Mechanosensitivity in Cells and Tissues
- PMID: 21290773
- Bookshelf ID: NBK7511
Mechanosensitivity in Cells and Tissues
Excerpt
Mechanosensitivity, i.e. the specific response to mechanical stimulation, is common to a wide variety of cells in many different organisms ranging from bacteria to mammals. Mechanical stress can modulate physiological processes at the molecular, cellular, and systemic level. The primary target for mechanical stimulation is the plasma membrane of the cell, which can respond to variable physical stress with changes of the open probability of mechanosensitive ion channels. Thus, acting on ion channels in the plasma membrane, mechanical stress can elicit a multitude of biochemical processes – both transient and long-lasting – inside a cell. This may ultimately influence the function of tissues and organs in health and disease. Several stretch-induced signaling cascades have been described with multiple levels of crosstalk between the different pathways. Increased sensitivity of the cells to mechanical stress is found under various pathological conditions. A detailed study of the underlying mechanisms may therefore help to identify novel therapeutic targets for a future clinical use.
Copyright © 2005, Academia Publishing House Ltd.
Sections
- Review of the Book
- Review of the Book
- Contributors
- Editorial
- Part I: Molecular Mechanisms of Mechanotransduction
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Part II: Mechanosensitivity of the Heart Cells: Fundamental Aspects and Clinical Implication
- Mechanically Mediated Crosstalk in Heart
- Swelling- and Stretch-activated Chloride Channels in the Heart: Regulation and Function
- Role of Stretch-activated Channels in the Heart: Action Potential and Ca2+ Transients
- Isolated Cardiomyocytes: Mechanosensitivity of Action Potential, Membrane Current and Ion Concentration
- Mechano-Electric Feedback in the Heart: Evidence from Intracellular Microelectrode Recordings on Multicellular Preparations and Single Cells from Healthy and Diseased Tissue
- The Role of Mechanosensitive Fibroblasts in the Heart
- Mechanical Modulation of Intracellular Ion Concentrations: Mechanisms and Electrical Consequences
- Stretch-induced Slow Force Response in Mammalian Ventricular Myocardium
- The Na+/H+ Exchanger as the Main Protagonist following Myocardial Stretch: The Anrep Effect and Myocardial Hypertrophy
- Mechano-Electric Feedback and Atrial Arrhythmias
- The Role of Mechano-Electrical Feedback in the Cholinergic Atrial Fibrillation Initiation
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Part III: Mechanosensitivity of Cells from Various Tissues
- Mechanosensitive Cation Channels of Leech Neurons
- Mechanosensitivity of Primary Afferent Nociceptors in the Pain Pathway
- Stimulus–Secretion Coupling in the Osmoreceptive Prolactin Cell of the Tilapia
- Stretch-inactivated Channels in Skeletal Muscle
- Stretch-activated Cation Channels and the Myogenic Response of Small Arteries
- Mechanobiology of Bone Tissue and Bone Cells
- Functional Roles of Mechanosensitive Ion Channels, ß1 Integrins and Kinase Cascades in Chondrocyte Mechanotransduction
- Enigmatic Roles of the Epithelial Sodium Channel (ENaC) in Articular Chondrocytes and Osteoblasts: Mechanotransduction, Sodium Transport or Extracellular Sodium Sensing?
- Appendix
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