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Carman P.C. — Flow of gases through porous media
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Название: Flow of gases through porous mediaАвтор: Carman P.C. Аннотация: The question of the permeability of porous media to gases, as also to liquids, has always attracted a considerable amount of attention. Interest in such studies has been motivated bv their manv fields of application: soil physics, petroleum technology, surface measurement, gas separations, etc. These are referred lo in the text, and Chapters IV and VI, respectively, deal with surface measurement and with separation of gas mixtures in some detail. A full account of work on gas permeabilities would be rather long: but the object of the writer has been rather to present an integrated and, as far as possible, quantitative account of the flow processes involved when gases flow into or through porous media. It has only become possible in relatively recent years to develop such a viewpoint, and the bulk of the references cited lies, in fact, within the last fifteen years.
Язык: Рубрика: Физика /Статус предметного указателя: Готов указатель с номерами страниц ed2k: ed2k stats Год издания: 1956Количество страниц: 187Добавлена в каталог: 12.04.2013Операции: Положить на полку |
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Предметный указатель
Absorption 104 Activated surface diffusion 116 119 121 Adams, J. T. 101 103 Addison, W. E. 138 Adhikari, G. 105 136 Adsorbed molecules, state of 123 Adsorption 104 Adsorption chromatography 145 Adsorption coefficient 108 Adsorption isotherm 108 148 Adsorption separations 141 143 Adzumi, H. 62 68 69 79 80 Agarwal, O. P. 169 Aggregation 37 Air permeability 86 Aird, J. 80 Alundum 7 Anderson, S. L. 29 33 101 103 Anisotropic media 5 54 Annuli 12 66 Archie, G. E. 49 60 Armstrong, W. P. 60 Arnell, J. C. 70 73 75 80 86 93 96 97 98 102 Aronofsky, J. S. 31 76 80 Array of spheres or cylinders 26 Arthur, J. R. 21 32 37 59 Atterberg, A. 59 Axelson, J. 103 Babbitt, J. D. 122 129 137 Baerg, A. 169 Bakhmeteff, B. A. 32 168 Ballou, E. V. 124 137 Barker, R. H. 151 153 Barnes, J. C. 103 Barrer, R. M. 70 74 77 80 102 116 117 120 127 131 132 133 134 136 137 138 150 152 153 Barrett, E. P. 60 Barrie, J. A. 77 80 116 117 120 127 136 137 Bartell, F. E. 45 60 Basford, P. R. 137 Bauer, W. C. 32 169 Baum, L. A. 32 Beckey, H. D. 140 153 Beckwith, J. B. 102 Beebe, R. A. 102 124 137 Belchetz, L. 152 153 Benedict, M. 153 BET method 82 96 100 Bienes, H. 124 137 Blaine, R. L. 90 93 99 102 Blair, P. M. 61 Blake, F. E. 9 10 32 156 168 Blankenstein, E. 80 Bloecher, W. 102 Boas, A. 153 Bosanquet, C. H. 80 Bosworth, R. C. 134 138 Botset, H. G. 14 32 55 57 61 Bowman, J. R. 153 Bradford, B. W. 153 Breston, J. N. 6 31 Brinkman, H. C. 23 25 26 28 31 33 167 Brook, D. W. 138 Broughton, G. 168 Brown, C. D. 168 Brown, C. L. 168 Brown, H. M. 103 Brown, J. C. 23 24 33 73 80 Brownell, L. E. 32 159 168 Brownscombe, E. R. 61 Brownyard, T. L. 103 Brubaker, D. W. 138 153 Bruce, G. H. 31 Bruce, W. A. 43 60 Brunauer, S. 82 Burdine, N. T. 44 59 60 61 Burke, S. P. 32 168 Burmester, A. 9 32 Busang, P. F. 8 31 59 Cabrera, N. 136 Calhoun, J. C. 80 Calkins, E. W. S. 103 Campbell, J. R. 169 Campbell, W. B. 14 15 18 24 32 102 Capillary condensation 44 114 125 Capillary pressure 39 125 Capillary pressure measurement 42 Capillary rise 40 Carlsmith, L. E. 168 Carman, P. C. 11 31 32 38 39 59 60 64 70 73 76 80 87 94 96 98 101 102 104 107 112 113 115 117 121 136 137 168 Carson, F. 160 168 Cassie, A. B. D. 30 33 100 103 Cathala, J. 168 Caudle, B. H. 61 Cement 99 Chalkley, D. E. 146 153 Chalkley, H. W. 51 60 Chang, T. L. 106 136 Channel flow 25 27 167 Chapman, S. 63 80 Charcoal 7 Chemisorption 104 133 Childs, E. C. 51 57 60 Cichelli, M. T. 153 Cines, M. 78 80 Claessen, S. 148 149 153 Clancy, V. J. 105 136 Clapeyrondausius equation 114 Clark, H. 124 137 Clausing, P. 66 80 105 136 Coke 7 Collins, R. E. 76 80 Collis — George, N. 51 57 60 Consolidated media 7 34 49 50 76 83 Cornell, D. 31 47 49 Cornfield, J. 