A specific experimental method, the split Hopkinson pressure bar (SHPB) technique is used to determine the dynamic material properties under the impact compressive loading condition with strain-rate of the order of 10 3 /s~10 4 /s. The dynamic deformation behavior of rubber materials widely used for the isolation of vibration from varying structures under dynamic loading is determined by using the Split Hopkinson Pressure Bar technique. The relationships between the stresses at transition points of rubber materials and the strain rate are found to be bilinear. However, an interesting relationship between the strains at transition points of rubber materials and the strain rate, which needs further investigation, is noted.
A specifie experimental method, the split Hopkinson pressure bar (SHPB) technique is used to determine the dynamic material properties under the impact cornpressive loading condition with strain-rate of the order of lO3fs--1O`ls. The dynamic deformation behavior of rubber materials widely used for the lsolation of vibration frorn varying structures under dynamic loading is determined by using the Split Hopkinson Pressure Bar technique. 1'he relationships between the stresses at transition points of rubber materials and the strain rate are fbund to be bi-]inear, However, an interesting relationship between the strains at transition points of rubber materials and the strain rate, which needs further jnvestigation. is nored.
A specific experimental method, the split Hopkinson pressure bar (SHPB) technique is used to determine the dynamic material properties under the impact compressive loading condition with strain-rate of the order of 10 3 /s~10 4 /s. The dynamic deformation behavior of rubber materials widely used for the isolation of vibration from varying structures under dynamic loading is determined by using the Split Hopkinson Pressure Bar technique. The relationships between the stresses at transition points of rubber materials and the strain rate are found to be bi-linear. However, an interesting relationship between the strains at transition points of rubber materials and the strain rate, which needs further investigation, is noted.
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