The Experts below are selected from a list of 57 Experts worldwide ranked by ideXlab platform

Stephen Henry Cree - One of the best experts on this subject based on the ideXlab platform.

  • A next generation advanced water tree-retardant crosslinked polyethylene insulation for long life power cables
    2016 IEEE PES Transmission and Distribution Conference and Exposition (T&D), 2016
    Co-Authors: Paul J. Caronia, Paul J. Brigandi, Timothy J. Person, Stephen Henry Cree
    Abstract:

    Underground cables used in wet environments that are insulated with crosslinked polyethylene (XLPE) have experienced premature failures due to a phenomena known as water treeing being associated with the failures. Developments in polyethylene insulation technology minimized this water-treeing Induced Problem through the use of water tree retardant crosslinked polyethylene (TR-XLPE). Since the introduction of TR-XLPE in 1983, evolutionary and sometimes revolutionary improvements have been made by both the compound producer and cable manufacturer leading to enhanced cable performance and greater value to the power industry A next generation, advanced TR-XLPE insulation that represents a major step change improvement in wet electrical performance has been developed. The next generation, advanced TR-XLPE insulation has improved wet electrical performance as demonstrated in laboratory studies and highly accelerated wet cable aging studies with distribution class cables. Additionally, this advanced TR-XLPE insulation shows the potential for use in high voltage cables. Cables insulated with the next generation, advanced TR-XLPE material are expected to further improve the reliability of distribution cable systems and potentially transmission cable systems while also providing cable design engineers the capability to optimize cable designs.

  • A next generation advanced water tree-retardant crosslinked polyethylene insulation for long life power cables
    2016 IEEE PES Transmission and Distribution Conference and Exposition (T&D), 2016
    Co-Authors: Paul J. Caronia, Paul J. Brigandi, Stephen Henry Cree
    Abstract:

    Underground cables used in wet environments that are insulated with crosslinked polyethylene (XLPE) have experienced premature failures due to a phenomena known as water treeing being associated with the failures. Developments in polyethylene insulation technology minimized this water-treeing Induced Problem through the use of water tree retardant crosslinked polyethylene (TR-XLPE). Since the introduction of TR-XLPE in 1983, evolutionary and sometimes revolutionary improvements have been made by both the compound producer and cable manufacturer leading to enhanced cable performance and greater value to the power industry

Paul J. Caronia - One of the best experts on this subject based on the ideXlab platform.

  • A next generation advanced water tree-retardant crosslinked polyethylene insulation for long life power cables
    2016 IEEE PES Transmission and Distribution Conference and Exposition (T&D), 2016
    Co-Authors: Paul J. Caronia, Paul J. Brigandi, Timothy J. Person, Stephen Henry Cree
    Abstract:

    Underground cables used in wet environments that are insulated with crosslinked polyethylene (XLPE) have experienced premature failures due to a phenomena known as water treeing being associated with the failures. Developments in polyethylene insulation technology minimized this water-treeing Induced Problem through the use of water tree retardant crosslinked polyethylene (TR-XLPE). Since the introduction of TR-XLPE in 1983, evolutionary and sometimes revolutionary improvements have been made by both the compound producer and cable manufacturer leading to enhanced cable performance and greater value to the power industry A next generation, advanced TR-XLPE insulation that represents a major step change improvement in wet electrical performance has been developed. The next generation, advanced TR-XLPE insulation has improved wet electrical performance as demonstrated in laboratory studies and highly accelerated wet cable aging studies with distribution class cables. Additionally, this advanced TR-XLPE insulation shows the potential for use in high voltage cables. Cables insulated with the next generation, advanced TR-XLPE material are expected to further improve the reliability of distribution cable systems and potentially transmission cable systems while also providing cable design engineers the capability to optimize cable designs.

  • A next generation advanced water tree-retardant crosslinked polyethylene insulation for long life power cables
    2016 IEEE PES Transmission and Distribution Conference and Exposition (T&D), 2016
    Co-Authors: Paul J. Caronia, Paul J. Brigandi, Stephen Henry Cree
    Abstract:

    Underground cables used in wet environments that are insulated with crosslinked polyethylene (XLPE) have experienced premature failures due to a phenomena known as water treeing being associated with the failures. Developments in polyethylene insulation technology minimized this water-treeing Induced Problem through the use of water tree retardant crosslinked polyethylene (TR-XLPE). Since the introduction of TR-XLPE in 1983, evolutionary and sometimes revolutionary improvements have been made by both the compound producer and cable manufacturer leading to enhanced cable performance and greater value to the power industry

Paul J. Brigandi - One of the best experts on this subject based on the ideXlab platform.

