Rotor Shop NDI Renovation

Increased throughput, improved quality, and reduced maintenance within an active aerospace inspection environment

The NDI rotor shop in Building 3001 at Tinker Air Force Base was operating within an established process that limited performance. Aging equipment, constrained dwell capacity between inspection stages, and outdated conveyor controls affected throughput, reliability, and maintenance demands.

Limited capacity between the dye penetrant booth and rinse booth restricted flow through a critical portion of the inspection process. At the same time, existing systems provided less efficient tracking and required higher levels of maintenance to sustain operations.

The shop remained fully operational throughout the modernization. Any solution had to improve performance without interrupting ongoing inspection work.

Working within a fixed system

The project was executed within the existing footprint of Building 3001. The structural grid remained unchanged, and the existing mezzanine was preserved.

Continuous operations were maintained throughout the project, requiring all upgrades to be integrated within an active environment. The challenge was to improve process performance inside a fixed facility without expanding or reconfiguring the structure.

A targeted modernization strategy

The team focused on process-critical systems that directly influence flow, quality, and reliability.

The project included the installation of six new process booths and modifications to three existing booths. The drying oven and cooling tunnel were renovated, and the existing power and free conveyor system was upgraded. System controls were modernized to improve reliability and part tracking.

These upgrades were designed to increase capacity, improve equipment performance, and reduce maintenance demands while aligning with the existing layout of the facility.

Executing inside an active environment

All work was performed within an operational rotor shop. Demolition, installation, and system integration were carefully sequenced to align with ongoing inspection activities.

Each system upgrade was integrated into the existing process as work progressed, allowing the facility to continue operating while improvements were implemented.

The modernization achieved its core objectives within the existing footprint:

  • Increased throughput of parts through the shop
  • Increased capacity in the dwell area between the dye penetrant booth and rinse booth
  • Improved product quality through upgraded equipment and process systems
  • Reduced equipment maintenance demands through system modernization
  • Increased reliability and improved tracking of parts through upgraded controls
  • Enhanced worker safety and efficiency through improved equipment design

These improvements were delivered while maintaining operations and without structural reconfiguration of the facility.

Process performance can be improved within an existing facility when upgrades are focused on the systems that control flow, reliability, and quality.

By increasing dwell capacity, upgrading conveyor performance, and modernizing controls, the project improved throughput and operational efficiency without expanding the building or interrupting operations.

When operational continuity is required, modernization must focus on the process itself.

Targeted upgrades to equipment, flow capacity, and control systems can improve performance, reduce maintenance demands, and enhance safety within an active industrial environment.