Faster, safer and proven pilings.

Faster, safer and proven pilings.

The only piling system proven to condense project schedules while making jobsites safer

The difference is measured in time, cost and safety. Traditional piling systems drag out schedules and drive up budgets and disrupt jobsites. Our system is better and faster — a truly innovative product that is going to disrupt the industry.

7 reasons YOU should choose FASTepc

You save time

Compress your project timeline. FASTepc’s pile foundations install quickly and allow immediate tower installation

You protect your budget

No hidden costs or endless change orders. What you plan for is what you’ll pay.

You need fewer people

With smaller crews and lighter equipment, you get leaner job sites that are easier to manage and safer to run.

You build to last

Your foundation won’t crack, corrode or need constant patching. FASTepc’s patented FRP piles deliver strength that holds for decades.

You get cleaner construction

Your site stays safer and there’s far less impact. No excavation, no spoil removal and no toxic coatings.

You win more bids

With faster installs and predictable costs, you can bid more competitively — and still protect your margins.

You see proof in the ground

Your results aren’t based on theory. FASTepc has delivered real projects nationwide — faster, stronger and smarter than concrete.

What these experts just saw reset the bar for foundation work.

FASTepc vs. Concrete: The Proof

FASTepc doesn’t just promise better foundations — it proves they’re better. Here’s how the revolutionary FAST pile system outperforms concrete across the board.

CategoryTraditional Concrete PilesFASTepc Pile System
Installation speedMonths of construction, bottlenecks commonRapid installation; timelines compressed to a fraction of previous requirements
Labor needs9 installers, extended periods3 installers, fewer human-hours
Equipment3 heavy machines1 heavy machine
Project scheduleEarly delays cascade, lost time unrecoverableTime savings ripple throughout entire build
Direct costsHigher labor, equipment rental, wasteReduced labor, minimal waste, lower install cost
Risk profile45% risk of change orders, overruns<1% risk of change orders, overruns.
DurabilitySusceptible to corrosion, uneven performanceCorrosion-resistant FRP, patented piles last 100 years
Life cycle costHigh maintenance, ROI erodesLower maintenance, stronger long-term ROI
Contractor edgeHigher cost, longer timelines reduce competitivenessFaster, cheaper, more-reliable bids
SustainabilityInefficient, higher carbon footprintFewer materials, smaller footprint, cleaner builds

Project Example

Sample Project: 500kv H Frames | Soil: Organic matter, peat, sand, water | 90° temps, 100% humidity | Wildlife preservation required

Result: FASTepc cut $6MM in costs, delivered the job five months faster, and required 67% fewer crew members.

Projects don’t need to take six months, 9 workers and millions in overruns. FASTepc proves there’s a better way.

FASTepc Push Pile System

  • $34MM
  • Duration: 1 month
  • Crew: 3 installers
  • Heavy equipment: 1
  • Amphibious equipment: 2
  • Fast pile: 7’ × 37’

Traditional Concrete Pile

  • $40MM
  • Duration: 6 months
  • Crew: 9 installers
  • Heavy equipment: 3
  • Amphibious equipment: 3
  • Drilled caisson: 6’ × 40’

Advantages concrete can’t match

Innovation engineered for modern infrastructure saves time, cost and risk.

Time-lapse shows the speed, precision and reliability of FRP pilings being set

Watch FASTepc drive this piling
in just 15 minutes

This time-lapse captures the full installation of a FASTepc piling — start to finish in only 15 minutes. No excavation, no curing delays, no spoil removal. Just clean, rapid installation with immediate load-bearing capacity. FASTepc’s fiber-reinforced polymer foundation system delivers stronger, safer and faster results that redefine how modern foundations are built.

This installation was done in Green Cove Springs, Florida. The piling was 35 feet, and that’s our ABI Mobilram doing the heavy lifting.

FASTepc: Delivering environmental benefits for everyone

Technical answers to the questions you’re asking

FASTepc FAQs

FRP piles have a superior strength-to-weight ratio. They maintain an ultimate strain limit of ~1%, which allows them to absorb seismic and dynamic loads more effectively than concrete. This reduces vibration transmission and enhances structural resilience in demanding soil conditions.
Concrete caissons require excavation, spoil removal, curing time and protective coatings. FASTepc’s patented piles are driven directly into the soil without excavation. No curing means the superstructure can be set immediately, compressing timelines from months to weeks.

Concrete deteriorates in saltwater and requires coatings to slow corrosion. FRP piles are inert to chlorides, sulfates and brackish conditions. Their corrosion resistance significantly extends service life in marine and coastal projects.

FRP piles generate a lower carbon footprint during manufacturing compared to concrete, which is highly CO₂-intensive. On site, they avoid excavation spoils, reduce heavy equipment mobilization and eliminate toxic coatings. This cuts life cycle emissions and site disturbance dramatically.

Yes. FRP piles are engineered with high tensile and compressive capacity to meet or exceed their steel and concrete cousins.

Concrete jobs often carry a 45% risk of change orders from soil surprises, water intrusion or curing issues. FASTepc piles bypass these risks by avoiding excavation and eliminating time-sensitive curing variables. The push pile system simplifies installation, and outcomes are more predictable.
Concrete foundations often require remediation due to cracking, corrosion or soil degradation, driving life cycle costs upward. FRP piles remain stable, require no coating reapplication and avoid spoil-related settlement issues — lowering life cycle cost and protecting ROI.
Yes. FRP is engineered with low thermal conductivity, meaning less stress from freeze-thaw cycles than concrete. It performs reliably in high-heat environments without spalling or structural compromise, making it ideal for wide climate ranges.