本文之目的在於利用自行研發的刮磨磨耗機台，探討固態原料滑動的速度、壓力與溫度對試片表面之磨耗行為的影響。固態原料使用硬度Hv 1250之矽砂顆粒，試片包含S50C、硬化過之S50C、硬化過之高速鋼SKH51與利用真空離子濺鍍系統披覆在SKH51基材之氮化鋯鍍層、氮化鈦鍍層及硬鉻鍍層。藉由量測試片的重量損失評估不同試片之耐磨耗能力。並使用往復式磨耗試驗機(Plint-TE77)進行圓球對平板之點接觸滑動模式之磨耗實驗，針對鍍膜試片的磨耗機制、摩擦係數等進行評估，接著利用SEM觀察試片表面的磨耗型態配合EDX進行表面成份分析。
試驗結果顯示磨耗量增加的主要因素來自負載的增加，而氮化鋯鍍層具有最佳的耐磨耗能力

The purpose of this paper is to use its own research and development of the mill wear scraping machine to explore the solid material sliding speed, pressure and temperature on the surface of the test wear behavior. The use of solid raw material hardness of Hv 1250 silica particles, contains test S50C, have been hardening of S50C, hardening-off of high-speed steel and SKH51 vacuum ion sputtering system SKH51 drape in the matrix of zirconium nitride coating, titanium nitride coating And hard chrome plating. With the amount of weight loss on-chip test to assess different test of wear ability. And the use of reciprocating wear testing machine (Plint-TE77) for flat-panel ball to the point of contact mode of sliding wear test, the test for coating wear mechanisms, such as the coefficient of friction to assess, and then try to use SEM to observe the surface wear Types with EDX analysis of the surface composition.
The results showed that the major increase in the amount of wear from the load factor increases, and zirconium nitride coating has the best ability to wear.

[1] G. Menning (Ed.), “Wear in Plastics Processing”, Hanser/Gardner
Munich, 1995.
[2] W.D. Mahler, Ph.D. Thesis, TU Darmsadt, 1975.
[3] G. Paller, B Matthes, W. Herr, E.broszeit, “Tribological properties of r.f.-sputtered titanium-based hard coatings and their behaviour under plastics-processing conditions” Surface and Coatings Technology,Vol.14 ,pp.647-654,1991.
[4] M. Heinze, G. Menning, G Paller, “Wear resistance of PVD coating in plastic processing” Surface and Coatings Technology ,Vol74-75, pp.658-663 ,1995.
[5] M. Heinze, “Wear resistance of hard coating in plastics processing” Surface and Coatings Technology ,Vol.105 ,pp38-44,1998.
[6] S. Kalpakjian, “Manufacturing Engineering and Technology”, 3rd
Edition, Addison, Wesley, Menlo Park, CA, 1995.
[7] Milacron Manufacturing Technologies, Anti-Wear Solutions, www.milacron.com.
[8] 島尾永康, 光學, 華立圖書, pp.53, 1983
[9] 村山洋一, 應用物理, 中央圖書, pp.687, 1974
[10] K.H.Zum Gahr.,Microstructure and Wear of Materials
, Tribology Series,1987.
[11] DIN 50320：Verschleiβ-Begriffe, Analyse Von Verschlei βVorgangen, Gliederung des Verschlei βgebietes. Beuth Verlag ,Berlin ,1979.
[12] E.Rabinowicz , “An adhesive wear model based on variations
in strength values”,Wear, Vol.63 ,pp.175-181,1980.
[13] C.Horst,Tribology: a systems approach to the science and technology of friction ,lubrication and wear ,Amsterdam , Elsevier Scientific Pub.Co., 1980.
[14] T.C.Buttery, J.F.Archard,“Grinding and abrasive wear”, Proceedings of the Institution of Mechanical Engineers, Vol.185, pp.537-551,
1970-71.
[15] T.F.J.Quinn, J.L.Sullivan, D.M.Rowson, “Origins and development of oxidational wear at low ambient temperatures” Wear Vol.94, pp.175-191,1984.
[16] T.F.J.Quinn ,W.O.Winer, “An experimental study of the ‘hot-spots’
occurring during the oxidational wear of tool steel on sapphire” Journal of Tribology Vol.109, pp.315-320,1987.
[17] M.Varvoulias, “The role of hard second phases in the mild oxidational wear mechanism of high-speed steel-based materials” Wear, Vol.173, pp.105-114,1994.
[18] T.F.J.Quinn, “Computional methods applied to oxidational wear”, Wear Vol.199, pp.169-180,1996.
[19] T.F.J.Quinn, “Oxidational wear modeling part III. The effects of speed and elevated temperatures” Wear Vol.216, pp.262-275,1998.
[20] T.F.J.Quinn, “The oxidational wear of low alloy steels”Tribology International Vol.35, pp.691-715,2002.
[21] F.H.Stott, “The role of oxidational in the wear of alloys”Tribology International Vol.31, pp.61-71,1998.
[22] N.P.Suh, “The delamination theory of wear” Wear, Vol.25, pp.111-124,1973.
[23] G.W. Stachowiak and A.W Batchelor, “Engineering Tribolog” Elaevier Press, 1993.
[24]N.P. Suh and H.C. Sin “The Genesis of Friction” ,Wear ,Vol.69
,pp.91-114,1981
[25] B. Suresha ,G.Chandramohan, Siddararmaiah, P.Samapthkumaran, S.Seetharamu, “Three-body abrasive wear behaviour of carbon andglass fiber reinforced epoxy composites”, Materials Science and Engineering A, Vol.443,pp285-291,2007.
[26] T.Arai , H. Fujita, M. Watanable, Thin Solid Films, Vol.154, pp.391,1987
[27] 銘優科技股份有限公司, http://www.miyo.com.tw/.
[28] J.F.Archard, “Contact and rubbing of flat surfaces”,Journal of Appllied Physics, Vol.24, pp.981-988,1953.
[29] 台中精機股份有限公司, http://www.or.com.tw/index_ch.htm.
[30] 住友重機械工業, http://www.shi.co.jp/.