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Chunmin Li, Bao-luo Shen, Gui-jiang Li, Chao Yang (2008)
Effect of boronizing temperature and time on microstructure and abrasion wear resistance of Cr12Mn2V2 high chromium cast ironSurface & Coatings Technology, 202
P.L. Hurricks
Some metalurgical factor controlling the adhesive and abrasive wear resistance of steels a review
A. Wang, I. Hutchings (1988)
Mechanisms of abrasive wear in a boronized alloy steelWear, 124
I. Ozbek, C. Bindal (2002)
Mechanical properties of boronized AISI W4 steelSurface & Coatings Technology, 154
Ş. Şen, U. Şen, C. Bindal (2006)
Tribological properties of oxidised boride coatings grown on AISI 4140 steelMaterials Letters, 60
B. Venkataraman, G. Sundararajan (1995)
The high speed sliding wear behaviour of boronized medium carbon steelSurface & Coatings Technology, 73
B. Gülenç, N. Kahraman (2003)
Wear behaviour of bulldozer rollers welded using a submerged arc welding processMaterials & Design, 24
N. Kahraman, B. Gülenç (2002)
Abrasive wear behaviour of powder flame sprayed coatings on steel substratesMaterials & Design, 23
M. Carbucicchio, G. Palombarini (1987)
Effects of alloying elements on the growth of iron boride coatingsJournal of Materials Science Letters, 6
Yan Peng-xun (1992)
Gaseous boronizing with solid boron-yielding agentsThin Solid Films, 214
B. Selçuk
Friction of steel AISI 1020 and 5115 were debt and investigation of corrosion behavior
M. Béjar, E. Moreno (2006)
Abrasive wear resistance of boronized carbon and low-alloy steelsJournal of Materials Processing Technology, 173
G. Çelebi, M. İpek, C. Bindal, A.H. Üçışık
Some mechanical properties of borides formed on AISI 8620 steel
N. Kıratlı (2005)
Abrasive wear behaviour of concussor jaws welded using a gas metal arc welding processIndustrial Lubrication and Tribology, 57
C. Martini, G. Palombarini, G. Poli, D. Prandstraller (2004)
Sliding and abrasive wear behaviour of boride coatingsWear, 256
I. Uslu, H. Comert, M. Ipek, O. Ozdemir, C. Bindal (2007)
Evaluation of borides formed on AISI P20 steelMaterials & Design, 28
H. Angus (1979)
The significance of hardnessWear, 54
O. Ozdemir, M. Usta, C. Bindal, A. Ucisik (2006)
Hard iron boride (Fe2B) on 99.97 wt% pure ironVacuum, 80
C. Meriç, S. Şahin, B. Backir, N. Koksal (2006)
Investigation of the boronizing effect on the abrasive wear behavior in cast ironsMaterials & Design, 27
S.S. Yılmaz
Surface hardening of steels with boron
M. Carbucicchio, G. Palombarini
Effect of alloying elements on the growth of boride coating
B. Selcuk, R. Ipek, M. Karamiş, V. Kuzucu (2000)
An investigation on surface properties of treated low carbon and alloyed steels (boriding and carburizing)Journal of Materials Processing Technology, 103
A.G. Wang, I.M. Hutchings
Mechanisms of abrasive wear in a boronized alloy
V. Jain, G. Sundararajan (2002)
Influence of the pack thickness of the boronizing mixture on the boriding of steelSurface & Coatings Technology, 149
A.G. Matuschka
Boronizing
Purpose – This paper aims to research the tribological features of AISI 1035 steel, boronized at various parameters. Design/methodology/approach – The samples were boronized via box boronizing method. By using Ekabor 2 powders, boronizing was conducted at 840, 880, 920, 960 and 1,000°C for two, four and six hours. Wear resistance of boronized samples at determined parameters were analysed. Wear experiments were conducted under 40 N constant load at pin‐on‐disk experiment setup. Also, microstructures and microhardness values of boronized samples were analysed to determine the most suitable boronizing parameters against wearing. Findings – As a result of this study, the following findings are reported: it was determined as the temperature increased, the thicker the boride layer obtained during the boronizing. In the case of longer boronizing time, the distinct columnar structure was clearer. Whenever applying higher temperature and longer boronizing time, wear decreased and hardness values increased. It was also determined that when boronizing was conducted at 900 and 1,000°C for at least four to six hours, better results were obtained. Furthermore, the increment in the boronizing temperature and longer duration caused an increase in hardness from the surface to inwards and thus a decrease in wear ratio. Research limitations/implications – In the present study, only 40 N is used for a wear load and that is the limitation of the research. Practical implications – Boronizing of the parts using 900 and 1,000°C temperature and four to six hours time, the better results can be obtained. Wear resistance can be improved in the determined temperature interval for boronizing process. Therefore, the industrial firms can be gained huge economical profits. Originality/value – The outcome of the study will be beneficial for the academicians and industrial firms working on wear process. The service life of the steel parts can be extended via boronizing of steels working on quarries.
Industrial Lubrication and Tribology – Emerald Publishing
Published: Mar 8, 2011
Keywords: Tribology; Steel; Hardness; Abrasion
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