Innovative technologies in the study of mechanical properties of materials

The article provides an overview of modern innovative technologies used to study the mechanical properties of materials using universal breaking machines. The focus is on the integration of machine vision technologies, machine learning algorithms and high-speed stereoscopy, which provide new capabilities for analysing the behaviour of materials during static and dynamic loads. An important aspect of the research is the improvement of traditional test methods through the introduction of innovative components: high-speed cameras that allow recording material deformations with microsecond precision; stereoscopic systems that create three-dimensional models of material behaviour under load; as well as lighting devices that provide uniform illumination of the test object. These technologies are synchronized with powerful computing modules capable of analysing large amounts of data in real time. The authors emphasise that the integration of computer vision and machine learning algorithms can significantly reduce the impact of the human factor on research results. Automated analysis systems are able to accurately detect and classify defects, simulate types of failures and predict the behaviour of materials under various loading conditions. Examples of the use of such systems in the study of complex composites, metal alloys and the latest polymers are also given. Additionally, innovative approaches to the creation of dynamic loads that allow testing for impact strength and endurance are considered. The article shows how automated test process management systems increase research efficiency by providing greater accuracy, repeatability of results, and faster data processing. The practical significance of the described developments lies in their wide application in industries where the study of the mechanical properties of materials is critical, such as aircraft construction, mechanical engineering, energy and construction. A high level of automation and accuracy of tests, provided by the introduction of modern technologies, allows setting new standards for the quality of research and creates prospects for the further development of materials science. Thus, the presented approach to improving universal breaking machines contributes to increasing the accuracy of measurements, expanding the functionality of traditional test systems and creating more efficient methods for studying materials