“…The following list is only a small fraction of what can now be found in the literature about the application of the Weibull distribution. Nevertheless, it illustrates well the versatility of this distribution, as well as the fact that to this day it is very often used to model such phenomena as: steel yield point, steel fatigue life [ 44 ], glass breaking strength [ 48 ], pitting corrosion of pipes [ 49 ], adhesion wear of metals [ 50 ], failure rate of carbon fibre composites [ 51 ], failure rate of coatings [ 52 ], failure rate of brittle materials [ 53 ], failure rate of composite materials [ 54 ], wear of concrete elements [ 55 ], fatigue life of aluminium alloys with high entropy [ 56 ], fatigue life of Al-Si castings [ 57 ], modelling of the power curve of a wind turbine [ 58 ], strength of materials using banana fibre [ 59 ], strength of polyethylene terephthalate fibres [ 60 ], and failure rate of joints under shear [ 61 ]. The Weibull distribution is also widely used to model the coalescence process of foams and emulsions, which was very well presented in the review article by Suja et al [ 62 ].…”