Morphological disciplines, namely Human Anatomy, Histology, and Embryology, have traditionally provided the foundational knowledge for medical education, offering spatial, cellular, and temporal coordinates of the human body. However, reducing these disciplines to static and purely descriptive learning undermines their deeper purpose: interpreting morphology as the dynamic outcome of biological processes. This review emphasizes three interrelated pillars of morphological sciences—cell differentiation, tissue homeostasis, and organ remodeling—as essential frameworks for understanding both normal physiology and disease pathogenesis. Cell differentiation establishes functional identity, tissue homeostasis ensures structural stability, and organ remodeling enables adaptation to both physiological and pathological stimuli. Dysregulation of these programs underlies a wide range of conditions, from degenerative diseases and chronic inflammation to neoplasms. Integrating classical morphological knowledge with modern approaches—including stem cell biology, organoids, tissue engineering, and computational modeling—enables predictive and regenerative strategies in personalized medicine. Furthermore, recent advances in artificial intelligence applied to histopathology have enhanced our capacity to detect early deviations from homeostasis and guide targeted interventions. By combining spatial, cellular, and molecular perspectives, the morphological sciences can provide clinicians with tools to interpret disease as the result of altered biological programs, anticipate pathology, and design precise therapeutic strategies. This integrated approach highlights the renewed centrality of morphology in contemporary medicine, bridging foundational knowledge with predictive, regenerative, and personalized healthcare.
Bavisotto et al. (Wed,) studied this question.