Changes in electrical and microstructural properties of microcrystalline cellulose as function of carbonization temperature

Carbon

Volumn 48, Issue 4, 2010, Pages 1012-1024

  Rhim, Yo Rhin ^a   Zhang, Dajie ^a   Fairbrother, D Howard ^a   Wepasnick, Kevin A ^a   Livi, Kenneth J ^b   Bodnar, Robert J ^c   Nagle, Dennis C ^a  

^a JOHNS HOPKINS UNIVERSITY   (United States)

^b JOHNS HOPKINS UNIVERSITY   (United States)

^c VIRGINIA POLYTECHNIC INSTITUTE AND STATE UNIVERSITY   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

AC CONDUCTIVITY; CARBONIZATION TEMPERATURES; CELLULOSE MOLECULES; CHEMICAL DECOMPOSITION; DC CONDUCTIVITY; DC ELECTRICAL; ELECTRICAL CONDUCTIVITY; ELECTRON HOPPING; FREQUENCY INDEPENDENT; HEAT TREATMENT TEMPERATURE; INTERFACIAL POLARIZATION; MICROCRYSTALLINE CELLULOSE; MICROSTRUCTURAL PROPERTIES; NON-LINEAR; PERCOLATION THRESHOLDS; THERMAL CONVERSION;

CARBON CLUSTERS; CARBONIZATION; COKE; ELECTRIC CONDUCTIVITY; FUNCTIONAL GROUPS; HEAT TREATMENT; OXYGEN; SOLVENTS;

CELLULOSE;

CARBON; CARBONIZATION; CELLULOSE; COKE; CONDUCTIVITY; FUNCTIONAL GROUPS; HEAT TREATMENT; OXYGEN; SOLVENTS;

EID: 74149091051     PISSN: 00086223     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.carbon.2009.11.020     Document Type: Article

References (68)

