Tadeu Castro da Silva | Additive manufacturing technologies | Best Researcher Award

Assist. Prof. Dr Tadeu Castro da Silva | Additive manufacturing technologies | Best Researcher Award

Prof. Dr-Ing, National Institute of Technology, Portugal

T.C. da Silva is a researcher and engineer with a strong background in mechanical engineering. He holds a PhD from the University of Brasília and has completed postdoctoral research at various institutions. Silva’s research focuses on smart materials, additive manufacturing, and thermal characterization.

Profile

orcid

scholar

Education 🎓

PhD in Mechanical Engineering, University of Brasília (2019)  Master’s in Mechanical Engineering, University of Brasília (2014)  Specialization in Software Engineering, Catholic University of Brasília (2009-2010)  Bachelor’s in Mechanical Engineering, University for the Development of the State and Region of Pantanal (2003-2008)

Experience 🧪

Researcher, University of Brasília (2012-present)  Postdoctoral researcher, University of Brasília (2020-2021)  Engineer, Brazilian Air Force (2011-2012)  Professor, Federal Institute of Education, Science, and Technology (2005-2007)

Awards & Honors🏆

Unfortunately, the provided text does not mention any specific awards or honors received by T.C. da Silva.

Research Focus 🔍

Smart materials and structures  Additive manufacturing (3D/4D printing) Thermal characterization of materials  Shape memory alloys

Publications📚

1. The effect of a chemical additive on the fermentation and aerobic stability of high-moisture corn 🌽🧬 (2015)
2. Filho TC da Silva, E Sallica-Leva, E Rayón, CT Santos transformation 🔩🔧 (2018)
3. Emissivity measurements on shape memory alloys 🔍💡 (2016)
4. Development of a gas metal arc based prototype for direct energy deposition with micrometric wire 💻🔩 (2024)
5. Influence of Deep Cryogenic Treatment on the Pseudoelastic Behavior of the Ni57Ti43 Alloy ❄️💡 (2022)
6. Stainless and low-alloy steels additively manufactured by micro gas metal arc-based directed energy deposition: microstructure and mechanical behavior 🔩🔧 (2024)
7. Study of the influence of high-energy milling time on the Cu–13Al–4Ni alloy manufactured by powder metallurgy process ⚗️💡 (2021)
8. Cryogenic treatment effect on NiTi wire under thermomechanical cycling ❄️💡 (2018)
9. Effect of Cryogenic Treatment on the Phase Transformation Temperatures and Latent Heat of Ni54Ti46 Shape Memory Alloy ❄️💡 (2022)
10. Cryogenic Treatment Effect on Cyclic Behavior of Ni54Ti46 Shape Memory Alloy ❄️💡 (2021)
11. Influence of thermal cycling on the phase transformation temperatures and latent heat of a NiTi shape memory alloy 🔩🔧 (2017)
12. Effect of the Cooling Time in Annealing at 350°C on the Phase Transformation Temperatures of a Ni55Ti45 wt. Alloy 🔩🔧 (2015)
13. Experimental evaluation of the emissivity of a NiTi alloy 🔍💡 (2015)
14. Microstructure, Thermal, and Mechanical Behavior of NiTi Shape Memory Alloy Obtained by Micro Wire and Arc Direct Energy Deposition 🔩🔧 (2025)
15. Low-Annealing Temperature Influence in the Microstructure Evolution of Ni53Ti47 Shape Memory Alloy 🔩🔧 (2024)
16. Use of Infrared Temperature Sensor to Estimate the Evolution of Transformation Temperature of SMA Actuator Wires 🔍💡 (2023)
17. Use of infrared temperature sensor to estimate the evolution of transformation temperature of SMA actuator wires 🔍💡 (2021)
18. Effet du traitement cryogénique sur le comportement cyclique de l’alliage Ni54Ti46 à mémoire de forme ❄️💡 (2020)
19. Efeito de tratamento criogênico no comportamento cíclico da liga Ni54Ti46 com memória de forma ❄️💡 (2020)
20. Functional and Structural Fatigue of NiTi Shape Memory Wires Subject to Thermomechanical Cycling 🔩🔧 (2019)

Conclusion

T.C. da Silva is an accomplished researcher with a strong track record in additive manufacturing, materials science, and mechanical engineering. His extensive research experience, interdisciplinary approach, and commitment to knowledge sharing make him an ideal candidate for the Best Researcher Award. By addressing areas for improvement, he can continue to grow as a researcher and make even more significant contributions to his field.

Yurong Wang | Additive manufacturing | Best Researcher Award

Mr. Yurong Wang | Additive manufacturing | Best Researcher Award

Mr at  Tsinghua University, China

A PhD candidate in Mechanical Engineering at Sichuan University, this researcher specializes in additive manufacturing, powder bed fusion, and advanced material processes. With a passion for material characterization and innovation, they strive to advance mechanical engineering technologies.

Professional Profiles:

orcid

🎓 Education

PhD Student (Mechanical Engineering) – Sichuan UniversityMaster’s (Mechanical Engineering) – Tsinghua University & Guangxi UniversityBachelor’s (Mechanical and Vehicle Engineering) – Hunan University

💼 Experience

Research assistant in additive manufacturing projects at Sichuan UniversityIntern at advanced materials lab, Tsinghua UniversityUndergraduate researcher in mechanical design at Hunan University

🏆 Awards and Honors

Best Graduate Research Award – Sichuan UniversityOutstanding Master’s Thesis Award – Tsinghua UniversityInnovation Excellence Award – Guangxi University

🔍 Research Focus

Additive Manufacturing 🛠️Powder Bed Fusion ⚙️Advanced Material Processes 🔩Material Characterization 🧪

✍️Publications Top Note 

Strengthened Microstructure and Mechanical Properties of Austenitic 316L Stainless Steels by Grain Refinement and Solute Segregation

Journal of Materials Research and Technology (2025)
DOI: 10.1016/j.jmrt.2024.12.086
Authors: Yurong Wang, Buwei Xiao, Xiaoyu Liang, Huabei Peng, Jun Zhou, Feng Lin

This study explores how refining grain structure and promoting solute segregation enhances the mechanical properties of 316L stainless steel. The findings reveal improved strength and toughness, making it a promising material for advanced engineering applications.

2. Effect of Laser Energy on Anisotropic Material Properties of a Novel Austenitic Stainless Steel with a Fine-Grained Microstructure
Journal of Manufacturing and Materials Processing

This paper investigates the influence of laser energy on the anisotropic properties of fine-grained austenitic stainless steel. The research highlights how laser processing parameters can optimize material performance, contributing to advancements in additive manufacturing.

Conclusion

This individual is highly suitable for the Best Researcher Award, as they have a strong educational background, expertise in cutting-edge research areas, and the potential for impactful contributions to additive manufacturing and advanced materials science. They demonstrate the qualities of a forward-thinking, innovative researcher poised to make significant strides in their field. With continued focus on publishing high-quality research and fostering industry partnerships, their potential to achieve even greater success and recognition is substantial.