Mezei Tibor, Kolcsár Melinda, Joó András, Gurzu Simona
Department of Pathology, George Emil Palade University of Medicine, Pharmacy, Science, and Technology of Targu Mures, 540139 Targu Mures, Romania.
Department of Pharmacology and Clinical Pharmacy, George Emil Palade University of Medicine, Pharmacy, Science, and Technology of Targu Mures, 540142 Targu Mures, Romania.
J Imaging. 2024 Oct 14;10(10):252. doi: 10.3390/jimaging10100252.
Both pathology and cytopathology still rely on recognizing microscopical morphologic features, and image analysis plays a crucial role, enabling the identification, categorization, and characterization of different tissue types, cell populations, and disease states within microscopic images. Historically, manual methods have been the primary approach, relying on expert knowledge and experience of pathologists to interpret microscopic tissue samples. Early image analysis methods were often constrained by computational power and the complexity of biological samples. The advent of computers and digital imaging technologies challenged the exclusivity of human eye vision and brain computational skills, transforming the diagnostic process in these fields. The increasing digitization of pathological images has led to the application of more objective and efficient computer-aided analysis techniques. Significant advancements were brought about by the integration of digital pathology, machine learning, and advanced imaging technologies. The continuous progress in machine learning and the increasing availability of digital pathology data offer exciting opportunities for the future. Furthermore, artificial intelligence has revolutionized this field, enabling predictive models that assist in diagnostic decision making. The future of pathology and cytopathology is predicted to be marked by advancements in computer-aided image analysis. The future of image analysis is promising, and the increasing availability of digital pathology data will invariably lead to enhanced diagnostic accuracy and improved prognostic predictions that shape personalized treatment strategies, ultimately leading to better patient outcomes.
病理学和细胞病理学仍然依赖于识别微观形态特征,图像分析起着至关重要的作用,能够在微观图像中识别、分类和表征不同的组织类型、细胞群体和疾病状态。从历史上看,手工方法一直是主要途径,依靠病理学家的专业知识和经验来解读微观组织样本。早期的图像分析方法常常受到计算能力和生物样本复杂性的限制。计算机和数字成像技术的出现挑战了人眼视觉和大脑计算技能的排他性,改变了这些领域的诊断过程。病理图像数字化程度的不断提高导致了更客观、高效的计算机辅助分析技术的应用。数字病理学、机器学习和先进成像技术的整合带来了重大进展。机器学习的不断进步以及数字病理学数据的日益丰富为未来提供了令人兴奋的机会。此外,人工智能彻底改变了这一领域,使预测模型能够辅助诊断决策。预计病理学和细胞病理学的未来将以计算机辅助图像分析的进步为标志。图像分析的未来很有前景,数字病理学数据的日益丰富将必然提高诊断准确性,改善预后预测,从而形成个性化治疗策略,最终带来更好的患者治疗效果。