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2021 | OriginalPaper | Buchkapitel

2. Development of Solid Composite Sorbents

verfasst von : Liwei Wang, Guoliang An, Jiao Gao, Ruzhu Wang

Erschienen in: Property and Energy Conversion Technology of Solid Composite Sorbents

Verlag: Springer Singapore

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Abstract

This chapter introduces techniques for developing different solid composite sorbents in detail, including processing ENG without or with graphite intercalation compounds (GICs), and developing the composite solid sorbents with ENG, activated carbon, activated carbon fiber and silica gel by simple mixture and consolidation or impregnation and compression.

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Vorheriges Kapitel Introduction

Nächstes Kapitel Properties of Solid Composite Sorbents

Celzard A, Mareche JF, Furdin G (2005) Modelling of exfoliated graphite. Prog Mater Sci 50:93–179CrossRef

Yue XQ, Yu K, Ji L, Wang ZJ, Zhang FC, Qian LH, Liu YF, Zhang RJ (2011) Effect of heating temperature of expandable graphite on amorphization behavior of powder expanded graphite-Fe mixtures by ball-milling. Powder Technol 211:95–99CrossRef

Dresselhaus MS, Dresselhaus G (2002) Intercalation compounds of graphite. Adv Phys 51(1):1–186CrossRef

Chung DDL (1987) Intercalate vaporization during the exfoliation of graphite intercalated with bromine. Carbon 25(3):361–365CrossRef

Chung DDL (1987) Exfoliation of graphite. J Mater Sci 22(12):4190–4198CrossRef

Tang QW, Wu JH, Sun H, Fang SJ (2009) Crystallization degree change of expanded graphite by milling and annealing. J Alloys Compd 475:429–433CrossRef

Tian B, Yu XG, Wang LW, Wang RZ (2011) Expansion process and thermal conductivity performance of the graphite used as the heat and mass transfer intensification material (in Chinese). J Chem Eng Chin Univ 25(4):572–578

Inagaki M, Tashiro R, Washino Y-i, Toyoda M (2004) Exfoliation process of graphite via intercalation compounds with sulfuric acid. J Phys Chem Solids 65:133–137CrossRef

Kang F, Zheng Y, Wang H, Nishi Y, Inagaki M (2002) Effect of preparation conditions on the characteristics of exfoliated graphite. Carbon 40(9):1575–1781CrossRef

10.

Avdeev VV, Martynov IU, Nikolskaya IV, Monyakina LA, Sorokina NE (1996) Investigation of the graphite-H₂SO₄-gaseous oxidizer (Cl₂, O₃, SO₃) system. J Phys Chem Solids 57:837–840CrossRef

11.

Avdeev VV, Martynov IU, Nikol’skaya IV, Monyakina LA, Sorokina NE (1994) Calorimetric and potentiometry investigations of the acceptor compounds intercalations into graphite. Mol Cryst Liq Cryst 244:115–120CrossRef

12.

Shornikova O, Kogan E, Sorokina N, Avdeev V (2009) The specific surface area and porous structure of graphite materials. Russ J Phys Chem A 83:1022–1025CrossRef

13.

Kang F, Leng Y, Zhang TY (1997) Electrochemical synthesis and characterization of formic acid-graphite intercalation compound. Carbon 35(8):1089–1096CrossRef

14.

Yoshida A, Hishiyama Y, Inagaki M (1991) Exfoliated graphite from various intercalation compounds. Carbon 29(8):1227–1231CrossRef

15.

Inagaki M, Muramatsu K, Maeda Y, Maekawa K (1983) Production of exfoliated graphite from potassium-graphitetetrahydrofuran ternary compounds and its applications. Synth Met 8:335–342CrossRef

16.

Kemin S, Huijuan D (2000) On lower-nitrogen expandable graphite. Mater Res Bull 35:425–430CrossRef

17.

Makotchenko VG, Grayfer ED, Nazarov AS, Kim SJ, Fedorov VE (2011) The synthesis and properties of highly exfoliated graphites from fluorinated graphite intercalation compounds. Carbon 49(10):3233–3241CrossRef

18.

Wei T, Fan Z, Luo G, Zheng C, Xie D (2009) A rapid and efficient method to prepare exfoliated graphite by microwave irradiation. Carbon 47(1):337–339CrossRef

19.

Tryba B, Morawski AW, Inagaki M (2005) Preparation of exfoliated graphite by microwave irradiation. Carbon 43(11):2417–2419CrossRef

20.

Manning TJ, Mitchell M, Stach J, Vickers T (1999) Synthesis of exfoliated graphite from fluorinated graphite using an atmospheric-pressure argon plasma. Carbon 37(7):1159–1164CrossRef

21.

Schlogl R, Boehm HP (1984) The reaction of potassium-graphite intercalation compounds with water. Carbon 22:351–358CrossRef

22.

Skowronski JM (1988) Exfoliation of graphite-CrO₃ intercalation compounds in hydrogen peroxide solution. J Mater Sci 23:2243–2246CrossRef

23.

