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Hardcover. Zustand: new. Hardcover. How do cells keep time? For decades, biological timekeeping has been understood through the lens of master clocks: the CDKCyclin oscillator that drives the cell division cycle and the circadian clock that aligns physiology with the daynight cycle. Yet recent discoveries are reshaping this view. Cellular time control is now emerging as a phenomenon governed not solely by such master clocks, but by coupled networks of otherwise independent timing mechanisms dedicated to specific cellular events.This book introduces and defines the emerging concept of autonomous clocks: cellular timing systems that can be entrained by canonical cell-cycle or circadian programs, yet retain the ability to operate independently to time and execute specific biological events. These autonomous clocks are increasingly recognized across organelle biogenesis, transcription, cytoskeletal remodeling, redox metabolism, proteostasis, immunity, nuclear organization, and even cytoplasmic division independent of nuclei and classical cell-cycle control. Together, they reveal a rich temporal architecture of the cellone in which subcellular processes are not merely passive outputs of master clocks but are governed by dedicated oscillators that act as autonomous timing systems.Bringing together leading voices in cell biology, physiology, synthetic biology, biophysics, and mathematical biology, this volume offers the first comprehensive account of autonomous clocks as a unifying framework for biological time control. The chapters span foundational discoveries in autonomous transcriptional, cytoskeletal, redox, proteostasis, immune, and otherwise sub-cellular timing systems, while also exploring how these autonomous cycles couple to broader cellular rhythms, how they may be engineered synthetically, and how their principles can be understood through theory and computation. By synthesizing a decade of rapidly expanding discoveries, this book challenges long-standing textbook models of cellular timekeeping and opens new conceptual ground for understanding how cells coordinate physiology, maintain temporal order, and preserve function when canonical clocks are slowed, suspended, or silenced.Biological Time Control: Autonomous Clocks in Cellular Organization, Dynamics, and Function is an essential resource for students, researchers, and scholars interested in biological time control from the perspective of cell biology, systems biology, synthetic biology, physiology, and the molecular logic of cellular organization. It will be especially valuable to readers seeking a forward-looking framework for how timing mechanisms shape life at the subcellular, cellular, and organismal scales. Cellular time control is now emerging as a phenomenon governed not solely by such master clocks, but by coupled networks of otherwise independent timing mechanisms dedicated to specific cellular events. This item is printed on demand. Shipping may be from multiple locations in the US or from the UK, depending on stock availability.…

Buch. Zustand: Neu. This item is printed on demand - it takes 3-4 days longer - Neuware -How do cells keep time For decades, biological timekeeping has been understood through the lens of master clocks: the CDK Cyclin oscillator that drives the cell division cycle and the circadian clock that aligns physiology with the day night cycle. Yet recent discoveries are reshaping this view. Cellular time control is now emerging as a phenomenon governed not solely by such master clocks, but by coupled networks of otherwise independent timing mechanisms dedicated to specific cellular events.This book introduces and defines the emerging concept ofautonomous clocks: cellular timing systems that can be entrained by canonical cell-cycle or circadian programs, yet retain the ability to operate independently to time and execute specific biological events. These autonomous clocks are increasingly recognized across organelle biogenesis, transcription, cytoskeletal remodeling, redox metabolism, proteostasis, immunity, nuclear organization, and even cytoplasmic division independent of nuclei and classical cell-cycle control. Together, they reveal a rich temporal architecture of the cell one in which subcellular processes are not merely passive outputs of master clocks but are governed by dedicated oscillators that act as autonomous timing systems.Bringing together leading voices in cell biology, physiology, synthetic biology, biophysics, and mathematical biology, this volume offers the first comprehensive account of autonomous clocks as a unifying framework for biological time control. The chapters span foundational discoveries in autonomous transcriptional, cytoskeletal, redox, proteostasis, immune, and otherwise sub-cellular timing systems, while also exploring how these autonomous cycles couple to broader cellular rhythms, how they may be engineered synthetically, and how their principles can be understood through theory and computation. By synthesizing a decade of rapidly expanding discoveries, this book challenges long-standing textbook models of cellular timekeeping and opens new conceptual ground for understanding how cells coordinate physiology, maintain temporal order, and preserve function when canonical clocks are slowed, suspended, or silenced.Biological Time Control: Autonomous Clocks in Cellular Organization, Dynamics, and Functionis an essential resource for students, researchers, and scholars interested in biolo 168 pp. Englisch.…

