Research Progress on Preparation of SiC Ceramic Powders by Atmospheric High Temperature Solid Phase Reaction

doi:10.19894/j.issn.1000-0518.220287

Chinese Journal of Applied Chemistry ›› 2023, Vol. 40 ›› Issue (4): 476-485.DOI: 10.19894/j.issn.1000-0518.220287

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Research Progress on Preparation of SiC Ceramic Powders by Atmospheric High Temperature Solid Phase Reaction

Xiao-Lin LAN¹(), Hong-Xing ZHENG²(), Yi-Fan ZHANG¹, Zhen ZHAO³, He-Ye XIAO⁴, Zhi-Jiang WANG, Peng-Yang DENG¹

^1.CAS Key Laboratory of High-Perfomance Synthetic Rubber and Its Composite Materials，Changchun Institute of Applied Chemistry，Chinese Academy of Sciences，Changchun 130022，China
^2.Xi'an Modern Control Technology Research Institute，Xi'an 710065，China
^3.Airborne Military Representative Office in Changchun，Changchun 130022，China
^4.Unmanned System Research Institute，Northwestern Polytechnical University，Xi'an 710072，China
^5.School of Chemical Engineering Chemistry，Harbin Institute of Technology，Harbin 150001，China
^6.Inner Mongolia Haite Hualai Technology Co. ，LTD，Hohhot 010000，China
^7.University of Science and Technology of China，Hefei 230026，China

Received:2022-08-30 Accepted:2023-01-06 Published:2023-04-01 Online:2023-04-17
Contact: Xiao-Lin LAN,Hong-Xing ZHENG
About author:zhx203@126.com
lanxiaolin@ciac.ac.cn
Supported by:
the Youth Innovation Promotion Association CAS(E2202005)

Abstract

Abstract:

The purity， microstructure and uniformity of ceramic powders will affect the final performance of ceramic products. Therefore， achieving the controlled synthesis of SiC powders is the current research focus of silicon carbide preparation. Herein， SiC is used as the main material to summarize its main preparation methods. Under the normal pressure sintering system， the specific effects of temperature， raw materials， catalysts， gas supersaturation and other factors on SiC products are discussed based on the growth mechanism of Vapor-Liquid-Solid （VLS） mechanism and the Vapor-Solid （VS） mechanism. The controllable synthesis of SiC ceramic powder has important theoretical value and guiding significance for the large-scale production， application and subsequent preparation of ceramic products.

Key words: Silicon carbide, Particles, Nanowires, Growth mechanism, Influencing factors

CLC Number:

O613

Xiao-Lin LAN, Hong-Xing ZHENG, Yi-Fan ZHANG, Zhen ZHAO, He-Ye XIAO, Zhi-Jiang WANG, Peng-Yang DENG. Research Progress on Preparation of SiC Ceramic Powders by Atmospheric High Temperature Solid Phase Reaction[J]. Chinese Journal of Applied Chemistry, 2023, 40(4): 476-485.

Figures/Tables 4

Fig.1 Schematic diagram of the VLS reaction mechanism［47］

Fig.2 SEM images of SiC prepared from different raw materialsNote： a. loofah flesh［48］； b. bayberry［49］； c. cotton［50］； d. egg inner membrane［51］

Fig.3 TEM images of SiC nanowires prepared at different temperature［22］Note： a. 1400 ℃； b. 1500 ℃； c. 1600 ℃

Fig.4 SEM images of paper-derived silicon carbide prepared at different temperatures［30］Note： a. 1400 ℃； b. 1500 ℃； c. 1600 ℃

