Since 1966, when our grandfather was first contracted to make stealth bomber wings, we’ve been delivering the US defense industry with etched components of unrivaled safety, reliability, and precision.
For the defense industry, performance and reliability are non-negotiable. Our chemical photo etching process ensures 100% burr, stress, and distortion-free components with accuracy within ±0.020mm [0.0005″].
We accommodate the widest range of defense-grade metals with our chemical photo etching process, from high-tensile stainless steels to lightweight, corrosion-resistance aluminum to exotic alloys.
We work with hard, soft, and brittle metals that can frustrate traditional methods, ensuring components of exceptional strength, corrosion resistance, or conductivity that perform in the most demanding applications and conditions.
Chemical photo etching is a versatile, scalable process that’s ideal for producing a variety of defense components, from prototype quantities to high-volume production. We also offer post-processing services such as forming, plating, and more to enhance component performance and durability while simplifying your supply chain.
Our team of engineers offers decades of experience working with metals and alloys of various grades and types commonly used in medical components.
Our versatile chemical photo etching service makes use of stainless, ultra-hard steels for instruments, copper alloys, even biocompatible metals for stents, implants, and more.
Burr-free, stress-free parts without the deformation other manufacturing processes can cause.
Get exact repeatability over runs of 100,000 or more. Or cost-effectively produce just a few critical custom parts.
Our photochemical etching process is ISO 9001 and AS9100 certified.
Our experts can help you experiment and draft detailed specs.
We’ve been building a legacy of world-class service since 1968, shipping globally from our workshop in California.
Vaga will be closed for the holidays beginning December 23. We will be back in the office on January 6th, 2025.