Yes. Dynamic compaction is highly effective on granular soils, where energy transfer allows soil particles to rearrange into a denser state. It is also commonly used to improve mixed fills, rubble fills, and uncontrolled fill materials. In some cases, dynamic compaction is evaluated alongside other high‑energy ground improvement methods, such as rapid impact compaction, [...]
Absolutely. Dynamic compaction is one of the most cost‑effective ground improvement options for large areas, especially compared to deep foundations or removal‑and‑replacement. Because the technique does not require imported material and generates no spoil, it reduces hauling, disposal, and construction effort while delivering substantial improvement across wide sites.
The time a dynamic compaction project will take depends on several factors: Size of the area Required depth and degree of improvement Number of drops per point and grid spacing Soil conditions and variability Weather and site access A “typical” project may last from a few days for small pads to several months for [...]
Dynamic compaction typically uses: A crawler crane capable of safely lifting and dropping heavy weights repeatedly Steel pounders or heavy weights (10 to 30 tons) designed to withstand repeated impact Survey and monitoring equipment for crater measurement, settlement tracking, and quality control This combination allows the crew to apply consistent impact energy and maintain [...]
Yes. Rigid inclusions can support heavy load demands for a wide variety of structures. Their increased stiffness and load‑sharing behavior make them well-suited for structural applications such as industrial buildings, warehouses, tanks, bridge approaches, and other facilities requiring strong and consistent ground support. Design considerations typically include load magnitude, settlement criteria, soil conditions, and [...]
Several types of testing are used to ensure proper installation and verify performance. These may include grout monitoring to document volumes and pressures, modulus or load testing to evaluate stiffness, and inspection of equipment logs to ensure construction parameters meet design requirements. Together, these quality checks help confirm that each rigid inclusion meets project [...]
The typical installation process for rigid inclusions begins with site preparation and layout of the column grid. Rigid inclusions are typically installed using displacement drilling techniques, where specialized tooling is advanced to the required depth and grout is pumped during withdrawal to form the column. This displacement‑based approach generates minimal spoil and creates consistent, [...]
The typical installation process for rigid inclusions begins with site preparation and layout of the column grid. Rigid inclusions are typically installed using displacement drilling techniques, where specialized tooling is advanced to the required depth, and grout is pumped during withdrawal to form the column. This displacement‑based approach generates minimal spoil and creates consistent, [...]