60 Corrin, M. L. 124 137 Coulson, J. M. 14 16 18 32 Cowling, T. G. 80 Craven, C. J. 92 102 Crawford, P. B. 76 80 Cremer, E. 146 153 Criddle, D. 123 137 Critical fluidizing velocity 163 166 Cropper, F. R. 153 Crowell, A. D. 124 137 Cunningham, G. E. 168 cylinders 26 Dacey, J. R. 133 136 138 Dakshinamurti, C. 46 60 Damkohler, G. 105 112 136 Darapsky 9 31 Darcy unit 1 Darcy, H. P. G. 1 31 Darcy’s law 1 4 Davies, C. N. 22 23 33 Davies, S. J. 32 Davis, J. W. 32 59 87 102 Day, J. R. 80 De Boer, J. H. 124 137 Degree of saturation 41 128 Denbigh, K. G. 142 153 Density, apparent 20 21 Derjaguin, B. 71 72 75 80 Diffusion coefficient, formal 5 Diffusion in solids 129 142 Diffusional flow 78 106 110 Diffusional separation 143 Displacement development 148 Dodd, C. G. 32 59 87 91 95 102 Dombrowski, H. S. 32 159 168 Donat, J. 14 32 Dow, W. M. 169 Drake, R. L. 44 60 Drechsler, M. 138 Dubrow, B. 86 102 Duffield 22 23 Dupuit, A. J. 8 10 12 13 31 Duwez, P. 155 168 Dykstra, H. 59 61 Ebel, R. A. 60 Elting, J. P. 103 Elution development 147 Emersleben, O. 6 26 28 31 Emmett, P. H. 78 80 82 Epstein, N. 26 31 33 Equation of continuity 4 Ergun, S. 21 32 37 59 155 157 168 Everett, D. H. 137 Fatt, I. 59 61 Feodoroff, N. V. 32 168 Ferguson, J. B. 138 Ferrandon, J. 5 31 Fibres 14 18 19 22 29 39 71 91 100 Fick’s law 5 108 Fineman, M. 59 Fisher, H. M. 168 Flat-sided shapes 16 Flood, E. A. 105 129 136 138 Fluidized beds 7 24 154 161 Foote, P. D. 8 31 59 Ford, N. 32 168 Fourie, J. T. 115 116 118 137 Fowler, J. L. 14 19 20 21 22 32 45 60 Fraser, L. C. 9 32 Free particle flow 25 167 Frenkel, J. 120 137 Friction factors 156 158 159 Fridlyand, R. 80 Frontal development 145 Gage, F. W. 93 102 Garside, J. E. 169 Gas chromatography 144 Gas fluidization 162 Gates, J. I. 57 61 Geffen, T. M. 61 Gilliland, E. R. 32 169 Girifalco, L. A. 72 75 80 Gishler, P. E. 169 Glueckauf, E. 151 153 Godel, A. 169 Goglia, M. J. 160 168 Gohr, E. J. 168 Gooden, E. L. 90 102 Gournay, L. S. 60 Graham, J. S. 103 Granular sorbents 143 Graton, L. C. 9 31 Green, L. 156 168 Gregg, S. J. 137 Gregory, A. R. 16 17 32 47 49 60 Griffiths, J. 153 Grimes, M. A. 103 Groth, W. E. 140 153 Groves, D. M. 70 74 80 Grummer, M. 32 168 169 Hackett, F. E. 59 HafFord, J. A. 61 Halenda, P. P. 60 Han, S. T. 168 Happel, J. 26 31 33 Hargreaves, F. 103 Harkins, W. D. 124 137 Harvey, D. 146 153 Hassler, G. L. 61 Haul, R. A. W. 107 111 116 117 131 136 137 141 142 153 Heatherington, C. P. 31 Henneberry, G. O. 97 102 Henry’s law 112 116 132 136 Herdan, G. 102 Hertel, K. L. 14 15 19 20 21 22 32 33 45 60 61 91 93 100 101 102 103 Hertz, G. 139 152 Hesse, G. 144 153 Hey wood, A. 153 Hiby, J. W. 64 67 68 71 80 Hill, T. L. 124 136 Hindered settling 161 Hirst, A. A. 168 Hodgins, J. W. 136 Holmes, W. R. 80 Honig, J. H. 102 Hoogschagen, J. 60 Hooper, M. S. 32 Howard — Smith, G. 153 Hughes, R. V 6 31 Huntingdon, R. L. 31 Hydraulic radius 9 11 34 65 156 Ibbitson, D. 138 Inertial resistance 154 160 Ingmanson, W. L. 168 Isothermal flow 2 4 Isotope separation 141 151 Jakob, M. 169 James, A. T. 146 147 153 James, D. H. 147 148 149 150 153 Jayles, P. 168 Jenkins, R. 31 Jenks, J. L. 61 Johansen, R. T. 38 59 102 Johnson, F. B. 168 Johnson, J. F. 101 103 Johnson, W. E. 6 31 Jolley, L. J. 169 Jopling, D. W. 98 103 Jost, W. 138 Joyner, L. G. 60 Jura, G. 123 137 Kallenbach, R. 78 80 106 107 110 136 Kamack, H. J. 93 102 Kammermeyer, K. 138 153 Kanagy, R. 135 138 Katz, D. L. 31 47 49 Kaye, W. I. 148 153 Keith, P. C. 153 Kelvin equation 44 Kemball, C. 137 Kennard, E. H. 153 Kerver, J. K. 61 Kiang, C. J. 60 Kieselguhr 18 39 Kite, R. P. 169 Kitt, G. P. 151 153 Klassen, J. 169 Klein, R. 138 Klinkenberg, L. J. 46 49 60 69 80 Knudsen flow 3 62 66 71 74 104 139 Knudsen, M. 3 63 64 80 Kozeny, J. 11 12 13 32 34 Kraus, G. 72 74 75 80 93 102 Kraybill, R. R. 168 Krutter, H. 80 Kruyer, S. 137 Krylova, V. 80 Krypton adsorption 82 Kundt, A. 62 79 Kwauk, M. 169 Kwong, J. W. S. 101 103 La Vier, H. W. S. 168 Laminar flow 1 Lea, F. M. 70 73 80 88 90 99 101 102 Leadbeater, C. J. 103
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