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Chinese Journal of Materials Research  2014, Vol. 28 Issue (10): 737-744    DOI: 10.11901/1005.3093.2014.176
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Wear Resistance of Hot Dip Aluminum Coating on a Carbon Steel
Yuanlu LIAO,Qiuyang ZHANG,Yin ZHOU,Zhigang ZHAO,Yao XU,Shuqi WANG()
School of Materials Science and Engineering, Jiangsu University, Zhenjiang 212013
Cite this article: 

Yuanlu LIAO,Qiuyang ZHANG,Yin ZHOU,Zhigang ZHAO,Yao XU,Shuqi WANG. Wear Resistance of Hot Dip Aluminum Coating on a Carbon Steel. Chinese Journal of Materials Research, 2014, 28(10): 737-744.

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Abstract  

Influence of post annealing on the microstructure of hot dip aluminum coating on 45 steel was investigated. The wear properties of HDA steel after diffusion annealing at 1000℃ was also examined. Results show that HDA coating consisted of brittle phase Fe2Al5 as the diffusion annealing temperature was below 900℃, however which tranformed to ductile phase FeAl and Fe3Al at 1000℃and the coating exhibited a structural integrity and good bond with the substrate. The wear rate of the coating annealed at 1000oC dropped significantly as the environment temperature increased from room temperature to 200℃ and 400℃, reaching an extremely low level. At room temperature, the wear rate rapidly increased with loads. At 200℃ the wear rate hardly changed with loads; the average wear rate was 4.2×10-6 mg/mm. At 400℃ under the loads of 50 –200 N, the wear rate was lower than that at 200℃ under the corresponding loads. HDA steel presented excellent wear resistance at 200–400℃, owing to a 1–2 μm thick tribo-layer formed on the worn surface, mainly composed of Al2O3, Fe2O3, and a bit of oxides of W and Mo. In this case the coating suffered mainly from oxidation and slight wear. However, at 400℃ as the load increased to 250 N, the tribo-layer peeled off because of which became unstable , thereby the coating spalled off, and the substate was plastically extruded.

Key words:  KEY WODRS metallic materials      hot diping aluminized steel      annealing treatment      wear behavior      wear mechanism      oxidation mild wear     
Received:  09 April 2014     
Fund: *Supported by National Natural Science Foundation of China No. 51071078.

URL: 

https://www.cjmr.org/EN/10.11901/1005.3093.2014.176     OR     https://www.cjmr.org/EN/Y2014/V28/I10/737

Fig.1  X-ray diffraction patterns for the HDA coatings processed in different diffusion annealing temperature: (a) 700℃, (b) 800℃, (c) 900℃, (d) 1000℃
Fig.2  EDS line analysis for HDA coating processed in (a) 700℃, (b) 1000℃diffusion annealing
Fig.3  Micro-hardness distribution of the HDA coating processed in different diffusion annealing temperature
Fig.4  Wear rate of the treated HDA coating steel under different testing conditions
Fig.5  X-ray diffraction patterns of the worn surfaces of the treated HDA coating steel as the function of different loads at ambient temperature of (a) 25℃, (b) 200℃, (c) 400℃
Fig.6  Morphologies for worn surface of the treated HDA coating steel under different testing conditions (a) 25℃, 50-100 N, (b) 25℃, 150-250 N, (c) 200℃, 50-100 N, (d) 200℃, 150-250 N, (e) 400℃, 50-200 N, (f) 400℃, 250 N
Fig.7  Morphologies for the subsurface of the treated HDA coating steel under different testing conditions (a) 25℃, 50-100 N, (b) 25℃, 150-250 N, (c) 200℃, 50-250 N, 400℃, 50-200 N (d) 400℃, 250 N, and the EDS analysis for the marked area (b)-1, (c)-1
Fig.8  Hardness distribution away from the worn surface in the subsurface of the treated HDA coating steel at the ambient temperatures of (a) 25℃, (b) 200 and (c) 400℃
Fig.9  Plane scaning analysis for the worn layer (a) plane scan analysis area (b) Al, (c) Fe, (d) Mo, (e) O
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