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Cell Press Reviews: Stem Cells to Model and Treat Disease informs, inspires, and connects stem cell researchers and clinicians at all stages in their careers with timely, comprehensive reviews written by leaders in the field and curated by Cell Press editors. The publication offers a broad view of some of the most compelling topics in stem cell research including: Safety and efficacy of stem cell treatments Stem-cell-based organ regeneration Integrating stem cells into personalized drug discovery Using pluripotent stem cells for treating neurological disease Engineering hematopoietic stem cells for innovative therapies Contributions come from leading voices in the field, including: - Shinya Yamanaka, Recipient of the 2012 Nobel Prize for Physiology or Medicine, Recipient of the 2012 Millennium Technology Prize, Professor and Director of the Center for iPS Cell Research and Application at Kyoto University, Senior Investigator at the Gladstone Institute of Cardiovascular Disease, L.K. Whittier Foundation Investigator in Stem Cell Biology and Professor at the University of California, San Francisco - George Q. Daley, Samuel E. Lux IV Professor of Hematology/Oncology at Harvard Medical School and Director for the Stem Cell Transplantation Program at Boston Children's Hospital - Irving Weissman, Member of National Academy of Sciences, Virgina & D.K Ludwig Professor for Clinical Investigation in Cancer Research, and Director for Institute of Stem Cell Biology and Regenerative Medicine at Stanford University of Medicine Cell Press Reviews: Stem Cells to Model and Treat Disease is part of the Cell Press Reviews series, which features reviews published in Cell Press primary research and Trends reviews journals. Provides timely overviews on a wide range of stem cell applications Offers insight from experts on the key opportunities and challenges facing the field Features reviews on genetic, cellular, and molecular aspects of stem-cell-based applications Includes articles originally published in Cell, Cell Stem Cell, Neuron, Trends in Molecular Medicine, and Trends in Biotechnology

Myocardial tissue engineering (MTE), a concept that intends to prolong patients'life after cardiac damage by supporting or restoring heart function, is continuously improving. Common MTE strategies include an engineered ‘vehicle', which may be a porous scaffold or a dense substrate or patch, made of either natural or synthetic polymeric materials. The function of the substrate is to aid transportation of cells into the diseased region of the heart and support their integration. This book, which contains chapters written by leading experts in MTE, gives a complete analysis of the area and presents the latest advances in the field. The chapters cover all relevant aspects of MTE strategies, including cell sources, specific TE techniques and biomaterials used. Many different cell types have been suggested for cell therapy in the framework of MTE, including autologous bone marrow-derived or cardiac progenitors, as well as embryonic or induced pluripotent stem cells, each having their particular advantages and disadvantages. The book covers a complete range of biomaterials, examining different aspects of their application in MTE, such as biocompatibility with cardiac cells, mechanical capability and compatibility with the mechanical properties of the native myocardium as well as degradation behaviour in vivo and in vitro. Although a great deal of research is being carried out in the field, this book also addresses many questions that still remain unanswered and highlights those areas in which further research efforts are required. The book will also give an insight into clinical trials and possible novel cell sources for cell therapy in MTE.

The interdisciplinary field of regenerative medicine holds the promise of repairing and replacing tissues and organs damaged by disease and of developing therapies for previously untreatable conditions, such as diabetes, heart disease, liver disease, and renal failure. Derived from the fields of tissue engineering, cell and developmental biology, biomaterials science, nanotechnology, physics, chemistry, physiology, molecular biology, biochemistry, bioengineering, and surgery, regenerative medicine is one of the most influential topics of biological research today.Derived from the successful Principles of Regenerative Medicine, this volume brings together the latest information on the advances in technology and medicine and the replacement of tissues and organs damaged by disease. Chapters focus on the fundamental principles of regenerative therapies that have crossover with a broad range of disciplines. From the molecular basis to therapeutic applications, this volume is an essential source for students, researchers, and technicians in tissue engineering, stem cells, nuclear transfer (therapeutic cloning), cell, tissue, and organ transplantation, nanotechnology, bioengineering, and medicine to gain a comprehensive understanding of the nature and prospects for this important field. - Highlights the fundamentals of regenerative medicine to relate to a variety of related science and technology fields - Introductory chapter directly addresses why regenerative medicine is important to a variety of researchers by providing practical examples and references to primary literature - Includes new discoveries from leading researchers on restoration of diseased tissues and organs

In 1993, Rolf Bodmer described a gene he named tinman that was required for the formation of the dorsal aorta of the fly. Flies without a functional tinman gene had no heart. Quickly, mammalian counterparts of the tinman gene were identified and found to be expressed by early cardiomyogenic precursors and by cardiomyocytes throughout heart development. Since then, significant progress has been made in the understanding of molecular and genetic determinants of heart formation. An ever growing number of genes have been identified that are required for cardiogenesis, as evidenced by severe abnormalities in cardiac development produced by inactivation in the mouse or inhibition of gene function in other model organisms. Cardiovascular Development covers some of the latest research in the study of heart formation. Volume Editor Rolf Bodmer has assembled a world-class list of contributors whose research uses a variety of animal models and whose findings are certain to enhance our understanding of this exciting field.• Ties together the development of heart morphology and conduction system • The latest developments in vertebrate and invertebrate genetic model systems• Technological advancements in cardiovascular science

With the explosion of knowledge from molecular biology and the burgeoning interest in generating or regenerating tissues or organs through various bioengineering or stem cell approaches, many scientists and students have shown a renewed interest in the phenomenon of regeneration. Because relatively few have had the luxury of being able to approach the phenomenon of regeneration from a broad biological perspective, Dr. Carlson has produced a book that outlines the fundamental principles of regeneration biology. Subject matters focus principally on regeneration in vertebrate systems, but also invertebrate regeneration. In order to manipulate regenerative processes, it is important to understand the underlying principles of regeneration. Principles of Regnerative Biology is the key introductory reference for all developmental biologists, geneticists, and tissue and stem cell researchers. - Creates a general understanding of one of the most fascinating and complex phenomena in biology - Discusses the ability and diversity of regeneration in various organisms - Explains the history and origins of cells in regenerating systems - Includes information on stem cells and its important role in regeneration