The Experts below are selected from a list of 15 Experts worldwide ranked by ideXlab platform

Vic Gosbell - One of the best experts on this subject based on the ideXlab platform.

  • Synchronised flicker measurement for flicker transfer evaluation in power systems
    2006 IEEE Power Engineering Society General Meeting, 2006
    Co-Authors: Sarath Perera, Duane A Robinson, Sean Elphick, D. Geddey, N. Browne, Vic Smith, Vic Gosbell
    Abstract:

    Summary form only given. Voltage fluctuations caused by rapidly changing loads such as arc furnaces can propagate to different parts of a power system. Although the flicker level at its origin can be high, levels that are measured at other sites are subject to attenuation, a process that is influenced by fault levels, transformer Impedances, Line Impedances and composition of the loads connected. The paper presents the methodology, measurement results and data analysis in relation to synchronised flicker measurements carried out in an HV/MV power system which contains an arc furnace supplied by a dedicated feeder connected to the HV busbar. The flicker transfer coefficients derived from measurement results clearly indicate that flicker transfer from the arc furnace site to the upstream HV busbar is governed by the fault levels at the two locations. However, transfer of flicker from the upstream HV busbar to other downstream busbars is dependent on the downstream load composition. These flicker transfer coefficients are vital in the application of methodologies described in many reports and standards in relation to establishing planning levels at various voltage levels and in the allocation of flicker emission to customers.

  • Synchronized flicker measurement for flicker transfer evaluation in power systems
    IEEE Transactions on Power Delivery, 2006
    Co-Authors: Sarath Perera, Duane A Robinson, Sean Elphick, D. Geddey, N. Browne, Vic Smith, Vic Gosbell
    Abstract:

    Voltage fluctuations caused by rapidly changing loads, such as arc furnaces, can propagate to different parts of a power system. Although the flicker level at its origin can be high, levels that are measured at other sites are subject to attenuation, a process that is influenced by fault levels, transformer Impedances, Line Impedances, and composition of the connected loads. This paper presents the methodology, measurement results, and data analysis in relation to synchronized flicker measurements carried out in a high-voltage (HV)/medium-voltage (MV) power system which contains an arc furnace supplied by a dedicated feeder connected to the HV busbar. The flicker transfer coefficients derived from measurement results clearly indicate that flicker transfer from the arc furnace site to the upstream HV busbar is governed by the fault levels at the two locations. However, the transfer of flicker from the upstream HV busbar to other downstream busbars is dependent on the downstream load composition. These flicker transfer coefficients are vital in the application of methodologies described in many reports and standards in relation to establishing planning levels at various voltage levels and in the allocation of flicker emission to customers.

Sarath Perera - One of the best experts on this subject based on the ideXlab platform.

  • Synchronised flicker measurement for flicker transfer evaluation in power systems
    2006 IEEE Power Engineering Society General Meeting, 2006
    Co-Authors: Sarath Perera, Duane A Robinson, Sean Elphick, D. Geddey, N. Browne, Vic Smith, Vic Gosbell
    Abstract:

    Summary form only given. Voltage fluctuations caused by rapidly changing loads such as arc furnaces can propagate to different parts of a power system. Although the flicker level at its origin can be high, levels that are measured at other sites are subject to attenuation, a process that is influenced by fault levels, transformer Impedances, Line Impedances and composition of the loads connected. The paper presents the methodology, measurement results and data analysis in relation to synchronised flicker measurements carried out in an HV/MV power system which contains an arc furnace supplied by a dedicated feeder connected to the HV busbar. The flicker transfer coefficients derived from measurement results clearly indicate that flicker transfer from the arc furnace site to the upstream HV busbar is governed by the fault levels at the two locations. However, transfer of flicker from the upstream HV busbar to other downstream busbars is dependent on the downstream load composition. These flicker transfer coefficients are vital in the application of methodologies described in many reports and standards in relation to establishing planning levels at various voltage levels and in the allocation of flicker emission to customers.

