Micro superconducting magnetic energy storage (SMES) system for protection of critical industrial and military loads
A 6 MJ, 750 kVA micro-SMES system has been designed to protect critical loads against voltage sags and interruptions, as well as to provide continuous power conditioning. Life-cycle costs have been minimized through the use of energy efficient refrigeration units. Maintenance is simplified through t...
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Published in: | IEEE transactions on magnetics Vol. 32; no. 4; pp. 2276 - 2279 |
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Main Authors: | , , , , , , , |
Format: | Journal Article |
Language: | English |
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IEEE
01-07-1996
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Abstract | A 6 MJ, 750 kVA micro-SMES system has been designed to protect critical loads against voltage sags and interruptions, as well as to provide continuous power conditioning. Life-cycle costs have been minimized through the use of energy efficient refrigeration units. Maintenance is simplified through the use of line replaceable units. Availability is maximized through a design approach which allows the magnet to continue protecting the load even in the case of refrigeration degradation or total failure. Reliability is maximized by the use of proven commercial-off-the-shelf items. The system provides ride-through capability for /spl sim/9 seconds at a power level of 454 kW. The system comprises a niobium titanium superconducting magnet, permanent conduction cooled hybrid current leads, a low loss cryostat, a closed-loop refrigeration subsystem, an off-the-shelf uninterruptible power supply (UPS), a magnet interface unit to connect the magnet to the UPS and an off-the-shelf monitoring unit providing both local and remote monitoring capability of system parameters. |
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AbstractList | A 6 MJ, 750 kVA micro-SMES system has been designed to protect critical loads against voltage sags and interruptions, as well as to provide continuous power conditioning. Life-cycle costs have been minimized through the use of energy efficient refrigeration units. Maintenance is simplified through the use of line replaceable units. Availability is maximized through a design approach which allows the magnet to continue protecting the load even in the case of refrigeration degradation or total failure. Reliability is maximized by the use of proven commercial-off-the-shelf items. The system provides ride-through capability for /spl sim/9 seconds at a power level of 454 kW. The system comprises a niobium titanium superconducting magnet, permanent conduction cooled hybrid current leads, a low loss cryostat, a closed-loop refrigeration subsystem, an off-the-shelf uninterruptible power supply (UPS), a magnet interface unit to connect the magnet to the UPS and an off-the-shelf monitoring unit providing both local and remote monitoring capability of system parameters. A 6 MJ, 750 kVA micro-SMES system has been designed to protect critical loads against voltage sags and interruptions, as well as to provide continuous power conditioning. Life-cycle costs have been minimized through the use of energy efficient refrigeration units. Maintenance is simplified through the use of line replaceable units. Availability is maximized through a design approach which allows the magnet to continue protecting the load even in the case of refrigeration degradation or total failure. Reliability is maximized by the use of proven commercial-off-the-shelf items. The system provides ride-through capability for ~9 seconds at a power level of 454 kW. The system comprises a niobium titanium superconducting magnet, permanent conduction cooled hybrid current leads, a low loss cryostat, a closed-loop refrigeration subsystem, an off-the-shelf uninterruptible power supply (UPS), a magnet interface unit to connect the magnet to the UPS and an off-the-shelf monitoring unit providing both local and remote monitoring capability of system parameters A 6 MJ, 750 kVA Micro SMES system has been designed to protect critical loads against voltage sags and interruptions, as well as to provide continuous power conditioning. Life-cycle costs have been minimized through the use of energy efficient refrigeration units. Maintenance is simplified through the use of Line Replaceable Units (LRU). Availability is maximized through a design approach which allows the magnet to continue protecting the load even in the case of refrigeration degradation or total failure. Reliability is maximized by the use of proven commercial-off-the-shelf (COTS) items. The system provides ride-through capability for approximately 9 seconds at a power level of 454 kW. The system comprises a niobium titanium superconducting magnet, permanent conduction cooled hybrid current leads, a low loss cryostat, a closed-loop refrigeration subsystem, an off-the-shelf uninterruptible power supply (UPS), a magnet interface unit to connect the magnet to the UPS, and an off-the-shelf monitoring unit providing both local and remote monitoring capability of system parameters. |
Author | Wilcox, R.E. Blecher, L. Parizh, M.B. Kalafala, A.K. Bascunan, J. Murray, F.S. Sampson, M.W. Bell, D.D. |
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Cites_doi | 10.1109/77.233706 10.1109/6.214584 |
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Snippet | A 6 MJ, 750 kVA micro-SMES system has been designed to protect critical loads against voltage sags and interruptions, as well as to provide continuous power... A 6 MJ, 750 kVA Micro SMES system has been designed to protect critical loads against voltage sags and interruptions, as well as to provide continuous power... |
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SubjectTerms | Costs Energy efficiency Power conditioning Power quality Power system protection Refrigeration Remote monitoring Samarium Superconducting magnetic energy storage Uninterruptible power systems |
Title | Micro superconducting magnetic energy storage (SMES) system for protection of critical industrial and military loads |
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