Eplus3D is a global leader in additive manufacturing (AM) solutions, specializing in high-performance metal 3D printing technologies. We empower industries - including aerospace & aviation, automotive, energy, oil & gas, machinery, tooling, healthcare, 3C products, and semiconductor manufacturing - with innovative, productivity-driven AM systems that maximize ROI, streamline production, and accelerate innovation.
With the industry's advanced level of 3D printing metal, polymer, stereolithography and other additive manufacturing technologies, Eplus3D has independent research and development of laser technology-based metal and high-performance plastic additive manufacturing printing equipment and materials, which are widely applied in aerospace, automotive, medical, mold industries, etc.
The software solution independently developed by Eplus3D is easy to operate with the features of one-click printing, offline analysis, etc., which can maximize printing efficiency and reduce labor costs. This is also one of the core competitiveness of Eplus3D in the metal 3D printing process and additive manufacturing system.
Eplus3D recently announced the introduction of its Beam Shaping technology across selected metal PBF systems, marking a significant advancement in energy input control for industrial metal additive manufacturing.
The technology has been fully integrated into Eplus3D's system architecture and is designed to support high-efficiency, stable, and repeatable production under demanding industrial conditions.
Beam Shaping technology introduced by Eplus3D has been validated for deployment across its metal PBF systems and supported materials.
The technology is applicable to Eplus3D’s PBF systems, including high-power and multi-laser configurations as well as large-format build environments, and supports a broad range of qualified metal materials.
This confirms Beam Shaping as a mature, system-integrated capability ready for industrial production use.
Compared with conventional Gaussian beam profiles, Eplus3D's Beam Shaping technology delivers a broad range of quantifiable process and production advantages, including:
Reduced melt pool spatter under identical process conditions, leading to a cleaner build environment
Increased build volume rate, allowing greater scan coverage per pass without compromising part quality.
Noticeably expanded stable processing window across laser power and scan speed ranges, enhancing parameter flexibility
Increased keyhole formation threshold, providing a greater margin for stable high-power operation.
Reduced melt pool width variation, which directly improves geometric consistency in multi-laser builds.
Enhanced processing capability for challenging materials, including high-thermal -conductivity alloys such as copper.
Printed components with Gaussian Beam (left) and Beam Shaping (right)
Unlike conventional Gaussian spots that concentrate energy at the beam center, Eplus3D's Beam Shaping technology engineers the spatial energy distribution to deliver a more controlled and application-optimized thermal interaction with the powder bed.
This approach introduces energy distribution as a core process design variable, working in coordination with scanning strategies and system architecture to achieve consistent, scalable production performance.
Eplus3D's Beam Shaping technology is designed to support demanding industrial applications, including:
Aerospace and large structural components
Energy and thermal management parts
Copper-based electrical and heat-exchange components
High-throughput production environments requiring stability and repeatability
Looking ahead, Eplus3D will further expand the industrial impact of Beam Shaping technology by enabling higher productivity, greater stability, and broader material applicability.
As application requirements continue to evolve, Beam Shaping will play an increasingly important role in supporting reliable, repeatable, and scalable metal additive manufacturing for industrial customers.