The present volume is the first in the advances in oncobiology series. It is meant to be useful not only to clinical and non-clinical oncologists but also to graduate students and medical students. The individual chapters are presented as self-contained summaries of current knowledge rather than as reviews. The last chapter deals with the subject of chemotherapy.

Hardbound. Volume 5 covers many ethical problems in bioethics from the relevance of the law in making medical decisions, to genetics, and to assisted reproduction. Authors apply ethical theory, meta-ethical theory and valuational perspectives to a variety of ethical issues.

The Liver in Biology and Disease was conceived as a sequel in the series "Principles of Medical Biology," whose general aim continues to be the integration of human biology and molecular cell biology into modern molecular medicine. It is a volume molded by the Information Revolution which few will deny has forced the teaching faculties in our medical schools to curtail and prune the teaching load and focus on fundamentals and principles. With this intention in mind, a volume of this nature takes into account the close dependence of progress in the medical sciences on bioinformatics (gene and protein analysis) or more precisely, computational biology and of course, the Internet. In general, it follows the pattern of its predecessors.
*Chapters are illustrated with numerous figures and references are current
*Clear, concise and accurate text about a large number of liver diseases
*Describes the liver's histology, biochemistry, and pathology in molecular terms

It is apparent that the current literature fails to systematically describe and examine the diverse value and ethical issues that arise in relation to alcohol abuse. This volume attempts to fulfil this void by addressing the most basic scientific and philosophical questions about the causes of alcoholism, their implications for individual responsibility and the most basic public policy questions that stem from clinical medicine and public health.

It should not come as too much of a surprise that biological membranes are considerably more complex than lipid bilayers. This has been made quite clear by the fluid-mosaic model which considers the cell membrane as a two-dimensional solution of a mosaic of integral membrane proteins and glycoproteins firmly embedded in a fluid lipid bilayer matrix. Such a model has several virtues, chief among which is that it allows membrane components to diffuse in the plane of the membrane and orient asymmetrically across the membrane. The model is also remarkable since it provokes the right sort of questions. Two such examples are: Does membrane fluidity influence enzyme activity? Does cholesterol regulate fluidity? However, it does not go far enough. As it turns out, there is now another version of this model, the so-called post-fluid mosaic model which incorporates two concepts, namely the existence in the membrane of discrete domains in which specific lipid-lipid, lipid-protein and protein-protein interactions occur and ordered regions that are in motion but remain separate from less ordered regions. We must admit that both are intriguing problems and of importance in guiding our thinking as to what the next model might be.
We have chosen not to include the subject of membrane transport in the present volume. This obviously represents a break with convention. However, the intention is to have the topic covered subsequent volumes relating to organ systems. It would be right to regard this as an attempt to strengthen the integrated approach to the teaching of medicine.

The seventh volume of a multi-volume work designed for medical students with rudimentary knowledge of cellular biology. It is the key discipline for the basic medical sciences and clinical medicine to be taught in an integrated curriculum. This text features developmental biology.

This volume is intended to complete the Cell Chemistry and physiology module. It is about how the traditional boundaries of cell chemistry and physiology are being erased by molecular biology. We do not think it necessary to elaborate on this theme, particularly since the body of core knowledge found in this volume brings us a stage closer to answering the question, "what makes cell biology into a new discipline?"
The first part of the volume deals with the chemistry of actin and myosin and is followed by chapters on cell motility, ATP synthesis in muscle, and contraction in smooth and skeletal muscle. Here the reader is immediately made aware of the contributions molecular biology is making to our understanding of the molecular mechanisms underlying muscle contraction. It is perhaps enough to point out that Huxley's concept of the cross-bridge cycle and generation of force can now be explained in molecular terms. Topics such as muscle fatigue and muscle disorders, as well as malignant hyperthermia are bound to arouse active learning in the student and set the stage for problem-based learning.
Most medical students look askance at thermobiology. We think this is a mistake; hence, we have included a section dealing with this subject. This brings us to the chapter on the heat shock response, which at the very outset makes clear that many stressors besides heat are known to result in heat shock gene expression. Many of the heat shock proteins occur in unstressed cells and some of them behave as chaperones. These proteins also reach high levels in a wide range of diseases including neurodegenerative disorders. Whether certain diseases are the result of mutations in the heat shock genes is not yet known. As will be appreciated, much of the work done in this field involved the use of cultured cells. Animal cells in culture are the subject of the last chapter.

