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Biaxial geogrids, high-tensile-strength products designed for base reinforcement and subgrade improvement. We offer a range of higher strength grids to suit various project needs
GGS 1100 - GGS 1100 is an integrally formed biaxial geogrid made of extruded 100% polypropylene. The load transfer mechanism is a positive mechanical interlock. GGS 1100 is primarily used for base reinforcement or subgrade improvement.
GGS 1200 - GGS 1200 is an integrally formed biaxial geogrid made of 100% polypropylene. The load transfer mechanism is a positive mechanical interlock. GGS 1200 is primarily used for base reinforcement or subgrade improvement.
GGS SF35 - GGS SF35 is composed of high molecular weight, high tenacity multifilament polyester yarns that are woven into a stable network placed under tension. These yarns are coated with a PVC material. GGS SF35 is primarily used for Soil Reinforcement applications such as retaining walls, steepened slopes, embankments sub-grade stabilizations or embankments over soft soils.
GGS SF55 - GGS SF55 is composed of high molecular weight, high tenacity multifilament polyester yarns that are woven into a stable network placed under tension. These yarns are coated with a PVC material. GGS SF55 is primarily used for Soil Reinforcement applications such as retaining walls, steepened slopes, embankments sub-grade stabilizations or embankments over soft soils.
GGS GTX100 - GGS GTX100 is an Integrally Formed Biaxial Geogrid made of 100% high molecular weight, high-tenacity multifilament polymer blends. The Aperture Shape and Rib Shape are both Rectangular. GGS GTX100 is primarily used for Base Reinforcement or Subgrade Improvement.
GGS GTX120 - GGS GTX120 is an integrally formed biaxial geogrid made of 100% multifilament polyester yarns. These filaments are woven into a stable network placed under tension. The load transfer mechanism is a positive mechanical interlock. GGS GTX120 is primarily used for base reinforcement or subgrade improvement.
Installing a geo grid is a critical process for improving soil stabilization and enhancing the structural integrity of earthworks like roadways, retaining walls, and slopes.
Here’s a comprehensive guide to help ensure your geo grid installation is successful:
Clear the Area: Remove any vegetation, debris, or large rocks from the site. The area should be graded to the desired contours, ensuring a smooth and uniform surface.Subgrade Preparation: Compact the soil to create a stable base. The subgrade should be firm and capable of supporting the geo grid and the intended load without excessive deformation.
Positioning: Roll out the geo grid material over the prepared subgrade. Align the grid so that it is straight and taut, minimizing any wrinkles or folds.Orientation: Ensure the geo grid is oriented in the direction of the primary stresses (typically along the direction of traffic for road applications or horizontally for retaining walls).
Overlap: If multiple rolls of geo grid are needed, overlap the edges as specified by the manufacturer, usually about 12 to 18 inches.Anchoring: Use suitable stakes or pins to anchor the geo grid to the ground at regular intervals. This prevents movement during the filling process.
Material Selection: Use the appropriate type of fill as recommended (e.g., gravel, sand, or crushed stone). The fill material should have suitable particle size, cleanliness, and compaction properties.Layering: Apply the fill material in layers over the geo grid. Each layer should be compacted before the next one is applied. Be careful not to damage the geo grid with heavy machinery during this process.
Compaction: Compact each layer of fill material to achieve the required density. This is crucial for the stability and performance of the geo grid system.Finishing: Continue adding layers and compacting until the desired height is achieved. Finish the surface according to the project requirements.
Inspections: Conduct regular inspections during and after installation to ensure there has been no displacement or damage to the geo grid.Documentation: Keep detailed records of the installation process, including material specifications, compaction data, and any issues encountered.
Choosing Erosion Control Direct for your geo grid needs means partnering with a seasoned expert in the field. With over a decade of experience, we have honed our expertise in supplying top-quality soil stabilization products.
Our comprehensive range of solutions, particularly our geo grids, is designed to meet the diverse needs of both large-scale infrastructure projects and small-scale landscaping efforts.
Our commitment to quality and sustainability ensures that every product in our inventory not only meets but exceeds industry standards.
We understand the critical importance of enhancing structural integrity while maintaining project timelines and budgets.
That’s why we offer products that are both effective and eco-friendly, providing you with the tools you need to reinforce soil, prevent land deformation, and maintain the stability of your projects.
At Erosion Control Direct, we believe in building strong relationships with our clients. Our knowledgeable team is always on hand to provide expert advice, ensuring you select the right geo grid products for your specific challenges.
With our proven track record, dedication to customer service, and unwavering commitment to environmental stewardship, Erosion Control Direct is your trusted partner in enhancing and safeguarding your landscapes and infrastructure projects with geo grids.
Geogrids are used for soil stabilization, roadbed reinforcement, and increasing the performance and lifespan of pavement by distributing loads over a wider area.
Geo grid is recommended for retaining walls to enhance their strength and stability, especially in areas with high traffic or load-bearing requirements.
Geogrids are polymers formed into a grid-like structure for reinforcement, while geotextiles are permeable fabrics, used for separation, filtration, and drainage in architectural spaces.
A geogrid must meet tensile strength requirements, resist mechanical damage, and be compatible with the soil and aggregate used in the construction.
Geogrids are placed within the soil or aggregate layers of a pavement system, at the base of retaining walls, or in any engineered earthwork where additional reinforcement is necessary.
Geogrid should be used when soil stabilization, load support, or earth reinforcement is needed, such as in the construction of airports, parking lots, or driveways.
While not always necessary for walls this short, a geogrid can provide additional support and may be used based on the wall's location and soil conditions.
The main disadvantage can be cost-related, especially if not properly installed, which can reduce its effectiveness in soil stabilization.
A rule of thumb is to use a geogrid with a strength and stiffness appropriate for the expected loads, with proper overlap and integration into the soil or aggregate layers.
Retaining walls under 3 feet often do not require geogrid, but the exact height can depend on local building codes and soil conditions.
The weight of the aggregate applies pressure on the geogrid, which then distributes the load horizontally, reducing the risk of rutting and potholes.
Yes, geogrids can reinforce asphalt layers, improving pavement performance by minimizing reflective cracking and extending lifespan.
By stabilizing the rail beds and yard surfaces, geogrids ensure smoother, more efficient freight transport, reducing maintenance needs.
The aperture size must be chosen to interlock effectively with the particle size of the surrounding soil or aggregate, ensuring optimal reinforcement and stability.
Geogrids add tensile strength to the soil, effectively transforming it into a composite material that resists deformation under stress.
Yes, these polymers are chosen for their durability and resistance to harsh conditions, including the exposure to chemicals and UV radiation found in oil platform environments.
A comprehensive financial quote should include the cost of materials, transportation, installation labor, and potential long-term savings from reduced maintenance.
Hardness and stiffness are critical to a geogrid's ability to maintain its structure under load, essential for earthworks and protecting underground utilities.
Standardized tests, including tensile strength, elongation, and junction efficiency, are performed to ensure geogrids meet professional and regulatory standards.
HDPE geogrids are resistant to most chemicals, have high tensile strength, and are durable under heavy loads, making them ideal for the dynamic and demanding environment of mining.
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