Attention is drawn to specific opportunities afforded by this new field in accelerating materials development and deployment efforts.
Atomistic structure prediction from "scratch" is one of the central issues in physical, chemical, materials and planetary science, and it will inevitably play a critical role in accelerating materials discovery.
It is well known that the deposition of particulate matter (PM) on outdoor surfaces can accelerate material degradation.
Well-controlled sample fabrication and reproducible methods to quantify and compare material properties will accelerate material design and optimization.
In design practices, these loads are handled separately without considering their interactions that could cause accelerated material degradation and unsafe designs.
It maybe apply these results to a high throughput experimental design which provides the dense and targeted material data, to accelerate material discovery with the large-scale and low-cost fabrication strategies.
This framework identifies the stress contributions, and their variation, to reduce product development time and costs, which could greatly accelerate material recycling and reuse for improved infrastructure materials, low-cost 3-D printer filament, and reduced waste towards a more circular economy.
The thermodynamic calculations and experimental results confirm that the Ag reacts with SiC to form a molten Ag Si alloy and carbon, which accelerates material transport in SiC, and then by reaction between the Ag Si and carbon, a new SiC is formed and fills inside the cracks and Vickers indentation impressions to achieve crack healing in SiC.
Automated computational materials science frameworks rapidly generate large quantities of materials data for accelerated materials design.
Furthermore, the quest for accelerated materials discovery has ushered in the era of the materials genome (MG), where experiments, computational tools, and big data (Materials Genome Initiative Strategic et al. 2014) are combined to accelerate materials discovery.