1. Pinnick H.T. Electronic properties of carbons and graphites. Proceedings of the first conference on carbon (1956), University of Buffalo, American Carbon Society, New York 3-11
2. Giuntini J.C., Jullien D., Zanchetta J.V., Carmona F., and Delhaes A. Electrical conductivity of low-temperature carbons as a function of frequency. J Non-Cryst Solids 30 (1978) 87-98
3. Celzard A., Marêché J.F., Payot F., Begin D., and Furdin G. Electrical conductivity of anthracites as a function of heat treatment temperature. Carbon 38 8 (2000) 1207-1215
4. Kercher A.K., and Nagle D.C. Evaluation of carbonized medium density fiberboard for electrical applications. Carbon 40 8 (2002) 1321-1330
5. Sugimoto H., and Norimoto M. Dielectric relaxation due to interfacial polarization for heat treated wood. Carbon 42 1 (2004) 211-218
6. Fung A.W.P., Dresselhaus M.S., and Endo M. Transport properties near the metal-insulator transition in heat-treated activated carbon fibers. Phys Rev B 48 20 (1993) 14953-14962
7. Godet C., Kumar S., and Chu V. Field-enhanced electrical transport mechanisms in amorphous carbon films. Philos Mag 83 29 (2003) 3351-3365
8. Kennedy L.J., Vijaya J.J., and Sekaran G. Electrical conductivity study of porous carbon composite derived from rice husk. Mater Chem Phys 91 2-3 (2005) 471-476
9. Seldin E.J. Recent work on electronic properties of carbons at the University of Buffalo. Proceedings of the second conference on carbon (1956), University of Buffalo, American Carbon Society, New York 117-124
10. Giuntini J.C., and Zanchetta J.V. Use of conduction models in the study of "low temperature" carbons. J Non-Cryst Solids 34 (1979) 419-424
11. Kercher A.K., and Nagle D.C. AC electrical measurements support microstructure model for carbonization: a comment on 'dielectric relaxation due to interfacial polarization for heat-treated wood'. Carbon 42 1 (2004) 219-221
12. Sugimoto H., and Norimoto M. Dielectric relaxation due to the heterogenous structure of wood charcoal. J Wood Sci 51 6 (2005) 554-558
13. McLachlan D.S., Blaszkiewicz M., and Newnham R.E. Electrical resistivity of composites. J Am Ceram Soc 73 8 (1990) 2187-2203
14. McLachlan D.S., and Heaney M.B. Complex ac conductivity of a carbon black composite as a function of frequency, composition, and temperature. Phys Rev B 60 18 (1999) 12746-12751
15. McLachlan D.S. Analytical functions for the dc and ac conductivity of conductor-insulator composites. J Electroceram 5 2 (2000) 93-110
16. McLachlan D.S., Chiteme C., Heiss W.D., and Wu J. Fitting the DC conductivity and first order AC conductivity results for continuum percolation media, using percolation theory and a single phenomenological equation. Physica B 338 (2003) 261-265
17. McLachlan D.S., Chiteme C., Park C., Wise K.E., Lowther S.E., Lillehei P.T., et al. AC and DC percolative conductivity of single wall carbon nanotube polymer composites. J Polym Sci Polym Phys 43 22 (2005) 3273-3287
18. McLachlan D.S., and Sauti G. The AC and DC conductivity of nanocomposites. J Nanomater 1 January (2007) 1-9
19. Barrau S., Demont P., Peigney A., Laurent C., and Lacabanne C. DC and AC conductivity of carbon nanotubes-polyepoxy composites. Macromolecules 36 14 (2003) 5187-5194
20. Belin R., Taillades G., Pradel A., and Ribes M. Ion dynamics in superionic chalcogenide glasses: complete conductivity spectra. Solid State Ionics 136-137 November (2000) 1025-1029
21. Hussain S., Barbariol I., Roitti S., and Sbaizero O. Electrical conductivity of an insulator matrix (alumina) and conductor particle (molybdenum) composites. J Eur Ceram Soc 23 2 (2003) 315-321
22. Papathanassiou A.N. The power law dependence of the AC conductivity on frequency in amorphous solids. J Phys D: Appl Phys 35 17 (2002) L88-L89
23. Sullivan J.P., and Friedmann T.A. Electronic transport in amorphous carbon 1997 (1997), Sandina National Labs, Albuquerque, NM
24. Shimakawa K., and Miyake K. Hopping transport of localized pi electrons in amorphous carbon films. Phys Rev B 39 11 (1989) 7578-7584
25. Godet C. Physics of bandtail hopping in disordered carbons. Diam Relat Mater 12 2 (2003) 159-165
26. Hernandez J.G., Hernandez-Calderona I., Luengoa C., and Tsua R. Microscopic structure and electrical properties of heat treated coals and eucalyptus charcoal. Carbon 20 3 (1982) 201-205
27. Emmerich F.G., de Sousa J.C., Torriani I.L., and Luengo C.A. Applications of a granular model and percolation theory to the electrical resistivity of heat treated endocarp of babassu nut. Carbon 25 3 (1987) 417-424
28. American society for testing and materials. In: 2003 annual book of ASTM standards; 2003, p. 239-244 [15.01].
29. Langley L.A., Villanueva D.E., and Fairbrother D.H. Quantification of surface oxides on carbonaceous materials. Chem Mater 18 1 (2005) 169-178
30. Langley L.A., and Fairbrother D.H. Effect of wet chemical treatments on the distribution of surface oxides on carbonaceous materials. Carbon 45 1 (2007) 47-54
31. Wagner C.D., Davis L.E., Zeller M.V., Taylor J.A., Raymond R.H., and Gale L.H. Empirical atomic sensitivity factors for quantitative analysis by electron spectroscopy for chemical analysis. Surf Interface Anal 3 5 (1981) 211-225
32. Brundle C.R., Evans Jr. C.A., and Wilson S. Encyclopedia of materials characterization (1992), Butterworth-Heinemann, Boston
33. Egerton R.F. Electron energy-loss spectroscopy in the electron microscope (1999), Plenum Press, New York p. 485
