High-temperature superconductor (HTS)-based flexible cabling systems for interconnecting components in two different cryogenic temperature zones
High temperature superconductor (HTS)-based flexible cabling systems configured to provide signaling between two different cryogenic temperature zones are described. An HTS-based flexible cabling system includes a first HTS-based flexible cable arranged next to a second HTS-based flexible cable with a spacer configured to maintain a fixed spacing between the first HTS-based flexible cable and the second HTS-based flexible cable. Each of the first HTS-based flexible cable and the second HTS-based flexible cable includes traces to define individual strips having a first strip width in a first region along a length of each of the first HTS-based flexible cable and the second HTS-based flexible cable and a second strip width, different from the first strip width, in a second region where the spacer is overlapping with a respective HTS-based flexible cable. The HTS-based flexible cabling system further includes a heat-transfer structure coupled to the spacer and a temperature-dependent thermal conductor.
1 . A high temperature superconductor (HTS)-based flexible cabling system configured to interconnect a first set of components in a first cryogenic temperature zone with a second set of components in a second cryogenic temperature zone, wherein the first cryogenic temperature zone has a temperature between 2 kelvin to 10 kelvin and the second cryogenic temperature zone has a temperature between 30 kelvin to 92 kelvin, the system comprising:
a first HTS-based flexible cable arranged next to a second HTS-based flexible cable with at least one intervening spacer configured to maintain a fixed spacing between the first HTS-based flexible cable and the second HTS-based flexible cable,
wherein each of the first HTS-based flexible cable and the second HTS-based flexible cable includes traces to define individual strips having a first strip width in a first region along a length of each of the first HTS-based flexible cable and the second HTS-based flexible cable and a second strip width, different from the first strip width, in a second region where the at least one intervening spacer is overlapping with a respective HTS-based flexible cable; and
a heat-transfer structure coupled to the at least one intervening spacer and a temperature-dependent thermal conductor.
2 . The HTS-based flexible cabling system of claim 1 , wherein each of the first HTS-based flexible cable and the second HTS-based flexible cable includes a bend for providing strain relief.
3 . The HTS-based flexible cabling system of claim 2 , wherein each of the first HTS-based flexible cable and the second HTS-based flexible cable comprises a substrate formed from at least one of sapphire, yttria-stabilized zirconia (YSZ), or a polyimide.
4 . The HTS-based flexible cabling system of claim 3 , wherein each of the first HTS-based flexible cable and the second HTS-based flexible cable comprises a high-temperature superconductor material selected from at least one of yttrium barium copper oxides (YBCOs), bismuth strontium calcium copper oxides (BSCCOs), or rare-earth metal oxides (REBCOs).
5 . The HTS-based flexible cabling system of claim 1 , further comprising a connector block having connection points for coupling pads at a respective end of each of the first HTS-based flexible cable and the second HTS-based flexible cable to the first set of components, the second set of components, or another electrical structure.
6 . The HTS-based flexible cabling system of claim 1 , wherein the heat-transfer structure comprises a thermal clamp or a braid configured to couple the at least one intervening spacer to the temperature-dependent thermal conductor.
7 . The HTS-based flexible cabling system of claim 6 , wherein the temperature-dependent thermal conductor comprises a heat pipe containing a fluid with a condensation temperature equal to, or above, 10 kelvin and below a superconducting transition temperature of the high-temperature superconductor material used to form each of the first HTS-based flexible cable and the second HTS-based flexible cable.
8 . A high temperature superconductor (HTS)-based flexible cabling system configured to interconnect a first set of components in a first cryogenic temperature zone with a second set of components in a second cryogenic temperature zone, wherein the first cryogenic temperature zone has a temperature between 2 kelvin to 10 kelvin and the second cryogenic temperature zone has a temperature between 30 kelvin to 92 kelvin, the system comprising:
a first HTS-based flexible cable arranged next to a second HTS-based flexible cable with at least one intervening spacer configured to maintain a fixed spacing between the first HTS-based flexible cable and the second HTS-based flexible cable,
wherein each of the first HTS-based flexible cable and the second HTS-based flexible cable includes traces to define individual strips having a first strip width in a first region along a length of each of the first HTS-based flexible cable and the second HTS-based flexible cable and a second strip width, different from the first strip width, in a second region where the at least one intervening spacer is overlapping with a respective HTS-based flexible cable, and wherein each of the first HTS-based flexible cable and the second HTS-based flexible cable includes widened pads at respective ends; and
a heat-transfer structure coupled to the at least one intervening spacer and a temperature-dependent thermal conductor.
