Genes, Germs and Medicine explores the development of modern biomedical science in the United States through the life of one of the Twentieth Century's most influential scientists.Joshua Lederberg was a scientific renaissance man. He and his collaborators founded the field of bacterial genetics, and he was awarded the Nobel Prize at the age of 33 (the second youngest in history). He helped to lay the foundations for genetic engineering, made fundamental revisions to immunological and evolutionary theory, and developed medical genetics. He initiated the search for extraterrestrial microbial life, developed artificial intelligence, and was a visionary of the Digital Age. Lederberg coined some of the central terms of modern biology: plasmid, transduction, exobiology, euphenics and microbiome.A complex humanist who spoke out for social justice, Lederberg confronted racism, and denied a gene-centered view of humans. Pondering our social evolution outside of nature, he forewarned of the complex ethical issues arising from bioengineering. He sounded the alarm about coming pandemics at a time when few would listen, and warned of the peril of biowarfare and strove to prevent it. Lederberg was a man with a deep sense of social and intellectual responsibility, a trusted advisor to eight presidential administrations.

"This is the first book-length account of early efforts to computerize medical diagnosis. It explores how these efforts produced and interacted with certain professional tensions, disease constructions, personal identities, cultural ideals, economic interests, and material practices. The book offers a historical account that raises pressing questions, problems, and challenges that must be addressed as we work to harness artificial intelligence for the benefit of the medical profession and its patients"--

The Bulletin of the Atomic Scientists is the premier public resource on scientific and technological developments that impact global security. Founded by Manhattan Project Scientists, the Bulletin's iconic "Doomsday Clock" stimulates solutions for a safer world.

Making Peace with Microbes Public sanitation and antibiotic drugs have brought about historic increases in the human life span; they have also unintentionally produced new health crises by disrupting the intimate, age-old balance between humans and the microorganisms that inhabit our bodies and our environment. As a result, antibiotic resistance now ranks among the gravest medical problems of modern times. Good Germs, Bad Germs addresses not only this issue but also what has become known as the "hygiene hypothesis"— an argument that links the over-sanitation of modern life to now-epidemic increases in immune and other disorders. In telling the story of what went terribly wrong in our war on germs, Jessica Snyder Sachs explores our emerging understanding of the symbiotic relationship between the human body and its resident microbes—which outnumber its human cells by a factor of nine to one! The book also offers a hopeful look into a future in which antibiotics will be designed and used more wisely, and beyond that, to a day when we may replace antibacterial drugs and cleansers with bacterial ones—each custom-designed for maximum health benefits.

Almost daily we hear news stories, advertisements, and scientific reports that promise genetic medicine will make us live longer, enable doctors to identify and treat diseases before they start, and individualize our medical care. But surprisingly, a century ago eugenicists were making the same promises. The Science of Human Perfection traces the history of the promises of medical genetics and of the medical dimension of eugenics. The book also considers social and ethical issues that cast troublesome shadows over these fields./divDIV DIVKeeping his focus on America, science historian Nathaniel Comfort introduces the community of scientists, physicians, and public health workers who have contributed to the development of medical genetics from the nineteenth century to today. He argues that medical genetics is closely related to eugenics, and indeed the two cannot be fully understood separately. He also carefully examines how the desire to relieve suffering and to improve ourselves genetically, though noble, may be subverted. History makes clear that as patients and consumers we must take ownership of genetic medicine, using it intelligently, knowledgeably, and skeptically, lest pernicious interests trump our own./div

Dr. Joshua Lederberg - scientist, Nobel laureate, visionary thinker, and friend of the Forum on Microbial Threats - died on February 2, 2008. It was in his honor that the Institute of Medicine's Forum on Microbial Threats convened a public workshop on May 20-21, 2008, to examine Dr. Lederberg's scientific and policy contributions to the marketplace of ideas in the life sciences, medicine, and public policy. The resulting workshop summary, Microbial Evolution and Co-Adaptation, demonstrates the extent to which conceptual and technological developments have, within a few short years, advanced our collective understanding of the microbiome, microbial genetics, microbial communities, and microbe-host-environment interactions.

Winner of the Computer History Museum Prize of the Special Interest Group: Computers, Information, and Society Imagine biology and medicine today without computers. What would laboratory work be like if electronic databases and statistical software did not exist? Would disciplines like genomics even be feasible if we lacked the means to manage and manipulate huge volumes of digital data? How would patients fare in a world absent CT scans, programmable pacemakers, and computerized medical records? Today, computers are a critical component of almost all research in biology and medicine. Yet, just fifty years ago, the study of life was by far the least digitized field of science, its living subject matter thought too complex and dynamic to be meaningfully analyzed by logic-driven computers. In this long-overdue study, historian Joseph November explores the early attempts, in the 1950s and 1960s, to computerize biomedical research in the United States. Computers and biomedical research are now so intimately connected that it is difficult to imagine when such critical work was offline. Biomedical Computing transports readers back to such a time and investigates how computers first appeared in the research lab and doctor's office. November examines the conditions that made possible the computerization of biology—including strong technological, institutional, and political support from the National Institutes of Health—and shows not only how digital technology transformed the life sciences but also how the intersection of the two led to important developments in computer architecture and software design. The history of this phenomenon has been only vaguely understood. November's thoroughly researched and lively study makes clear for readers the motives behind computerizing the study of life and how that technology profoundly affects biomedical research today.