A specimen is developed for real-like low velocity impact testing of bi-material joint configurations.
To achieve this aim, several analytical models of a laboratory specimen are developed using different approaches available within programming procedure.
A method for in situ testing of miniaturized tension specimen was developed.
A miniature CT specimen was developed, which yields reliable critical fracture mechanics parameters.
A rapid and simple immunochromatography (IC) strip test, for specific detection of porcine rotavirus (PRV) in stool specimen, was developed.
A test procedure capable of delivering a broadband impulse excitation to a flexible supported test specimen was developed.
For this purpose a cruciform specimen was developed with the aid of Finite element calculation and the specimen design was optimised for tension and compression load.
A full scale computational model of the tested specimen is developed and its modeling details are validated against the experimental results.
To this end, a two-dimensional model that treats the growth of a random array of spherical cavities inside a deforming tension specimen was developed.
