Heart Development And Regeneration

The development of the cardiovascular system is a rapidly advancing area in biomedical research, now coupled with the burgeoning field of cardiac regenerative medicine. A lucid understanding of these fields is paramount to reducing human cardiovascular diseases of both fetal and adult origin. Significant progress can now be made through a comprehensive investigation of embryonic development and its genetic control circuitry. Heart Development and Regeneration, written by experts in the field, provides essential information on topics ranging from the evolution and lineage origins of the developing cardiovascular system to cardiac regenerative medicine. A reference for clinicians, medical researchers, students, and teachers, this publication offers broad coverage of the most recent advances. Volume One discusses heart evolution, contributing cell lineages; model systems; cardiac growth; morphology and asymmetry; heart patterning; epicardial, vascular, and lymphatic development; and congenital heart diseases. Volume Two includes chapters on transcription factors and transcriptional control circuits in cardiac development and disease; epigenetic modifiers including microRNAs, genome-wide mutagenesis, imaging, and proteomics approaches; and the theory and practice of stem cells and cardiac regeneration. Authored by world experts in heart development and disease New research on epigenetic modifiers in cardiac development Comprehensive coverage of stem cells and prospects for cardiac regeneration Up-to-date research on transcriptional and proteomic circuits in cardiac disease Full-color, detailed illustrations

This title presents the major advances of the last decade in the field of cardiac regeneration.

Contributors. -- Preface. -- C. Seidman, Introduction. -- I. Origins and Early Morphogenesis: -- P.P.L. Tam and G.C. Schoenwolf, Cardiac Fate Maps: Lineage Allocation, Morphogenetic Movement, and Cell Commitment. -- T. Mikawa, Cardiac Lineages. -- II. Cardiac Induction: -- T.J. Mohun and L.M. Leong, Heart Formation and the Heart Field in Amphibian Embryos. -- T.M. Schultheiss and A.B. Lassar, Vertebrate Heart Induction. -- III. Genetic Dissection of Heart Development: -- R. Bodmer and M. Frasch, Genetic Determination in Drosophilia Heart Development. -- J. Alexander and D.Y.R. Stainier, Mutations Affecting Cardiac Development in Zebrafish. -- R.P. Harvey, C. Biben, and D.A. Elliott, Transcriptional Control and Pattern Formation in the Developing Vertebrate Heart: Studies on NK-2 Class Homeodomain Factors. -- B.L. Black and E.N. Olson, Control of Cardiac Development by the Family of MEF2 Transcription Factors. -- D. Srivastava, Segmental Regulation of Cardiac Development by the Basic He ...

This Volume of the series Cardiac and Vascular Biology offers a comprehensive and exciting, state-of-the-art work on the current options and potentials of cardiac regeneration and repair. Several techniques and approaches have been developed for heart failure repair: direct injection of cells, programming of scar tissue into functional myocardium, and tissue-engineered heart muscle support. The book introduces the rationale for these different approaches in cell-based heart regeneration and discusses the most important considerations for clinical translation. Expert authors discuss when, why, and how heart muscle can be salvaged. The book represents a valuable resource for stem cell researchers, cardiologists, bioengineers, and biomedical scientists studying cardiac function and regeneration.

The developing heart is the first functional organ, and its proper formation and function is essential for life. This volume compiles the exciting new advances that have been made in understanding the regulation of heart development, the genes and pathways involved, and the impact these have in heart disease. A stellar collection of scientists tackles an important facet of heart development, providing a comprehensive set of reviews. Cutting-edge science Authority of contributors Exciting field of research

This book is devoted to innovative medicine, comprising the proceedings of the Uehara Memorial Foundation Symposium 2014. It remains extremely rare for the findings of basic research to be developed into clinical applications, and it takes a long time for the process to be achieved. The task of advancing the development of basic research into clinical reality lies with translational science, yet the field seems to struggle to find a way to move forward. To create innovative medical technology, many steps need to be taken: development and analysis of optimal animal models of human diseases, elucidation of genomic and epidemiological data, and establishment of “proof of concept”. There is also considerable demand for progress in drug research, new surgical procedures, and new clinical devices and equipment. While the original research target may be rare diseases, it is also important to apply those findings more broadly to common diseases. The book covers a wide range of topics and is organized into three complementary parts. The first part is basic research for innovative medicine, the second is translational research for innovative medicine, and the third is new technology for innovative medicine. This book helps to understand innovative medicine and to make progress in its realization.

