Alloys

Simulations reveal how finely tuned lasers ‘forge’ strength and flexibility in 3D-printed steel, enabling more complex microengineering of high-performance components.

A close look at an additive manufacturing technique for titanium alloys reveals how tiny process variations can shape high-performance components.

Simple tweaks in the microstructure of 3D-printed aluminium alloys add exceptional mechanical and thermal properties for semiconductor and aerospace applications.

By revealing how a high-performance aerospace alloy deforms under stress, a new computational model creates opportunities to improve its design and broader industrial usage.

A new high-efficiency computational technique identifies optimal combinations of metals for stable alloys, fast-tracking the discovery process for materials engineers.

Researchers develop a faster, more efficient one-step method to uncover new advanced alloys for additive manufacturing.

A*STAR researchers have developed a computational technique that allows them to predict the properties of MXene alloys.

Machine learning could pave the way for the creation of novel alloys for a range of practical applications, say scientists at A*STAR.

The strength of steel comes from carbon, which is lost when steel is heated, resulting in weakening of the alloy. A*STAR researchers have found a way to overcome carbon loss with lasers.

Computer simulations indicate that mixing silicon with other materials improves the diversity of nanoscale electronic devices