A Saw Blade Drill Bit with Reduced Heat Loss
DOI:
https://doi.org/10.54097/xp0xpx60Keywords:
Fe-Co-Cu Binder; Microwave Non-Pressure Sintering; Density; Wear Resistance; Energy Conservation.Abstract
We adopt microwave sintering technology prepared a low-cobalt Fe-Co-Cu diamond saw blade bit. The bit can achieve densification sintering which meets the index of diamond saw blade heads. Furthermore, the use of microwave non-pressure sintering significantly shortens the total sintering time and saves more than 20% energy. This environmentally friendly saw blade head can stimulate the development of the sawing industry and would be vastly used in the field of high and new technologies.
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[1] Handschuh-Wang S, Wang T, Tang Y B. Ultrathin Di-amond Nanofilms-Development, Challenges, and Applic-ations[J], Small, 2021,17(30).
[2] Jian Z, Xu J, Yang N J et al. A perspective on diamond composites and their electrochemical applic-ations[J],Current Opinion in Electrochemistry,2021,30.
[3] J Qin J, Yang W, Long W M et al. Research progress of additive technology of diamond and its composite materials [J], Transactions of the China Wel-ding Institution, 2022, 43 (8): 102-112.
[4] Ranjbar O, Rassekh F. The impact of financial development on income convergence: An application of two exogenous growth models[J],International Review of Economics & Finance, 2017, 50: 65-74.
[5] Hang W, Liang N J, Liu, Y Z et al. Cobalt-Catalyzed Highly Regioselective Three-Component Arylca-rboxylation of Acrylate with Aryl Bromides and Carbon Dioxide[J], Chemsuschem, 2021,14(22):4941-4946.
[6] Rinkevich A B, Kuznetsov E A, Milyaev M A et al. Transmission of Microwaves through Magnetic Metallic Nanostructures[J],Physics of Metals and Metallography, 2020, 121(12): 1137-1167.
[7] Tsay C Y, Liu K S, Lin I N. Microwave sinteringof (Bi0.75Ca1.2Y1.05)(V0.6Fe4.4) O12 microwave mag-netic materials[J],Journal of the European Ceramic Society, 2004, 24 (6): 1057-1061.
[8] Lin S, Xiong W. Microstructure and abrasive behaviors of TiC-316L composites prepared by warm compaction and microwave sintering[J],Advanced Powder Technology the International Journal of the Society of Powder Technology Japan,2012,23(3):419-425.
[9] Bao R, Guo S, Yi J et al. Microwave reaction sintering on WC-Co cemented carbides fabrication[J],The Chinese Journal of Nonferrous Metals,2020,30(8):1828-1836.
[10] Moratal S, Benavente R, Salvador M D et al. Microwave sintering study of strontium-doped lanthanum manganite in a single-mode microwave with electric and magnetic field at 2.45 GHz[J],Journal of the European Ceramic Society,2022,5624-5630.
[11] Amiri T, Etsell T H, Sarkar P. Direct Microwave Sintering of Poorly Coupled Ceramics in Electrochemical Devices[J], Journal of Electrochemical Science and Technology, 2022, 13(3): 390-397.
[12] Batienkov R V, Bol'shakova A N, Khudnev A A. Microwave Sintering of Metal Powder Materials (Review) [J],Metallurgist, 2022, 65(9-10):1163-1173.
[13] Gao L P, Li G R, Wang H M et al. Interfacial structure and properties of microwave sintered FeCoNi1.5CrCu/ Al composites[J],Materials Characterization,2022,189.
[14] Wang X X, Liu Z H, Tang Y H et al. Low temperature and rapid microwave sintering of Na3Zr2Si2PO12 solid electrolytes for Na-Ion batteries[J],Journal of Power Sources, 2021, 481.
[15] Xu D W, Chen P, Chen G Z et al. Self-assembly synthesis and microwave absorption properties of magnetic functionalized graphene aerogels[J],Chinese Science Bulletin-Chinese,2022, 67 (4-5):437-446.
[16] Blachnio J, Spychala J, Zasada D. Analysis of structural changes in a gas turbine blade as a result of high temperature and stress [J],Engineering FailureAnalysis,2021,127.
[17] Cocker T L, Baillie D, Buruma M et al. Micro-scopic origin of the Drude-Smith model[J],Physical Review,2017,96(20).
[18] Dang D T-X, Vu T H T. Enhancing photoluminescence of Au – TiO2 nanoparticles using Drude model[J],Journal of IKEEE,2017,21(3):288-296.
[19] Lin L, Wen Q, Wang C. Structural topology optimization of circular saw blade[J],Journal of Machine Design,2018,35 (6): 24-28.
[20] Zhou Y, Zhao X, Xu H. Failure analysis on fatigue crack of bimetal strip saw blade[J],Heat Treatment of Metals,2016, 41 (6):176-179.
[21] Xiao C, Dou Z, Li J et al. Study on the properties of diamond saw blades prepared by Cu-based pre-alloyed powders [J], Powder Metallurgy Technology,2018,36(4): 287-291.
[22] Siklienka M, Kminiak R, Argay F et al. Process Characteristics of Horizontal Log Band Saw in Cutting Frozen Beech[J],Drvna Industrija, 2015,66(1):41-48.
[23] Litvinov A E, Buzko V Y, Balaev E Y et al. Technological aspects of wear-resistant coating treatment on the surface of a cutting tool[J],Cis Iron and Steel Review,2021,22:111-116.
[24] Chucheep T, Mahathaninwong N, Janudom S. The cost benefit analysis of reduced wear bandsaws[J],South African Journal of Industrial Engineering,2020,31(1):1-11.
[25] Tang L M, Pan Z B, Zhao J H et al. Significantly ceramics via optimized sintering aids[J],Journal of Alloys and Compounds, 2023, 935.
[26] Feng J J, Zhang Y R, Ma M S et al. Current Status and Development Trend of Cold Sint-ering Process[J],Journal of Inorganic Materials,2023,38(2):125-136.
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