Provides background information and detailed protocols for developing a mouse colony and using the animals in transgenic and gene-targeting experiments. The protocols list the animals, equipment, and reagents required and step-by-step procedures. Topics include in vitro culture of preimplantation embryos, surgical procedures, the production of chimeras, and the analysis of genome alterations. The third edition adds protocols for cloning mice, modifying embryonic stem cells, intracytoplasmic sperm injection, and cryopreservation of embryos.

This book is a comprehensive and up-to-date resource on the use of regenerative medicine for the treatment of cardiovascular disease. It provides a much-needed review of the rapid development and evolution of bio-fabrication techniques to engineer cardiovascular tissues as well as their use in clinical settings. The book incorporates recent advances in the biology, biomaterial design, and manufacturing of bioengineered cardiovascular tissue with their clinical applications to bridge the basic sciences to current and future cardiovascular treatment. The book begins with an examination of state-of-the-art cellular, biomaterial, and macromolecular technologies for the repair and regeneration of diseased heart tissue. It discusses advances in nanotechnology and bioengineering of cardiac microtissues using acoustic assembly. Subsequent chapters explore the clinical applications and translational potential of current technologies such as cardiac patch-based treatments, cell-based regenerative therapies, and injectable hydrogels. The book examines how these methodologies are used to treat a variety of cardiovascular diseases including myocardial infarction, congenital heart disease, and ischemic heart injuries. Finally, the volume concludes with a summary of the most prominent challenges and perspectives on the field of cardiovascular tissue engineering and clinical cardiovascular regenerative medicine. Cardiovascular Regenerative Medicine is an essential resource for physicians, residents, fellows, and medical students in cardiology and cardiovascular regeneration as well as clinical and basic researchers in bioengineering, nanomaterial and technology, and cardiovascular biology.

My thesis highlights important discoveries about the pathways and patterns regulating cardiac development, disease, and regeneration. A central regulator of cardiovascular physiology and pathology is the cardiac nervous system, composed of sympathetic, parasympathetic, and sensory nerves. Yet, our understanding of nerve architecture has been limited by two-dimensional analysis. I utilized innovative technologies, including tissue clearing methods and three-dimensional (3D) analysis, to investigate the intact cardiac nervous system. My 3D approach provides a basis for investigating typical cardiac nerve architecture, as well as nerve remodeling in diseased and regenerative settings. My research identified extensive parasympathetic innervation in the cardiac ventricles and a novel phenotype of intertwined parasympathetic and sympathetic axons. I also discovered differences in axon remodeling between the regenerative and non-regenerative mouse heart, demonstrating that the regenerating neonatal heart undergoes a unique process of physiological reinnervation. This neural plasticity may be harnessed therapeutically to prevent arrhythmias after cardiac injury. Additionally, I explored the role of the cellular metabolic state and specific proteins, such as Leucine-rich repeat containing 10 (LRRC10), in promoting neonatal and adult mammalian cardiac regeneration. These studies have direct clinical implications for promoting endogenous cardiac regeneration for the treatment of heart failure, given that current treatments are limited. Furthermore, these findings provide a framework for identifying novel pathways and molecular targets that could reawaken the regenerative response in the adult heart after injury. Taken together, my research represents a significant step forward in understanding the pathways and patterns underpinning heart development, disease, and regeneration, highlighting exciting new opportunities for developing therapeutic interventions that promote cardiac repair.