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Clay Mineral Research in Australia

Published online by Cambridge University Press:  01 January 2024

A. J. Gaskin
Affiliation:
Division of Industrial Chemistry, C. S. I. R. O., Melbourne, Australia
G. F. Walker
Affiliation:
Division of Industrial Chemistry, C. S. I. R. O., Melbourne, Australia
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Abstract

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An account of recent progress and current work is given in a summarized form dealing mainly with clay investigations in C. S. I. R. O., an Australian government research organization.

Although some emphasis is laid on the work designed to identify the nature and assess the properties of clays concerned with building-material manufacture, soils, and ceramics, there are several investigations which deal in a fundamental manner with the crystal structure and surface properties of clay minerals. These items of general interest include projects on the structure of vermiculite, the rehydration and surface properties of kaolinites, the nature and occurrence of Australian illites and attapulgites, and a regular exfoliation effect in montmorillonite suspensions.

Type
Article
Copyright
Copyright © The Clay Minerals Society 1955

References

Brown, George, Greene-Kelly, R., and Norrish, Keith, 1952, Organic derivatives of montmorillonite: Nature, v. 169, p. 756; Clay Minerals Bull., v. 1, p. 214220.CrossRefGoogle Scholar
Brown, George, and Norrish, Keith, 1952, Hydrous micas: Min. Mag., v. 29, p. 929932.Google Scholar
Carthew, A. R., 1955, The quantitative estimation of kaolinite by differential thermal analysis: Amer. Min., v. 40, p. 107117.Google Scholar
Carthew, A. R., in press, The use of piperidine saturation in the identification of clay minerals by differential thermal analysis: Soil Science.Google Scholar
Carthew, A. R., and Cole, W. F., 1952, A dispersion unit for clays: J. Sci. Instruments, v. 29, p. 235.CrossRefGoogle Scholar
Carthew, A. R., and Cole, W. F., 1953, An apparatus for differential thermal analysis: Aust. J. Instr. Techn., v. 9, p. 2330.Google Scholar
Cole, W. F., 1955, Interpretation of differential thermal curves of mixed-layer minerals of illite and montmorillonite: Nature, v. 175, p. 384385.CrossRefGoogle Scholar
Cole, W. F., and Carthew, A. R., 1953, The mineralogical composition of some Tasmanian clays: Proe. Roy. Soc. Tas., v. 87, p. 112.Google Scholar
Cole, W. F., and Hosking, J. S., in press, Clay mineral mixtures and mixed-layer minerals: in The differential thermal investigation of clays, Mineralogical Society, London.Google Scholar
Cox, R. W., and Williamson, W. O., in press, Differential drying shrinkage in clay masses.Google Scholar
Ferguson, J. A., 1954, Industrial clays of the Brisbane-Ipswioh area, Queensland: geology, mineralogy, and appraisal for ceramics and other industries: Aust. J. Appl. Sci., v. 5, p. 7388.Google Scholar
Ferguson, J. A., and Hosking, J. S., in press, Industrial clays of the Sydney region, New South Wales: Aust. J. Appl. Sci.Google Scholar
Gaskin, A. J., and Samson, H. R., 1951, Ceramic and refractory clays of South Australia: South Aust. Dept. Mines Bull. 28, 91 p.Google Scholar
Hill, R. D., 1953, The hardening of fired kaolinites on rehydration: Nature, v. 171, p. 567568.CrossRefGoogle Scholar
Hill, R. D., 1953a, The rehydration of fired clay and associated minerals: Brit. Ceram. Soc. Trans., v. 52, p. 589613.Google Scholar
Hill, R. D., 1955, 14 A spacings in kaolin minerals: Acta Cryst., v. 8, p. 120.CrossRefGoogle Scholar
Hosking, J. S. 1951, The clay resources of Australia: Paper read to Australian and New Zealand Association for the Advancement of Science, Brisbane Conference May 1951. Report of the Division of Building Research, 42 p.Google Scholar