9 . The HTS-based flexible cabling system of claim 8 , wherein each of the first HTS-based flexible cable and the second HTS-based flexible cable includes a bend for providing strain relief.
10 . The HTS-based flexible cabling system of claim 9 , wherein each of the first HTS-based flexible cable and the second HTS-based flexible cable comprises a substrate formed from at least one of sapphire, yttria-stabilized zirconia (YSZ), or a polyimide.
11 . The HTS-based flexible cabling system of claim 10 , wherein each of the first HTS-based flexible cable and the second HTS-based flexible cable comprises a high-temperature superconductor material selected from at least one of yttrium barium copper oxides (YBCOs), bismuth strontium calcium copper oxides (BSCCOs), or rare-earth metal oxides (REBCOs).
12 . The HTS-based flexible cabling system of claim 8 , further comprising a connector block having connection points for coupling the widened pads to the first set of components, the second set of components, or another electrical structure.
13 . The HTS-based flexible cabling system of claim 8 , wherein the heat-transfer structure comprises a thermal clamp or a braid configured to couple the at least one intervening spacer to the temperature-dependent thermal conductor.
14 . The HTS-based flexible cabling system of claim 13 , wherein the temperature-dependent thermal conductor comprises a heat pipe containing a fluid with a condensation temperature within equal to, or above, 10 kelvin and below a superconducting transition temperature of the high-temperature superconductor material used to form each of the first HTS-based flexible cable and the second HTS-based flexible cable.
15 . A high temperature superconductor (HTS)-based flexible cabling system configured to interconnect a first set of components in a first cryogenic temperature zone with a second set of components in a second cryogenic temperature zone, wherein the first cryogenic temperature zone has a temperature between 2 kelvin to 10 kelvin and the second cryogenic temperature zone has a temperature between 30 kelvin to 92 kelvin, the system comprising:
a first HTS-based flexible cable arranged next to a second HTS-based flexible cable with at least one intervening spacer configured to maintain a fixed spacing between the first HTS-based flexible cable and the second HTS-based flexible cable,
wherein each of the first HTS-based flexible cable and the second HTS-based flexible cable includes traces to define individual strips having a first strip width in a first region along a length of each of the first HTS-based flexible cable and the second HTS-based flexible cable and a second strip width, different from the first strip width, in a second region where the at least one intervening spacer is overlapping with a respective HTS-based flexible cable, and wherein each of the first HTS-based flexible cable and the second HTS-based flexible cable includes a widened pads at each respective ends;
a connector block having connection points for coupling the widened pads at each of the respective ends to the first set of components, the second set of components, or another electrical structure; and
a heat-transfer structure coupled to the at least one intervening spacer and a temperature-dependent thermal conductor.
16 . The HTS-based flexible cabling system of claim 15 , wherein each of the first HTS-based flexible cable and the second HTS-based flexible cable comprises a substrate formed from at least one of sapphire, yttria-stabilized zirconia (YSZ), or a polyimide.
17 . The HTS-based flexible cabling system of claim 15 , wherein the connection points comprise pads or spring-loaded pins.
18 . The HTS-based flexible cabling system of claim 15 , wherein each of the first HTS-based flexible cable and the second HTS-based flexible cable includes a bend for providing strain relief.
19 . The HTS-based flexible cabling system of claim 15 , wherein the heat-transfer structure comprises a thermal clamp or a braid configured to couple the at least one intervening spacer to the temperature-dependent thermal conductor.
20 . The HTS-based flexible cabling system of claim 19 , wherein the temperature-dependent thermal conductor comprises a heat pipe containing a fluid with a condensation temperature equal to, or above, 10 kelvin and below a superconducting transition temperature of the high-temperature superconductor material used to form each of the first HTS-based flexible cable and the second HTS-based flexible cable.