510 Air Cap Trans-Tech - DeVilbiss

The DeVilbiss 802546 510 Air Cap Trans-Tech is engineered for precision in professional automotive refinishing and industrial coating applications. This air cap optimizes material transfer for consistent film build and minimal overspray, vital for demanding production environments. Its robust construction delivers reliable, long-lasting performance across diverse coating tasks.

Key Features

• High Transfer Efficiency (HTE): Designed as a Trans-Tech HTE compliant component, this air cap maximizes material transfer, which significantly reduces paint consumption. It operates efficiently with low VOC and high-solids systems, typically at 25–29 PSI.
• Optimized Atomization: Provides stable and uniform atomization with optimized airflow (7.5–9.5 CFM / 250–265 l/min), integrating seamlessly with common shop air setups for consistent, high-quality finishes.
• Extended Spray Pattern: An 11-1/4" long elliptical spray pattern offers rapid coverage and consistent overlap, ideal for large surfaces like hoods, doors, and roofs, thereby streamlining workflow.
• Durable Construction: Manufactured from plated hard brass, this air cap offers excellent resistance to wear, extending its service life in demanding automotive refinish and industrial coating operations.
• Broad Compatibility: Designed for use with DeVilbiss Advance HD and CVI-620G HE/HVLP gravity spray guns, as well as other specified 510-series compatible models.

Applications

The DeVilbiss 510 Air Cap Trans-Tech is well-suited for professional automotive refinishing tasks, including the application of primers, sealers, basecoats, clearcoats, and single-stage finishes on passenger cars, light trucks, and fleet vehicles. It performs effectively with 2K urethanes and high-solids coatings where precise film build, edge control, and repeatable atomization are critical for a high-quality finish. Additionally, it is appropriate for various industrial coating tasks on frames, equipment, machinery, and fabricated components, ensuring predictable patterns and efficient material transfer for consistent throughput.