AbstractThe results of the numerical analysis of heat- and mass-exchange processes at powder particles motion in a gas flow and radiation during the laser direct metal deposition are presented. The model regarding the particle acceleration due to the lightpropulsion force caused by the vapor recoil pressure from the beamed surface of the particle is proposed. The reactive force results in the noticeable particle acceleration toward the radiation direction, and the particle velocity may exceed significantly the velocity of the carrying gas. The radius of particles slightly varies due to the evaporation; the losses in the clad material mass are negligibly small
Application of 3D printing technologies for manufacturing metal products, are receiving ever-increas...
Although metal vaporisation has been observed in several laser processes such as drilling or welding...
Metal additive manufacturing has received much attention in the past few decades, and it offers a va...
AbstractThe results of the numerical analysis of heat- and mass-exchange processes at powder particl...
AbstractThis work presents the results of investigation of heating and laser acceleration of powder ...
Additive Manufacturing became a major research topic and part of industrial production in the past y...
Understanding the interaction phenomena between the powder stream, the laser beam and the substrate ...
AbstractLaser direct metal deposition has become an established processing technique for the repair ...
The additive manufacturing (AM) of metals is becoming an increasingly important production process w...
Selection of process parameters is an important step in Powder-Based Additive Manufacturing (PBAM) o...
In direct laser deposition process, metal powder is directly fed with carrier gas through the coaxi...
Additive Manufacturing with aluminium alloys is a subject of increasing industrial interest. Directe...
AbstractThe problems of particle velocity and temperature measurement can be solved with commonly-kn...
A laser deposition process involves the supply of metallic powders into a laser-heated spot where t...
Laser Metal Deposition (LMD) is an innovative technology adopted in Additive Manufacturing (AM) proc...
Application of 3D printing technologies for manufacturing metal products, are receiving ever-increas...
Although metal vaporisation has been observed in several laser processes such as drilling or welding...
Metal additive manufacturing has received much attention in the past few decades, and it offers a va...
AbstractThe results of the numerical analysis of heat- and mass-exchange processes at powder particl...
AbstractThis work presents the results of investigation of heating and laser acceleration of powder ...
Additive Manufacturing became a major research topic and part of industrial production in the past y...
Understanding the interaction phenomena between the powder stream, the laser beam and the substrate ...
AbstractLaser direct metal deposition has become an established processing technique for the repair ...
The additive manufacturing (AM) of metals is becoming an increasingly important production process w...
Selection of process parameters is an important step in Powder-Based Additive Manufacturing (PBAM) o...
In direct laser deposition process, metal powder is directly fed with carrier gas through the coaxi...
Additive Manufacturing with aluminium alloys is a subject of increasing industrial interest. Directe...
AbstractThe problems of particle velocity and temperature measurement can be solved with commonly-kn...
A laser deposition process involves the supply of metallic powders into a laser-heated spot where t...
Laser Metal Deposition (LMD) is an innovative technology adopted in Additive Manufacturing (AM) proc...
Application of 3D printing technologies for manufacturing metal products, are receiving ever-increas...
Although metal vaporisation has been observed in several laser processes such as drilling or welding...
Metal additive manufacturing has received much attention in the past few decades, and it offers a va...