System for transmitting current including magnetically decoupled superconducting conductors
국가/구분
United States(US) Patent
등록
국제특허분류(IPC7판)
H01B-012/00
H01L-039/24
출원번호
UP-0832923
(2004-04-27)
등록번호
US-7608785
(2009-11-10)
발명자
/ 주소
Reis, Chandra
출원인 / 주소
SuperPower, Inc.
대리인 / 주소
Larson Newman & Abel, LLP
인용정보
피인용 횟수 :
4인용 특허 :
61
초록▼
A system for transmitting current is described. The system includes at least one generator, at least one cryostat, and at least one load. The system may further include one of terminations, a refrigeration system, and terminations and a refrigeration system. The cryostat has at least one electrical
A system for transmitting current is described. The system includes at least one generator, at least one cryostat, and at least one load. The system may further include one of terminations, a refrigeration system, and terminations and a refrigeration system. The cryostat has at least one electrical phase including at least one mandrel and magnetically decoupled superconducting conductors that may accomplished by, for example, braiding the superconductor.
대표청구항▼
The invention claimed is: 1. A superconducting cable useable in a system for transmitting current including at least one generator having at least one phase and at least one load, the cable comprising at least one cryostat containing at least one electrical phase including: a. a mandrel; and b. at
The invention claimed is: 1. A superconducting cable useable in a system for transmitting current including at least one generator having at least one phase and at least one load, the cable comprising at least one cryostat containing at least one electrical phase including: a. a mandrel; and b. at least one superconductor layer deposed on the mandrel, the at least one superconductor layer including a plurality of braided magnetically decoupled superconducting conductors. 2. The cable according to claim 1 wherein the mandrel comprises a flexible material. 3. The cable according to claim 2 wherein the flexible material comprises one of an aluminum alloy and a copper alloy. 4. The cable according to claim 3 wherein the one of the aluminum alloy and a copper alloy comprises a single filament. 5. The cable according to claim 3 wherein the one of the aluminum alloy and a copper alloy comprises a plurality of filaments. 6. The cable according to claim 1 wherein the mandrel comprises a corrugated tube. 7. The cable according to claim 6 wherein the corrugated tube comprises a metallic material. 8. The cable according to claim 7 wherein the metallic material comprises a stainless steel. 9. The cable according to claim 6 wherein the corrugated tube comprises a non-metallic material. 10. The cable according to claim 9 wherein the non-metallic material comprises a polymer. 11. The cable according to claim 10 wherein the polymer is a reinforced polymer. 12. The cable according to claim 11 wherein the reinforced polymer is a fiberglass-reinforced polymer. 13. The cable according to claim 1 wherein the mandrel is cryogenically compatible. 14. The cable according to claim 1 wherein the braided magnetically decoupled superconducting conductors reduce AC losses. 15. The cable according to claim 1 wherein a first number of superconducting conductors in a first direction about the mandrel is substantially the same as a second number of superconducting conductors in a second direction about the mandrel. 16. The cable according to claim 1 wherein the braid comprises a weave pattern of over one, under one. 17. The cable according to claim 1 wherein the braid comprises a weave pattern of over two, under two. 18. The cable according to claim 1 wherein the braid comprises a biaxial braid (e.g., a braid angle, a, is an acute angle measured with respect to the axis of braiding (longitudinal axis). 19. The cable according to claim 1 wherein the superconductor is a high temperature superconductor (HTS) conductor. 20. The cable according to claim 1 wherein the HTS conductor comprises a copper-based-HTS conductor. 21. The cable according to claim 1 wherein the copper-based-HTS conductor comprises one of La2-xMxCuO4, Ln2-xCexCuO4, ReBa2Cu3O7-d, Bi2Sr2CalCu2Ox, (Bi,Pb)2Sr2CalCu2Ox, Bi2Sr2CaCu3Ox, (Bi,Pb)2Sr2CaCu3Ox, and combinations thereof. 22. The cable according to claim 21 wherein the copper-based-HTS conductor comprises YBa2Cu3O7-d (YBCO). 23. The cable according to claim 1 wherein the copper-based-HTS conductor comprises La2-xMxCuO4 and M comprises one of Ca, Sr, Ba, and combinations thereof. 24. The cable according to claim 1 wherein the copper-based-HTS conductor comprises Ln2-xCexCuO4, and Ln comprises one of Pr, Nd, Sm, Eu, Gd, and combinations thereof. 25. The cable according to claim 1 wherein the copper-based-HTS conductor comprises ReBa2Cu3O7-d, and Re comprises one of Y, Pr, Nd, Sm, Eu, Gd, Dy, Ho, Er, Tm, Yb, and combinations thereof. 26. The cable according to claim 1 wherein the superconductor conductor comprises a metal substrate. 27. The cable according to claim 26 wherein the metal substrate has a thickness of between about 25 and about 127 micrometers. 28. The cable according to claim 27 wherein the superconductor conductor comprises YBCO having a thickness between about 1 to about 5 micrometers. 29. The cable according to claim 1 wherein the superconductor conductor comprises a magnesium boride. 30. The cable according to claim 29 wherein the magnesium boride comprises MgB2. 31. The cable according to claim 1 further including a thermal insulation. 32. The cable according to claim 31 wherein the thermal insulation comprises a vacuum-based insulation. 33. The cable according to claim 31 wherein the thermal insulation comprises a multiple-layer insulation. 34. The cable according to claim 33 wherein the multiple-layer insulation comprises superinsulation. 35. The cable according to claim 1 further including a protective jacket. 36. The cable according to claim 35 wherein the protective jacket comprises a polymer. 37. The cable according to claim 36 wherein the polymer comprises a polyvinyl chloride. 38. The cable according to claim 1 further including at least one electrically insulating material. 39. The cable according to claim 38 wherein at least one electrical insulating material comprises a plurality of the electrically insulating materials. 40. The cable according to claim 39 wherein the plurality of electrically insulating materials comprise at least about 4. 41. The cable according to claim 38 wherein the electrical insulating material comprises a cryogenically compatible material. 