ShoreSOX for Engineers

info@soxerosion.com (561) 501-0057

BIOENGINEERED SHORELINE AND HILLSIDE STABILIZATION

sox_shoresox-logo_rgb ShoreSOX^® is a patented, high-performance erosion control system designed with both the environment and stakeholders in mind. Engineered with a cutting-edge rip-stop technical mesh and an integrated anchoring system, it harnesses locally sourced organic material or dredge spoils to deliver instant compaction and lasting stabilization. This low-impact, eco-friendly solution doesn’t just stop erosion, it revitalizes vegetation, enhances water quality, and restores shorelines and hillsides with unmatched efficiency.

1. ANCHORS

Anchors are essential to securing the system in place. Installed in stable upland soils beyond the area of active erosion, they provide the foundation that allows the SOX system to adapt to hydraulic forces, changing water levels, wind, and shifting environmental conditions. By maintaining system stability and load distribution, the anchors help preserve shoreline integrity and support long-term performance.

2. KNITTED MESH

At the core of the SOX system is our double-layered knitted polyethylene mesh. This technical mesh forms the structural foundation of the system, engineered to adapt to hydraulic forces, accommodate natural water movement, and maintain soil stability under changing environmental conditions. It provides long-term erosion control while supporting vegetation establishment and preserving a natural shoreline appearance.

3. TETHERING & CONNECTING

This component involves tethering the mesh to both top and bottom anchors, folding it at the toe, and sewing the ends shut. This precise configuration ensures a tight, secure fit that prepares the system for filling and long-term performance in the field.

4. FILL MATERIAL

The SOX system is designed to utilize well-draining fill materials that provide a balance of porosity, stability, and moisture retention. Fill selection should support water movement through the system while avoiding excessive organic matter that can lead to reduced long-term performance. This flexibility allows the system to be tailored to site-specific conditions and project objectives.

5. VEGETATION

Our patented ripstop mesh allows vegetation to grow directly through the material, supporting methods like direct planting, sodding, hydro-seeding, or natural colonization. This not only enhances erosion control but also promotes a green, natural aesthetic.

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RIPSTOP

Our knitted mesh is engineered with ripstop technology. If the material is punctured by a mower blade, the damage stays contained and won’t unravel; the tear remains a small, easily repairable hole. This makes it ideal for installations that require cutting around trees, pipes, or other infrastructure, maintaining the integrity of the system, even when cut or torn.

MODULAR

Thanks to its ripstop design, the material can be cut, sewn, and joined into panels of any shape or size. This modularity allows for custom configurations that adapt to the unique contours and needs of each site, much like assembling a tailored quilt for the landscape.

UV STABILIZED

Engineered for durability, the material is UV stabilized and tested under ASTM standards to simulate long-term sun exposure, even without soil or vegetation cover. It exceeds industry benchmarks, especially in high-stress environments like steep slopes and shorelines, ensuring long-lasting protection and support for vegetation growth.

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LIGHTWEIGHT

Despite its strength, the material is remarkably lightweight; two people can easily carry a 100-foot roll. With no need for heavy machinery, a single person can quickly unroll, drag, and position it on-site, keeping labor requirements low and the process efficient.

WEIGHTBEARING

While lightweight, the system becomes weightbearing as water washes the sediment into the system and creates instant compaction. This provides immediate stabilization, making the surface safe to walk or even drive on, ideal for active job sites.

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SLOPE INTEGRATION

Unlike systems that require regrading or sit awkwardly on top of terrain, this solution integrates directly into the existing slope. It minimizes site disturbance and conforms naturally to the landscape, offering a more seamless and environmentally sensitive alternative to traditional methods like riprap or Geotubes.

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Little Creek Florida

Little Creek, FL

Stormwater Infrustructure Remediation

Following Hurricane Ian, Little Creek Outfall in Oviedo, Florida required restoration after severe erosion exposed stormwater infrastructure and destabilized adjacent slopes. ShoreSOX was specified as a structural soil lift and Turf Reinforcement Mat solution, rebuilding channel banks, reinforcing soils, establishing vegetation, and improving long-term stormwater resilience.

