# Combining simulations and experiments to get the best out of Fe3Al

**URL:** <https://community.materialssquare.com/t/combining-simulations-and-experiments-to-get-the-best-out-of-fe3al/303>\
**Category:** News\
**Created:** [May 30, 2024, 1:10pm UTC](https://community.materialssquare.com/t/combining-simulations-and-experiments-to-get-the-best-out-of-fe3al/303 "2024-05-30T13:10:57Z")\
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**Author:** ![gabriele1](https://yyz1.discourse-cdn.com/flex003/user_avatar/community.materialssquare.com/gabriele1/32/20_2.png) [@gabriele1](https://community.materialssquare.com/u/gabriele1)\
**Post date:** [May 30, 2024, 1:10pm UTC](https://community.materialssquare.com/t/combining-simulations-and-experiments-to-get-the-best-out-of-fe3al/303/1 "2024-05-30T13:10:57Z")

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Researchers at Osaka University have combined computer simulations and electron microscopy to study the microstructural development of an iron-aluminum alloy (Fe3Al). Their work revealed that the superelastic properties of Fe3Al arise from dislocation slip rather than changes in crystal structure. They found that antiphase boundaries play a crucial role in this process. The study’s insights could lead to the use of Fe3Al in applications such as 3D-printed seismic shock absorbers. This combined approach resolves previous discrepancies in understanding the alloy’s properties.

For more details, you can read the full article here:

> **[Combining simulations and experiments to get the best out of Fe3Al](https://www.eurekalert.org/news-releases/1046464)**
>
> Researchers from Osaka University combined computer simulations and transmission electron microscopy experiments to better understand the ordering mobility and formation of microstructure domains in Fe3Al alloy. They were able to correlate structural...