Henning Ulrich – författare

ATP: From Neurotransmission to Cancer Therapy delivers a comprehensive discussion of extracellular ATP biology and its communication role in both homeostasis and pathologic states. It explores the function of ATP across the nervous, sensory, musculoskeletal, cutaneous cardiovascular, pulmonary, gastrointestinal, urinary, reproductive, exocrine, haematopoietic and immune systems. The book considers ATP in the context of various disease states, including cardiovascular, respiratory, psychiatric, inflammatory and neurodegenerative disorders, as well as pain and sensory disorders, infectious diseases, and cancer. ATP in humans is explored alongside other species, including rodents, fish, and plants. This is the latest volume in the “Molecular Mediators in Health and Disease” series. With contributions from specialists across pharmacology, physiology, biophysics, biochemistry, immunology, anatomy, molecular biology, therapeutics, and other critical fields, this volume provides a broad and detailed overview of ATP which will be helpful to researchers working in these areas and beyond.Considers extracellular ATP across various organs including the lung, heart, liver and kidneysInvestigates ATP across a range of conditions such as age-related disorders, cardiovascular disease, respiratory disease and psychiatric disordersExplores the biochemistry and molecular biology of extracellular ATP signallingLooks at the history of ATP and its discovery in addition to future perspectives

This volume explores the quickly evolving field of Purinergic signaling, and examines how receptors for ATP and other nucleotides, and receptors for adenosine, act in neuronal transmission, control of synaptic activity, proliferation, differentiation and cell death regulation in the CNS.

This volume explores the quickly evolving field of Purinergic signaling, and examines how receptors for ATP and other nucleotides, and receptors for adenosine, act in neuronal transmission, control of synaptic activity, proliferation, differentiation and cell death regulation in the CNS.

The content covered encompass not only the theoretic and methodological aspects for culturing human pluripotent stem cells, but also the establishment of induced pluripotent stem cells and their differentiation into specific cellular subtypes.

The content covered encompass not only the theoretic and methodological aspects for culturing human pluripotent stem cells, but also the establishment of induced pluripotent stem cells and their differentiation into specific cellular subtypes.

Stem cells are fascinating cell types. They can replicate themselves forever while retaining the potential to generate progeny with speci?c functions. Because of these special properties, stem cells have been subjects of intensive investigation, from understanding basic mechanisms underlying tissue generation, to modeling human diseases, to application for cell replacement therapy. Stem cells come in different forms. For example, mouse embryonic stem cells can general all cell types in a body, either in a dish or when put back into mouse embryos. On the other hand, neural stem cells in the adult brain generate neurons and glia cells that contribute to the brain’s plasticity. Rapid progress has been made in the stem cell ?eld with discov- ies published in a record speed. A quick Pubmed search has returned 2789 hits for “embryonic stem cells” and 815 hits for “adult neural stem cells/neurogenesis” in the year 2008 alone. It remains a taunting task for all who are interested in stem cells to keep up with rapidly accumulating literatures. The “Perspectives of Stem Cells” by a truly international team of experts provides a timely and invaluable highlight of the stem cell ?eld gearing toward future therapeutic applications in the nervous system. Stem cells with neural potentials have attracted a lot of attention because of their promise for cell replacement therapy, ranging from degenerative neurological dis- ders to spinal cord injuries.

The book will discuss the molecular mechanisms of cancer diseases, stem cell proliferation and transformation into cancer cells beyond the physiological processes that occur in normal stem cell biology. Some of the key oncogenic events in cancer and their signaling pathways that regulate cell division cycle progression will be described considering prospects for using such knowledge in advanced cancer therapy. Each chapter shall provide an invaluable resource for information on the most current advances in the field, with discussion of controversial issues and areas of emerging importance

Stem cells are fascinating cell types. Stem cells with neural potentials have attracted a lot of attention because of their promise for cell replacement therapy, ranging from degenerative neurological dis- ders to spinal cord injuries.