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Forecasting Volatility Using Historical Data


Stephen Figlewski


New York University - Stern School of Business

May 1994


Abstract:     
Applying modern option valuation theory requires the user to forecast the volatility of the underlying asset over the remaining life of the option, a formidable estimation problem for long maturity instruments. The standard statistical procedures using historical data are based on assumptions of stability, either constant variance, or constant parameters of the variance process, that are unlikely to hold over long periods. This paper examines the empirical performance of different historical variance estimators and of the GARCH(1,1) model for forecasting volatility in important financial markets over horizons up to five years. We find several surprising results: In general, historical volatility computed over many past periods provides the most accurate forecasts for both long and short horizons; root mean squared forecast errors are substantially lower for long term than for short term volatility forecasts; it is typically better to compute volatility around an assumed mean of zero than around the realized mean in the data sample, and the GARCH model tends to be less accurate and much harder to use than the simple historical volatility estimator for this application.

JEL Classification: G1

working papers series


Date posted: December 20, 1998  

Suggested Citation

Figlewski, Stephen, Forecasting Volatility Using Historical Data (May 1994 ). Available at SSRN: http://ssrn.com/abstract=5618

Contact Information

Stephen Figlewski (Contact Author)
New York University - Stern School of Business ( email )
44 West 4th Street
Department of Finance Suite 9-160
New York, NY 10012-1126
United States
212-998-0712 (Phone)
212-995-4220 (Fax)
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