Palm Coast Florida

Palm Coast, FL

Stormwater Infrustructure Interation

Palm Coast, Florida utilized ShoreSOX to protect stormwater infrastructure as part of a municipal weir replacement project. Installed along downstream embankments and around a culvert outfall, the system provided scour protection, stabilized channel banks, reinforced transitions between concrete and earthen slopes, and delivered long-term erosion resilience.

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City of Lauderdale Lakes, FL

Municipal

SOX worked with the City of Lauderdale Lakes to stabilize steep canal embankments adjacent to critical infrastructure and restricted access areas. The ShoreSOX system was installed both over riprap and directly on canal walls, enabling restoration from the water side and delivering long term erosion control where traditional heavy equipment access was limited.

Anchors

City Park, LA

Municipal

SOX completed a shoreline stabilization project at City Park in Louisiana, restoring highly eroded embankments in a flood prone, public setting. The ShoreSOX system reclaimed lost land and created long term slope stability with minimal maintenance, resulting in a fully vegetated, resilient embankment capable of withstanding frequent flooding and limited municipal upkeep. Video

Anchors

St. Johns River, FL

Water Management District

SOX partnered with the St. Johns River Water Management District to stabilize canal embankments along a one lane limestone roadway. The ShoreSOX system restored and protected eroded slopes without widening roads or heavy riprap. Initial success expanded from 8,000 linear feet to more than 40,000 feet, delivering cost effective, durable shoreline protection.

RIP RAP

ShoreSOX integrates seamlessly with riprap systems and can be installed either on top of or behind rock armoring. This flexibility allows engineers to combine structural stone protection with a bioengineered surface that stabilizes slopes, contains sediment, and supports vegetation - often reducing the need for extensive riprap while improving long‑term performance and aesthetics.

CASE STUDY:
Fripp Island Golf Club, SC

GABION BASKETS

A hybrid stabilization approach combines gabion baskets and ShoreSOX to balance structural performance with long-term shoreline resilience. Gabion baskets provide hard armor protection at the canal toe, allowing the project to maintain strict channel dimensions and hydraulic requirements, while ShoreSOX reinforces the upper bank with contained soil and vegetation to improve erosion protection, adaptability, and overall canal performance.

CASE STUDY:
Lauderdale Lakes, fl

WAVE ACTION & HIGH WIND VELOCITY

ShoreSOX withstands hurricane-driven wave action and high winds through a permeable, anchored system that absorbs energy rather than reflects it. By allowing water to percolate through the slope while containing soil, it reduces scour, prevents displacement, and preserves structural integrity in coastal, canal, and other high-energy environments.

CASE STUDY:
Whitney Lab, FL

LATERAL FLOW

In environments with strong lateral or channelized flow, ShoreSOX performs by distributing hydraulic forces across the entire anchored system. The tethered mesh and integrated anchoring prevent displacement while allowing water to move through the slope, minimizing erosion commonly caused by deflection and undercutting in traditional rigid systems.

CASE STUDY:
Coral Creek, HOA

WEATHER VARIABILITY & FREEZE-THAW

Unlike rigid shoreline protection methods, ShoreSOX remains flexible through freeze-thaw cycles, fluctuating water levels, and seasonal weather changes. At Karwick Park, the system stabilized a shoreline impacted by historic dumping activities, helping secure legacy waste while restoring wetland function. This approach supports long-term stability while reducing recurring erosion challenges.

CASE STUDY:
Karwick Nature Park, IN

OVERTOPPING

ShoreSOX has been successfully deployed in environments experiencing frequent overtopping and flood events. By allowing water to flow through and over the system without displacing soil, ShoreSOX protects slopes during high‑water conditions while preserving structural integrity and enabling vegetation recovery once water levels recede.

CASE STUDY:
The Country Club of
Sapphire Valley, NC