Structural Concrete Repair in Louisiana

We employ a wide range of advanced materials and techniques tailored to each project's conditions. Our structural concrete repair services in Louisiana include:

• Epoxy injection resins for sealing structural cracks in beams, bents, piers, docks, bridges, and walls to restore monolithic strength
• Polyurethane crack injection for active leaks, expansion joints, and water-bearing fissures
• Concrete spall repair using polymer-modified repair mortars for fractured, delaminated, or missing portions of concrete
• Carbon Fiber Reinforced Polymers (CFRP) for external strengthening, capacity enhancement, and change-of-use applications
• Shotcrete for overhead, horizontal, and vertical surface restoration where superior adhesion and consolidation are required
• Pier and pile jacket systems to protect and rehabilitate marine and bridge piles
• Cement and epoxy grouting under machine baseplates, equipment foundations, and skid-mounted systems
• Protective coatings and liners for chemical, abrasion, and UV exposure
• Expansion joint sealing to control moisture migration and protect reinforcing steel from corrosion
• Corrosion protection and rebar replacement for chloride-damaged reinforcement
• Bearing pad replacement for precast parking garage elements

Every project begins with a thorough condition assessment using core sampling, acoustic sounding, pull-off testing, or other ASTM- and ICRI-compliant methods to identify the root cause of distress before specifying the repair.

Louisiana presents one of the harshest operating environments in the country for reinforced concrete. Several forces work against your structures simultaneously.

Saltwater and high humidity drive chloride ions into concrete, attacking embedded reinforcement and causing it to expand, crack, and spall the surrounding material. Coastal and near-coastal facilities see this damage progress rapidly.

Expansive and unstable soils, including the soft delta clays around New Orleans and Baton Rouge, shift with moisture changes. That movement transfers directly into slabs and foundations as cracking and differential settlement.

Hurricane and flood exposure subjects concrete to wind loading, debris impact, and prolonged saturation. Hidden damage often surfaces months after a storm as widening cracks or sinking slabs.

Heavy industrial loading at refineries, plants, and ports pushes concrete past its original design tolerances, particularly at older facilities. Chemical exposure in petrochemical environments degrades concrete from the surface inward, attacking both the cement matrix and the rebar beneath.

Catching damage early and applying the correct repair method extends the service life of a structure by decades and prevents the kind of failures that trigger unplanned outages.