Laser and Electron beam deposition are capable of producing a number of high performance alloys systems, as well as many advanced materials. Advanced materials include functionally gradient materials, structural amorphous materials, extended solubility alloys, and high entropy alloys. In order to develop these capabilities and materials a program combining modeling and simulation with experimental trials and validation is being carried out. Mo S&T’s laser systems and NASA Langley’s EBF3 are being modeled and the various issues involved with successfully being able to produce advanced materials on a component level with full functionality are being investigated. Examples outlining the progress in this program will be presented
The WP8 aims at the design of advanced materials and collimators to allow for higher beam power in s...
Due to its high melting point and low weight, TiAl alloys have been developed as the promising high ...
The design of new alloys by and for metal additive manufacturing (AM) is an emerging field of resear...
The application of various modeling techniques in the design and control of a number of emerging pro...
Lasers are useful for performing operations such as joining, machining, built-up freeform fabricatio...
Additive manufacturing in the form of laser deposition is a unique way to manufacture near net shape...
Additive Manufacturing using laser deposition has a great deal of attractiveness as a fabrication te...
Within the EU project ATLAS – “Advanced Design of High Entropy Alloys Based Materials for Space Prop...
Researchers at NASA Langley Research Center are developing a new electron beam freeform fabrication...
We present an overview of the advances in the field of laser materials processing, identifying those...
High power lasers provide time and cost effective method for metallic surface modification. In this ...
The purpose of this study is to develop a new functional technology of laser material processing and...
Since the first successful demonstration of the laser in 1960 the laser’s potential for materials pr...
Laser deposition of metal layers has been recognized, in recent years, as a one-step process to fabr...
The HIPERMAT project aims to develop new materials or material combinations for increased lifetime o...
The WP8 aims at the design of advanced materials and collimators to allow for higher beam power in s...
Due to its high melting point and low weight, TiAl alloys have been developed as the promising high ...
The design of new alloys by and for metal additive manufacturing (AM) is an emerging field of resear...
The application of various modeling techniques in the design and control of a number of emerging pro...
Lasers are useful for performing operations such as joining, machining, built-up freeform fabricatio...
Additive manufacturing in the form of laser deposition is a unique way to manufacture near net shape...
Additive Manufacturing using laser deposition has a great deal of attractiveness as a fabrication te...
Within the EU project ATLAS – “Advanced Design of High Entropy Alloys Based Materials for Space Prop...
Researchers at NASA Langley Research Center are developing a new electron beam freeform fabrication...
We present an overview of the advances in the field of laser materials processing, identifying those...
High power lasers provide time and cost effective method for metallic surface modification. In this ...
The purpose of this study is to develop a new functional technology of laser material processing and...
Since the first successful demonstration of the laser in 1960 the laser’s potential for materials pr...
Laser deposition of metal layers has been recognized, in recent years, as a one-step process to fabr...
The HIPERMAT project aims to develop new materials or material combinations for increased lifetime o...
The WP8 aims at the design of advanced materials and collimators to allow for higher beam power in s...
Due to its high melting point and low weight, TiAl alloys have been developed as the promising high ...
The design of new alloys by and for metal additive manufacturing (AM) is an emerging field of resear...