
doi: 10.1007/bf01919185
The authors consider the following generalized fractional program: \[ (P)\quad_{x\in X}\{_{1\leq i\leq p}\{\frac{f_ i(x)}{g_ i(x)}\}\}, \] where \(X\subset R^ n\) is nonempty, \(f_ i\), \(g_ i\) are real continuous functions on an open set \(\Omega \subset R^ n\) including the closure of X, and \(g_ i\) are positive on \(\Omega\). The authors propose an algorithm for solving Problem (P) based on partial linearization. This algorithm is shown to be equivalent to the generalized Dinkelbach algorithm.
Numerical mathematical programming methods, generalized Dinkelbach algorithm, Fractional programming, partial linearization, generalized fractional program
Numerical mathematical programming methods, generalized Dinkelbach algorithm, Fractional programming, partial linearization, generalized fractional program
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