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First published October 1992

The Application of the Divisia Index to the Decomposition of Changes in Industrial Energy Consumption

Abstract

We review a number of methods that have recently been proposed to decompose changes in industrial energy consumption. We then propose two parametric methods based on the Divisia index, where the integral path problem in the Divisia index is transformed into a parameter estimation problem. It is shown that there can be an infinite number of sets of decomposition results, each corresponding to a particular combination of parameter values, and that several recently proposed methods are in fact special cases of these two methods. We then introduce an approach to estimate the parameter values uniquely. Referred to as the Adaptive Weighting Divisia Method, this method is supported by vigorous mathematical analysis and does not involve arbitrary guesses of parameter values as is the case for the existing methods. We also discuss the application and the associated statistical problems of the various decomposition methods, and present the results of a study using the data for Singapore industry.

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REFERENCES

Ang B.W. (1987). “Structural Changes and Energy-Demand Forecasting in Industry with Applications to Two Newly Industrialized Countries.” Energy - The International Journal 12(2): 101-111.
Bending R.C., Cattell R.K., Eden R.J. (1987). “Energy and Structural Change in the United Kingdom and Western Europe.” Annual Review of Energy 12: 185-222.
Boyd G., McDonald J.F., Ross M., Hanson D.A. (1987). “Seperating the Changing Composition of U.S. Manufacturing Production from Energy Efficiency Improvements: A Divisia Index Approach.” The Energy Journal 8(2): 77-96.
Boyd G.A., Hanson D.A., Sterner T. (1988). “Decomposition of Changes in Energy Intensity - A Comparison of the Divisia Index and Other Methods.” Energy Economics 10(4): 309-312.
Bowerman B.L., O’Connell R.T. (1979). Time Series and Forecasting: An Applied Approach, Wadsworth, Inc., Belmont, CA 94002.
Department of statistics (1981). Yearbook of Statistics, Singapore. Singapore.
Department of statistics (1988). Yearbook of Statistics, Singapore. Singapore.
Diewert W.E. (1980). “Recent Developments in the Economic Theory of Index Numbers: Capital and the Theory of Productivity.” American Economic Review 70(2): 260-267.
Diewert W.E. (1990). Price Level Measurement. North-Holland, Amsterdam.
Doblin C.P. (1988). “Declining Energy Intensity in the U.S. Manufacturing Sector.” The Energy Journal 9(2): 109-135.
Economic Development Board (1981). Report on the Census of Industrial Production. Singapore.
Economic Development Board (1988). Report on the Census of Industrial Production. Singapore.
Faruqui A., Broehl J. (1987). The Changing Structure of American Industry and Energy Use Patterns: Issues, Scenarios, and Forecasting Models. EPRI Report EM-5075-SR. Palo Alto, CA.
Fisher I. (1972). The Making of Index Numbers. 3rd ed., Houghton Mifflin, Boston.
Hankinson G.A., Rhys J.M.W. (1983). “Electricity Consumption, Electricity Intensity and Industrial Structure.” Energy Economics 5(3): 146-152.
Hulten C.R. (1973). “Divisia Index Numbers.” Econometrica 41(6): 1017-1025.
Jenne C.A., Cattell R.K. (1983). “Structural Change and Energy Efficiency in Industry.” Energy Economics 5(2): 114-123.

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Article first published: October 1992
Issue published: October 1992

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X. Q. Liu
**Department of Industrial and Systems Engineering, National University of Singapore, 10 Kent Ridge Crescent, Singapore, 0511.
B. W. Ang
**Department of Industrial and Systems Engineering, National University of Singapore, 10 Kent Ridge Crescent, Singapore, 0511.
H.L. Ong
**Department of Industrial and Systems Engineering, National University of Singapore, 10 Kent Ridge Crescent, Singapore, 0511.

Notes

The authors are grateful to an anonymous referee and the Editors for their helpful comments and constructive suggestions.

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