Hosking, J. S., 1955, Australian structural clay product works: Report of the Division of Building Research, 111 p.Google Scholar
Hueber, E. V., and Milne, A. A., in press, An explanation of irreversible expansion in ceramic bodies: Nature.Google Scholar
Mathieson, A. McL., and Walker, G. F., 1954, The crystal structure of magnesium-vermiculite: Amer. Min., v. 39, p. 231255.Google Scholar
Norrish, Keith, 1954, The manner of the swelling of montmorillonite: Nature, v. 173, p. 256257.CrossRefGoogle Scholar
Norrish, Keith, 1955, The swelling of montmorillonite: Faraday Soc. Discussion no. 18, p. 120134.CrossRefGoogle Scholar
Norrish, Keith, and Quirk, J. P., 1954, The use of salt solutions to control the swelling of montmorillonite: Nature, v. 173, p. 225256.CrossRefGoogle Scholar
Norrish, Keith, and Rogers, L. E., in press, The mineralogy of some terra rossas and rendzinas: J. Soil Sci.Google Scholar
Rogers, L. E., Martin, A. E., and Norrish, Keith, 1954, The occurrence of palygorskite near Ipswich, Queensland: Min. Mag., v. 30, p. 534540.Google Scholar
Rogers, L. E., Quirk, J. P., and Norrish, Keith, in press, The unusual water relations of a soil containing Al-sepiolite: J. Soil Sci.Google Scholar
Samson, H. R., 1952, Fluoride adsorption by clay minerals and hydrated alumina: Clay Minerals Bull., v. 1, p. 266271.CrossRefGoogle Scholar
Samson, H. R., 1954, Flocculation characteristics of kaolinite clays: Paper given at Paris 1954, 3me Congrès Int. Cristallographie, Résumés comm., p. 72.Google Scholar
Sohofield, R. K., and Samson, H. R., 1953, The deflocculation of kaolinite suspensions and the accompanying change-over from positive to negative chloride adsorption: Clay Minerals Bull., v. 2, p. 4551.CrossRefGoogle Scholar
Sohofield, R. K., and Samson, H. R., 1955, Flocculation of kaolinite due to the attraction of oppositely charged crystal faces: Faraday Soc. Discussion no. 18, p. 135145.CrossRefGoogle Scholar
Walker, G. F., 1956, Diffusion of interlayer water in vermiculite: Nature, v. 177, p. 239240.CrossRefGoogle Scholar
Walker, G. F., and Cole, W. F., in press, The vermiculite minerals: in The differential thermal investigation of clays, Mineralogical Society, London.Google Scholar
Weymouth, J. H., and Williamson, W. O., 1953, The effects of extrusion on the microstructure of clay: Amer. J. Sci., v. 251, p. 89108.CrossRefGoogle Scholar
Weymouth, J. H., and Williamson, W. O., 1953a, Some observations on the microstructure of fired earthenware: Brit. Ceram. Soc. Trans., v. 52, p. 311328.Google Scholar
Williamson, W. O., 1941, Some structures of unfired pottery bodies revealed by a new technique: Brit. Ceram. Soc. Trans., v. 40, p. 275294.Google Scholar
Williamson, W. O., 1947, The fabric, water distribution, drying shrinkage and porosity of some shaped discs of clay: Amer. J. Sci., v. 245, p. 645662.CrossRefGoogle Scholar
Williamson, W. O., 1948, The clay-water relationship: Research, v. 1, p. 363368.Google Scholar
Williamson, W. O., 1951, The physical relationship between clay and water: Brit. Ceram. Soc. Trans., v. 50, p. 1034.Google Scholar
Williamson, W. O., 1954, The effects of rotational rolling on the fabric and drying shrinkage of clay: Amer. J. Sci., v. 252, p. 129143.CrossRefGoogle Scholar
Williamson, W. O., 1955, Effects of deposition and deformation on the micro structure of clays: Research, v. 8, p. 276281.Google Scholar
Williamson, W. O., 1955a, Lineations in three artificial tectonites: Geol. Mag., v. 92, p. 5362.CrossRefGoogle Scholar
Williamson, W. O., 1955b, Oriented aggregation, differential drying shrinkage and recovery from deformation of a kaolinite-illite clay: Brit. Ceram. Soc. Trans., v. 54, p. 413442.Google Scholar