Dowell MB, Howard RA (1986) Tensile and compressive properties of flexible graphite foils. Carbon 24(3):311–323CrossRef

24.

Gu WT, Zhang W, Li XM, Zhu HW, Wei JQ, Li Z, Shu QK, Wang C, Wang KL, Shen WC, Kang FY, Wu DH (2009) Graphene sheets from worm-like exfoliated graphite. J Mater Chem 19:3367–3369CrossRef

25.

Malas A, Pal P, Das CK (2014) Effect of expanded graphite and modified graphite flakes on the physical and thermo-mechanical properties of styrene butadiene rubber/polybutadiene rubber (SBR/BR) blends. Mater Des 55:664–673CrossRef

26.

Yue XQ, Li L, Zhang RJ, Zhang FC (2009) Effect of expansion temperature of expandable graphite on microstructure evolution of expanded graphite during high-energy ball-milling. Mater Charact 60:1541–1544CrossRef

27.

Han JH, Cho KW, Lee KH, Kim H (1998) Porous graphite matrix for chemical heat pumps. Carbon 36(12):1801–1810CrossRef

28.

Celzard A, Krzesinska M, Mareche JF, Puricelli S (2001) Scalar and vectorial percolation in compressed expanded graphite. Phys A 294:283–294CrossRef

29.

Wang LW, Metcalf SJ, Thorpe R, Critoph RE, Tamainot-Telto Z (2011) Thermal conductivity and permeability of consolidated expanded natural graphite treated with sulphuric acid. Carbon 49(14):4812–4819CrossRef

30.

Wang RZ, Wang LW, Wu JY (2014) Adsorption refrigeration technology: theory and application. Wiley, SingaporeCrossRef

31.

Wang LW, Tamainot-Telto Z, Thorpe R, Critoph RE, Metcalf SJ, Wang RZ (2011) Study of thermal conductivity, permeability, and adsorption performance of consolidated composite activated carbon adsorbent for refrigeration. Renew Energy 36:2062–2066CrossRef

32.

Wang LW, Metcalf SJ, Critoph RE, Tamainot-Telto Z, Thorpe R (2013) Two types of natural graphite host matrix for composite activated carbon adsorbents. Appl Therm Eng 50:1652–1657CrossRef

33.

Jin ZQ, Tian B, Wang LW, Wang RZ (2013) Comparison on thermal conductivity and permeability of granular and consolidated activated carbon for refrigeration. Chin J Chem Eng 21(6):676–682CrossRef

34.

Wang LW, Metcalf SJ, Thorpe R, Critoph RE, Tamainot-Telto Z (2012) Development of thermal conductive consolidated activated carbon for adsorption refrigeration. Carbon 50:977–986CrossRef

35.

Zhao YJ, Wang LW, Wang RZ, Ma KQ, Jiang L (2013) Study on consolidated activated carbon: choice of optimal adsorbent for refrigeration application. Int J Heat Mass Transf 67:867–876CrossRef

36.

Zheng X, Wang LW, Wang RZ, Ge TS, Ishugah TF (2014) Thermal conductivity, pore structure and adsorption performance of compact composite silica gel. Int J Heat Mass Transf 68:435–443CrossRef

37.

Eun TH, Song HK, Han JH, Lee KH, Kim JN (2000) Enhancement of heat and mass transfer in silica-expanded graphite composite blocks for adsorption heat pumps: Part I. Characterization of the composite blocks. Int J Refrig 23:64–73CrossRef

38.

Lee CH, Park SH, Choi SH, Kim YS, Kim SH (2005) Characteristics of non-uniform reaction blocks for chemical heat pump. Chem Eng Sci 60:1401–1409CrossRef

39.

Kim ST, Ryu J, Kato Y (2011) Reactivity enhancement of chemical materials used in packed bed reactor of chemical heat pump. Prog Nucl Energy 53:1027–1033CrossRef

40.

Jiang L, Wang LW, Wang RZ (2014) Investigation on thermal conductive consolidated composite CaCl₂ for adsorption refrigeration. Int J Therm Sci 81:68–75CrossRef

41.

Zajaczkowski B, Królicki Z, Jezowski A (2010) New type of sorption composite for chemical heat pump and refrigeration systems. Appl Therm Eng 30:1455–1460CrossRef

42.

Han JH, Cho KW, Lee KH, Mauran S (1996) Characterization of graphite-salt blocks in chemical heat pumps. In: Proceedings of international absorption heat pump conference, Montreal, Canada, pp 67–73

43.

Mauran S, Coudevylle O, Lu HB (1996) Optimization of porous reactive media for solid sorption heat pumps. In: Proceedings of the international sorption heat pump conference, pp 3–8

44.

Wang K, Wu JY, Xia ZZ, Li SL, Wang RZ (2008) Design and performance prediction of a novel double heat pipes type adsorption chiller for fishing boats. Renew Energy 33(4):780–790CrossRef

45.

