Skid design creates integrated packages mounting process equipment, piping, instrumentation, electrical components, and structural supports on prefabricated frames for factory assembly and site installation. Effective design optimizes performance, cost, constructability, and operational considerations.

Design process includes equipment layout optimizing flow paths and access, structural frame design for equipment loads and handling, piping design minimizing pressure drop and thermal stress, instrument and electrical integration for monitoring and control, and consideration of transportation dimensions, weights, and lifting points.

Design considerations balance competing objectives: compact size reducing plot space and structural steel versus maintenance access requirements, shop fabrication extent versus field connection minimization, standardization for cost reduction versus customization for optimal performance, and quality verification through factory testing versus cost constraints.

Skid applications span process industries: oil and gas metering and compression packages, chemical dosing and mixing systems, water treatment filtration and disinfection, power generation fuel gas conditioning, and renewable energy biogas upgrading. Each application has specific design requirements and constraints.

Successful skid design requires understanding both process requirements and practical constraints: transportation route weight and dimension limits, site crane capacities, foundation design, utility connections, and operational considerations including maintenance access and safety systems.