Andere Kunden interessierten sich auch für
![Design, and Implementation of Multilevel Grid-Connected Converters]( "Design, and Implementation of Multilevel Grid-Connected Converters")
Design, and Implementation of Multilevel Grid-Connected Converters64,99 €![Gesture Based Wheel Chair For Physically Impaired People]( "Gesture Based Wheel Chair For Physically Impaired People")
Gesture Based Wheel Chair For Physically Impaired People27,99 €![MEMS Sensors ¿ Design]( "MEMS Sensors ¿ Design")
MEMS Sensors ¿ Design36,99 €![Metamaterial based Low Profile Antennas]( "Metamaterial based Low Profile Antennas")
Metamaterial based Low Profile Antennas36,99 €![Scaling symmetries of the refractive index profile in optical fibers]( "Scaling symmetries of the refractive index profile in optical fibers")
Scaling symmetries of the refractive index profile in optical fibers36,99 €![Voltage Stability Improvement in Radial Network]( "Voltage Stability Improvement in Radial Network")
Voltage Stability Improvement in Radial Network36,99 €![Improvement of Open-Circuit Voltage in Organic Photovoltaic Cells]( "Improvement of Open-Circuit Voltage in Organic Photovoltaic Cells")
Improvement of Open-Circuit Voltage in Organic Photovoltaic Cells26,99 €
Supporting the grid and improving its reliability have recently become major requirements for large distributed generation units. Under most grid faults, the accuracy of the traditional voltage support schemes (VSSs) is dramatically affected due to the existence of the zero-sequence voltage. Also, the traditional VSSs have been used only in the STATCOM applications, where the active power is zero. This paper proposes an advanced VSS in the converter-interfaced units, called zero-sequence compensated voltage support (ZCVS), to accurately regulate the three-phase voltages of the connection point within the pre-set safety limits. The proposed scheme not only compensates the zero-sequence component but also considers the active power injection. Unlike the traditional methods, the proposed VSS is adapted even in resistive distribution systems. The contribution of this paper is, however, ternate. As the second contribution, the limited active power oscillation (LAPO) is proposed to be augmented to the ZCVS. This feature limits the oscillation to a specified value which provides an adjustable dc-link voltage oscillation setting while simultaneously supporting the ac host grid.
Supporting the grid and improving its reliability have recently become major requirements for large distributed generation units. Under most grid faults, the accuracy of the traditional voltage support schemes (VSSs) is dramatically affected due to the existence of the zero-sequence voltage. Also, the traditional VSSs have been used only in the STATCOM applications, where the active power is zero. This paper proposes an advanced VSS in the converter-interfaced units, called zero-sequence compensated voltage support (ZCVS), to accurately regulate the three-phase voltages of the connection point within the pre-set safety limits. The proposed scheme not only compensates the zero-sequence component but also considers the active power injection. Unlike the traditional methods, the proposed VSS is adapted even in resistive distribution systems. The contribution of this paper is, however, ternate. As the second contribution, the limited active power oscillation (LAPO) is proposed to be augmented to the ZCVS. This feature limits the oscillation to a specified value which provides an adjustable dc-link voltage oscillation setting while simultaneously supporting the ac host grid.
Supporting the grid and improving its reliability have recently become major requirements for large distributed generation units. Under most grid faults, the accuracy of the traditional voltage support schemes (VSSs) is dramatically affected due to the existence of the zero-sequence voltage. Also, the traditional VSSs have been used only in the STATCOM applications, where the active power is zero. This paper proposes an advanced VSS in the converter-interfaced units, called zero-sequence compensated voltage support (ZCVS), to accurately regulate the three-phase voltages of the connection point within the pre-set safety limits. The proposed scheme not only compensates the zero-sequence component but also considers the active power injection. Unlike the traditional methods, the proposed VSS is adapted even in resistive distribution systems. The contribution of this paper is, however, ternate. As the second contribution, the limited active power oscillation (LAPO) is proposed to be augmented to the ZCVS. This feature limits the oscillation to a specified value which provides an adjustable dc-link voltage oscillation setting while simultaneously supporting the ac host grid.