Abstract:We will propese a branch and bound algoriLhm for solving a portfolio optimization model under nonconvex transaction costs, It is well knewn that the llnit transaction cost is larger when the amollnt of
“…Earlier experiments on concave and d.c. transaction cost problems reported in [10][11][12] show that the amount of computation is highly dependent upon the number of variables. In fact, computation time increases exponentially as n increases.…”
Section: Computational Resultsmentioning
confidence: 99%
“…Note that the maximal possible amount of fund to be allocated to each individual asset stays in the concave cost region when M is less than 1.0, so that the problem (P 0 ) is essentially a linearly constrained convex maximization problem in this case. As demonstrated in earlier papers [9][10][11], convex maximization problem is much easier than d.c. maximization problem associated with larger amount of fund (M ≥ 1.2).…”
Section: Scheme 1 Basic Schemementioning
confidence: 91%
“…We could not obtain any feasible solution after 3000 CPU Time. Therefore we use the branch and bound algorithm which works well for piecewise linear concave function [10], which will be reproduced in the appendix to make the paper self-contained.…”
Section: Solution Strategymentioning
confidence: 99%
“…Also, it has a remarkable advantage over variance (standard deviation) since a number of elaborate schemes developed in the field of linear programming can be applied to solve this model. In fact, it has been successfully applied to various optimization problems with nonconvex transaction costs [10][11][12].…”
The purpose of this paper is to propose a practical branch and bound algorithm for solving a class of long-short portfolio optimization problem with concave and d.c. transaction cost and complementarity conditions on the variables.We will show that this algorithm can solve a problem of practical size and that the long-short strategy leads to a portfolio with significantly better risk-return structure compared with standard purchase only portfolio both in terms of ex-ante and ex-post performance.
“…Earlier experiments on concave and d.c. transaction cost problems reported in [10][11][12] show that the amount of computation is highly dependent upon the number of variables. In fact, computation time increases exponentially as n increases.…”
Section: Computational Resultsmentioning
confidence: 99%
“…Note that the maximal possible amount of fund to be allocated to each individual asset stays in the concave cost region when M is less than 1.0, so that the problem (P 0 ) is essentially a linearly constrained convex maximization problem in this case. As demonstrated in earlier papers [9][10][11], convex maximization problem is much easier than d.c. maximization problem associated with larger amount of fund (M ≥ 1.2).…”
Section: Scheme 1 Basic Schemementioning
confidence: 91%
“…We could not obtain any feasible solution after 3000 CPU Time. Therefore we use the branch and bound algorithm which works well for piecewise linear concave function [10], which will be reproduced in the appendix to make the paper self-contained.…”
Section: Solution Strategymentioning
confidence: 99%
“…Also, it has a remarkable advantage over variance (standard deviation) since a number of elaborate schemes developed in the field of linear programming can be applied to solve this model. In fact, it has been successfully applied to various optimization problems with nonconvex transaction costs [10][11][12].…”
The purpose of this paper is to propose a practical branch and bound algorithm for solving a class of long-short portfolio optimization problem with concave and d.c. transaction cost and complementarity conditions on the variables.We will show that this algorithm can solve a problem of practical size and that the long-short strategy leads to a portfolio with significantly better risk-return structure compared with standard purchase only portfolio both in terms of ex-ante and ex-post performance.
“…For a survey of DC programming algorithms see, for example, Horst and Thoai (1999), Horst, Pardalos, and Thoai (2000), Tuy (1994Tuy ( , 2000, and references therein. Separability of the objective function (20) makes the DC algorithms that exploit this property (e.g., Konno and Wijayanayake (1999)) especially attractive.…”
We consider the problem of optimal position liquidation where the expected cash flow stream due to transactions is maximized in the presence of temporary or permanent market impact. A stochastic programming approach is used to construct trading strategies that differentiate decisions with respect to the observed market conditions, and can accommodate various types of trading constraints. As a scenario model, we use a collection of sample paths representing possible future realizations of state variable processes (price, trading volume etc.), and employ a heuristical technique of sample-path grouping, which can be viewed as a generalization of the standard nonanticipativity constraints.
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