γ-TiAl alloys, as a more and more frequently considered high-temperature material, face the challenge to meet increasingly high demands in property improvement. In the present work, the feasibility of laser additive manufacturing (LAM) of a short-milled powder compound consisting of gas atomized γ-TiAl powder and nano-scaled Y2O3 powder material materials via DED (direct energy deposition) process is demonstrated. Microstructure and hardness of the consolidated sample are presented. As a result, the suitability of the produced powder blend to achieve fully dense and crack free samples with homogenously dispersed Y2O3-particles with LAM is demonstrated
Copper is a key material for cooling of thermally stressed components in modern aerospace propulsion...
The railway industry can take advantage of additive manufacturing (AM) processes from several perspe...
This study investigates the role of submicron yttrium oxide on the microstructural evolution and me...
A new route for the synthesis of powder composites suitable for processing with laser additive manuf...
β-solidifying TiAl alloys are considered as promising candidate materials for high-temperature struc...
Lightweight titanium aluminides (TiAl, ρ = 3.9 – 4.1 g/cm3) gain in importance as high temperature s...
We present a novel route for the adsorption of pulsed laser-dispersed nanoparticles onto metal powde...
Directed Energy Deposition of the commercial intermetallic Ti-48Al-2Cr-2Nb alloy was investigated. T...
In this contribution, the effect of nanoparticle additivation on the microstructure and microhardnes...
The capabilities of Additive Manufacturing (AM) techniques has grown rapidly in recent years, howeve...
Additive manufacturing (AM) fabricated oxide dispersion strengthened (ODS) alloys are given high exp...
In this work, a novel oxide dispersion strengthened titanium aluminide alloy (Ti-45Al-3Nb-<0.2Y2O3 a...
Laser additive manufacturing (LAM) of metallic alloys has emerged as a promising manufacturing proce...
Laser powder bed fusion is an emerging industrial technology, especially for metal and polymer appli...
The implementation of additive manufacturing for ceramics is more challenging than for other materia...
Copper is a key material for cooling of thermally stressed components in modern aerospace propulsion...
The railway industry can take advantage of additive manufacturing (AM) processes from several perspe...
This study investigates the role of submicron yttrium oxide on the microstructural evolution and me...
A new route for the synthesis of powder composites suitable for processing with laser additive manuf...
β-solidifying TiAl alloys are considered as promising candidate materials for high-temperature struc...
Lightweight titanium aluminides (TiAl, ρ = 3.9 – 4.1 g/cm3) gain in importance as high temperature s...
We present a novel route for the adsorption of pulsed laser-dispersed nanoparticles onto metal powde...
Directed Energy Deposition of the commercial intermetallic Ti-48Al-2Cr-2Nb alloy was investigated. T...
In this contribution, the effect of nanoparticle additivation on the microstructure and microhardnes...
The capabilities of Additive Manufacturing (AM) techniques has grown rapidly in recent years, howeve...
Additive manufacturing (AM) fabricated oxide dispersion strengthened (ODS) alloys are given high exp...
In this work, a novel oxide dispersion strengthened titanium aluminide alloy (Ti-45Al-3Nb-<0.2Y2O3 a...
Laser additive manufacturing (LAM) of metallic alloys has emerged as a promising manufacturing proce...
Laser powder bed fusion is an emerging industrial technology, especially for metal and polymer appli...
The implementation of additive manufacturing for ceramics is more challenging than for other materia...
Copper is a key material for cooling of thermally stressed components in modern aerospace propulsion...
The railway industry can take advantage of additive manufacturing (AM) processes from several perspe...
This study investigates the role of submicron yttrium oxide on the microstructural evolution and me...