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      KCI등재 SCOPUS SCIE

      Characteristics of lightweight diatomite‑based insulating firebricks

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      https://www.riss.kr/link?id=A106612324

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      다국어 초록 (Multilingual Abstract)

      This study covers the physical, thermal, mechanical, and microstructural properties of porous ceramic materials produced from mixtures containing refractory clay and diatomite in different proportions. The raw materials were characterized by chemical (X-ray fluorescence), thermal (thermogravimetry), morphological (scanning electron microscopy), and phase (X-ray diffraction) analysis techniques. The prepared samples were sintered at different firing temperatures between 900 and 1100 °C in an electrical furnace. The bulk densities, apparent porosities, linear dimensional shrinkages, compression strengths, thermal conductivities, and microstructural properties of the sintered samples were investigated. The porosity of the sample with 90% diatomite content increased to 55.4%, density decreased to 1.02 g/cm3, and thermal conductivity coefficient decreased to 0.32 W/mK.
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      This study covers the physical, thermal, mechanical, and microstructural properties of porous ceramic materials produced from mixtures containing refractory clay and diatomite in different proportions. The raw materials were characterized by chemical ...

      This study covers the physical, thermal, mechanical, and microstructural properties of porous ceramic materials produced from mixtures containing refractory clay and diatomite in different proportions. The raw materials were characterized by chemical (X-ray fluorescence), thermal (thermogravimetry), morphological (scanning electron microscopy), and phase (X-ray diffraction) analysis techniques. The prepared samples were sintered at different firing temperatures between 900 and 1100 °C in an electrical furnace. The bulk densities, apparent porosities, linear dimensional shrinkages, compression strengths, thermal conductivities, and microstructural properties of the sintered samples were investigated. The porosity of the sample with 90% diatomite content increased to 55.4%, density decreased to 1.02 g/cm3, and thermal conductivity coefficient decreased to 0.32 W/mK.

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      참고문헌 (Reference)

      1 S. A. Suvorov, "Vermiculite—a promising material for high-temperature heat insulators" 44 (44): 186-193, 2003

      2 F.H. Norton, "Refractories" McGraw-Hill Company Inc 1949

      3 A. L. Yurkov, "Properties of heat-insulating materials(a review)" 46 (46): 170-174, 2005

      4 C. Sadik, "Production of porous firebrick from mixtures of clay and recycled refractory waste with expanded perlite addition" 4 (4): 981-986, 2013

      5 I. D. Kashcheev, "Production of heat-insulating diatomite articles by a plastic method of molding" 51 (51): 18-24, 2010

      6 M. Sutcu, "Production of anorthite refractory insulating firebrick from mixtures of clay and recycled paper waste with sawdust addition" 38 (38): 1033-1041, 2012

      7 V. I. Remiznikova, "New composition for fabricating diatomaceous heat-insulating brick" 67 (67): 93-94, 2010

      8 N. A. Peretokina, "Lightweight foam products based on diatomite" 52 (52): 191-194, 2011

      9 Wen Yan, "Lightweight corundum-mullite refractories: II, Effects of porous aggregates on the slag resistances of corundum-mullite refractories" 세라믹연구소 17 (17): 313-317, 2016

      10 W. Yan, "Lightweight cordierite–mullite refractories with low coefficients of thermal conductivity and high mechanical properties" 38 (38): 409-415, 2015

      1 S. A. Suvorov, "Vermiculite—a promising material for high-temperature heat insulators" 44 (44): 186-193, 2003

      2 F.H. Norton, "Refractories" McGraw-Hill Company Inc 1949

      3 A. L. Yurkov, "Properties of heat-insulating materials(a review)" 46 (46): 170-174, 2005

      4 C. Sadik, "Production of porous firebrick from mixtures of clay and recycled refractory waste with expanded perlite addition" 4 (4): 981-986, 2013

