Perspectives In Biological Chemistry

The aim of this series is to provide authoritative reviews in the rapidly expanding area of bioinorganic chemistry. The series will present "state of the art" reviews covering the whole field of bioinorganic chemistry. The present volume is the fourth in the series and covers the topics: lithium in biology, the structure and function of ceroplasmin, rhenium complexes in nuclear medicine, the anti-HIV activity of macrocyclic polyamines and their metal complexes for dinuclear phosphoesterase enzymes.

This new series on The Biochemistry and Molecular Biology of Fishes grew out of the demand for state-of-the-art review articles in a rapidly expanding field of research. Up to the present, most research literature on biochemistry involved rats and humans, but new breakthroughs in the piscine setting have indicated that the field is ready for a review series of its own. Because of funding and experimental availability restrictions, most research in the field has dealt with fish and insects. Within the insect field, comparative biochemistry and comparative physiology have proceeded along independent paths as opposed to the piscine field, where the tendency has been for the latter to envelop the former. This volume sets out to make comparative biochemistry and comparative physiology independent of each other within the piscine setting, another important rationale for this review series as well as detailing the phylogenetic evolution of fishes. The goal of the series is to provide researchers and students with an appropriate balance between experimental results and theoretical concepts.

My first introduction to the eye came more than three decades ago when my close friend and mentor, the late Professor Isaac C. Michaelson, convinced me that studying the biochemistry of ocular tissues would be a rewarding pursuit. I hastened to explain that I knew nothing about the subject, since relatively few basic biochemical studies on ocular tissues had appeared in the world literature. Professor Michaelson assured me, however, that two books on eye biochemistry had already been written. One of them, a beautiful monograph by Arlington Krause ( 1934) of Johns Hopkins Hospital, is we II worth reading even today for its historical perspective. The other, published 22 years later, was written by Antoinette Pirie and Ruth van Heyningen ( 1956), whose pioneering achievements in eye biochemistry at the Nuffield Laboratory of Ophthalmology in Oxford, England are known throughout the eye research community and beyond. To their credit are classical investigations on retinal, corneal, and lens biochemistry, beginning in the 1940s and continuing for many decades thereafter. Their important book written in 1956 on the Biochemistry of the Eye is a volume that stood out as a landmark in this field for many years. In recent years, however, a spectacular amount of new information has been gener ated in ocular biochemistry. Moreover, there is increasing specialization among investiga tors in either a specific field of biochemistry or a particular ocular tissue.

Bioinorganic chemistry is primarily concerned with the role of metal atoms in biology and is a very active research field. However, even though such important structures of metalloenzymes are known, as the MoFeCo of nitrogenase, Cu or Mn superoxide dismutase and plastocyanin, the synthetic routes to the modelling of such centers remains a matter of acute scientific interest. Other metalloenzymes, such as the Mn center of the oxygen evolving complex of PSII, are still the focus of in-depth examination, both spectroscopic and structural. Another area of concern is the interaction between drugs and metals and metal ion antagonism. Understanding the chemistry of metal ions in biological systems will bring benefits in terms of understanding such problems as biomineralization and the production of advanced materials by micro-organisms. The 29 contributions to Bioinorganic Chemistry: An Inorganic Perspective of Life give an excellent summary of the state of the art in this field, covering areas from the NMR of paramagnetic molecules to the use of lanthanide porphyrins in artificial batteries.