Calculation of Maximum Voltage Gradients Part II: Split Bundle Conductors
RaduU Cosma, P. Thanassoulis
Abstract
RaduU Cosma, P. Thanassoulis
Abstract
A mathematical expression is developed for determining the maximum voltage gradient on any conductor of a split-bundle conductor configuration. This expression is then applied to calculate the maximum voltage gradient of certain hypothetical configurations. The results show that for a constant cross-sectional area per phase, by splitting a conductor of an N-conductor bundle into p subconductors, thus forming an N X p-conductor split bundle, the maximum voltage gradient can be reduced, but not as much as if the N X p- conductor split bundle is converted into an (N X p)-conductor bundle.
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A mathematical expression is developed for determining the maximum voltage gradient on any conductor of a split-bundle conductor configuration. This expression is then applied to calculate the maximum voltage gradient of certain hypothetical configurations. The results show that for a constant cross-sectional area per phase, by splitting a conductor of an N-conductor bundle into p subconductors, thus forming an N X p-conductor split bundle, the maximum voltage gradient can be reduced, but not as much as if the N X p- conductor split bundle is converted into an (N X p)-conductor bundle.
Key concepts: Conductor, Bundle, Electrical conductor, Voltage, Materials science, Mechanics, Physics, Electrical engineering