  • Synchronized flicker measurement for flicker transfer evaluation in power systems
    IEEE Transactions on Power Delivery, 2006
    Co-Authors: Sarath Perera, Duane A Robinson, Sean Elphick, D. Geddey, N. Browne, Vic Smith, Vic Gosbell
    Abstract:

    Voltage fluctuations caused by rapidly changing loads, such as arc furnaces, can propagate to different parts of a power system. Although the flicker level at its origin can be high, levels that are measured at other sites are subject to attenuation, a process that is influenced by fault levels, transformer Impedances, Line Impedances, and composition of the connected loads. This paper presents the methodology, measurement results, and data analysis in relation to synchronized flicker measurements carried out in a high-voltage (HV)/medium-voltage (MV) power system which contains an arc furnace supplied by a dedicated feeder connected to the HV busbar. The flicker transfer coefficients derived from measurement results clearly indicate that flicker transfer from the arc furnace site to the upstream HV busbar is governed by the fault levels at the two locations. However, the transfer of flicker from the upstream HV busbar to other downstream busbars is dependent on the downstream load composition. These flicker transfer coefficients are vital in the application of methodologies described in many reports and standards in relation to establishing planning levels at various voltage levels and in the allocation of flicker emission to customers.

Duane A Robinson - One of the best experts on this subject based on the ideXlab platform.

  • Synchronised flicker measurement for flicker transfer evaluation in power systems
    2006 IEEE Power Engineering Society General Meeting, 2006
    Co-Authors: Sarath Perera, Duane A Robinson, Sean Elphick, D. Geddey, N. Browne, Vic Smith, Vic Gosbell
    Abstract:

    Summary form only given. Voltage fluctuations caused by rapidly changing loads such as arc furnaces can propagate to different parts of a power system. Although the flicker level at its origin can be high, levels that are measured at other sites are subject to attenuation, a process that is influenced by fault levels, transformer Impedances, Line Impedances and composition of the loads connected. The paper presents the methodology, measurement results and data analysis in relation to synchronised flicker measurements carried out in an HV/MV power system which contains an arc furnace supplied by a dedicated feeder connected to the HV busbar. The flicker transfer coefficients derived from measurement results clearly indicate that flicker transfer from the arc furnace site to the upstream HV busbar is governed by the fault levels at the two locations. However, transfer of flicker from the upstream HV busbar to other downstream busbars is dependent on the downstream load composition. These flicker transfer coefficients are vital in the application of methodologies described in many reports and standards in relation to establishing planning levels at various voltage levels and in the allocation of flicker emission to customers.

  • Synchronized flicker measurement for flicker transfer evaluation in power systems
    IEEE Transactions on Power Delivery, 2006
    Co-Authors: Sarath Perera, Duane A Robinson, Sean Elphick, D. Geddey, N. Browne, Vic Smith, Vic Gosbell
    Abstract:

    Voltage fluctuations caused by rapidly changing loads, such as arc furnaces, can propagate to different parts of a power system. Although the flicker level at its origin can be high, levels that are measured at other sites are subject to attenuation, a process that is influenced by fault levels, transformer Impedances, Line Impedances, and composition of the connected loads. This paper presents the methodology, measurement results, and data analysis in relation to synchronized flicker measurements carried out in a high-voltage (HV)/medium-voltage (MV) power system which contains an arc furnace supplied by a dedicated feeder connected to the HV busbar. The flicker transfer coefficients derived from measurement results clearly indicate that flicker transfer from the arc furnace site to the upstream HV busbar is governed by the fault levels at the two locations. However, the transfer of flicker from the upstream HV busbar to other downstream busbars is dependent on the downstream load composition. These flicker transfer coefficients are vital in the application of methodologies described in many reports and standards in relation to establishing planning levels at various voltage levels and in the allocation of flicker emission to customers.

Sean Elphick - One of the best experts on this subject based on the ideXlab platform.

  • Synchronised flicker measurement for flicker transfer evaluation in power systems
    2006 IEEE Power Engineering Society General Meeting, 2006
    Co-Authors: Sarath Perera, Duane A Robinson, Sean Elphick, D. Geddey, N. Browne, Vic Smith, Vic Gosbell
    Abstract:

    Summary form only given. Voltage fluctuations caused by rapidly changing loads such as arc furnaces can propagate to different parts of a power system. Although the flicker level at its origin can be high, levels that are measured at other sites are subject to attenuation, a process that is influenced by fault levels, transformer Impedances, Line Impedances and composition of the loads connected. The paper presents the methodology, measurement results and data analysis in relation to synchronised flicker measurements carried out in an HV/MV power system which contains an arc furnace supplied by a dedicated feeder connected to the HV busbar. The flicker transfer coefficients derived from measurement results clearly indicate that flicker transfer from the arc furnace site to the upstream HV busbar is governed by the fault levels at the two locations. However, transfer of flicker from the upstream HV busbar to other downstream busbars is dependent on the downstream load composition. These flicker transfer coefficients are vital in the application of methodologies described in many reports and standards in relation to establishing planning levels at various voltage levels and in the allocation of flicker emission to customers.