  • A next generation advanced water tree-retardant crosslinked polyethylene insulation for long life power cables
    2016 IEEE PES Transmission and Distribution Conference and Exposition (T&D), 2016
    Co-Authors: Paul J. Caronia, Paul J. Brigandi, Timothy J. Person, Stephen Henry Cree
    Abstract:

    Underground cables used in wet environments that are insulated with crosslinked polyethylene (XLPE) have experienced premature failures due to a phenomena known as water treeing being associated with the failures. Developments in polyethylene insulation technology minimized this water-treeing Induced Problem through the use of water tree retardant crosslinked polyethylene (TR-XLPE). Since the introduction of TR-XLPE in 1983, evolutionary and sometimes revolutionary improvements have been made by both the compound producer and cable manufacturer leading to enhanced cable performance and greater value to the power industry A next generation, advanced TR-XLPE insulation that represents a major step change improvement in wet electrical performance has been developed. The next generation, advanced TR-XLPE insulation has improved wet electrical performance as demonstrated in laboratory studies and highly accelerated wet cable aging studies with distribution class cables. Additionally, this advanced TR-XLPE insulation shows the potential for use in high voltage cables. Cables insulated with the next generation, advanced TR-XLPE material are expected to further improve the reliability of distribution cable systems and potentially transmission cable systems while also providing cable design engineers the capability to optimize cable designs.

  • A next generation advanced water tree-retardant crosslinked polyethylene insulation for long life power cables
    2016 IEEE PES Transmission and Distribution Conference and Exposition (T&D), 2016
    Co-Authors: Paul J. Caronia, Paul J. Brigandi, Stephen Henry Cree
    Abstract:

    Underground cables used in wet environments that are insulated with crosslinked polyethylene (XLPE) have experienced premature failures due to a phenomena known as water treeing being associated with the failures. Developments in polyethylene insulation technology minimized this water-treeing Induced Problem through the use of water tree retardant crosslinked polyethylene (TR-XLPE). Since the introduction of TR-XLPE in 1983, evolutionary and sometimes revolutionary improvements have been made by both the compound producer and cable manufacturer leading to enhanced cable performance and greater value to the power industry

Timothy J. Person - One of the best experts on this subject based on the ideXlab platform.

  • A next generation advanced water tree-retardant crosslinked polyethylene insulation for long life power cables
    2016 IEEE PES Transmission and Distribution Conference and Exposition (T&D), 2016
    Co-Authors: Paul J. Caronia, Paul J. Brigandi, Timothy J. Person, Stephen Henry Cree
    Abstract:

    Underground cables used in wet environments that are insulated with crosslinked polyethylene (XLPE) have experienced premature failures due to a phenomena known as water treeing being associated with the failures. Developments in polyethylene insulation technology minimized this water-treeing Induced Problem through the use of water tree retardant crosslinked polyethylene (TR-XLPE). Since the introduction of TR-XLPE in 1983, evolutionary and sometimes revolutionary improvements have been made by both the compound producer and cable manufacturer leading to enhanced cable performance and greater value to the power industry A next generation, advanced TR-XLPE insulation that represents a major step change improvement in wet electrical performance has been developed. The next generation, advanced TR-XLPE insulation has improved wet electrical performance as demonstrated in laboratory studies and highly accelerated wet cable aging studies with distribution class cables. Additionally, this advanced TR-XLPE insulation shows the potential for use in high voltage cables. Cables insulated with the next generation, advanced TR-XLPE material are expected to further improve the reliability of distribution cable systems and potentially transmission cable systems while also providing cable design engineers the capability to optimize cable designs.

Surasak Suranuntchai - One of the best experts on this subject based on the ideXlab platform.

  • Use of Deep Cryogenic Treatment to Reduce Particle Contamination Induced Problem in Hard Disk Drive
    Key Engineering Materials, 2017
    Co-Authors: Somchai Laksanasittiphan, Karuna Tuchinda, Anchalee Manonukul, Surasak Suranuntchai
    Abstract:

    In this study, the effect of deep cryogenic treatment on the generation of stainless steel particles in screw tightening process in hard disc drive assembly was investigated. During the cryogenic treatment, the specimens of both stainless steel screw and contacting tool (called as “bit”) material were quenched in a chamber containing liquid nitrogen at-196 oC with the soaking times of 33 hr. The specimens were then subjected to sliding wear tests under normal loading conditions. The experiments used for simulating dry sliding wear mechanisms were carried out by TriboGear machine. The machine consists of a stationary bit loaded against the plate containing screw. The screws used were made of martensitic 410 stainless steel and the bit was made of S2 tool steel. The experiments were carried out under both under single and multiple loading cycles under the normal load corresponding to the effective stresses higher and lower than the yield strength of screw material. The results showed that the deep cryogenic treatment led to more homogeneous distribution of fine size carbide particles in both martensitic 410 stainless steel and S2 tool steel. This lead to different failure mechanism of the stainless steel resulting in smaller and slender stainless steel particles generated. This was expected due to the effect of the change in the dimension of carbide, the stress distribution in the material and the crack propagation path.