Author: Praxis Technology

Titanium Suppressors: How Powder Metallurgy Reduces Costs & Increases Performance

Powder metallurgy (PM) offers some tremendous advantages in the manufacturing of titanium suppressors. In particular, titanium powder metallurgy (PMTi) offers the best mix of strength, temperature stability, and affordability. Let’s take a look at the challenges surrounding suppressor manufacturing, how titanium compares to other materials, and why PMTi has a competitive edge.

How to Significantly Reduce the Cost of Titanium Medical Devices

Titanium metal injection molding (TiMIM) is a viable and competitive manufacturing method for small, complex titanium components. Once regarded as unfeasible or prohibitively expensive, TiMIM is rapidly being adopted as a go-to forming method for mid to high volume titanium implants.

The Metal Injection Molding Process: How TiMIM Parts Are Manufactured

The titanium metal injection molding (TiMIM) process is a method of manufacturing near-net shape components at production volumes from titanium alloys. Unlike investment casting and additive manufacturing techniques, TiMIM has high density and low contamination potential, making it a preferred method for manufacturing medical implants, high-strength mechanical components, and other demanding applications.

Medical-Grade Titanium (& What Sets Our Titanium Products Apart)

x-ray of pacemaker made with medical-grade titanium

While metal injection molding (MIM) techniques are widely used in the medical device industry, there are distinct advantages when using medical-grade titanium alloys. The titanium metal injection molding (TiMIM) process produces pore-free parts that provide better corrosion resistance and biocompatibility than stainless steel alloys. Titanium is also significantly more efficient when used in ultrasonic applications.

What Is MIM & Why Is It Good for Titanium Parts?

titanium mim process diagram

Metal injection molding (MIM) is a method for creating freestanding parts that can be used in a variety of industries. MIM allows for the production of complex geometries with little or no post-processing, putting them at an advantage over assembly, machining, and casting techniques.