TRANSFORMING THE SPATIAL BASIS OF AGRICULTURAL CENSUS COVER DATA

被引：11

作者：

MOXEY, A

MCCLEAN, C

ALLANSON, P

机构：

[1] Department of Agricultural Economics and Food Marketing, The University Newcastle upon Tyne, Newcastle Upon Tyne

[2] Centre for Rural Economy, Department of Agricultural Economics and Food Marketing, University, Newcastle Upon Tyne

来源：

SOIL USE AND MANAGEMENT | 1995年 / 11卷 / 01期

关键词：

AGRICULTURAL CENSUSES; DATA ANALYSIS; LANDUSE; LAND CLASSIFICATION; GEOGRAPHICAL INFORMATION SYSTEMS; SPATIAL VARIATION;

D O I：

10.1111/j.1475-2743.1995.tb00490.x

中图分类号：

S15 [土壤学];

学科分类号：

0903 ; 090301 ;

摘要：

Land cover data from the June agricultural census of England and Wales have historically been published annually at the parish level. This level of spatial resolution masks heterogeneity of land use within parishes, limiting the value of the data for detailed spatial analyses. However, variation in land characteristics across parishes can be used to model variation in land cover, thereby allowing the spatial basis of the census data to be transformed. This procedure, referred to as areal interpolation, is illustrated using two land classification systems based on soils for a study area in northern England. The results indicate that the spatially transformed data offer a better description of the distribution of land covers than that provided by the raw census data. They also demonstrate the extra value that can be obtained by combining extant data sources within a GIS framework. Potential roles for areal interpolation in environmental modelling and policy formulation are discussed briefly.

引用

页码：21 / 25

页数：5

共 28 条

[1] Allanson P., McClean C., Money A., The changing geography of agricultural land use in England and Hales 1975 90, (1994)
[2] Allanson P., Moxey A., White H., Agricultural nitrate emission patterns in the Tyne catchment, Journal of Environmental Management, 38, pp. 219-232, (1993)
[3] Allanson P., Savage D., White B., Areal interpolation of parish agricultural census data, Lund use change: the causes and consequences, ITE Symposium 27, pp. 92-101, (1992)
[4] Ball D.F., Dale J., Sheail J., Heal O.W., Vegetation change in upland landscapes, (1982)
[5] Beckett P.H.T., Webster R., Soil variability: a review, Soils and Fertilizers, 34, pp. 1-15, (1971)
[6] Bibby J.S., Dougas H.A., Thomasson A.J., Robertson J.S., Land capability classification for agriculture, (1991)
[7] Brooke A., Kendrick U., Meeraus A., GAMS, A user's guide, (1988)
[8] Bunce R.G.H, Barr C.J., Whittaker H.A., An integrated system of land classification, Annual Report of the Institute of Terrestrial Ecology 1980, pp. 28-33, (1981)
[9] Bunce R.G.H, Barr C.J., Whittaker H.A., Land classes in Great Britain: preliminary description far users of the Merlewood method of land classification, (1981)
[10] Burrough P.A., Principles of geographic information systems far land resources assessment, (1986)

← 1 2 3 →