
- It compels the potential bearing surface failure plane to form a higher-strength alternative surface.
- Acts as a membrane support for wheel loads.
4. Sealing Functionality
A non-woven geotextile layer is strategically impregnated between existing and new asphalt layers. The geotextile absorbs asphalt, transforming into a waterproofing membrane that minimizes vertical water infiltration into the pavement structure.
Weight and Environmental Impact Considerations:
Geotextile Advancements: Lightweight nature, which reduces the load on existing structures and significantly lowers environmental impact.
Reinforced Concrete Limitations: Concrete structures are typically heavier, necessitating a more robust foundational base and resulting in a greater environmental impact during production.
Maintenance and Durability:
Geotextile: Geotextiles are designed to require minimal maintenance over time, as they are significantly less susceptible to cracking and deterioration compared to traditional materials. This ensures long-term durability and performance stability, reducing the need for costly and frequent repairs.
Reinforced Concrete: Reinforced concrete structures often demand regular maintenance efforts due to their vulnerability to cracking, corrosion, and numerous other common issues associated with concrete materials. This can lead to increased maintenance costs and a higher frequency of repairs.
Installation time:
Geotextile: The rapid installation process of geotextiles facilitates swift project completion, allowing you to meet your deadlines without compromise. This efficiency in setup not only saves valuable time but also reduces labor costs and accelerates the project's overall timeline.
Reinforced Concrete: The curing period required for concrete can significantly delay project timelines, often impacting set deadlines. This extended time can disrupt scheduling and lead to increased labor costs and logistical complications.
Geotextile Packing and Delivery
1. Our geotextile products are meticulously packaged with durable packing tape to ensure secure handling. The dimensions of the packaging and the container's capacity vary in accordance with the specific product specifications, providing tailored solutions for every need.
2. Container transportation is organized based on your precise project requirements, ensuring that delivery aligns perfectly with your schedule and logistical needs. This flexibility guarantees that your materials arrive in optimal condition, ready for immediate use.