BJERK？S M. Global design ice loads dependence of failure mode [C] //Proceedings of the 14th International Offshore and Polar engineering Conference. Toulon, France, 2004: 871-877.
[2]
SHKHINEK K, ZHILENKOV A, THOMAS G. Vibration of fixed offshore structures under ice action [C] //Prod 22th Int Conf Port Ocean Eng. Espoo, Finland, 2013: 132.
[3]
K？RN？ T, ANDERSEN H, GURTNER A, et al. Ice-induced vibrations of offshore structures-looking beyond ISO19906 [C] //Prod 22th Int Conf Port Ocean Eng. Espoo, Finland, 2013: 120.
[4]
WANG Y, YUE Q. Physical mechanism of ice induced self-excited vibration [C] //Prod 22th Int Conf Port Ocean. Espoo, Finland, 2013: 131.
[5]
XU N, YUE Q. Mitigation of ice-induced vibrations by adding cones [J]. Journal of International Offshore and Polar Engineering, 2011, 21(1): 56-60.
[6]
SODHI D. Crushing failure during ice-structure interaction [J]. Engng Fract Mech, 2001, 68: 1889-1921.
[7]
SODHI D, HAEHNEL R. Crushing Ice forces on structures [J]. Cold Regions Engineering, 2003, 17: 153-170.
[8]
YUE Q, GUO F, K？RN？ T. Dynamic ice forces of slender vertical structures due to ice crushing [J]. Cold Regions Science and Technology, 2009, 56: 77-83.
[9]
PALMER A, YUE Qianjin, GUO Fengwei. Ice-induced vibrations and scaling [J]. Cold Regions Science and Technology, 2010, 60: 189-192.
[10]
PALMER A, BJERK？S M. Synchronization and transition from intermittent to locked-in ice-induced vibration [C] //Prod 22th Int Conf Port Ocean Eng. Espoo, Finland, 2013: 129.
[11]
KUIPER G. Correlation curves for brittle and ductile ice failure based on full scale data [C] //Prod 22th Int Conf Port Ocean Eng. Espoo, Finland, 2013: 29.
