Yu Fu
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Yu Fu has a total of 61 co-authors. Here are the top co-authors by number of shared publications:
- Huabei Peng
School of Mechanical Engineering, Sichuan University, No. 24 South Rd, Yihuan Rd, Wuhou District, Chengdu 610065, China
6 shared publications Chaoli Ma
5 shared publicationsHui Wang
5 shared publicationsYuhua Wen
5 shared publications- Wenlong Xiao
Tianmushan Laboratory, Beihang University, Hangzhou, China
4 shared publications Yang Zuo
4 shared publications
Latest Publications
- Open Access
- 4 September 2026
- Published by Elsevier in SSRN Electronic Journal
Synergistic Enhancement of Strength and Ductility via Grain Boundary Segregation in CoNiVN medium entropy alloy
In the Co60.6Ni19.5V19.6N0.3 medium-entropy alloy, aging treatment induces the precipitation of 9R and 12R phases along grain boundaries. Their precipitation depletes the V content at grain boundaries, thereby suppressing the precipitation of L12 nanoprecipitates at boundaries. Consequently, a unique grain boundary segregation structure is formed, characterized by a single FCC phase at the grain boundaries and a high density of L12 nanoprecipitates within the grain interiors. This microstructure synergistically enhances both the strength and ductility of the material.
- 4 September 2026
- Published by Elsevier in SSRN Electronic Journal
Open AccessSynergistic Enhancement of Strength and Ductility via Grain Boundary Segregation in CoNiVN medium entropy alloy
In the Co60.6Ni19.5V19.6N0.3 medium-entropy alloy, aging treatment induces the precipitation of 9R and 12R phases along grain boundaries. Their precipitation depletes the V content at grain boundaries, thereby suppressing the precipitation of L12 nanoprecipitates at boundaries. Consequently, a unique grain boundary segregation structure is formed, characterized by a single FCC phase at the grain boundaries and a high density of L12 nanoprecipitates within the grain interiors. This microstructure synergistically enhances both the strength and ductility of the material.
- 27 November 2025
- Published by Elsevier in Journal of Materials Science & Technology
- Vol. 264, 240-252
Engineered chemical heterogeneity overcomes the strength and damping trade-off in titanium alloys
- 27 November 2025
- Published by Elsevier in Journal of Materials Science & Technology
- Vol. 264, 240-252
Engineered chemical heterogeneity overcomes the strength and damping trade-off in titanium alloys
- 14 December 2024
- Published by Elsevier in Journal of Materials Science & Technology
- Vol. 225, 159-164
Engineering omega phase enables a wide temperature range Elinvar effect in metastable β-Ti alloys
- 14 December 2024
- Published by Elsevier in Journal of Materials Science & Technology
- Vol. 225, 159-164
Engineering omega phase enables a wide temperature range Elinvar effect in metastable β-Ti alloys
- 14 November 2024
- Published by Elsevier in Intermetallics
- Vol. 176
Improving shape memory effect in Fe-Mn-Si-based alloys by reducing annealing twin boundaries through trace boron doping
- 14 November 2024
- Published by Elsevier in Intermetallics
- Vol. 176
Improving shape memory effect in Fe-Mn-Si-based alloys by reducing annealing twin boundaries through trace boron doping
- 9 November 2024
- Published by Elsevier in Acta Materialia
- Vol. 283
Cryogenic deformation strengthening mechanisms in FeMnSiNiAl high-entropy alloys
- 9 November 2024
- Published by Elsevier in Acta Materialia
- Vol. 283
Cryogenic deformation strengthening mechanisms in FeMnSiNiAl high-entropy alloys
- Top Cited PapersOpen Access
A Review of Deformation Mechanisms, Compositional Design, and Development of Titanium Alloys with Transformation-Induced Plasticity and Twinning-Induced Plasticity Effects
Metastable β-type Ti alloys that undergo stress-induced martensitic transformation and/or deformation twinning mechanisms have the potential to simultaneously enhance strength and ductility through the transformation-induced plasticity effect (TRIP) and twinning-induced plasticity (TWIP) effect. These TRIP/TWIP Ti alloys represent a new generation of strain hardenable Ti alloys, holding great promise for structural applications. Nonetheless, the relatively low yield strength is the main factor limiting the practical applications of TRIP/TWIP Ti alloys. The intricate interplay among chemical compositions, deformation mechanisms, and mechanical properties in TRIP/TWIP Ti alloys poses a challenge for the development of new TRIP/TWIP Ti alloys. This review delves into the understanding of deformation mechanisms and strain hardening behavior of TRIP/TWIP Ti alloys and summarizes the role of β phase stability, α″ martensite, α′ martensite, and ω phase on the TRIP/TWIP effects. This is followed by the introduction of compositional design strategies that empower the precise design of new TRIP/TWIP Ti alloys through multi-element alloying. Then, the recent development of TRIP/TWIP Ti alloys and the strengthening strategies to enhance their yield strength while preserving high-strain hardening capability are summarized. Finally, future prospects and suggestions for the continued design and development of high-performance TRIP/TWIP Ti alloys are highlighted.
Top Cited PapersOpen AccessA Review of Deformation Mechanisms, Compositional Design, and Development of Titanium Alloys with Transformation-Induced Plasticity and Twinning-Induced Plasticity Effects
Metastable β-type Ti alloys that undergo stress-induced martensitic transformation and/or deformation twinning mechanisms have the potential to simultaneously enhance strength and ductility through the transformation-induced plasticity effect (TRIP) and twinning-induced plasticity (TWIP) effect. These TRIP/TWIP Ti alloys represent a new generation of strain hardenable Ti alloys, holding great promise for structural applications. Nonetheless, the relatively low yield strength is the main factor limiting the practical applications of TRIP/TWIP Ti alloys. The intricate interplay among chemical compositions, deformation mechanisms, and mechanical properties in TRIP/TWIP Ti alloys poses a challenge for the development of new TRIP/TWIP Ti alloys. This review delves into the understanding of deformation mechanisms and strain hardening behavior of TRIP/TWIP Ti alloys and summarizes the role of β phase stability, α″ martensite, α′ martensite, and ω phase on the TRIP/TWIP effects. This is followed by the introduction of compositional design strategies that empower the precise design of new TRIP/TWIP Ti alloys through multi-element alloying. Then, the recent development of TRIP/TWIP Ti alloys and the strengthening strategies to enhance their yield strength while preserving high-strain hardening capability are summarized. Finally, future prospects and suggestions for the continued design and development of high-performance TRIP/TWIP Ti alloys are highlighted.