The paper describes an approach to cooperative operation of a system of distributed harmonic and reactive compensators acting in the same network. The goal is to optimize the network operation at a given port by fully exploiting the capability of the various compensation units. The background for cooperative operation lays on the conservation of instantaneous complex power, a quantity which envelopes power and energy information of electrical networks and keeps validity even in presence of non-sinusoidal voltage supply and distorting loads. Based on this principle, a control approach is developed which applies to static reactive compensators (SVC) as well as to active power filters (APF). In particular, the high-power capability of SVC is combined with the fast response of APF to achieve full compensation of reactive power and harmonic currents. Single-phase and three-phase simulations demonstrate the capability of the proposed compensation approach.
Synergistic Control and Cooperative Operation of Distributed Harmonic and Reactive Compensators / Tedeschi, E.; Tenti, P.; Mattavelli, P.. - (2008), pp. 654-660. (Intervento presentato al convegno 39th IEEE Power Electronics Specialists Conference (PESC08) tenutosi a Rhodes, Greece nel 15-18/6/2008) [10.1109/PESC.2008.4592004].
Synergistic Control and Cooperative Operation of Distributed Harmonic and Reactive Compensators
E.TEDESCHI;
2008-01-01
Abstract
The paper describes an approach to cooperative operation of a system of distributed harmonic and reactive compensators acting in the same network. The goal is to optimize the network operation at a given port by fully exploiting the capability of the various compensation units. The background for cooperative operation lays on the conservation of instantaneous complex power, a quantity which envelopes power and energy information of electrical networks and keeps validity even in presence of non-sinusoidal voltage supply and distorting loads. Based on this principle, a control approach is developed which applies to static reactive compensators (SVC) as well as to active power filters (APF). In particular, the high-power capability of SVC is combined with the fast response of APF to achieve full compensation of reactive power and harmonic currents. Single-phase and three-phase simulations demonstrate the capability of the proposed compensation approach.I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione