An explicit physical interpretation of different failure types is proposed.
This definition is the frequentistic interpretation of the failure probability for a homogeneous class of structures.
The main contribution of this work focuses on the identification and physical interpretation of complex failure mechanisms in harness satin fabric.
The need for careful interpretation of initial failure predictions is emphasized, as is the need to allow for multiple sources of nonlinearity, (including progressive damage) where accuracy is sought for certain classes of large deformation and final failure strength predictions.
It can be noted that these approaches differ not only in the resulting design expressions, but also on the governing parameters and on the interpretation of the failure mechanisms and governing shear-transfer actions.
However, in many cases engineers can only rely on surface displacements for their interpretation of the failure mechanism because there is no information on the extension of the deformation into the slope.
The need for careful interpretation of initial failure predictions is emphasised, as is the need to allow for multiple sources of non-linearity (including progressive damage) where accuracy is sought for certain classes of large deformation and final failure strength predictions.
Idol addressed the question by first explaining his interpretation of the failure of the album.
Indeed, the significant mechanical stress to percutaneous implants convolutes the interpretation of sensor failure.
The use of a normalized and validated morbidity score, such as the Pediatric Logistic Organ Dysfunction score [ 32, 33], to support an interpretation of organ failure is another way to determine how the use of the PiCCO catheter can be used as a predictor of morbidity and mortality.