  • Synchronized flicker measurement for flicker transfer evaluation in power systems
    IEEE Transactions on Power Delivery, 2006
    Co-Authors: Sarath Perera, Duane A Robinson, Sean Elphick, D. Geddey, N. Browne, Vic Smith, Vic Gosbell
    Abstract:

    Voltage fluctuations caused by rapidly changing loads, such as arc furnaces, can propagate to different parts of a power system. Although the flicker level at its origin can be high, levels that are measured at other sites are subject to attenuation, a process that is influenced by fault levels, transformer Impedances, Line Impedances, and composition of the connected loads. This paper presents the methodology, measurement results, and data analysis in relation to synchronized flicker measurements carried out in a high-voltage (HV)/medium-voltage (MV) power system which contains an arc furnace supplied by a dedicated feeder connected to the HV busbar. The flicker transfer coefficients derived from measurement results clearly indicate that flicker transfer from the arc furnace site to the upstream HV busbar is governed by the fault levels at the two locations. However, the transfer of flicker from the upstream HV busbar to other downstream busbars is dependent on the downstream load composition. These flicker transfer coefficients are vital in the application of methodologies described in many reports and standards in relation to establishing planning levels at various voltage levels and in the allocation of flicker emission to customers.

D. Geddey - One of the best experts on this subject based on the ideXlab platform.

  • Synchronised flicker measurement for flicker transfer evaluation in power systems
    2006 IEEE Power Engineering Society General Meeting, 2006
    Co-Authors: Sarath Perera, Duane A Robinson, Sean Elphick, D. Geddey, N. Browne, Vic Smith, Vic Gosbell
    Abstract:

    Summary form only given. Voltage fluctuations caused by rapidly changing loads such as arc furnaces can propagate to different parts of a power system. Although the flicker level at its origin can be high, levels that are measured at other sites are subject to attenuation, a process that is influenced by fault levels, transformer Impedances, Line Impedances and composition of the loads connected. The paper presents the methodology, measurement results and data analysis in relation to synchronised flicker measurements carried out in an HV/MV power system which contains an arc furnace supplied by a dedicated feeder connected to the HV busbar. The flicker transfer coefficients derived from measurement results clearly indicate that flicker transfer from the arc furnace site to the upstream HV busbar is governed by the fault levels at the two locations. However, transfer of flicker from the upstream HV busbar to other downstream busbars is dependent on the downstream load composition. These flicker transfer coefficients are vital in the application of methodologies described in many reports and standards in relation to establishing planning levels at various voltage levels and in the allocation of flicker emission to customers.

  • Synchronized flicker measurement for flicker transfer evaluation in power systems
    IEEE Transactions on Power Delivery, 2006
    Co-Authors: Sarath Perera, Duane A Robinson, Sean Elphick, D. Geddey, N. Browne, Vic Smith, Vic Gosbell
    Abstract:

    Voltage fluctuations caused by rapidly changing loads, such as arc furnaces, can propagate to different parts of a power system. Although the flicker level at its origin can be high, levels that are measured at other sites are subject to attenuation, a process that is influenced by fault levels, transformer Impedances, Line Impedances, and composition of the connected loads. This paper presents the methodology, measurement results, and data analysis in relation to synchronized flicker measurements carried out in a high-voltage (HV)/medium-voltage (MV) power system which contains an arc furnace supplied by a dedicated feeder connected to the HV busbar. The flicker transfer coefficients derived from measurement results clearly indicate that flicker transfer from the arc furnace site to the upstream HV busbar is governed by the fault levels at the two locations. However, the transfer of flicker from the upstream HV busbar to other downstream busbars is dependent on the downstream load composition. These flicker transfer coefficients are vital in the application of methodologies described in many reports and standards in relation to establishing planning levels at various voltage levels and in the allocation of flicker emission to customers.