Choosing between sheet metal vs machined components is one of the earliest decisions engineers make — and one that heavily impacts cost, lead time, and performance. Both processes can deliver high-quality parts, but each excels in different scenarios.

As clean energy systems—such as battery enclosures, EV charging infrastructure, and power conversion units—continue to scale, manufacturers need components that are lightweight, reliable, and cost-effective to produce. That’s where sheet metal design for clean energy manufacturing plays a critical role. Optimizing your design early in the process not only accelerates time to market, it also improves performance and reduces production costs.

The clean energy sector isn’t just about going green - it’s about demanding strict performance under challenging conditions.

At Advantage Metal Products, precision isn’t just what we deliver, it’s who we are. For over 37 years, we’ve been helping companies in aerospace, defense, medical, telecom, and clean energy turn complex ideas into reality with parts that meet the tightest tolerances and the toughest standards. Our Story Founded in 1988 with the goal of […]

When moving a concept from CAD to production, the best designs aren’t just functional, they’re designed with manufacturing in mind. That’s where Design for Manufacturability (DFM) comes in. By incorporating manufacturing considerations early in the design stage, you can reduce lead times, minimize costs, and improve overall part quality. Here are seven practical DFM tips […]

Bringing a new product to market involves far more than just machining a part. It requires careful coordination between design intent, material properties, tolerance strategies, and real-world manufacturability.

In aerospace, precision isn’t just a requirement, it’s a non-negotiable. From structural components to intricate enclosures, every part must meet exacting standards to ensure performance, safety, and reliability in demanding flight environments.

New Product Introduction (NPI) is a critical phase in the product development lifecycle, particularly for industries that require high-precision components. During this stage, companies move from design validation to production readiness, requiring parts that reflect real-world performance under actual manufacturing conditions.