Helical Pulldown Piles offer a disturbance-free installation process, producing neither vibrations nor spoils. This makes them a superb option for projects next to existing structures, ensuring minimal impact on surrounding areas and eliminating the need for additional soil disposal.
In contrast to alternative deep foundation systems, micro pulldown and micro piles necessitate the use of lighter equipment with a smaller footprint, eliminating the need for complicated crane pads at the time of installation.
Micro Piles offer versatility in installation, accommodating a spectrum of equipment sizes from hand-portable tools to 30-ton excavators tailored to site constraints and project-specific load demands. Fluid options for nearly any install application.
The presence of high groundwater poses no hindrance to the installation or load-bearing capacity of grouted helical piles in both compression and tension applications.
Micro Piles and Helical Pulldown Piles offer the flexibility to be installed at depths ranging from 6 ft. to 120 ft. ensuring access to the appropriate bearing stratum. The modular system allows for seamless extensions, facilitating easy adaptation to achieve the desired depth.
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Having successfully executed over 1200 projects, boasting 38,000 installed helical piles and 8,000 micropiles across Florida, Coastal Foundation Solutions has emerged as a trailblazer in the deep foundation construction industry.
What sets CFS apart is our unwavering commitment to innovative solutions tailored to overcome the complexities of diverse site and soil conditions. Positioned as the unrivaled leader in specialty deep foundations, our unique design-build approach consistently delivers cost saving for clients compared to traditional deep foundation methods.
At the core of CFS’s success lies our foundation built on enduring relationships and trust.
Eco-Conscious: Helical piles offer an environmentally friendly solution by minimizing the need for extensive earthwork or the removal of spoil materials, particularly advantageous in environmentally sensitive areas.
Selecting the appropriate materials for Helical Pull-Down Piles in coastal regions is of utmost importance. In Florida, where the coastal conditions can be harsh with elevated salinity and humidity, the choice of materials significantly influences the structure’s durability. Materials resistant to corrosion, such as galvanized steel, are the preferred options in such challenging environments.
Grout casing for helical piling.
Involved Engineering/Design Solutions
Grouted Helical Micropiles seamlessly integrate the benefits of pre-engineered helical piles into applications demanding elevated pile load capacities. Significantly outperforming their un-grouted counterparts, they exhibit an impressive 30% to 100% additional capacity in depending on soil conditions.
The innovative technique involves the infusion of a flowable and expansive grout while the foundation is screwed into the soil. This process results in the formation of a grouted deep foundation, characterized by a central shaft supporting friction-bearing forces and helical plates providing end-bearing support in substrata.
The torque indicator gauges the twisting force exerted on the pile during the process of screwing it into the ground. For individuals unfamiliar with helical piles, it’s essential to understand that torque is closely linked to the load-bearing capacity of the pile. Failing to measure torque leaves you unaware of the pile’s potential load-carrying capacity.
Various load tests can be conducted on helical piles to evaluate distinct aspects of their performance. Predominantly, axial compression, axial tension, and lateral load tests are employed for helical piles. These assessments gauge the pile’s ability to withstand downward pressure, upward tension, and lateral forces, respectively.
The choice of load test is contingent upon the specific forces the pile is expected to encounter in its operational environment. Engineers consider factors such as structural loads, soil conditions, and local climate to ascertain the most appropriate methodology for the given circumstances.