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      기계화학적 아이오딘 불융화 공정 조건에 따른 마이크로파 탄화규소 발열체의 발열 특성 연구 = Investigation of the heating characteristics of microwave silicon carbide heaters under mechanochemical iodine curing process conditions

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      https://www.riss.kr/link?id=A109320933

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      다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

      Silicon carbide (SiC), known for its excellent mechanical and chemical properties, is widely used in key industries such as aerospace, defense, and nuclear power generation. Due to its rapid heating characteristics when exposed to microwaves, SiC is being researched as a highly efficient heating element. In this study, Polycarbosilane (PCS) was treated by a mechanochemical reaction with iodine, followed by pyrolysis to create a microwave heating material. The effects of pyrolysis temperature and iodine additive content on microwave heating performance were investigated. The results showed that the fabricated specimen rapidly heated to a maximum of 800° C within approximately 60 sec and maintained a stable temperature of 700~750°C for up to 120 min
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      Silicon carbide (SiC), known for its excellent mechanical and chemical properties, is widely used in key industries such as aerospace, defense, and nuclear power generation. Due to its rapid heating characteristics when exposed to microwaves, SiC i...

      Silicon carbide (SiC), known for its excellent mechanical and chemical properties, is widely used in key industries such as aerospace, defense, and nuclear power generation. Due to its rapid heating characteristics when exposed to microwaves, SiC is being researched as a highly efficient heating element. In this study, Polycarbosilane (PCS) was treated by a mechanochemical reaction with iodine, followed by pyrolysis to create a microwave heating material. The effects of pyrolysis temperature and iodine additive content on microwave heating performance were investigated. The results showed that the fabricated specimen rapidly heated to a maximum of 800° C within approximately 60 sec and maintained a stable temperature of 700~750°C for up to 120 min

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      참고문헌 (Reference)

      1 Y. Wang, "Synthesis, properties, and multifarious applications of SiC nanoparticles : A review" 48 : 8882-, 2022

      2 Y. Hasegawa, "Synthesis of continuous silicon carbide fiber : Part3 Pyrolysis process of polycarbosilane and structure of the products" 18 : 3633-, 1983

      3 Z. Shen, "Recent progress in SiC nanowires as electromagnetic microwaves absorbing materials" 815 : 15238-, 2020

      4 M. Narisawa, "Reaction mechanism of the pyrolysis of polycarbosilane and polycarbosilazane as ceramic precursors" 68 : 1098-, 1995

      5 R. He, "Progress and challenges towards additive manufacturing of SiC ceramic" 10 : 637-, 2012

      6 J. H. Eom, "Processing and properties of macroporous silicon carbide ceramics : A review" 1 : 220-, 2013

      7 Y. Hasegawa, "New curing method for polycarbosilane with unsaturated hydrocarbons and application to thermally stable SiC fibre" 51 : 161-, 1994

      8 Y.J. Yoo, "Microwave-assisted heating behavior of amorphous SiC fibers derived from polycarbosilane" 8 : 035603-, 2021

      9 E. Boldyreva, "Mechanochemistry of inorganic and organic systems : what is similar, what is different?" 42 : 7719-, 2013

      10 A. N. Qinglong, "Machining of SiC ceramic matrix composites : A review" 34 : 540-, 2021

      1 Y. Wang, "Synthesis, properties, and multifarious applications of SiC nanoparticles : A review" 48 : 8882-, 2022

      2 Y. Hasegawa, "Synthesis of continuous silicon carbide fiber : Part3 Pyrolysis process of polycarbosilane and structure of the products" 18 : 3633-, 1983

      3 Z. Shen, "Recent progress in SiC nanowires as electromagnetic microwaves absorbing materials" 815 : 15238-, 2020

      4 M. Narisawa, "Reaction mechanism of the pyrolysis of polycarbosilane and polycarbosilazane as ceramic precursors" 68 : 1098-, 1995

      5 R. He, "Progress and challenges towards additive manufacturing of SiC ceramic" 10 : 637-, 2012

      6 J. H. Eom, "Processing and properties of macroporous silicon carbide ceramics : A review" 1 : 220-, 2013

      7 Y. Hasegawa, "New curing method for polycarbosilane with unsaturated hydrocarbons and application to thermally stable SiC fibre" 51 : 161-, 1994

      8 Y.J. Yoo, "Microwave-assisted heating behavior of amorphous SiC fibers derived from polycarbosilane" 8 : 035603-, 2021

      9 E. Boldyreva, "Mechanochemistry of inorganic and organic systems : what is similar, what is different?" 42 : 7719-, 2013

      10 A. N. Qinglong, "Machining of SiC ceramic matrix composites : A review" 34 : 540-, 2021

      11 J. S. Hong, "Low-temperature chemical vapour curing using iodine for fabrication of continuous silicon carbide fibres from low-molecular-weight polycarbosilane" 2 : 2781-, 2014

      12 J. S. Hong, "Iodine diffusion during iodine-vapor curing and its effects on the morphology of polycarbosilane/silicon carbide fibers" 132 : 42687-, 2015

      13 N. R. Rose, "Iodine : an environmental trigger of thyroiditis" 1 : 97-, 2002

      14 W. Krenkel, "Handbook of ceramic composites" Springer 117-, 2005

      15 C. Ke, "Energy absorption performances of silicon carbide particles during microwave heating process" 172 : 108796-, 2022

      16 H. Li, "Effect of the polycarbosilane structure on its final ceramic yield" 28 : 887-, 2008

      17 Young Jun Joo ; Kwang-Youn Cho ; Cheol Jin Kim, "Effect of pyrolysis temperature on heat-generating behavior and morphology of SiC fiber mats" 20 : 563-, 2019

      18 주영준 ; 주상현 ; 조광연, "Effect of pyrolysis temperature and pressing load on the densification of amorphous silicon carbide block" 30 : 271-, 2020

      19 V. Verdingovas, "Effect of iodine on the corrosion of Au-Al wire bonds" 97 : 161-, 2015

      20 H. Q. Ly, "Conversion of polycarbosilane(PCS)to SiC-based ceramic Part 1. Characterisation of PCS and curing products" 36 : 4037-, 2001

      21 C. Sauder, "Ceramic matrix composites: materials, modeling and technology" Wiley 609-, 2014

      22 H. Sugawara, "Behavior of microwaveheated silicon carbide particles at frequencies of 2.0~13.5 GHz" 105 : 034103-, 2014

      23 K. Okamura, "Application of radiation curing in the preparation of polycarbosilane-derived SiC fibers" 2 : 171-, 1992

      24 A. Idesaki, "Application of electron beam curing for silicon carbide fiber synthesis from blend polymer of polycarbosilane and polyvinylsilane" 60 : 483-, 2001

      25 N. Eswara Prasad, "Aerospace materials and material technologies: Vol. 1: Aerospace materials" Springer 371-, 2017

      26 T. Taki, "A study of the oxidation curing mechanism of polycarbosilane fibre by solid-state high-resolution nuclear magnetic resonance" 24 : 1263-, 1989

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