TY - JOUR
T1 - Design and in-field testing of the world's first ReBCO rotor for a 3.6 MW wind generator
AU - Bergen, Anne
AU - Andersen, Rasmus
AU - Bauer, Markus
AU - Boy, Hermann
AU - Ter Brake, Marcel
AU - Brutsaert, Patrick
AU - Bührer, Carsten
AU - Dhallé, Marc
AU - Hansen, Jesper
AU - Ten Kate, Herman
AU - Kellers, Jürgen
AU - Krause, Jens
AU - Krooshoop, Erik
AU - Kruse, Christian
AU - Kylling, Hans
AU - Pilas, Martin
AU - Pütz, Hendrik
AU - Rebsdorf, Anders
AU - Reckhard, Michael
AU - Seitz, Eric
AU - Springer, Helmut
AU - Song, Xiaowei
AU - Tzabar, Nir
AU - Wessel, Sander
AU - Wiezoreck, Jan
AU - Winkler, Tiemo
AU - Yagotyntsev, Konstantin
N1 - Publisher Copyright:
© 2019 IOP Publishing Ltd Printed in the UK
PY - 2019/10/25
Y1 - 2019/10/25
N2 - The main aim of the EU H2020 project EcoSwing was to demonstrate a technical readiness level of 6-7 for high-temperature superconducting (HTS) technology operating in a wind generator. To reach this goal, a full-scale synchronous HTS generator was successfully designed, built and field-tested in a 3.6 MW turbine. The generator has a rotor with 40 superconducting coils of 1.4 m long. The required >20 km of coated conductor was produced within the project's time schedule. All coils were tested prior to assembly, with >90% of them behaving as expected. The technical readiness level of HTS coils was thus increased to level 7. Simultaneously, the maturing of cryogenic cooling technology over the last decade was illustrated by the several Gifford-McMahon cold-heads that were installed on-board the rotor and connected with the stationary compressors through a rotating coupling. The cryogenic system outperformed design expectations, enabling stable coil temperatures far below the design temperature of 30 K after only 14 d of cool-down. After ground-based testing at the IWES facility in Bremerhaven, Germany, the generator was installed on an existing turbine in Thyborøn, Denmark. Here, the generator reached the target power range and produced power for over 650 h of grid operation.
AB - The main aim of the EU H2020 project EcoSwing was to demonstrate a technical readiness level of 6-7 for high-temperature superconducting (HTS) technology operating in a wind generator. To reach this goal, a full-scale synchronous HTS generator was successfully designed, built and field-tested in a 3.6 MW turbine. The generator has a rotor with 40 superconducting coils of 1.4 m long. The required >20 km of coated conductor was produced within the project's time schedule. All coils were tested prior to assembly, with >90% of them behaving as expected. The technical readiness level of HTS coils was thus increased to level 7. Simultaneously, the maturing of cryogenic cooling technology over the last decade was illustrated by the several Gifford-McMahon cold-heads that were installed on-board the rotor and connected with the stationary compressors through a rotating coupling. The cryogenic system outperformed design expectations, enabling stable coil temperatures far below the design temperature of 30 K after only 14 d of cool-down. After ground-based testing at the IWES facility in Bremerhaven, Germany, the generator was installed on an existing turbine in Thyborøn, Denmark. Here, the generator reached the target power range and produced power for over 650 h of grid operation.
KW - HTS
KW - Superconducting generator
KW - Superconducting machinery
KW - Wind turbine
UR - http://www.scopus.com/inward/record.url?scp=85075439819&partnerID=8YFLogxK
U2 - 10.1088/1361-6668/ab48d6
DO - 10.1088/1361-6668/ab48d6
M3 - ???researchoutput.researchoutputtypes.contributiontojournal.article???
AN - SCOPUS:85075439819
SN - 0953-2048
VL - 32
JO - Superconductor Science and Technology
JF - Superconductor Science and Technology
IS - 12
M1 - ab48d6
ER -