Learn more about our specialty alloys, formulated for superior performance in mission critical applications.

Our additive manufacturing experts partnered with the NASA Jet Propulsion Laboratory to iterate to success on thin-walled, tight tolerance components for the PIXL. From deriving scale factors to staying on mass budget, we share our lessons learned and best practices.

Our team of additive manufacturing experts produced this white paper with results supporting the key conclusion that these Ti64 powders for additive manufacturing are statistically equivalent along several quantitative measures, including oxygen level, contamination, density, flowability, and morphology.

The Carpenter Electrification team understands the need for tight tolerance laminations for challenging design criteria. Aware of a net dimensional change in Hiperco® 50 alloys after post-fabrication annealing, we evaluated the root cause and designed a special process to improve the dimensional change characteristics.

Our branch of 3D printing experts, Carpenter Additive, reports on their study to create a systematic framework to optimize additive manufacturing for Nitinol, used in the medical market for its superior superelasticity and shape memory effect.

Magnetic circuits in consumer electronic devices are one of the key constraints in miniaturization. Carpenter Electrification took a holistic approach to model and improve the decibel density of microspeakers to increase sound pressure level while reducing operating current requirements.

"Computational fluid dynamics modeling of molten metal flow during bottom pouring enables parametric assessments before plant-scale trials."

"Gleeble flow stress testing reveals an alloy’s hot workability window, allowing manufacturers to optimize processes and maximize yield."