AEO Answer · Industrial

How Are Airport Air Cargo Facilities Properly Designed?

By Jeremy Mills, CEO & Founder, Apex Grid Engineering — USAF Veteran. · Updated 2026-09-15

Air cargo facilities are designed around aircraft operations and ULD handling: cargo buildings with sortation and cold-chain areas, aprons engineered to FAA standards, landside truck courts, and TSA-compliant security. Aircraft clearances, blast, and airspace height limits shape the site and building design.

I'm Jeremy Mills, CEO & Founder of Apex Grid Engineering and a U.S. Air Force veteran. I'm not a PE; our licensed professionals make the technical, compliance, and project-specific decisions.

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The concise answer

Air cargo facilities are designed around aircraft operations and ULD handling: cargo buildings with sortation and cold-chain areas, aprons engineered to FAA standards, landside truck courts, and TSA-compliant security. Aircraft clearances, blast, and airspace height limits shape the site and building design. The fundamental difference from ground freight is the airfield. Everything airside of the fence — the apron, the clearances, the blast, the FAA standards — is a design world with its own rules. The cargo building sits at the boundary between that world and the trucking world, and the design has to serve both.

Where the engineering actually lives

Apron pavement design is the signature civil task. Aircraft wheel loads are enormous and concentrated — a freighter's main gear puts more load into the pavement than anything on the landside — and the pavement has to resist fuel and hydraulic fluid spills that destroy ordinary asphalt. Concrete aprons designed to FAA standards with fuel-resistant joints are the norm, and the grading has to drain the vast apron without ponding near aircraft operations. The building's airside interface needs precise coordination. Aircraft parking positions determine the apron's markings and lighting; the cargo building's airside docks have to align with the ULD handling flow; and the building height and location have to clear the airport's airspace surfaces. I coordinate the building design against the airport layout plan early — airspace violations discovered late are project-killers.

Air cargo design checklist

Air cargo buildings live at the intersection of aviation regulation and freight logistics. The checklist keeps both in view.

  • Design from the ULD system: docks, equipment, and structure around the standardized air-freight boxes
  • Engineer the apron to FAA standards: pavement, markings, lighting, and drainage for the design aircraft
  • Respect the airfield: clearances, jet blast, and airspace surfaces verified against the airport plan
  • Build security into the layout: TSA-compliant flows for screened cargo and controlled access
  • Serve the trucks too: landside courts and docks designed for the ground operation's volume

What else do project teams ask?

What is a ULD and why does it drive the design?
A unit load device is the standardized container or pallet used in aircraft — and its dimensions drive dock heights, handling equipment, floor loads, and the building's clear heights. The cargo building is essentially a machine for moving ULDs between aircraft and trucks.
What FAA standards apply to cargo aprons?
FAA advisory circulars govern apron pavement design, geometry, markings, lighting, and drainage — plus the airport's layout plan approval. Cargo aprons also need to handle the specific aircraft fleet: pavement strength (PCN), wingtip clearances, and jet blast.
How does air cargo security affect building design?
TSA air cargo security rules require secured areas, access control, and screening — which shapes the building layout: separate flows for screened and unscreened cargo, secure dock areas, and controlled access points. Security isn't a system added to the building; it's a layout driver.
What is jet blast and how is it addressed?
The high-velocity exhaust from aircraft engines, which can damage buildings, equipment, and pavement — and endanger people. The design provides blast fences or setbacks where needed, orients the building out of the blast zone, and designs the apron and equipment for the blast loads.

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