This volume illustrates the extent to which the traditional distinction between biochemical and physiological processes is being obliterated by molecular biology. It can hardly be doubted that the revolution in cell and molecular biology is leading to core knowledge that provides an outline of the integrative and reductionist approach. We view this as the beginning of a new era, that of the integration of learning.
As in the preceding volumes, the choice of topics has been deliberate not only because of the need to keep the volume within reasonable bounds but also because of the need to avoid information over-load. Several relevant topics are dealt with in other modules; for example, the role of G proteins in transmembrane signalling is covered in the Membranes and Cell Signalling module (i.e., Volume 7). Omissions are of course inevitable but they are minor. A case in point is the subject of phosphatases, the treatment of which does not take into account calcineurin. One of the key functions of this Ca2+ -activated protein phosphatase that is also regulated by calmodulin is to desphosphorylate voltage-dependent Ca2+ channels. The mere recognition of such omissions before or after consulting textbooks and journals should be a spur to a more complete discussion by the student of the subject in a small group teaching setting.

This is the first of a 4-volume module that is an introduction to the study of cell chemistry and physiology. It is not intended to be encyclopedic in nature but rather a general survey of the subject with an emphasis on those topics that are central to an understanding of cell biology and those that are certain to become of increasing importance in the teaching of modern medicine.
We have followed what appeared to as to be the logical divisions of the subject beginning with proteins. Allewell and her colleagues stress the point that proteins fold spontaneously to form complex three-dimensional structures and that some of them unfold with the help of proteins called chaperones. Michaelis-Menten kinetics are shown by Nelsestuen to describe the behaviour of enzymes in the test tube. The formalism is particularly useful in the search for agents of therapeutic value, as exemplified by methotrexate. Uptake by mammalian cells of substrates and their metabolic conversions are discussed by van der Vusse and Reneman. However, both Welch and Savageau expound the view that the cell is not simply a bagful of enzymes. The biologist is urged by Savageau to abandon Michaelis-Menten formalism and apply the Power Law. The biologist is also told that the approach to arriving at a theory of metabolic control would have to be one of successive approximations requiring the use of the computer. Information gained from comparative biochemistry is shown by Storey and Brooks to have shed new light on mechanisms of metabolic rate depression and freeze tolerance, and to be applicable to organ transplantation technology. We are reminded that enzyme adaptation is partly the result of the presence of a hydrating shell of vicinal water that stabilises conformation of the enzyme. Vicinal water, according to Drost-Hausen and Singleton, lies adjacent to most solids and protein interfaces. The kinks or breaks observed in the slope of the Arrhenius plot are attributed to structural changes in vicinal water. Regulation of cell volume is shown by Hempling to involve regulation of cell water. It could be that the osmo-receptor or volume detection system is a protein that links the cytoskeleton to specific K and C1 channels. Additionally, it is interesting that aquaporins, which are water channel-forming membrane proteins, are now known to exist in both renal and extra-renal tissues. One of the renal porins is affected by vasopressin.
We then pass on to protein synthesis (Rattan) and other important topics including protein glycosylation (Hounsell), methylation (Clarke), ADP-ribosylation (Pearson) and prenylation (Gelb). Among the four types of lipids attached to membrane proteins are the prenyl groups. Ford and Gross in their chapter on lipobiology drive home the point that there is an accumulation of acyl carnitine and lysophospholipids during myocardial infarction.

This volume is in two parts. The first contains the remaining chapters on cellular organelles and several chapters relating to organelle disorders. An account of mitochondriopathis is given in the chapter on the mitochondrion rather than in a separate one. The subject matter of this part of the volume shows quite clearly that the interdisciplinary approach to the study of organelles has shed considerable light on the nature of the mechanisms underlying the etiology and pathobiology of many of these disorders. As an example, mutations in the genes encoding integral membrane proteins are found to lead to disturbances in peroxisome assembly. It is also interesting and significant that mistargeting of protein is now thought to be another cause. It will be revealing to see whether mistargeting is the result of mutations in the genes encoding chaperones.
The second part of the volume is concerned with the extracellular matrix. It sets out to show that a vast body of new knowledge of the extracellular matrix is available to us. Take for example the integrin family of cell adhesion receptors. It turns out that integrins play a key role not only in adhesion but also in coupling signals to the nucleus via the cytoskeleton. As for fibronectins, they seem to link the matrix with the cytoskeleton by interacting with integrins.
Collagen molecules are dealt with in the last two chapters. The boundaries of collagen in disease are defined by drawing a clear line of demarcation between systemic connective tissue disorders (e.g., scleroderma), better known as autoimmune diseases, and the heritable, and the heritable diseases such as osteogenesis imperfect and the Marfan syndrome. This classification takes into account a second group of acquired disorders of collagen forming tissues in which regional fibrosis is the hallmark. Liver cirrhosis and pulmonary fibrosis are prime examples.
The decision to place Volumes 2 and 3 before those dealing with cell chemistry was not easily made. It was based on the view that most students will have had an undergraduate course in biochemistry of cell biology or both courses, and that they could go to Volumes 4-7 in which the subject of cell chemistry is covered, and then return to Volumes 2 and 3.

Volume 1 of the series "Fundamentals of Medical Cell Biology" is devoted to evolutionary biology. This is presented in two parts: in the first, the structure and dynamics of RNA, DNA, and protein are dealt with. The second part is concerned with the origins and cellular basis of life.

