As a proven leader in cost-efficient additive manufacturing (AM) solutions to produce orthopedic implants and aerospace applications, the Electron Beam Melting (EBM) process has the power to unleash a new generation of additive innovation. This leading-edge technology offers design freedom, excellent material properties and stacking capabilities. When you combine these advantages with the elimination of stress relief, your business will see an increase in productivity, when you adopt EBM technology.
During the hot process, the electron beam heats each layer of the build until the entire powder bed reaches an optimal process temperature specific to the material used.
As a result, the EBM process produces components without residual stresses and have microstructures free from martensitic structures.
How does the vacuum chamber work?
The Electron Beam Melting process takes place in a vacuum chamber to ensure a clean and controlled build environment.
Vacuum production is an important aspect of the EBM process as it maintains the chemical specification of the build material.
What is sintering?
During sintering, parts are produced free floating in sintered powder. This allows parts to be stacked tightly and limits, or eliminates, the need for supports.
What benefits does EBM offer the orthopedic industry?
EBM technology offers greater freedom of design, as well higher build volume builds, thanks to part-stacking capability. This combination allows for the manufacture of complex and detailed orthopedic implants.
There is a growing number of CE-certified and FDA-cleared implants on the market produced with the Arcam EBM technology.
What benefits does EBM offer the aerospace industry?
Aerospace is an innovative industry, and engineers are always searching for ways to make parts lighter, faster and more efficient. The EBM process allows you to produce lightweight components with a very efficient buy-to-fly ratio. EBM also allows you to additively manufacture parts using crack-prone materials.