Industrial Facilities
Warehouses, light manufacturing, distribution, and flex-tech. Truck circulation, loading dock geometry, heavy-load pavement design, and the operational clearances that keep an industrial site running.
From heavy manufacturing to multi-tenant flex-tech — sites built for trucks, machinery, and material flow.
Industrial facilities cover a wide spectrum — from heavy manufacturing on 20-acre pads to flex-tech bays in a multi-tenant park. They share a common design discipline: the site has to support truck transport, on-grade structural conditions for machinery and material handling, and a clear separation of personnel, visitor, and service circulation.
The full industrial site design package.
- Site layout for warehouse, distribution, light-manufacturing, and flex-tech buildings
- Truck circulation design — turning radii, drive-through vs. head-in loading, on-site queuing
- Loading dock geometry and apron design with appropriate turning analysis (WB-50, WB-67)
- Heavy-load pavement sections engineered for industrial wheel loads
- Fire access, hazardous materials, and secured-yard layout
- Utility coordination for high-demand electric service, process water, and sanitary discharge
Designed around the way the building actually operates.
The nature of industrial development has shifted in the last few decades. The expansive single-purpose manufacturing facility is being overshadowed by flexible space focused on distribution, research, and service industries — and the Treasure Valley reflects that pattern. Most of the industrial work moving through the Boise market today is warehouse, distribution, light manufacturing, and the flex-tech building forms that compartmentalize 20-to-45-foot bays for separate tenants. The design problem is the same in either case: build to support trucks, machinery, and material flow without compromising the personnel side of the building.
Industrial buildings rely on a strong building-to-ground relationship. Slab-on-grade construction, on-grade structural conditions for machinery support, and horizontal line arrangements for production are the rule, not the exception. That puts the grading plan, the pavement section, and the utility entry points at the center of the design. A misaligned dock door or a slab elevation that doesn't match the trailer bed kills an industrial building — and the only way to avoid those problems is to design the site, the building pad, and the loading area as a coordinated system from the start.
Truck geometry is the next critical layer. The loading dock face has to be reachable by the largest design vehicle the tenant will operate — typically WB-50 or WB-67 for distribution facilities — and the apron in front of the dock has to be deep enough for the truck to back in from the drive lane without blocking the fire lane or the employee circulation. Drive-through loading is the most efficient when site geometry allows it, but head-in loading is the more common choice on tight sites. Either way, the site plan has to be drawn around turn-path templates, not around aspirational layouts.
Heavy industrial uses are land-consumptive: floor area ratios of 0.5–1.0 with surface improvements as high as 80–90 percent of the usable site area are common. That puts pressure on stormwater design, screening, and landscape requirements. Light industrial and flex-tech sites are more forgiving — typically 0.24–0.50 FAR with operations and storage required to be under roof — but they still have to balance front-side pedestrian and customer access with back-side service drives, loading, and material handling.
Utility coordination on industrial sites is heavier than on retail. High-demand electric service often requires a dedicated transformer pad sized for the tenant's load, with primary feeds routed in ductbank and secondary service coordinated with the building electrical room. Process water and sanitary discharge can require pretreatment, grease interceptors, or industrial waste permits depending on the use. Fire flow has to be sized for the building's hazard classification, and fire access has to provide clear paths for ladder trucks around the building perimeter. Bailey coordinates all of it before construction documents leave our office.
Where it fits in the 9-phase process.
Site Identification & Feasibility
Yield, zoning, utility availability, fire flow, truck access feasibility.
Entitlements
Conditional use, environmental clearances, hazardous materials review.
CDS — Construction Document Set
Site civil including pad grading, heavy-load pavement, loading dock geometry, utilities.
Construction
Observation, slab pour coordination, dock leveler installation.