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2015 | 16 | 2 | 163-182

Article title

An Approximation To The Optimal Subsample Allocation For Small Areas

Content

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Abstracts

EN
This paper develops allocation methods for stratified sample surveys in which small area estimation is a priority. We assume stratified sampling with small areas as the strata. Similar to Longford (2006), we seek efficient allocation that minimizes a linear combination of the mean squared errors of composite small area estimators and of an estimator of the overall mean. Unlike Longford, we define mean-squared error in a model-assisted framework, allowing a more natural interpretation of results using an intra-class correlation parameter. This allocation has an analytical form for a special case, and has the unappealing property that some strata may be allocated no sample. We derive a Taylor approximation to the stratum sample sizes for small area estimation using composite estimation giving priority to both small area and national estimation.

Year

Volume

16

Issue

2

Pages

163-182

Physical description

Contributors

author
  • Department of Statistics, University of Botswana
  • Department of Statistics, University of Botswana
author
  • National Institute for Applied Statistics Research Australia, University of Wollongong

References

  • BANKIER, M. D., (1988). Power Allocations: Determining Sample Sizes for Sub-national Areas. The American Statistician, 42(3):174−177.
  • BINMORE, K. G., (1982). Mathematical Analysis: A straightforward approach. Cambridge University Press, 2nd edition.
  • BROCK, D. B., FRENCH, D. K., PEYTON, B. W., (1980). Small Area Estimation: Empirical Evaluation of Several Estimators for Primary Sampling Units. In Proceedings of the Section on Survey Research Methods, American Statistical Association, pp. 766−771.
  • DEMIDOVICH, B., editor, (1964). Problems in Mathematical Analysis. MIR Publishers.
  • ERICKSEN, E. P., (1973). Recent Developments in Estimation for Local Areas. In Proceedings of the Section on Social Statistics, American Statistical Association, pp. 37−41.
  • FULLER, W. A., (1999). Environmental Surveys Over Time. Journal of Agricultural, Biological and Environmental Statistics, 4: 331−345.
  • GONZALEZ, M. E., (1973). Use and Evaluation of Synthetic Estimates. In Proceedings of the Section on Social Statistics, American Statistical Association, pp. 33−36.
  • HIDIROGLOU, M. A., PATAK, Z., (2004). Domain estimation using linear regression. Survey Methodology, 30: 67−78.
  • LONGFORD, N. T. (2006). Sample Size Calculation for Small-Area Estimation. Survey Methodology, 32(1): 87−96.
  • MOLEFE, W. B., (2012). Sample Design for Small Area Estimation. PhD thesis, University of Wollongong, http://ro.uow.edu.au/theses/3495.
  • MOLEFE, W. B., CLARK, R. G., (2015). Model-Assisted Optimal Allocation For Planned Domains Using Composite Estimation, Survey Methodology (forthcoming).
  • RAO, J. N. K., (2003). Small Area Estimation. Wiley.
  • ROYALL, R. M., (1973). Discussion of two Papers on Recent Developments in Estimation of Local Areas. In Proceedings of the Section on Survey Research Methods, American, Statistical Association, pp. 43−44.
  • SẲRNDAL, C., SWENSSON, B., WRETMAN, J., (1992). Model Assisted Survey Sampling. Springer-Verlag.
  • SCHAIBLE, W. L., (1978). Choosing Weight for Composite Estimators for Small Area Statistics. In Proceedings of the Section on Survey Research Methods, American Statistical 3 Association, pp. 741−746.
  • SINGH, M. P., GAMBINO, J., MANTEL, H. J., (1994). Issues and Strategies for Small Area Data. Survey Methodology, 20(1): 3−22.

Document Type

Publication order reference

Identifiers

YADDA identifier

bwmeta1.element.desklight-6ebadfb8-f5f4-4706-872f-66189365f9bd
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