      5 I. D. Kashcheev, "Production of heat-insulating diatomite articles by a plastic method of molding" 51 (51): 18-24, 2010

      6 M. Sutcu, "Production of anorthite refractory insulating firebrick from mixtures of clay and recycled paper waste with sawdust addition" 38 (38): 1033-1041, 2012

      7 V. I. Remiznikova, "New composition for fabricating diatomaceous heat-insulating brick" 67 (67): 93-94, 2010

      8 N. A. Peretokina, "Lightweight foam products based on diatomite" 52 (52): 191-194, 2011

      9 Wen Yan, "Lightweight corundum-mullite refractories: II, Effects of porous aggregates on the slag resistances of corundum-mullite refractories" 세라믹연구소 17 (17): 313-317, 2016

      10 W. Yan, "Lightweight cordierite–mullite refractories with low coefficients of thermal conductivity and high mechanical properties" 38 (38): 409-415, 2015

      11 O. Ünal, "Investigation of properties of low-strength lightweight concrete for thermal insulation" 42 : 584-590, 2007

      12 E. M. M. Ewais, "Insulating refractory bricks from water treatment sludge and rice husk ash" 58 (58): 136-144, 2017

      13 I. D. Kashcheev, "Improving the thermal insulation of high-temperature furnaces by the use of diatomite" 50 (50): 98-100, 2009

      14 Harbison-Walker Refractories, "Handbook of Refractory Practice" Harbison-Walker Refractories Company 2005

      15 S.C. Carniglia, "Handbook of Industrial Refractories Technology—Principles, Types, Properties and Applications" Noyes Publications 1992

      16 A. Ramezani, "Effects of the size of expanded polystyrene as a pore-former on the properties of insulating firebricks" 44 (44): 6641-6644, 2018

      17 E. O. Onche, "Effect of rice husk and diatomite on the insulating properties of kaolinclay firebricks" 11 (11): 81-90, 2007

      18 W. Yan, "Effect of particle size on microstructure and strength of porous spinel ceramics prepared by pore-forming in situ technique" 34 (34): 1109-1112, 2011

      19 S. É. Ivanov, "Diatomite and its applications" 65 (65): 48-51, 2008

      20 I. D. Kashcheev, "Diatomic heat insulation materials with increased application temperature" 50 (50): 354-358, 2009

      21 H. Meradi, "Characterization by thermal analysis of natural kieselguhr and sand for industrial application" 74 : 1282-1288, 2015

      22 M. I. Al-Wakeel, "Characterization and process development of the Nile diatomaceous sediment" 92 : 128-136, 2009

      23 O. Hadjadj-Aoula, "Characterization and performances of an Algerian diatomitebased gas chromatography support" 240 : 131-139, 2005

      24 A. A. Pirogov, "Characteristics of heat-insulating refractories produced by some foreign companies" 13 (13): 545-547, 1972

      25 L. A. Dergaputskaya, "Anorthite lightweight refractories for service in carbon-containing media" 21 (21): 366-368, 1980

      26 A. A. Pirogov, "Anorthite insulating refractory" 11 (11): 303-307, 1970

      27 A. V. Belyakov, "Advantage of heat insulation made of materials with natural porosity" 49 (49): 300-303, 2008

      28 "ASTM C20, Standard test methods for apparent porosity, water absorption, apparent specific gravity, and bulk density of burned refractory brick and shapes by boiling water"

      29 Y. N. Kryuchkov, "A heat-insulating lightweight material" 56 (56): 158-159, 1999

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      2023 평가예정 해외DB학술지평가 신청대상 (해외등재 학술지 평가)
      2020-01-01 평가 등재학술지 유지 (해외등재 학술지 평가) KCI등재
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      기준연도 WOS-KCI 통합IF(2년) KCIF(2년) KCIF(3년)
      2016 0.16 0.16 0.17
      KCIF(4년) KCIF(5년) 중심성지수(3년) 즉시성지수
      0.16 0.16 0.331 0.06
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