Hopes to develop apolipoproteins for diagnostic or, even better, therapeuticpurposes are growing. Areas of use may range from arterial disease to AIDS, fertilization programs, neurological or inflammatory disorders, and the like. However, these young members of the large family of circulating proteins still deserve careful study, both in terms of structural and functional properties and of their pathological changes. In addition, related molecules, in particular belonging to the family of enzymes, such as lipases and acyltransferases, offer exciting insight into the mechanisms of regulation of lipid transport and exchange. Described hereis the use of apolipoproteins and enzymes in the diagnosis of coronary and cerebrovascular disease. Structural and functional changes of apolipoproteins are related to lipid transport and binding to different receptors. Further, the development of apolipoprotein drugs and their possible clinical use for vascular and non vascular disease is discussed and finally an overview on lipoprotein transformation processes, expression systems and natural mutants is provided.

The pleasant community of Limone suI Garda provided outstanding hospitality for a second NATO ARW dealing with apolipoprotein variants, which are natures clues for the discovery of the physiological roles of apolipoproteins in lipoprotein metabolism in normal subjects and patients with specific dyslipoproteinemias. Limone, the site of discovery of the first human apolipoprotein mutant, apoA-I-Milano, provided a brilliant sunny spring venue for more than 50 participants from both sides of the ocean. The attendance at the colorful opening ceremony of the ARW was one of the largest on record. Two members of the Italian government, the Secretaries of Health and the Navy, gave the welcoming addresses. Six television networks, two with national audiences, covered the international workshop. The Limone oracles provided a montage of insights gleamed from the eyes of the clinican, the biochemist, and the molecular biologist. The cumulative information on the molecular defects in lipoprotein metabolism reviewed by this diverse group of investigators provided an ever expanding horizon of new knowledge in this fast moving and some times perplexing field. Clinical vignettes were presented on patients from throughout the world including Canada (Connelly), Turkey (Schmitz), and France (Infante) detailing the clinical sequelae of a defect in a specific apolipoprotein. The clinical importance of Lp(a), a lipoprotein relegated almost to obscurity for many years, has now taken v center stage.

First multi-year cumulation covers six years: 1965-70.

Provides detailed discussions of the most recent developments in gene mapping and manipulation to improve the diagnosis, detection, prevention, and treatment of various cardiovascular diseases--including hypertension, arrhythmias, inherited cariomyopathies, hyperlipidemia, aortic aneurysms, Marfan syndrome, and myocardial infarction. Written by nearly 50 investigators on the cutting-edge of pioneering research in the field.

Structure and Function of Apolipoproteins presents a comprehensive review of the primary and secondary structure of apolipoproteins. The book discusses the structure of the apolipoprotein gene family and genetic variation occurring at the protein level. Functional properties of apolipoproteins, including lipid binding, enzyme co-factor activity, antigenic properties, and receptor-ligand interactions are extensively described and analyzed in relation to their structural features. Physiological properties of apolipoproteins and their role in biology and medicine are also examined. Anyone who is interested in apolipoproteins or is conducting research on atherosclerosis should consider this volume an essential reference.

From molecule to man: Medical research has indeed taken this direction, and major improvements of our understanding of the pathophysiology and epidemiology of disease have been achieved. The molecular basis of the congenital cardiovascular disorders has been extended from relatively few congenital malformations into everyday illnesses such as diabetes mellitus, hyperlipoproteinaemea, and arterial hypertension. The monogenic and, more difficult, polygenic basis for a vast majority of cardiovascular disorders are being defined more precisely from year to year. This book gives an overview of what has been achieved so far and defines the current position.