Oliveira RG, Wang RZ, Wang C (2007) Evaluation of the cooling performance of a consolidated expanded graphite-calcium chloride reactive bed for chemisorption icemaker. Int J Refrig 30(1):103–112CrossRef

46.

Kiplagat JK, Wang RZ, Oliveira RG, Li TX (2010) Lithium chloride—expanded graphite composite sorbent for solar powered ice maker. Sol Energy 84:1587–1594CrossRef

47.

Xu J, Oliveira RG, Wang RZ (2011) Resorption system with simultaneous heat and cold production. Int J Refrig 34:1262–1267CrossRef

48.

Fujioka K, Suzuki H (2013) Thermophysical properties and reaction rate of composite reactant of calcium chloride and expanded graphite. Appl Therm Eng 50:1627–1632CrossRef

49.

Kim ST, Ryu J, Kato Y (2013) Optimization of magnesium hydroxide composite material mixed with expanded graphite and calcium chloride for chemical heat pumps. Appl Therm Eng 50:485–490CrossRef

50.

Py X, Daguerre E, Menard D (2002) Composites of expanded natural graphite and in situ prepared activated carbons. Carbon 40:1255–1265CrossRef

51.

Menard D, Py X, Mazet N (2003) Development of thermally conductive packing for gas separation. Carbon 41:1715–1727CrossRef

52.

Gao J, Wang LW, Wang RZ et al (2017) Solution to the sorption hysteresis by novel compact composite multi-salt sorbents. Appl Therm Eng 111:580–585CrossRef

53.

Wang MZ, He F (1984) Manufacture, property, and application of carbon fiber (in Chinese, ISBN 15030.585). Science Press, Beijing, China

54.

Dellero T, Sarmeo D, Touzain P (1999) A chemical heat pump using carbon fibers as additive. Part I: Enhancement of thermal conduction. Appl Therm Eng 19:991–1000CrossRef

55.

Dellero T, Touzain P (1999) A chemical heat pump using carbon fibers as additive. Part II: Study of constraint parameters. Appl Therm Eng 19:1001–1011CrossRef

56.

Vasiliev LL, Mishkinis DA, Antukh AA, Kulakov AG (2004) Resorption heat pump. Appl Therm Eng 24:1893–1903CrossRef

57.

Vasiliev LL, Mishkinis DA, Vasiliev Jr LL (1996) Multi-effect complex compound/ammonia sorption machines. In: Proceedings of international absorption heat pump conference, Montreal, Canada, pp 3–8

58.

Vasiliev LL, Mishkinis DA, Antuh A, Snelson K, Vasiliev Jr LL (1999) Multisalt-carbon chemical cooler for space applications. In: Proceedings of international absorption heat pump conference, Munich, Germany pp 579–83

59.

Wang JY, Wang RZ, Wang LW (2016) Water vapor sorption performance of ACF-CaCl₂, and silica gel-CaCl₂, composite adsorbents. Appl Therm Eng 100:893–901CrossRef

60.

Wang LW, Wang RZ, Wu JY, Wang K (2004) Compound adsorbent for adsorptin ice maker on fishing boats. Int J Refrig 27(4):401–408CrossRef

61.

Wang LW (2005) Performances, mechanisms, and application of a new type compound adsorbent for efficient heat pipe type refrigeration driven by waste heat (in Chinese, PhD thesis). Shanghai Jiao Tong University, Shanghai, China

62.

Aristov YI, Restuccia G, Caccioba G et al (2002) A family of new working materials for solid sorption air conditioning systems. Appl Therm Eng 22:191–204CrossRef

63.

Tokarev M, Gordeeva L, Romannikov V, Glaznev I, Aristov YI (2002) New composite sorbent CaCl₂ in mesopores for sorption cooling/heating. Int J Therm Sci 41:470–474CrossRef

64.

Levitskij EA, Aristov YI, Tokarev MM et al (1996) Chemical heat accumulators: a new approach to accumulating low potential heat. Solar Energy and Solar Cells 44:219–235CrossRef

65.

Restuccia G, Freni A, Vasta S, Aristov YI (2004) Selective water sorbent for solid sorption chiller: experimental results and modeling. Int J Refrig 27:284–293CrossRef

66.

Aristov YI, Tokarev MM, Parmon VN, Restuccia G, Burger HD et al (1999) New working materials for sorption cooling/heating driven by low temperature heat: properties. In: Proceedings of international sorption heat pump conference, Munich, Germany, pp 24–26

67.

Daou K (2006) The development, experiment, and simulation of a new type of efficient composite adsorbent driven by the low grade heat source (in Chinese, PhD thesis). Shanghai Jiao Tong University, Shanghai, China

Titel: Development of Solid Composite Sorbents
verfasst von: Liwei Wang
Guoliang An
Jiao Gao
Ruzhu Wang
Verlag: Springer Singapore
Buch: Property and Energy Conversion Technology of Solid Composite Sorbents
Print ISBN: 978-981-336-087-7

Electronic ISBN: 978-981-336-088-4

Copyright-Jahr: 2021
DOI: https://doi.org/10.1007/978-981-33-6088-4_2