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Buch. Zustand: Neu. nach der Bestellung gedruckt Neuware - Printed after ordering - How do cells keep time For decades, biological timekeeping has been understood through the lens of master clocks: the CDK Cyclin oscillator that drives the cell division cycle and the circadian clock that aligns physiology with the day night cycle. Yet recent discoveries are reshaping this view. Cellular time control is now emerging as a phenomenon governed not solely by such master clocks, but by coupled networks of otherwise independent timing mechanisms dedicated to specific cellular events.This book introduces and defines the emerging concept ofautonomous clocks: cellular timing systems that can be entrained by canonical cell-cycle or circadian programs, yet retain the ability to operate independently to time and execute specific biological events. These autonomous clocks are increasingly recognized across organelle biogenesis, transcription, cytoskeletal remodeling, redox metabolism, proteostasis, immunity, nuclear organization, and even cytoplasmic division independent of nuclei and classical cell-cycle control. Together, they reveal a rich temporal architecture of the cell one in which subcellular processes are not merely passive outputs of master clocks but are governed by dedicated oscillators that act as autonomous timing systems.Bringing together leading voices in cell biology, physiology, synthetic biology, biophysics, and mathematical biology, this volume offers the first comprehensive account of autonomous clocks as a unifying framework for biological time control. The chapters span foundational discoveries in autonomous transcriptional, cytoskeletal, redox, proteostasis, immune, and otherwise sub-cellular timing systems, while also exploring how these autonomous cycles couple to broader cellular rhythms, how they may be engineered synthetically, and how their principles can be understood through theory and computation. By synthesizing a decade of rapidly expanding discoveries, this book challenges long-standing textbook models of cellular timekeeping and opens new conceptual ground for understanding how cells coordinate physiology, maintain temporal order, and preserve function when canonical clocks are slowed, suspended, or silenced.Biological Time Control: Autonomous Clocks in Cellular Organization, Dynamics, and Functionis an essential resource for students, researchers, and scholars interested in biolo.…

Buch. Zustand: Neu. Biological Time Control | Autonomous Clocks in Cellular Organization, Dynamics, and Function | Mustafa G. Aydogan | Buch | Advances in Experimental Medicine and Biology | x | Englisch | 2027 | Springer | EAN 9783032361882 | Verantwortliche Person für die EU: Springer Verlag GmbH, Tiergartenstr. 17, 69121 Heidelberg, juergen[dot]hartmann[at]springer[dot]com | Anbieter: preigu Print on Demand. …

Hardcover. Zustand: new. Hardcover. How do cells keep time? For decades, biological timekeeping has been understood through the lens of master clocks: the CDKCyclin oscillator that drives the cell division cycle and the circadian clock that aligns physiology with the daynight cycle. Yet recent discoveries are reshaping this view. Cellular time control is now emerging as a phenomenon governed not solely by such master clocks, but by coupled networks of otherwise independent timing mechanisms dedicated to specific cellular events.This book introduces and defines the emerging concept of autonomous clocks: cellular timing systems that can be entrained by canonical cell-cycle or circadian programs, yet retain the ability to operate independently to time and execute specific biological events. These autonomous clocks are increasingly recognized across organelle biogenesis, transcription, cytoskeletal remodeling, redox metabolism, proteostasis, immunity, nuclear organization, and even cytoplasmic division independent of nuclei and classical cell-cycle control. Together, they reveal a rich temporal architecture of the cellone in which subcellular processes are not merely passive outputs of master clocks but are governed by dedicated oscillators that act as autonomous timing systems.Bringing together leading voices in cell biology, physiology, synthetic biology, biophysics, and mathematical biology, this volume offers the first comprehensive account of autonomous clocks as a unifying framework for biological time control. The chapters span foundational discoveries in autonomous transcriptional, cytoskeletal, redox, proteostasis, immune, and otherwise sub-cellular timing systems, while also exploring how these autonomous cycles couple to broader cellular rhythms, how they may be engineered synthetically, and how their principles can be understood through theory and computation. By synthesizing a decade of rapidly expanding discoveries, this book challenges long-standing textbook models of cellular timekeeping and opens new conceptual ground for understanding how cells coordinate physiology, maintain temporal order, and preserve function when canonical clocks are slowed, suspended, or silenced.Biological Time Control: Autonomous Clocks in Cellular Organization, Dynamics, and Function is an essential resource for students, researchers, and scholars interested in biological time control from the perspective of cell biology, systems biology, synthetic biology, physiology, and the molecular logic of cellular organization. It will be especially valuable to readers seeking a forward-looking framework for how timing mechanisms shape life at the subcellular, cellular, and organismal scales. Cellular time control is now emerging as a phenomenon governed not solely by such master clocks, but by coupled networks of otherwise independent timing mechanisms dedicated to specific cellular events. This item is printed on demand. Shipping may be from our UK warehouse or from our Australian or US warehouses, depending on stock availability.…

