TY - CONF
T1 - An Efficient Procedure for Solving Radial Distribution Networks through the Backward/Forward Method
AU - Augugliaro, Antonino
AU - Favuzza, Salvatore
AU - Dusonchet, Luigi
AU - Ippolito, Mariano Giuseppe
AU - Riva Sanseverino, Eleonora
PY - 2005
Y1 - 2005
N2 - In the paper, after having presented the general backward/forward methodology for radial systems analysis,a new b/f procedure showing some interesting features that improve its performance in terms of convergence speed andcalculation effort is presented. The features that fundamentally are responsible for such improvements concern the mainsteps of the b/f procedure. The starting voltage profile solution is different from the flat profile and is suitably modified.In the backward phase and starting from the second iteration, the branch currents variations due to the loads changes areevaluated; the latter variations are calculated on the basis of the difference of nodal voltages at the beginning and at theend of each iteration. Finally, the adopted convergence criterion is based on the entity of the difference between eachload node current in two subsequent iterations. The results of the applications of the proposed methodology to a set ofnetworks taken from the literature on the topic are reported. In this way, the performance of the proposed methodologyhas been evaluated in terms of computational efficiency. The results of other tests have evidenced the influence of eachfeature of the modified b/f methodology over its performances.
AB - In the paper, after having presented the general backward/forward methodology for radial systems analysis,a new b/f procedure showing some interesting features that improve its performance in terms of convergence speed andcalculation effort is presented. The features that fundamentally are responsible for such improvements concern the mainsteps of the b/f procedure. The starting voltage profile solution is different from the flat profile and is suitably modified.In the backward phase and starting from the second iteration, the branch currents variations due to the loads changes areevaluated; the latter variations are calculated on the basis of the difference of nodal voltages at the beginning and at theend of each iteration. Finally, the adopted convergence criterion is based on the entity of the difference between eachload node current in two subsequent iterations. The results of the applications of the proposed methodology to a set ofnetworks taken from the literature on the topic are reported. In this way, the performance of the proposed methodologyhas been evaluated in terms of computational efficiency. The results of other tests have evidenced the influence of eachfeature of the modified b/f methodology over its performances.
UR - http://hdl.handle.net/10447/26863
M3 - Other
SP - 483
EP - 490
ER -