Sustainable upcycling of coarse TA15 powder waste into high-performance TiB-whisker-reinforced composite powders

Addressing the pressing issue of coarse TA15 titanium powder waste (> 150 μm) accumulation in additive manufacturing, this study introduces a high-value upcycling strategy using the plasma rotating electrode process (PREP) to fabricate TiB/TA15 pre-alloyed composite powders. A quantitative cooling model reveals the cooling rate increases from 5.39×10 4 to 5.13×10 6 K/s as particle size decreases. This rapid cooling, combined with the pinning effect of in-situ TiB whiskers, induces pronounced microstructural changes: α' martensitic laths are refined from 1.162 μm to 0.528 μm, and TiB reinforcements transform from a continuous network to a dispersed distribution. The TiB whiskers within the composite powders are characterized by a high density of intrinsic stacking faults and retain clean, well-bonded interfaces with the matrix. This reinforcement phase not only enhances the intrinsic strength of the composite powders but also effectively inhibits matrix prior-β grain coarsening. This work provides a cost-effective and scalable pathway for converting titanium waste into high-quality feedstock for advanced composite manufacturing.

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Publication Details

Journal
Journal of Materials Research and Technology
Published
2026-07-01
DOI
https://doi.org/10.1016/j.jmrt.2026.07.007
Primary Topic
Advanced ceramic materials synthesis
Type
article
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article

Sustainable upcycling of coarse TA15 powder waste into high-performance TiB-whisker-reinforced composite powders

Jianqiang Ren, Lujun Huang, Pengtao Cai, Qi An et al.
Journal of Materials Research and Technology
Advanced ceramic materials synthesis
article

Sustainable upcycling of coarse TA15 powder waste into high-performance TiB-whisker-reinforced composite powders

Jianqiang Ren, Lujun Huang, Pengtao Cai, Qi An, Yifan Wang, Zhifu Yao, Shuai Wang, Rui Zhang, Changshu Xiang, Lin Geng
article en

Abstract

Addressing the pressing issue of coarse TA15 titanium powder waste (> 150 μm) accumulation in additive manufacturing, this study introduces a high-value upcycling strategy using the plasma rotating electrode process (PREP) to fabricate TiB/TA15 pre-alloyed composite powders. A quantitative cooling model reveals the cooling rate increases from 5.39×10 4 to 5.13×10 6 K/s as particle size decreases. This rapid cooling, combined with the pinning effect of in-situ TiB whiskers, induces pronounced microstructural changes: α' martensitic laths are refined from 1.162 μm to 0.528 μm, and TiB reinforcements transform from a continuous network to a dispersed distribution. The TiB whiskers within the composite powders are characterized by a high density of intrinsic stacking faults and retain clean, well-bonded interfaces with the matrix. This reinforcement phase not only enhances the intrinsic strength of the composite powders but also effectively inhibits matrix prior-β grain coarsening. This work provides a cost-effective and scalable pathway for converting titanium waste into high-quality feedstock for advanced composite manufacturing.

Journal of Materials Research and Technology
Harbin Institute of Technology (CN), China XD Group (China) (CN), Shenzhen Technology University (CN)
Responsible consumption and production
Openalex Percentile: Top 15%
Advanced ceramic materials synthesis
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Sustainable upcycling of coarse TA15 powder waste into high-performance TiB-whisker-reinforced composite powders — Jianqiang Ren, Lujun Huang, et al. · Journal of Materials Research and Technology (2026) | TGRS Research Map | TGRS