Morphometry. General method for histology, cytology and embryology. Overview and prospects of integration into the educational process

Abstract

Background. Morphological analysis provides insights into the intricate architecture of cells and tissues, revealing how their specific configurations support their biological roles. The relevance of mastering morphometric techniques in modern scientific inquiry cannot be overstated. Objective. The primary aim of this article is to elucidate the significance of morphometry in the analysis of morphological structures within the framework of foundational courses in histology, cytology, and embryology. This analysis will emphasize its application in both normal physiology and pathological conditions, illustrating how morphometric data can inform clinical practice and research. Methods. Morphometry relies on precise measurements of the structural elements of tissues using light or electron microscopy, along with specialized software for image processing. Results. Described levels of organization and general approach to defining the morphofunctional unit. The structural-functional unit is a fundamental component of tissue, organs, or organ systems, characterized by a specific morphological organization that performs functions unique to that organ. This unit represents the minimal structural entity capable of independently executing biological processes inherent to a given organ or tissue, thereby sustaining vital activities across various levels of biological organization. Conclusion. In summary, the concept of structural-functional units is fundamental in histology, as it defines how tissues and organs are organized and function. The integration of morphometry with emerging technologies will undoubtedly pave the way for new insights into cellular behavior and disease mechanisms, reinforcing its pivotal role in the fields of medicine and biology.