Andere Kunden interessierten sich auch für
![Visual Transduction And Non-Visual Light Perception]( "Visual Transduction And Non-Visual Light Perception")
Visual Transduction And Non-Visual Light Perception150,99 €![Visual Prosthesis and Ophthalmic Devices]( "Visual Prosthesis and Ophthalmic Devices")
Visual Prosthesis and Ophthalmic Devices150,99 €![Retinal Degenerations]( "Retinal Degenerations")
Retinal Degenerations152,99 €![Clinical Ophthalmic Echography]( "Clinical Ophthalmic Echography")
Clinical Ophthalmic Echography89,99 €![Mechanisms of the Glaucomas]( "Mechanisms of the Glaucomas")
Mechanisms of the Glaucomas150,99 €![Visual Transduction And Non-Visual Light Perception]( "Visual Transduction And Non-Visual Light Perception")
Visual Transduction And Non-Visual Light Perception103,99 €![Ophthalmic Instruments and Surgical Tools]( "Ophthalmic Instruments and Surgical Tools")
Ophthalmic Instruments and Surgical Tools37,99 €
In this exceptionally important new work, a panel of distinguished authors discusses all the latest developments in the study of ocular transporters. Focusing on the molecular characteristics, localization, and substrate specificities in various compartments of the eye, this volume discusses how transporters regulate the clarity of the cornea and lens, the movements of fluids across the ciliary epithelium and nutrients across the retinal pigment epithelium.
Detection and responses to light are common features found throughout the plant and animal kingdoms. In most primitive life forms, a patch of light-sensitive cells make up a region containing a cell sheet devoid of any specialized anatomical structure. With the development of the eyes in more advanced life forms, light-sensing structures became more complex but primitive eyes are still in contiguity with other body tissues and fluids. The evolution of the eyeball promoted an increase in visual acuity and visual processing that, in turn, allowed vision to become the dominant sensory system for many species, including humans. The formation of a totally enclosed structure, however, required a unique set of solutions to enable the eye to control its environment. Like most organs, the eye evolved a series of homeostatic mechanisms to regulate its environment within tightly controlled limits. Unlike most organs, however, this advanced light-sensing structure has a series of requirements that place a tremendous burden on molecules that are responsible for controlling ocular homeostasis. There are many sig naling molecules and pathways that work in parallel or through crosstalk to maintain the normal ocular environment required for visual function. Perhaps none are so critical as the group of membrane molecules that are collectively termed transporters. These molecules are responsible for the controlled and selective movements of ions, nutrients, and fluid across various ocular layers necessary to optimize the internal milieu to p- serve visual function.
Detection and responses to light are common features found throughout the plant and animal kingdoms. In most primitive life forms, a patch of light-sensitive cells make up a region containing a cell sheet devoid of any specialized anatomical structure. With the development of the eyes in more advanced life forms, light-sensing structures became more complex but primitive eyes are still in contiguity with other body tissues and fluids. The evolution of the eyeball promoted an increase in visual acuity and visual processing that, in turn, allowed vision to become the dominant sensory system for many species, including humans. The formation of a totally enclosed structure, however, required a unique set of solutions to enable the eye to control its environment. Like most organs, the eye evolved a series of homeostatic mechanisms to regulate its environment within tightly controlled limits. Unlike most organs, however, this advanced light-sensing structure has a series of requirements that place a tremendous burden on molecules that are responsible for controlling ocular homeostasis. There are many sig naling molecules and pathways that work in parallel or through crosstalk to maintain the normal ocular environment required for visual function. Perhaps none are so critical as the group of membrane molecules that are collectively termed transporters. These molecules are responsible for the controlled and selective movements of ions, nutrients, and fluid across various ocular layers necessary to optimize the internal milieu to p- serve visual function.
From the reviews: "The ophthalmic structures and tissues present a series of mechanisms necessary to homeostasis maintenance, in order to enable and support the vision function. ... this book is indicated for physicians, pharmacologists, pharmacotechnicians, and investigators who wish to understand and study the complex processes of transportation and homeostasis of ocular globe, as well as to develop and formulate eye drops or apply therapies in the ophthalmology area." (Vladi Olga Consiglieri, Brazilian Journal of Pharmaceutical Sciences, 2009)