Three Dimensional Microanatomy of Cells and Tissue Surfaces focuses on the use of scanning electron microscopy in the study of the microanatomy of cells and tissues, cell relationships, and complex biological relationships. The selection first elaborates on the technical aspects of stereoprojection for electron microscopy; three-dimensional microanatomy of intracellular structures; microcirculation studies by the injection-replica method with special reference to portal circulations; and three-dimensional architecture of the mammalian liver. Discussions focus on the preparation of vascular casts, portal circulations of various organs, scanning electron microscopy, copying and printing stereopair negatives, stereoprojection, and high voltage electron microscopy. The text then takes a look at scanning electron microscope bloodvessel casts analysis, three dimensional microanatomy of reticular tissues, kidney glomerular epithelium in response to different physiological states and experimental conditions, and mammalian renal papilla and pelvis. The manuscript examines the lung in scanning electron microscopy and stereopresentation, surface topography of endocardial endothelium, scanning electron microscopy of endothelium, human vas deferens, and seminal vesicles, and dynamic morphology of the apical membrane of lactating cells viewed by freeze-fracture. The selection is a valuable reference for researchers interested in the use of scanning electron microscopy in the study of the microanatomy of cells and tissues and biological relationships.

A guide to modern scanning electron microscopy instrumentation, methodology and techniques, highlighting novel applications to cell and molecular biology.

Innovative microscopic techniques, introduced during the last two decades, have contributed much to creating a new picture of the dynamic architecture of the cell, which can now be more exactly correlated with specific biochemical and physiopathological events. These developments have led to significant advances in our understanding of the physiomorphological and pathological aspects of the secretory mechanism, as well as the pharmacologic methods used to control, experimentally, the function of exocrine and endocrine glands. The integration of new ultrastructural methods such as freeze-fracture/etching, immunocytochemistry, scanning and high-voltage electron microscopy, cytoautoradiography, etc. , has proven to be of great value when applied to the study of endocrine cells and tissues. Because information on this topic has appeared in a variety of scientific and medical journals, this book: (1) reviews the results of an integrative approach presenting a comprehensive ultrastructural account of the main aspects of the field; (2) points out gaps or controversial topics in our knowledge; and (3) outlines pertinent directions for future research. The chapters, prepared by recognized authorities in the field, present traditional information on the topic in a concise manner and, with a valuable selection of original illustrations, show what the integration of new microscopic methods can contribute to the subject in terms of new concepts. This volume will be useful to cell biologists, anatomists, embryologists, histologists, pharmacologists, pathologists, and, of course, endocrinologists. It will also be of interest to students, practitioners of medicine, and to all others dealing with clinical research and diagnosis.

The author, R.V. Krstic, is well-known internationally for his excellent histological drawings. This atlas is an excellent supplement to conventional histology textbooks, for students, teachers and professionals alike.

The partition of fluid between the vascular and interstitial compartments is regulated by forces (hydrostatic and oncotic) operating across the microvascular walls and the surface areas of permeable structures comprising the endothelial barrier to fluid and solute exchange, as well as within the extracellular matrix and lymphatics. In addition to its role in the regulation of vascular volume, transcapillary fluid filtration also allows for continuous turnover of water bathing tissue cells, providing the medium for diffusional flux of oxygen and nutrients required for cellular metabolism and removal of metabolic byproducts. Transendothelial volume flow has also been shown to influence vascular smooth muscle tone in arterioles, hydraulic conductivity in capillaries, and neutrophil transmigration across postcapillary venules, while the flow of this filtrate through the interstitial spaces functions to modify the activities of parenchymal, resident tissue, and metastasizing tumor cells. Likewise, the flow of lymph, which is driven by capillary filtration, is important for the transport of immune and tumor cells, antigen delivery to lymph nodes, and for return of filtered fluid and extravasated proteins to the blood. Given this background, the aims of this treatise are to summarize our current understanding of the factors involved in the regulation of transcapillary fluid movement, how fluid movements across the endothelial barrier and through the interstitium and lymphatic vessels influence cell function and behavior, and the pathophysiology of edema formation. Table of Contents: Fluid Movement Across the Endothelial Barrier / The Interstitium / The Lymphatic Vasculature / Pathophysiology of Edema Formation