References 72

1	许庭翔. 碳化硅晶体本征缺陷及其性能调控研究［D］. 上海：中国科学院大学（中国科学院上海硅酸盐研究所）， 2021.
	XU T X. Study on intrinsic defects of silicon carbide crystal and its performance regulation［D］. Shanghai： University of Chinese Academy of Sciences （Shanghai Institute of Ceramics， Chinese Academy of Sciences）， 2021.
2	YE F， DUAN W Y， MO R， et al. Silicon oxycarbide powders doped with in situ grown SiC nanowires： synthesis and dielectric properties［J］. Rare Met Mater Eng， 2019， 48（1）： 39-43.
3	BAE S G， OH M， LEE Y， et al. Preparation of silicon carbide nanowires and study on absorbing properties［J］. Ceram Int， 2022， 48（9）： 13295-13303.
4	PAPANASAM E， KUMAR B P， CHANTHINI B. et al. A comprehensive review of recent progress， prospect and challenges of silicon carbide and its applications［J］. Silicon， 2022， 14： 12887-12900.
5	CAO Y， DONG H， PU S， et al. Photoluminescent two-dimensional SiC quantum dots for cellular imaging and transport［J］. Nano Res， 2018， 11（8）： 4074-4081.
6	NGUYEN T K， PHAN H P， KAMBLE H， et al. Superior robust ultrathin single-crystalline silicon carbide membrane as a versatile platform for biological applications［J］. ACS Appl Mater Interfaces， 2017， 9（48）： 41641-41647.
7	AKIN I， KAYA O. Microstructures and properties of silicon carbide- and graphene nanoplatelet-reinforced titanium diboride composites［J］. J Alloys Compd， 2017， 729： 949-959.
8	WANG H， WU L， JIAO J， et al. Covalent interaction enhanced electromagnetic wave absorption in SiC/Co hybrid nanowires［J］. J Mater Chem A， 2015， 3（12）： 6517-6525.
9	PENG Y， HAN G， WANG D， et al. Improved H-2， evolution under visible light in heterostructured SiC/CdS photocatalyst： effect of lattice match［J］. Int J Hydrogen Energy， 2017， 42（21）： 14409-14417.
10	AEGISS E. Nano： the emerging science of nanotechnology： remaking the world-molecule by molecule［M］. Boston： Little Brown and Company， 1995.
11	KUANG J L， JIANG P， HOU X J. Dielectric permittivity and microwave absorption properties of SiC nanowires with different lengths［J］. Solid State Sci， 2019， 91： 73-76.
12	ZHU H S， QIA Q， SHI L Q. SiC nanorods of highly preferred orientation prepared by radio frequency magnetron sputtering［J］. J Vac Sci Technol B， 2013， 31： 060604.
13	CHEN X Y， ZHANG Q， ZHOU Y. Synthesis of bamboo-like 3C-SiC nanowires with good luminescent property via nano-ZrO₂ catalyzed chemical vapor deposition technique［J］. Ceram Int， 2018， 44： 22890-22896.
14	GU W J， JIA S Q， QIU J D， et al. Preparation of SiC whiskers from rice husk［J］. J Chin Ceram Soc， 2014， 42（1）： 28-32.
15	YUAN Q， LI Y Q， SONG Y C. Microstructure and thermal stability of low-oxygen SiC fibers prepared by an economical chemical vapor curing method［J］. Ceram Int， 2017， 43（12）： 9128-9132.
16	TAO P F， WANG Y G. Fabrication of highly dense three-layer SiC cladding tube by chemical vapor infiltration method［J］. J Am Ceram Soc， 2019， 102（11）： 6939-6945.
17	汪涵，尹珑龙，郭晴，等. 纳米碳化硅的制备与应用研究进展［J］. 广东化工， 2022， 49（8）： 84-86.
	WANG H， YIN L L， GUO Q， et al. Research prospects of application and preparation of nano-silcon carbon［J］. Guangdong Chem Ind， 2022， 49（8）： 84-86.
18	BOUDARD D， FOREST V， POURCHEZ J， et al. In vitro cellular responses to silicon carbide particles manufactured through the Acheson process： impact of physico-chemical features on pro-inflammatory and pro-oxidative effects［J］. Toxicol In Vitro， 2014， 28（5）： 856-865.
