Laser-Powered Solutions for Complex Manufacturing
We offer custom machines and equipment for additive manufacturing and laser heat treating. On the services side, we guarantee quick turnaround for all orders ranging from one-off prototypes to full-scale production.
Our Customers
Technology Partners
Additive Manufacturing
Additive Manufacturing , also called 3D Printing, generically refers to the process of building structural parts, layer by layer, following a tool path generated from a 3D CAD file. Compared to other laser based additive manufacturing techniques such as Direct Metal Laser Sintering (DMLS) or Selective Laser Melting (SLM), the deposition rates using the DED approach are substantially higher.
Additional Services
Other services offered by Synergy Additive
Latest News
Laser Hardening of AISI D2 Tool Steel: A Modern Approach
Laser hardfacing involves using a laser to apply an overlay of hard and wear-resistant material onto functional surfaces. This process enhances the performance and durability of components, making them better equipped to withstand wear and tear. There are various techniques for overlaying metals and hardfacing critical components. Every industrial process possesses its own distinct characteristics and advantages. In this blog post, we will delve into the advantages of utilizing laser cladding technology for hardfacing with Tungsten Carbides. Additionally, we will provide detailed answers to common queries related to this advanced process.
Robotic Laser Cladding: A new way to repair High Pressure Die Casting Tools
High-Pressure Die Casting (HPDC), also known as High Integrity Die Casting, is a versatile and highly efficient manufacturing process that plays a critical role in producing complex structural components across various industries. Commonly used materials
Tool Path Programming vs. Manual Touch-up in Robotic Laser Hardening
Laser hardening has gained significant traction in the United States, becoming a favored method among OEMs and smaller tool and die makers. Each die is unique, requiring the laser to follow precise paths at specific angles and orientations to ensure quality. Robots are commonly used for this process due to their flexibility. This article explores two primary methods of robotic programming used in laser hardening operations and highlights the advantages of one approach over the other.