34. Bayot V., Piraux L., Michenaud J.P., and Issi J.P. Weak localization in pregraphitic carbon fibers. Phys Rev B 40 6 (1989) 3514-3523
35. von-Bardeleben H.J., Cantin J.L., Zellama K., and Zeinert A. Spins and microstructure of amorphous carbon. Diam Relat Mater 12 2 (2003) 124-129
36. Delhaes P., and Carmona F. Physical properties of noncrystalline carbons. In: Walker P.L. (Ed). Chemistry and physics of carbon (1965), Marcel Dekker, New York; 89-174
37. Jenkins G.M., and Kawamura K. Polymeric carbons - carbon fibre, glass and char (1976), Cambridge University Press, Cambridge
38. Yue Z.R., Jiang W., Wang L., Gardner S.D., and Pittman Jr. C.U. Surface characterization of electrochemically oxidized carbon fibers. Carbon 37 11 (1999) 1785-1796
39. Nishimiya K., Hata T., Imamura Y., and Ishihara S. Analysis of chemical structure of wood charcoal by X-ray photoelectron spectroscopy. J Wood Sci 44 1 (1997) 56-61
40. Celzard A., Treusch O., Marêché J.F., and Wegener G. Electrical and elastic properties of new monolithic wood-based carbon materials. J Mater Sci 40 1 (2005) 63-70
41. Jäger K.M., and McQueen D.H. Fractal agglomerates and electrical conductivity in carbon black polymer composites. Polymer 42 23 (2001) 9575-9581
42. Celzard A., McRae E., Furdin G., and Marêché J.F. Conduction mechanisms in some graphite - polymer composites: the effect of a direct-current electric field. J Phys Condens Matter 9 10 (1997) 2225-2237
43. Celzard A., McRae E., Deleuze C., Dufort M., Furdin G., and Marêché J.F. Critical concentration in percolating systems containing a high-aspect-ratio filler. Phys Rev B 53 10 (1996) 6209-6214
44. Rhim Y.R., Zhang D., Rooney M., Nagle D.C., Fairbrother D.H., Herman C., et al. Changes in the thermophysical properties of microcrystalline cellulose as function of carbonization temperature. Carbon 48 1 (2010) 31-40
45. Ferrari A.C., and Roberston J. Interpretation of Raman spectra of disordered and amorphous carbon. Phys Rev B 61 20 (2000) 14095-14107
46. Ferrari A.C., Meyer J.C., Scardaci V., Casiraghi C., Lazzeri M., Mauri F., et al. Raman spectrum of graphene and graphene layers. Phys Rev Lett 97 18 (2006) 187401
47. Gruber T., Zerda W., and Gerspacher M. Raman studies of heat-treated carbon blacks. Carbon 32 7 (1994) 1377-1382
48. Tuinstra F., and Koenig J.L. Raman spectrum of graphite. J Chem Phys 53 3 (1970) 1126-1130
49. Sze S.K., Siddique N., Sloan J.J., and Escribano R. Raman spectroscopic characterization of carbonaceous aerosols. Atmos Environ 35 3 (2001) 561-568
50. Jawhari T., Roid A., and Casado J. Raman spectroscopic characterization of some commercially available carbon black materials. Carbon 33 11 (1995) 1561-1565
51. 3-bonded carbon in wood charcoal. J Wood Sci 53 5 (2007) 442-448
52. Paris O., Zollfrank C., and Zickler G.A. Decomposition and carbonisation of wood biopolymers - a microstructural study of softwood pyrolysis. Carbon 43 1 (2004) 53-66
53. Sadezky A., Muckenhuber H., Grothe H., Niessner R., and Pöschl U. Raman microspectroscopy of soot and related carbonaceous materials: spectral analysis and structural information. Carbon 43 8 (2005) 1731-1742
54. Mernagh T.P., Cooney R.P., and Johnson R.A. Raman spectra of Graphon carbon black. Carbon 22 1 (1984) 39-42
55. Escribano R., Sloan J.J., Siddique N., Sze N., and Dudev T. Raman spectroscopy of carbon-containing particles. Vib Spectrosc 26 2 (2001) 179-186
56. Schwan J., Ulrich S., Batori V., and Ehrhardt H. Raman spectroscopy on amorphous carbon films. J Appl Phys 80 1 (1996) 440-447
57. 3 carbon. Europhys Lett 54 2 (2001) 194-198
58. Vallerot J.-M., Bourrat X., Mouchon A., and Chollon G. Quantitative structural and textural assessment of laminar pyrocarbons through Raman spectroscopy, electron diffraction and few other techniques. Carbon 44 9 (2006) 1833-1844
59. Beyssac O., Goffé B., Petitet J.P., Froigneux E., Moreau M., and Rouzaud J.N. On the characterization of disordered and heterogeneous carbonaceous materials by Raman spectroscopy. Spectrochim Acta A 59 10 (2003) 2267-2276
60. Nakamura K., Fujitsuka M., and Kitajima M. Disorder-induced line broadening in first-order Raman scattering from graphite. Phys Rev B 41 17 (1990) 12260-12263
61. Cuesta A., Dhamelincourt P., Laureyns J., Martinez-Alonso A., and Tascon J.M.D. Raman microprobe studies on carbon materials. Carbon 32 8 (1994) 1523-1532
62. Nikiel L., and Jagodzinski P.W. Raman spectroscopic characterization of graphites: a re-evaluation of spectra/structure correlation. Carbon 31 8 (1993) 1313-1317
63. Henley S.J., Carey J.D., and Silva S.R.P. Room temperature photoluminescence from nanostructured amorphous carbon. Appl Phys Lett 85 25 (2004) 6236-6238
64. Song J., Alam M., and Boehman A.L. Impact of alternative fuels on soot properties and DPF regeneration. Combust Sci Technol 179 9 (2007) 1991-2037
65. Müller J.O., Su D.S., Wild U., and Schlögl R. Bulk and surface structural investigations of diesel engine soot and carbon black. Phys Chem Chem Phys 9 30 (2007) 4018-4025
66. Adamopoulos G., Gilkes K.W.R., Robertson J., Conway N.M.J., Kleinsorge B.Y., Buckley A., et al. Ultraviolet Raman characterisation of diamond-like carbon films. Diam Relat Mater 8 8 (1999) 541-544
67. Ashby M.F., Evans A., Fleck N.A., Gibson L.J., Hutchinson J.W., and Wadley H.N.G. Metal foams: a design guide (2000), Butterworth-Heinemann, Boston
68. Deraman M., Zakaria S., Ramli O., and Aziz A.A. Electrical conductivity of carbon pellets from mixtures of pyropolymer from oil palm bunch and cotton cellulose. Jpn J Appl Phys 39 (2000) 1236-1238