42. The cable according to claim 38 wherein at least one electrical insulating material comprises an extrusion. 43. The cable according to claim 1 further including at least one electrostatic shield. 44. The cable according to claim 43 wherein the at least one electrostatic shield comprise a conducting material. 45. The cable according to claim 43 wherein at least one electrostatic shield comprise a semiconducting material. 46. The cable according to claim 43 wherein at least one electrostatic shield is capable of shaping an electrical field. 47. The cable according to claim 43 wherein at least one electrostatic shield comprises a plurality of electrostatic shields. 48. The cable according to claim 47 wherein the plurality of electrostatic shields are on either side of an electrical insulation. 49. The cable according to claim 47 wherein the plurality of electrostatic shields comprises about two per each at least one electrically insulating material layer. 50. The cable according to claim 1 further including at least one spacer. 51. The cable according to claim 50 wherein the at least one spacer comprises a non-electrically conductive material. 52. The cable according to claim 50 wherein the at least one spacer comprises a cryogenically compatible material. 53. The cable according to claim 1 wherein at least one electrical phase comprise a plurality of electrical phases. 54. The cable according to claim 53 wherein at least two of the plurality of electrical phases include: a. a mandrel; and b. braided magnetically decoupled superconducting conductors. 55. The cable according to claim 53 wherein the plurality of electrical phases comprises at least about two electrical phases. 56. The cable according to claim 1 further including a cryogen path. 57. The cable according to claim 56 wherein the cryogen path is capable of directing a fluid. 58. The cable according to claim 57 wherein the fluid is a liquid. 59. The cable according to claim 58 wherein the liquid is liquid nitrogen. 60. The cable according to claim 57 wherein the fluid is a gas. 61. A superconducting cable useable in a system for transmitting current including at least one generator having at least one phase and at least one load, the cable comprising at least one cryostat containing at least one electrical phase including: a mandrel; and braided magnetically decoupled superconducting conductors deposed on the mandrel, wherein the superconductor conductor comprises a low temperature superconductor (LTS) conductor. 62. The cable according to claim 61 wherein the LTS conductor comprises a niobium-based alloy. 63. The cable according to claim 62 wherein the niobium-based alloy comprises an A15 superconducting phase. 64. The cable according to claim 62 wherein the niobium-based alloy includes one of titanium, tin, aluminum, and combinations thereof. 65. The cable according to claim 64 wherein the niobium-based alloy comprises a niobium-titanium-based alloy. 66. The cable according to claim 65 wherein the niobium-titanium-based alloy comprises between about 45 to about 50 weight percent titanium. 67. The cable according to claim 64 wherein the niobium-based alloy comprises an A15 superconducting phase. 68. The cable according to claim 62 wherein the niobium-based alloy includes one of titanium, tin, aluminum, and combinations thereof, and one of tantalum, zirconium, tin, and combinations thereof. 69. The cable according to claim 68 wherein the niobium-based alloy comprises an A15 superconducting phase. 70. The cable according to claim 69 wherein the niobium-based alloy comprises one of Nb3Sn and Nb3Al. 71. The cable according to claim 70 wherein the Nb3 Sn comprises between about 18 to about 25 weight percent tin. 72. A system for transmitting current comprising: a. at least one generator having at least one phase; b. at least one superconducting cable having at least one cryostat containing at least one electrical phase including at least one mandrel and at least one superconductor layer deposed on the at least one mandrel, the at least one superconductor layer including a plurality of braided magnetically decoupled superconducting conductors; c. terminations; and d. at least one load. 73. A system for transmitting current comprising: a. at least one generator having at least one phase; b. at least one superconducting cable having at least one cryostat containing at least one electrical phase including at least one mandrel and at least one superconductor layer deposed on the at least one mandrel, the at least one superconductor layer including a plurality of braided magnetically decoupled superconducting conductors; c. at least one refrigeration system; and d. at least one load. 74. The system for transmitting current according to claim 73 further including terminations. 75. The system for transmitting current according to claim 74 wherein the terminations include an electrical connector. 76. The system for transmitting current according to claim 74 wherein the terminations include a thermal connector. 77. The system for transmitting current according to claim 73 wherein the refrigeration system is a refrigerator. 78. The system for transmitting current according to claim 73 wherein the refrigeration system includes a mechanism for circulating cryogen through the cryostat. 79. A method for manufacturing a system for transmitting current, said method comprising the steps of: a. providing at least one generator having at least one phase; b. at least one load; and c. providing at least one superconducting cable having at least one cryostat containing at least one electrical phase including at least one mandrel and at least one superconductor layer deposed on the at least one mandrel to transmit current over at least a portion of a distance between said at least one generator and said at least one load, the at least one superconductor layer including a plurality of braided magnetically decoupled superconducting conductors. 80. A method for manufacturing a cryostat useable in a system for transmitting current, said method comprising the steps of: a. providing a mandrel; and b. braiding a plurality of superconducting conductors in a superconductor layer on said mandrel so that the superconductor conductor are substantially magnetically decoupled. 81. A cable useable in useable in a system for transmitting current, said cable comprising: a. at least one mandrel; and b. a plurality of superconducting conductors braided in a superconductor layer on said at least one mandrel so as to magnetically decouple said superconducting conductors.
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