Histological and mechanical properties of laser-melted carbon nanotube-toughened Fe-based amorphous coatings
Affiliation:
1. 1 Faculty of Mechanical Engineering, Shenyang Polytechnic College , Shenyang , Liaoning , , China .
Abstract
Abstract
Laser melting technology is a new surface fabrication technique, and using laser beams to improve the mechanical properties of iron-based amorphous prepared by laser melting has become a hot topic in current materials research. Firstly, nickel-plated carbon nanotubes were used to improve the toughness of iron-based amorphous coatings, and nickel-plated carbon nanotubes were used to prepare iron-based amorphous composite fusion cladding layers. Then, the iron-based amorphous has good strength, strong wear resistance and corrosion resistance and is a good surface modification material. Finally, considering that the preparation of iron-based amorphous coating by laser melting technology can meet the preparation requirements of fast cooling of iron-based amorphous, the organization and mechanical properties of the iron-based amorphous coating are studied and analyzed by using laser melting technology. The results show that the toughness of the amorphous-1.00 wt% nickel-plated carbon nanotube composite clad layer is 7.67 MPa-m which is 33.4% higher than the amorphous clad layer. The composite clad layer with the addition of carbon nanotubes showed a significant increase in toughness without a significant decrease in hardness, and the prepared nickel-plated carbon nanotube/amorphous composite clad layer had better overall mechanical properties. This study improves the mechanical properties of iron-based amorphous coatings, which is important to improve the problems of decreasing service life and stability of equipment and components caused by corrosion and wear.
Publisher
Walter de Gruyter GmbH
Subject
Applied Mathematics,Engineering (miscellaneous),Modeling and Simulation,General Computer Science
Reference18 articles.
1. Aditya, A., Wu, H. F., Arora, H., et al. (2017). Amorphous Metallic Alloys: Pathways for Enhanced Wear and Corrosion Resistance. JOM. 2. Singh, Ajay Vikram, Maharjan, Romi-Singh, Kanase, Anurag, Siewert, Katherina, Rosenkranz, Daniel, Singh, Rishabh, Laux, Peter, Luch, Andreas. (2021). Machine-Learning-Based Approach to Decode the Influence of Nanomaterial Properties on Their Interaction with Cells. ACS Applied Materials & Interfaces, 13(1). 3. Sun, B. A., & Wang, W. H. (2015). The fracture of bulk metallic glasses. Progress in Materials Science, 74, 211-307. 4. Koga, G. Y., Ferreira, T., Guo, Y., Coimbrao, D. D., Jorge Jr, A. M., Kiminami, C. S., Bolfarini, C., Botta, W. J. (2021). Challenges in optimizing the resistance to corrosion and wear of amorphous Fe-Cr-Nb-B alloy containing crystalline phases. Journal of Non-Crystalline Solids: A Journal Devoted to Oxide, Halide, Chalcogenide and Metallic Glasses, Amorphous Semiconductors, Non-Crystalline Films, Glass-Ceramics and Glassy Composites, 555(1). 5. Cheng, Junye, Li, Tian, Ullah, Sana, Luo, Feng, Wang, Hao, Yan, Ming, Zheng, Guangping. (2020). Giant magnetocaloric effect in nanostructured Fe-Co-P amorphous alloys enabled through pulse electrodeposition. Nanotechnology, 31(38).
|
|