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A Survey of Recent Advances in Forecast Accuracy Comparison Testing, with an Extension to Stochastic Dominance

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Recent Advances and Future Directions in Causality, Prediction, and Specification Analysis

Abstract

In recent years, an impressive body of research on predictive accuracy testing and model comparison has been published in the econometrics discipline. Key contributions to this literature include the paper by Diebold and Mariano (J Bus Econ Stat 13:253–263, 1995) which sets the groundwork for much of the subsequent work in the area, West (Econometrica 64:1067–1084, 1996) who considers a variant of the DM test that allows for parameter estimation error in certain contexts, and White (Econometrica 68:1097–1126, 2000) who develops testing methodology suitable for comparing many models. In this chapter, we begin by reviewing various key testing results in the extant literature, both under vanishing and non-vanishing parameter estimation error, with focus on the construction of valid bootstrap critical values in the case of non-vanishing parameter estimation error, under recursive estimation schemes, drawing on Corradi and Swanson (Int Econ Rev 48:67–109, 2007a). We then review recent extensions to the evaluation of multiple confidence intervals and predictive densities, for both the case of a known conditional distribution Corradi and Swanson (J Econ 135:187–228, 2006a; Handbook of economic forecasting Elsevier, Amsterdam, pp 197–284) and of an unknown conditional distribution. Finally, we introduce a novel approach in which forecast combinations are evaluated via the examination of the quantiles of the expected loss distribution. More precisely, we compare models looking at cumulative distribution functions (CDFs) of prediction errors, for a given loss function, via the principle of stochastic dominance, and we choose the model whose CDF is stochastically dominated, over some given range of interest.

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Notes

  1. 1.

    For a discussion of nested models in the current context, see Clark and McCracken (2001); Corradi and Swanson (2006b).

  2. 2.

    Here, we use a recursive estimation scheme, where data up to time \(t\ge R\) are used in estimation. West and McCracken (1998) also consider a rolling estimation scheme, in which a rolling windows of \(R\) observations is used for estimation.

  3. 3.

    If we instead use a rolling estimation scheme, then

    $$ \widetilde{{\theta }}_{k,t}=\arg \max _{{\theta }_{k}}\left\{ \frac{1}{R }\sum _{j=t-R+1}^{t}q_{k,j}\left( { X}_{k,t},{\theta }_{k}\right) \right\} R\le t\le T. $$
  4. 4.

    See Christoffersen and Diebold (1996, 1997) and Elliott and Timmermann (2004, 2005) for a detailed discussion of loss functions used in predictive evaluation.

  5. 5.

    In the sequel, for ease of notation, the version of the DM test that we discuss will be \(\widehat{S}_{P}(0,k),\) with \(k=1.\)

  6. 6.

    With a slight abuse of notation, in this section the subscript \(0\) denotes the “true” conditional distribution model, rather than the benchmark model; and the subscript 1 thus now denotes the benchmark model.

  7. 7.

    The basic difference between subsampling and “m out of n” bootstrap is that in the latter case we resample overlapping blocks.

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Acknowledgments

This chapter has been prepared for the Festschrift in honor of Halbert L. White in the event of the conference celebrating his sixtieth birthday, entitled “Causality, Prediction, and Specification Analysis: Recent Advances and Future Directions”, and held at the University of California, San Diego on May 6–7, 2011. Swanson thanks the Rutgers University Research Council for financial support.

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Correspondence to Valentina Corradi .

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Corradi, V., Swanson, N.R. (2013). A Survey of Recent Advances in Forecast Accuracy Comparison Testing, with an Extension to Stochastic Dominance. In: Chen, X., Swanson, N. (eds) Recent Advances and Future Directions in Causality, Prediction, and Specification Analysis. Springer, New York, NY. https://doi.org/10.1007/978-1-4614-1653-1_5

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