19	罗昊，张序清，杨德仁，等. 碳化硅单晶生长用高纯碳化硅粉体的研究进展［J］.人工晶体学报， 2021， 50（8）： 1562-1574.
	LUO H， ZHANG X Q， YANG D R， et al. Rsearch progress on high-purity SiC powder for single crystal SiC growth［J］. J Synth Cryst， 2021， 50（8）： 1562-1574.
20	HART A H C， OWUOR P S， HAMEL J， et al. Ultra-low density three-dimensional nano-silicon carbide architecture with high temperature resistance and mechanical strength［J］. Carbon， 2020， 164： 143-149.
21	朱文振，郑治祥，姜坤，等. 碳热还原法低温制备碳化硅微粉［J］. 硅酸盐通报， 2012， 31（1）： 46-49.
	ZHU W Z， DENG Z X， JIANG K， et al. Preparation of silicon carbide micropowder at low temperature by carbothermal reduction［J］. Bull Chin Ceramic Soc， 2012， 31（1）： 46-49.
22	ZHANG H， XU Y， ZHOU J， et al. Stacking fault and unoccupied densities of state dependence of electromagnetic wave absorption in SiC nanowires［J］. J Mater Chem C， 2015， 3（17）： 4416-4423.
23	WU X S， WU， X S， ZHU， Y Z， et al. Joining of SiC ceramic by Si-C reaction bonding using organic resin as carbon precursor［J］. Materials， 2022， 15（12）： 4242.
24	WEI B， ZHOU J T， CHEN W J， et al. Excellent microwave absorption property of nano-Ni coated hollow silicon carbide core-shell spheres［J］. Appl Surf Sci， 2020， 508： 145261.
25	ZHANG Y， QIAN L， ZHAO W， et al. Highly efficient Fe-N-C nanoparticles modified porous graphene composites for oxygen reduction reaction［J］. J Electrochem Soc， 2018， 165： 510-516.
26	ZEKENTES K， CHOI J， STAMBOULI V， et al. Progress in SiC nanowire field-effect-transistors for integrated circuits and sensing applications［J］. Microelectron Eng， 2022， 255： 111704.
27	CUTLER I B. Production of SiC from rice hulls.US patent 3754076［P］.1973-8-12.
28	GREIL P， LIFKA T， KAINDL A. Biomorphic cellular silicon carbide ceramics from wood： II. mechanical properties［J］. J Eur Ceram Soc， 1998， 18（14）： 1975-1983.
29	LIU C， YU D， KIRK D W， et al. Porous silicon carbide derived from apple fruit with high electromagnetic absorption performance［J］. J Mater Chem C， 2016， 4（23）： 5349-5356.
30	LAN X， LIANG C， WU M， et al. Facile synthesis of highly defected SiC sheets for efficient absorption of electromagnetic waves［J］. J Phys Chem C， 2018， 122（32）： 18537-18544.
31	MIZERSKA U， FORTUNIAK W， CHOJNOWSKI J， et al. Porous SiC and SiC/C_f ceramic microspheres derived from polyhydromethylsiloxane by carbothermal reduction materials［J］. Materials， 2022， 15（1）： 81.
32	ZHANG X， HUANG X， WEN G， et al. Novel SiOC nanocomposites for high-yield preparation of ultra-large-scale SiC nanowires［J］. Nanotechnology， 2010， 21（38）： 385601.
33	CHEN H， JIANG J， ZHAO H. Synthesis of highly dispersed silicon carbide powders by a solvothermal-assisted sol-gel process［J］. Appl Phys A， 2018， 124（7）： 470.
34	肖飞飞，李蛟，樊震坤，等. 聚合物转化陶瓷在吸波领域的研究进展［J］. 山东陶瓷， 2019， 42（6）： 3-6.
	XIAO F F， LI J， FAN Z K， et al. Research progress of polymer-converted ceramics in the field of wave absorbing［J］. Shandong Ceram， 2019， 42（6）： 3-6.
35	丁丽娟. 碳化硅纳米线的生长热力学分析及制备研究［D］. 杭州：浙江理工大学， 2017.
	DING L J. Growth thermodynamic analysis and preparation of silicon carbide nanowires［D］. Hangzhou： Zhejiang Sci-Tech University， 2017.
36	邱泽超. 枝状碳化硅制备及吸波性能研究［D］. 哈尔滨：哈尔滨工业大学， 2018.
	QIU Z C. Preparation and absorbing properties of dendritic silicon carbide［D］. Harbin： Harbin Institute of Technology， 2018.
