EU Projects

european-union-en

WTaVTi HEA arc-casting

Share

TiK-arc-cost

WTaVTi HEA arc-casting

Refractory metal-based high entropy alloys are considered the most promising plasma facing materials for future fusion reactors. Together with colleagues from Warsaw University of Technology we contribute our experience to create the best materials and manufacturing techniques for them. Recently we have processed novel W-Ta-V-Ti via arc-casting and laser surface remelting to check its feasibility for additive manufacturing.

The SEM image shows that as-cast material (XRD-single-phased) consists of W/Ta enriched dendrites and V/Ti enriched interdendritic areas. The very same material after laser surface remelting seems to be homogenous with no visible segregation due to high cooling rates. Similarities to laser-based additive manufacturing promise such alloys could be successfully 3D-printed and show the importance of alloy fine-tuning for additive manufacturing.

Detailed studies on radiation-resistant HEAs by our colleague Jan Wróbel can be found in the link below. We are happy that we can assist cutting-edge technology development!

category-filter
What's more
In-situ alloy homogenization from raw elements | Application note
AMAZEMET partners faced challenges in the Sunflower project under the Clean Energy Transition Partnership – CETP call. The project aims to develop novel solar energy receivers for Concentrated Solar Power (CSP) plants that could be both more efficient (from ~20% to ~40%) and manufactured more sustainably. The project investigates 2 paths to reach its goals regarding Energy absorbed - SiC, a ceramic material, and FeCrAlY heat-resisting group of alloys as candidates to fulfill the project's goals.
In-situ alloy homogenization from raw elements | Application note
AMAZEMET partners faced challenges in the Sunflower project under the Clean Energy Transition Partnership – CETP call. The project aims to develop novel solar energy receivers for Concentrated Solar Power (CSP) plants that could be both more efficient (from ~20% to ~40%) and manufactured more sustainably. The project investigates 2 paths to reach its goals regarding Energy absorbed - SiC, a ceramic material, and FeCrAlY heat-resisting group of alloys as candidates to fulfill the project's goals.

Contact us

Your message will be received by our sales and application team. Based on your message we will choose the team member who could help you the best.

We will contact you by email within 3 working days.

amazemet-graphic-symbol-logo-white