Processing second-order stochastic dominance models using cutting-plane representations

  • Authors:
  • Csaba I. Fábián;Gautam Mitra;Diana Roman

  • Affiliations:
  • Kecskemét College, Institute of Informatics, 10 Izsáki út, 6000, Kecskemét, Hungary and Loránd Eötvös University, Department of OR, Budapest, Hunga ...;Brunel University, CARISMA: The Centre for the Analysis of Risk and Optimisation Modelling Applications, School of Information Systems, Computing and Mathematics, UB8 3PH, Uxbridge (Middlesex), UK;Brunel University, CARISMA: The Centre for the Analysis of Risk and Optimisation Modelling Applications, School of Information Systems, Computing and Mathematics, UB8 3PH, Uxbridge (Middlesex), UK

  • Venue:
  • Mathematical Programming: Series A and B
  • Year:
  • 2011

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Abstract

Second-order stochastic dominance (SSD) is widely recognised as an important decision criterion in portfolio selection. Unfortunately, stochastic dominance models are known to be very demanding from a computational point of view. In this paper we consider two classes of models which use SSD as a choice criterion. The first, proposed by Dentcheva and Ruszczyński (J Bank Finance 30:433–451, 2006), uses a SSD constraint, which can be expressed as integrated chance constraints (ICCs). The second, proposed by Roman et al. (Math Program, Ser B 108:541–569, 2006) uses SSD through a multi-objective formulation with CVaR objectives. Cutting plane representations and algorithms were proposed by Klein Haneveld and Van der Vlerk (Comput Manage Sci 3:245–269, 2006) for ICCs, and by Künzi-Bay and Mayer (Comput Manage Sci 3:3–27, 2006) for CVaR minimization. These concepts are taken into consideration to propose representations and solution methods for the above class of SSD based models. We describe a cutting plane based solution algorithm and outline implementation details. A computational study is presented, which demonstrates the effectiveness and the scale-up properties of the solution algorithm, as applied to the SSD model of Roman et al. (Math Program, Ser B 108:541–569, 2006).