37	JU C H， ZHENG X， GOU C， et al. Sulfur-assisted approach for the low-temperature synthesis of β-SiC nanowires［J］．Eur J Inorg Chem， 2008（24）： 3883-3888.
38	GE Y C， LIU Y Q， SHUAI W U， et al. Characterization of SiC nanowires prepared on C/C composite without catalyst by CVD［J］. Trans Nonferrous Met Soc China， 2015， 25（10）： 3258-3264.
39	WU J， QIAN S T， HUO， T G， et al. Effect of PyC inner coating on preparation of 3C-SiC coating on quartz glass by chemical vapor reaction［J］. Front Mater， 2022， 9： 897900.
40	ATTOLINI G， ROSSI F， NEGRI M， et al. Growth of SiC nws by vapor phase technique using Fe as catalyst［J］. Mater Lett， 2014， 124（6）： 169-172.
41	杨涛. 一维3C-SiC纳米结构光/电特性调控与应用［D］. 北京：北京科技大学， 2018.
	YANG T. One-dimensional 3C-SiC nanostructure optical/electrical properties regulation and application［D］. Beijing： Beijing University of Science and Technology， 2018.
42	李俭国. 超快激光诱导碳化硅表面改性机理研究［D］. 广州：广东工业大学， 2020.
	LI J G. Study on the mechanism of ultrafast laser-induced surface modification of silicon carbide［D］. Guangzhou： Guangdong University of Technology， 2020.
43	AMIN J， HAMID T， OMID T. Potency of different carbon sources in reduction of microsilica to synthesize SiC from mechanically activated powder mixtures［J］. Int J Appl Ceram Technol， 2016， 13（5）： 937-947.
44	MAGNANI G， GALVAGNO S， SICO G， et al. Sintering and mechanical properties of β-SiC powder obtained from waste tires［J］. J Adv Ceram， 2016， 5（1）： 40-46.
45	WAGNER R S. On the growth of germanium dendrites［J］. Acta Metall， 1960， 8（1）： 57-60.
46	李雪婷. 碳化硅纳米线基多元吸波材料的制备与性能研究［D］. 西安：西安建筑科技大学， 2021.
	LI X T. Preparation and properties of silicon carbide nanowire-based multicomponent absorbers［D］. Xi'an： Xi'an University of Architecture and Technology， 2021.
47	DUAN W， YIN X， LI Q， et al. Synthesis and microwave absorption properties of SiC nanowires reinforced SiOC ceramic［J］. J Eur Ceram Soc， 2014， 34： 257-266.
48	LIU L， YANG S， HU H T， et al. Lightweight and efficient microwave-absorbing materials based on loofah-sponge-derived hierarchically porous carbons［J］. ACS Sustainable Chem Eng， 2018， 7（1）： 1228-1238.
49	SUN X， YANF M， YANG S， et al. Ultrabroad band microwave absorption of carbonized waxberry with hierarchical structure［J］. Small， 2019， 15（43）： 1902974.
50	ZHAO H， CHENG Y， MA J， et al. A sustainable route from biomass cotton to construct lightweight and high-performance microwave absorber［J］. Chem Eng J， 2018， 339： 432-441.
51	HUANG L， LI J， WANG Z， et al. Microwave absorption enhancement of porous C@CoFe₂O₄ nanocomposites derived from eggshell membrane［J］. Carbon， 2019， 143： 507-516.
52	MAITY A， DAS H， KALITA D， et al. Studies on formation and siliconization of carbon template of coir fibreboard precursor to SiC ceramics［J］. J Eur Ceram Soc， 2014， 34（15）： 3499-3511.
53	WANG H， WU L， JIAO J， et al. Covalent interaction enhanced electromagnetic wave absorption in SiC/Co hybrid nanowires［J］. J Mater Chem A， 2015， 3（12）： 6517-6525.
54	DAI H， WONG E W， LU Y Z， et al. Synthesis and characterization of carbide nanorods［J］. Nature， 1995， 375（6534）： 769-772.
55	MENG G W， CUI Z， ZHANG L D， et al. Growth and characterization of nanostructured β-SiC via carbothermal reduction of SiO₂ aerogels containing carbon nanoparticles［J］. J Cryst Growth， 2000， 209（4）： 801-806.
