Fuller Piles® rigid inclusions
Efficient rigid inclusion installation
Reliable structural ground improvement with high efficiency and minimal disruption; engineered for commercial, residential, and industrial projects.
Fuller Pile® Rigid Inclusions:
Advanced Ground Strength, Engineered for Stability
Fuller Pile® Rigid Inclusions are advanced ground improvement elements that improve bearing capacity without being directly connected to the footing or slab. By installing a load transfer platform or cushion between the footing and the rigid inclusion, loads are shared between the inclusion and the surrounding soil, providing predictable stiffness and mitigating total and differential settlement.
These systems behave as true structural elements, delivering superior axial and lateral performance and seismic suitability. They often replace stone columns, grout inclusions, and hybrid systems with a single, verifiable, value-engineered solution. Proper installation ensures consistent load transfer and long-term performance, even on sites with variable soil conditions.
Key features

Load-sharing efficiency
Transfers structural loads between rigid inclusion and soil.

Cost-effective foundation
Cost-effective foundation

Settlement mitigation
Controls both total and differential settlement effectively.

Seismic performance
Designed for ductile, predictable behavior under cyclic loading.

High production rates
Up to 50 inclusions per day per rig, depending on site conditions.

Benefits
Installation rates of up to 50 inclusions per day per rig allow large foundation areas to be improved quickly. This significantly reduces foundation duration compared to stone columns or soil mixing systems. Faster installation keeps project timelines on track, and consistent, rigid inclusion installation practices ensure productivity is maintained across multiple rigs. This helps keep projects on schedule and resources optimized.
Installation uses small CAT-class rigs with auger attachments, enabling work in confined or urban sites. Multiple rigs can operate simultaneously, scaling production efficiently and adapting to fast-track schedules. This flexibility minimizes equipment congestion and site disruption, while maintaining best practices in rigid inclusion. This ensures work proceeds efficiently, safely, and on schedule across every project.
Unlike vibro-replacement or grout systems that induce vibration and rely on soil confinement, these inclusions install with minimal disturbance and perform predictably under seismic loads. Correct rigid inclusion installation ensures ductile, reliable performance even in earthquake-prone regions. This gives engineers and contractors confidence that foundations will maintain integrity and stability under all seismic conditions.
Because the system generates no spoil, there are no disposal costs or environmental concerns. This simplifies overall site logistics, reduces regulatory hurdles, and ensures each rigid inclusion is environmentally compliant. It also helps construction projects stay on schedule while promoting sustainable practices, enhancing site efficiency, and supporting safe, cost-effective, and highly reliable construction outcomes.
Structural and geotechnical engineers collaborate on every project, addressing settlement, axial and lateral loads, and seismic effects holistically. Designs use coupled finite element models for uniform load distribution under footings, minimizing RFIs and improving constructability. Integrated design, combined with precise rigid inclusion installation, ensures predictable foundation performance across the construction site.
Rigid inclusion lengths can be modified in the field to match observed subsurface conditions, offering adaptability that traditional ground improvement methods cannot provide. This flexibility helps projects stay on schedule and maintain structural performance through careful rigid inclusions. It also allows engineers to optimize each inclusion for local soil and loading conditions, maximizing efficiency and reliability.
Fuller Pile® Rigid Inclusions support load testing at varying lengths, allowing engineers to optimize the ground system and reduce material use. Strategic length adjustments combined with proper rigid inclusion installation improve cost efficiency and foundation performance. This approach ensures foundations meet project requirements precisely while maximizing safety, efficiency, reliability, and long-term structural performance.
Our Trusted Clients
Our projects
Pattillo Construction
Location: New Jersey.
Contractor: Pattillo Construction (NJDOT Project).
Pile Type: 4 1/2" Fuller Piles®
Aspire
Location: Bushy Park, South Carolina.
Contractor: Evans General Contracting.
Pile Type: 2 7/8” Fuller Pile® with top caps and 5 1/2” Fuller Pile® Rigid Inclusions.
Roper Sawmill
Location: Summerville, South Carolina.
Contractor: Trident Construction.
Pile Type: 4 1/2” Fuller Pile®.
Jedburg Elementary School
Location: Moncks Corner, South Carolina.
Contractor: H.G. Reynolds.
Pile Type: 2 7/8” Fuller Pile® Rigid Inclusions.
Drayage Rd
Location: Charleston, South Carolina.
Contractor: Banks Construction.
Pile Type: 2 7/8” Fuller Pile® Rigid Inclusions.
1620 Riverfront Pkwy
Location: Chattanooga, Tennessee.
Contractor: Evans General Contractor.
Pile Type: 2 7/8” Fuller Pile® Rigid Inclusion.
Why Choose Claycor?
At Claycor, we don’t just provide products; we deliver reliable, innovative geotechnical solutions. With decades of experience, we help engineers, contractors, and builders achieve predictable performance, cost efficiency, and peace of mind on every project.
Partnering with Claycor means access to integrated design expertise, optimized installation methods, and solutions that save time, reduce risk, and maximize performance. With Claycor,
every project starts on solid ground.

FAQS
Installation uses small CAT-class rigs with auger attachments to place rigid inclusions under a load transfer platform, minimizing vibration and site disruption. Correct installation is key to achieving predictable stiffness and load transfer.
They are ideal for commercial, residential, and industrial foundations, especially on sites with variable soils, high loads, or seismic risk.
Yes. Lengths can be modified without formal redesign, allowing adaptation to actual subsurface conditions.

