​Shoring systems provide temporary structural support to excavations during construction, preventing soil collapse and maintaining site safety. These systems are tailored to suit specific project requirements, including soil type, excavation depth, and environmental conditions. Common types include soldier pile and lagging, hydraulic shoring, and sheet piling. Properly designed shoring helps minimize settlement and ensures stability for adjacent structures, utilities, and roads.

Retaining walls are crucial for holding back soil in sloped areas or when creating level surfaces on uneven terrain. These structures can be gravity walls, cantilevered walls, anchored systems, or mechanically stabilized earth (MSE) walls, depending on load requirements and soil conditions. Designed to withstand lateral earth pressures, retaining walls enhance site stability and prevent soil erosion, especially in road, bridge, and commercial infrastructure projects.

Formwork and falsework systems are essential for shaping and supporting concrete structures until they gain sufficient strength. Custom designs may include traditional timber, versatile steel, modular systems, or advanced climbing and cantilevered setups for high-rise or complex projects. Efficient design reduces construction time and costs while ensuring structural safety and precision for bridges, tunnels, and mass transit infrastructure.

​Bridge erection plans involve the detailed planning and design of temporary works, lifting strategies, and sequence of construction required for safe and efficient bridge assembly. These plans include crane positioning, load calculations, girder placement, and temporary supports. Designed to address project-specific challenges like site access, river crossings, or urban constraints, they optimize both safety and build efficiency.

​Designing crane and hoist systems ensures safe lifting and transportation of heavy materials on construction sites. This includes selecting the appropriate type and capacity (e.g., tower cranes, mobile cranes, or gantry cranes) and planning their placement to avoid interference with ongoing work. Proper rigging design, load path analysis, and adherence to safety codes minimize risk and maximize operational efficiency.

​Temporary embankments stabilize construction sites by providing load-bearing platforms, access roads, or soil containment during excavation or earthmoving operations. Designed with geotechnical factors in mind, these embankments prevent erosion, minimize settlement, and maintain slope stability, especially in projects involving bridge foundations, highway cut-and-fill operations, and large industrial developments.

​Sheet piling is a versatile solution for creating watertight retaining walls, cofferdams, and excavation enclosures in soft soils or waterlogged conditions. Designed to withstand high lateral earth pressures, steel or vinyl sheet piles are driven deep into the ground, providing robust support for infrastructure like tunnels, bridges, and marine structures. Proper design ensures long-term stability and effective groundwater management.

Rigging systems provide the framework for safely hoisting, suspending, and securing heavy loads during construction and industrial operations. Detailed rigging design considers factors such as load weight, center of gravity, sling configuration, and anchor points to prevent load shifts or failures. These systems are vital for bridge erection, crane operations, and heavy equipment lifting, ensuring compliance with industry safety standards.