56	HAN M， YIN X， HOU Z， et al. Flexible and thermostable graphene/SiC nanowires foam composites with tunable electromagnetic wave absorption properties［J］. ACS Appl Mater Interfaces， 2017， 9（13）： 11803.
57	GAO L， ZHONG H， CHEN Q. Synthesis of 3C-SiC nanowires by reaction of poly（ethylene terephthalate） waste with SiO₂ microspheres［J］. J Alloys Compd， 2013， 566（2）： 212-216.
58	张颖，蒋明学，张军战. 合成温度对碳热还原法合成碳化硅晶须形貌的影响［J］. 人工晶体学报， 2010， 39（2）： 369-374.
	ZHANG Y， JIANG M X， ZHANG J Z. Effect of synthesis temperature on morphology of silicon carbide whisker synthesized by carbothermal reduction［J］. J Synth Cryst， 2010， 39（2）： 369-374.
59	FENG W， MA J， YANG W. Precise control on the growth of SiC nanowires［J］. Crystengcomm， 2012， 14（4）： 1210-1212.
60	XIA Y， YANG P， SUN Y. One-dimensional nanostructures： synthesis， characterization， and applications［J］. Adv Mater， 2010， 15（5）： 353-389.
61	SEO W S， KOUMOTO K. Stacking faults in β-SiC formed during carbothermal reduction of SiO₂［J］. J Am Ceram Soc， 1996， 79（7）： 1777-1782.
62	LEE J S， BYEUN Y K， LEE S H， et al. In situ growth of SiC nanowires by carbothermal reduction using a mixture of low-purity SiO₂ and carbon［J］. J Alloys Compd， 2008， 456（1）： 257-263.
63	张晓东. 准一维SiC和Si₃N₄纳米材料的合成与表征［D］. 哈尔滨：哈尔滨工业大学， 2010.
	ZHANG X D. Synthesis and characterization of quasi-one-dimensional SiC and Si₃N₄ nanomaterials［D］. Harbin： Harbin Institute of Technology， 2010.
64	WEI J， LI K， CHEN J， et al. Synthesis of centimeter-scale ultra-long SiC nanowires by simple catalyst-free chemical vapor deposition［J］. J Cryst Growth， 2011， 335（1）： 160-164.
65	CHEN J J， PAN Y， TANG W H， et al. Tuning the morphologies of SiC nanowires via the change of the CoxSiy melts［J］. Nano-Micro Lett， 2010， 2（1）： 11-17.
66	李心慰，曲殿利，李志坚，等. 合成碳化硅的热力学分析及碳化硅晶须生长的表征［J］. 人工晶体学报， 2013， 42（10）： 2160-2163.
	LI X W， QU D L， LI Z J， et al. Thermodynamic analysis of synthesized silicon carbide and characterization of silicon carbide whisker growth［J］. J Synth Cryst， 2013， 42（10）： 2160-2163.
67	YAO W Q， LIU H T， SUN J Z， et al. Engineering of chemical vapor deposition graphene layers： growth， characterization， and properties［J］. Adv Funct Mater， 2022： 2202584.
68	CHEN S L， LI W J， LI X X， et al. One-dimensional SiC nanostructures： designed growth， properties， and applications［J］. Prog Mater Sci， 2019， 104： 138-214.
69	ZEKENTES K， CHOU J， STAMBOULI V， et al. Progress in SiC nanowire field-effect-transistors for integrated circuits and sensing applications［J］. Microelectron Eng， 2022， 255： 111704
70	HU P， DONG S， ZHANG D Y， et al. Catalyst-assisted synthesis of core-shell SiC/SiO₂ nanowires via a simple method［J］. Ceram Int， 2016， 42： 1581-1587.
71	ZHANG M， LI Z J， ZHAO J， et al. Amorphous carbon coating for improving the field emission performance of SiC nanowire cores［J］. J Mater Chem C， 2015， 3（3）： 658-663.
72	HE W Z， CHEN C Q， XU Z P， et al. Molecular dynamics simulations of silicon carbide nanowires under single-ion irradiation［J］. J Appl Phys， 2019， 126（12）： 125902.

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Research Progress on Preparation of SiC Ceramic Powders by Atmospheric High Temperature Solid Phase Reaction

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