Nagata T
Department of Anatomy and Cell Biology, Shinshu University School of Medicine, Matsumoto, Japan.
Kaibogaku Zasshi. 1995 Oct;70(5):448-71.
Histochemistry has been developed as a science to localize chemical components of cells and tissues on histological sections by using chemical, physical and biological techniques. Many textbooks are available dealing with the methodology of histochemistry, consisting of fixation of tissues, demonstration of biochemical components such as nucleic acids, proteins, sugars, lipids, enzymes, pigments, inorganic substances and amines by means of chemical reactions (Fig. 5) or application of physical (Figs. 1-3, 6-13) and biological (Fig. 4) methods such as spectrophotometry, X-ray microanalysis, radioautography and immunohistochemistry. The methodology has been well developed to form a new science which should be given a designation "general histochemistry" as similar to general histology. On the other hand, these techniques should be applied to all the organ systems, i.e. the skeletal, muscular, circulatory, digestive (Figs. 1-6), respiratory (Figs. 7, 8), urinary (Fig. 9), genital (Fig. 10), endocrine (Fig. 11), nervous (Fig. 12), and sensory organs (Fig. 13). The results of these applications to all the organs should be collected and construct a new field of histochemistry of the organs like "histology of the organs". These results now form a new field of science which should be designated as "special histochemistry". Since the present author started the career as an anatomist and histologist in 1955, the author first aimed at the study of histochemistry by developing new chemical, physical and biological techniques such as enzyme histochemistry (Fig. 5), microspectrophotometry, autoradiography (Figs. 1-3, 6-13), cryo-techniques, immunohistochemistry (Fig. 4) and lectins in the 1950s, 1960s and 1970s. However, the author and coworkers made efforts to apply these techniques to various organ systems of humans and animals since the 1970s to the present time and collected data from all the organs including the aging process from embryos, neonates, sucklings, weanlings, adults and to senescence. The data include not only 3-dimensional structures of the organs but also the 4-dimensional features taking the time dimension into account using the radioautographic techniques by labeling cells and tissues in connection with the time lapse. The original papers published from our laboratory during these 40 years were reviewed and compiled to form a new field of science, which should be designated as histochemistry of the organs or, alternatively, special histochemistry. It is hoped that this new prospect would be well developed to form a novel system in medical science.
组织化学作为一门科学得以发展,旨在通过化学、物理和生物学技术在组织学切片上定位细胞和组织的化学成分。有许多教科书涉及组织化学方法,包括组织固定,以及通过化学反应(图5)来显示核酸、蛋白质、糖类、脂质、酶、色素、无机物和胺等生化成分,或者应用分光光度法、X射线微量分析、放射自显影和免疫组织化学等物理(图1 - 3、6 - 13)和生物学(图4)方法。该方法已得到充分发展,形成了一门新的科学,应被命名为“普通组织化学”,类似于普通组织学。另一方面,这些技术应应用于所有器官系统,即骨骼、肌肉、循环、消化(图1 - 6)、呼吸(图7、8)、泌尿(图9)、生殖(图10)、内分泌(图11)、神经(图12)和感觉器官(图13)。应收集这些应用于所有器官的结果,并构建一个像“器官组织学”这样的器官组织化学新领域。这些结果现在形成了一个新的科学领域,应被命名为“特殊组织化学”。自作者于1955年开始从事解剖学家和组织学家的职业生涯以来,作者最初致力于通过在20世纪50年代、60年代和70年代开发新的化学、物理和生物学技术来研究组织化学,如酶组织化学(图5)、显微分光光度法、放射自显影(图1 - 3、6 - 13)、冷冻技术、免疫组织化学(图4)和凝集素。然而,自20世纪70年代至今,作者和同事们努力将这些技术应用于人类和动物的各种器官系统,并收集了包括胚胎、新生儿、婴儿、断奶幼畜、成年动物到衰老过程中所有器官的数据。这些数据不仅包括器官的三维结构,还包括使用放射自显影技术,通过标记细胞和组织并结合时间推移来考虑时间维度的四维特征。对我们实验室在这40年期间发表的原始论文进行了回顾和汇编,形成了一个新的科学领域,应被命名为器官组织化学,或者也可称为特殊组织化学。希望这一新的前景能得到充分发展,在医学科学中形成一个新的体系。