Application

Many companies get their first metal 3D printed part right. The prototype fits, the material performs, and the case for additive manufacturing looks solid. The harder question comes next: how do you move from a single successful print to a repeatable, cost-efficient production process? Scaling metal additive manufacturing (AM) is not simply a matter of […]

In applications where extreme temperatures, mechanical loads, and corrosive environments come together, conventional materials quickly reach their limits. This is where nickel-based superalloys come into play. Inconel metal 3D printing, specifically with Alloy 718 (2.4668), enables the production of highly durable components that retain their mechanical properties under extreme operating conditions. Combined with Laser Powder Bed Fusion (LPBF),

Knife manufacturing places high demands on material performance, precision, and design quality. Metal 3D printing for knife manufacturing enables producers to develop high-performance blades and handles with greater design freedom, near-net-shape accuracy, and advanced material properties. Using Laser Powder Bed Fusion (LPBF), knife makers can manufacture functional prototypes and serial components from high-performance metals, achieving sharper edges,

Lerdsin Hospital, a leading public teaching hospital in Bangkok, Thailand, is transforming orthopedic care through the use of patient-specific metal 3D printed implants. By integrating metal additive manufacturing directly into its clinical workflow, the hospital enables customized solutions for complex cases that cannot be addressed with standard, off-the-shelf implants. This case study demonstrates how metal

Silencer (suppressor) manufacturing places extreme demands on materials, design precision, and thermal performance. Traditional manufacturing methods often limit internal geometries, require complex assembly steps, and slow down innovation cycles. Metal additive manufacturing, specifically Laser Powder Bed Fusion (LPBF), is changing this landscape. By enabling the production of highly complex, monolithic metal parts, metal 3D printing allows

Digital dentistry has evolved rapidly in recent years, and metal 3D printing is now one of the most impactful technologies for dental laboratories. From crowns and bridges to removable partial dentures (RPDs), dental professionals increasingly rely on metal additive manufacturing to achieve faster workflows, higher accuracy, and superior fit. Dental labs such as Frauendienst Dental Laboratory in Roth, Germany, use metal

In addition to implants and prosthetics, metal 3D printing is changing the way medical tools and surgical instruments are designed and manufactured. Hospitals, research institutions, and medical device companies increasingly rely on additive manufacturing to produce precise, durable, and customizable tools that support modern surgical procedures. With demand growing for specialized medical equipment, additive manufacturing is emerging as

Metal additive manufacturing has become a breakthrough technology for medical implants, enabling unprecedented levels of customization, precision, and biocompatibility. As healthcare providers increasingly adopt 3D-printed titanium implants, the industry is experiencing great improvements in treatment outcomes, patient recovery, and production efficiency. Why Metal 3D Printing Is Ideal for Medical Implants 1. Patient-Specific Titanium Implants Custom implants tailored