Have you ever wondered how the disparity between the life experiences of our ancestors and ourselves might affect our health? For the majority of our evolutionary history, humans lived in small hunter- gatherer groups whose diet, lifestyle, living conditions, and environmental pressures werevery different to the experiences of most humans today. The adaptations making us uniquely human - height, brain size, body proportions, metabolic rate, day range - were established during the Pleistocene - some 200 times as long as our recent evolutionary history - and may not fit us as well atthe end of the 20th Century. This fascinating book explores and analyses the ways in which our ancient genes contend with, and influence, human life in the space age. It offers the first broad, in-depth coverage of the many points of contact between evolutionary biology and medical science.Evolutionary biology is not a standard part of medical education, but it offers many important insights into central problems of human health and disease. These include the evolution of antibiotic resistance, the evolution of pathogen virulence, the evolution of ageing, the design of vaccines, andpopulation- and genotype-specific reactions to drugs and susceptibility to disease. They also include new insights into mother-offspring conflict during pregnancy, menstruation, menopause, child abuse, homicide, depression, schizophrenia, and many chronic degenerative diseases, such as cancer andosteoporosis. This book, written by a team of world experts in evolutionary medicine, describes the state of the art, and provides easy, clear access to the primary literature. Addressed to medical students, medical researchers, and evolutionary biologists, it provides compelling arguments for whythe tools of evolutionary biology - both its ideas and its methods - belong in every doctor's tool-kit.

Urgent interest in new diseases, such as the coronavirus, and the resurgence of older diseases like tuberculosis has fostered questions about the history of human infectious diseases. How did they evolve? Where did they originate? What natural factors have stalled the progression of diseases or made them possible? How does a microorganism become a pathogen? How have infectious diseases changed through time? What can we do to control their occurrence? ; Ethne Barnes offers answers to these questions, using information from history and medicine as well as from anthropology. She focuses on changes in the patterns of human behavior through cultural evolution and how they have affected the development of human diseases. ; Writing in a clear, lively style, Barnes offers general overviews of every variety of disease and their carriers, from insects and worms through rodent vectors to household pets and farm animals. She devotes whole chapters to major infectious diseases such as leprosy, syphilis, smallpox, and influenza. Other chapters concentrate on categories of diseases ("gut bugs," for example, including cholera, typhus, and salmonella). The final chapters cover diseases that have made headlines in recent years, among them mad cow disease, West Nile virus, and Lyme disease. ; In the tradition of Berton Roueché, Hans Zinsser, and Sherwin Nuland, Ethne Barnes answers questions you never knew you had about the germs that have threatened us throughout human history.

This work explores and analyses the ways in which our ancient genes contend with, and influence, modern human life. It offers coverage of the points of contact between evolutionary biology and medical science.

Genetics and Evolution of Infectious Diseases is at the crossroads between two major scientific fields of the 21st century: evolutionary biology and infectious diseases. The genomic revolution has upset modern biology and has revolutionized our approach to ancient disciplines such as evolutionary studies. In particular, this revolution is profoundly changing our view on genetically driven human phenotypic diversity, and this is especially true in disease genetic susceptibility. Infectious diseases are indisputably the major challenge of medicine. When looking globally, they are the number one killer of humans and therefore the main selective pressure exerted on our species. Even in industrial countries, infectious diseases are now far less under control than 20 years ago. The first part of this book covers the main features and applications of modern technologies in the study of infectious diseases. The second part provides detailed information on a number of the key infectious diseases such as malaria, SARS, avian flu, HIV, tuberculosis, nosocomial infections and a few other pathogens that will be taken as examples to illustrate the power of modern technologies and the value of evolutionary approaches. Takes an integrated approach to infectious diseases Includes contributions from leading authorities Provides the latest developments in the field

A landmark book of popular science that gives us a lucid and engaging account of how the human body evolved over millions of years—with charts and line drawings throughout. “Fascinating.... A readable introduction to the whole field and great on the making of our physicality.”—Nature In this book, Daniel E. Lieberman illuminates the major transformations that contributed to key adaptations to the body: the rise of bipedalism; the shift to a non-fruit-based diet; the advent of hunting and gathering; and how cultural changes like the Agricultural and Industrial Revolutions have impacted us physically. He shows how the increasing disparity between the jumble of adaptations in our Stone Age bodies and advancements in the modern world is occasioning a paradox: greater longevity but increased chronic disease. And finally—provocatively—he advocates the use of evolutionary information to help nudge, push, and sometimes even compel us to create a more salubrious environment and pursue better lifestyles.

This book was originally conceived at a conference at the University of Turin in Italy. The conference was organized to examine the so-called “Malaria Hypothesis”, that is to say, the higher fitness of t- lassemia heterozygotes in a malarial environment, and to pay tribute to the proponent of that hypothesis, J.B.S. Haldane. Contributors to this book examine certain genetic and evolutionary aspects of malaria which is a major killer of human populations, especially in Africa and Asia. There were attempts to discredit Haldane’s contribution from two directions: (a) it has been suggested that the “Malaria Hypothesis” was known long before Haldane and that there was nothing original about his idea (Lederberg 1999), and that (b) the hypothesis of heterozygote su- riority was first suggested by the Italian biologist Giuseppe Montalenti who communicated his idea to Haldane (Allison 2004). Surely, both c- not be right. In fact, the evidence presented in this book clearly indicates that both are wrong. Haldane’s malaria hypothesis has stimulated a great deal of research on the genetic, evolutionary and epidemiological aspects of malaria d- ing the last 50 years. It has opened up a whole new chapter in the study of infectious diseases. It deserves serious consideration. For helpful discussions we thank Lucio Luzzatto, Alberto Piazza, Guido Modiano and David Roberts.