Buch. Zustand: Neu. This item is printed on demand - Print on Demand Titel. Neuware -How do cells keep time For decades, biological timekeeping has been understood through the lens of master clocks: the CDKCyclin oscillator that drives the cell division cycle and the circadian clock that aligns physiology with the daynight cycle. Yet recent discoveries are reshaping this view. Cellular time control is now emerging as a phenomenon governed not solely by such master clocks, but by coupled networks of otherwise independent timing mechanisms dedicated to specific cellular events.This book introduces and defines the emerging concept of autonomous clocks: cellular timing systems that can be entrained by canonical cell-cycle or circadian programs, yet retain the ability to operate independently to time and execute specific biological events. These autonomous clocks are increasingly recognized across organelle biogenesis, transcription, cytoskeletal remodeling, redox metabolism, proteostasis, immunity, nuclear organization, and even cytoplasmic division independent of nuclei and classical cell-cycle control. Together, they reveal a rich temporal architecture of the cellone in which subcellular processes are not merely passive outputs of master clocks but are governed by dedicated oscillators that act as autonomous timing systems.Bringing together leading voices in cell biology, physiology, synthetic biology, biophysics, and mathematical biology, this volume offers the first comprehensive account of autonomous clocks as a unifying framework for biological time control. The chapters span foundational discoveries in autonomous transcriptional, cytoskeletal, redox, proteostasis, immune, and otherwise sub-cellular timing systems, while also exploring how these autonomous cycles couple to broader cellular rhythms, how they may be engineered synthetically, and how their principles can be understood through theory and computation. By synthesizing a decade of rapidly expanding discoveries, this book challenges long-standing textbook models of cellular timekeeping and opens new conceptual ground for understanding how cells coordinate physiology, maintain temporal order, and preserve function when canonical clocks are slowed, suspended, or silenced.Biological Time Control: Autonomous Clocks in Cellular Organization, Dynamics, and Function is an essential resource for students, researchers, and scholars interested in biological time control from the perspective of cell biology, systems biology, synthetic biology, physiology, and the molecular logic of cellular organization. It will be especially valuable to readers seeking a forward-looking framework for how timing mechanisms shape life at the subcellular, cellular, and organismal scales.Springer Verlag GmbH, Tiergartenstr. 17, 69121 Heidelberg 180 pp. Englisch.…

Hardcover. Zustand: new. Hardcover. How do cells keep time? For decades, biological timekeeping has been understood through the lens of master clocks: the CDKCyclin oscillator that drives the cell division cycle and the circadian clock that aligns physiology with the daynight cycle. Yet recent discoveries are reshaping this view. Cellular time control is now emerging as a phenomenon governed not solely by such master clocks, but by coupled networks of otherwise independent timing mechanisms dedicated to specific cellular events.This book introduces and defines the emerging concept of autonomous clocks: cellular timing systems that can be entrained by canonical cell-cycle or circadian programs, yet retain the ability to operate independently to time and execute specific biological events. These autonomous clocks are increasingly recognized across organelle biogenesis, transcription, cytoskeletal remodeling, redox metabolism, proteostasis, immunity, nuclear organization, and even cytoplasmic division independent of nuclei and classical cell-cycle control. Together, they reveal a rich temporal architecture of the cellone in which subcellular processes are not merely passive outputs of master clocks but are governed by dedicated oscillators that act as autonomous timing systems.Bringing together leading voices in cell biology, physiology, synthetic biology, biophysics, and mathematical biology, this volume offers the first comprehensive account of autonomous clocks as a unifying framework for biological time control. The chapters span foundational discoveries in autonomous transcriptional, cytoskeletal, redox, proteostasis, immune, and otherwise sub-cellular timing systems, while also exploring how these autonomous cycles couple to broader cellular rhythms, how they may be engineered synthetically, and how their principles can be understood through theory and computation. By synthesizing a decade of rapidly expanding discoveries, this book challenges long-standing textbook models of cellular timekeeping and opens new conceptual ground for understanding how cells coordinate physiology, maintain temporal order, and preserve function when canonical clocks are slowed, suspended, or silenced.Biological Time Control: Autonomous Clocks in Cellular Organization, Dynamics, and Function is an essential resource for students, researchers, and scholars interested in biological time control from the perspective of cell biology, systems biology, synthetic biology, physiology, and the molecular logic of cellular organization. It will be especially valuable to readers seeking a forward-looking framework for how timing mechanisms shape life at the subcellular, cellular, and organismal scales. Cellular time control is now emerging as a phenomenon governed not solely by such master clocks, but by coupled networks of otherwise independent timing mechanisms dedicated to specific cellular events. This item is printed on demand. Shipping may be from our Sydney, NSW warehouse or from our UK or US warehouse, depending on stock availability.…