The purpose of this volume is to provide a synopsis of present knowledge of the structure, organisation, and function of cellular organelles with an emphasis on the examination of important but unsolved problems, and the directions in which molecular and cell biology are moving. Though designed primarily to meet the needs of the first-year medical student, particularly in schools where the traditional curriculum has been partly or wholly replaced by a multi-disciplinary core curriculum, the mass of information made available here should prove useful to students of biochemistry, physiology, biology, bioengineering, dentistry, and nursing.
It is not yet possible to give a complete account of the relations between the organelles of two compartments and of the mechanisms by which some degree of order is maintained in the cell as a whole. However, a new breed of scientists, known as molecular cell biologists, have already contributed in some measure to our understanding of several biological phenomena notably interorganelle communication. Take, for example, intracellular membrane transport: it can now be expressed in terms of the sorting, targeting, and transport of protein from the endoplasmic reticulum to another compartment.
This volume contains the first ten chapters on the subject of organelles. The remaining four are in Volume 3, to which sections on organelle disorders and the extracellular matrix have been added.

Volume 1 of the series "Fundamentals of Medical Cell Biology" is devoted to evolutionary biology. This is presented in two parts: in the first, the structure and dynamics of RNA, DNA, and protein are dealt with. The second part is concerned with the origins and cellular basis of life.

Since the 1970s, we have witnessed astonishing scientific and technical progress in the field of organ transplantation. Patients who suffer organ failure can now often have their lives greatly improved both in terms of quality and quantity of years. The success of transplantation techniques has created an enormous demand for donor organs. Unfortunately, donor organs are in short supply, relative to the number of patients who could greatly benefit from them. Therefore, donor organs are a scarce and valuable resource that must be thoughtfully and fairly allocated among waiting patients. Not surprisingly, this situation raises many pressing ethical questions, each requiring careful consideration. This volume presents a systematic and balanced treatment of some of the most pressing ethical questions including: what is our ethical obligation to become organ donors and who should be allowed to donate?; to what extent can markets facilitate the fair allocation of organs and how should we most fairly determine who should be recipients?; how do we determine death when the donor is not brain dead?; should non-human donor organs be used to save human lives and should we use organs from anencephalic infants and tissue from embryos? ; and what is the role of the news media in covering stories about organ transplantation? Many of the leading authorities in medical ethics come together in this volume to develop extensive analyses and arguments. The reader is provided with a sound understanding of the ethical, as well as many of the broader issues in organ donation and transplantation.

In this work, Colleen Clements presents her case for the need to subject the field of bioethics to a critical external analysis apart from the current postmodern assumptions. Clements argues that, since the 1970s, bioethics has refuted human values in favour of political consensus building. This failure to recognize basic human values in the ethical critique of modern medicine has lead to a dehumanization of the medical system by the field. Clements proceeds to advocate a naturalistic theory of bioethics that reinstates primary human values.

Full-scale Bioethics research began in America around 1970, a decade later America introduced it into Japan. More recently Japanese researchers have realised the growing necessity to evaluate Bioethics more objectively. The principles and policies concerning Bioethics differ between countries. In particular, considerable discrepancies have been occurring between Japanese medical practices and the principles of Bioethics originally imported from America. This has lead to the need for a close investigation into the Japanese approach to Bioethics.

Despite this however, there are currently only a few researchers studying the Japanese approach to Bioethics. This interdisciplinary anthology uniquely provides a significant examination of the 'Bioethics from Japan' by considering Japanese views from various aspects, such as life and death, dignity, family and care. The authors of this volume believe that in establishing their own approach to Bioethics each country will increase the practicality of this discipline and, by doing so, will aid the search for the universal elements in Bioethics.

The members of the Kumamoto University Bioethics Research Group have published a number of books on Bioethics in Japan over the past decade and in doing so have been preparing for the production of this anthology. The contributors of this volume are both current and former faculty members at Kumamoto University; a well-known institute for Minamata Disease and the volume contains essays written specifically in relation to this area of research.

Anthologies on abortion and general medical ethics texts often seem to recycle the same old, but good, arguments. Can anything new be said about this sensitive and contentious topic? Contributors to this volume were invited to say something original, as well as something old, but essential about the factual, valuational, religious and metaphysical issues relevant to abortion, all of which are woven together so intricately into our diverse and seemingly irreconcilable world-views.

Essays in this volume consider the conceptual links between views on abortion and foetal development, abortion procedures, religion, laws and public funding (or no funding) policies. Authors also defend well-defined and differentiated positions on abortion that can broadly be described as the Roman Catholic, the Conservative, the Moderate and the Liberal positions.

New Essays on Abortion and Bioethics will provide readers with useful models of critical and rational thinking for addressing the topic of abortion. The essays will help to illuminate a subject about which there is often too much heat and too little light.