Volkmar Weissig – författare

This book introduces and discusses the latest in biomedical research--Pharmaceutical Nanotechnology applied at the sub-cellular level.

This second edition offers 88 chapters divided among three volumes providing the most comprehensive source of know-how in the wide-ranging field of Mitochondrial Medicine.

This second edition offers 88 chapters divided among three volumes providing the most comprehensive source of know-how in the wide-ranging field of Mitochondrial Medicine.

This second edition offers 88 chapters divided among three volumes providing the most comprehensive source of know-how in the wide-ranging field of Mitochondrial Medicine. Volume II guides readers through chapters on mitochondrial dysfunction, functional’ mitochondria, mitochondrial retrograde, mitochondrial dNTP pool quantification, mitochondrial ADP-ribosylation, blue-native gel approach, 3D optical cryo-imaging method, mitochondrial ATP and ROS production, protocol for untargeted metabolomic analysis, and methods for analysis of nitrotyrosine-containing proteins. Written in the highly successful Methods in Molecular Biology series format, chapters include introductions to their respective topics, application details for both the expert and non-expert reader, and tips on troubleshooting and avoiding known pitfalls. Authoritative and accessible, Mitochondrial Medicine, Second Edition, Volume 2: Assessing Mitochondria aims to be acomprehensive source of know-how in the wide-ranging field of Mitochondrial Medicine.

This second edition offers 88 chapters divided among three volumes providing the most comprehensive source of know-how in the wide-ranging field of Mitochondrial Medicine. Volume II guides readers through chapters on mitochondrial dysfunction, functional’ mitochondria, mitochondrial retrograde, mitochondrial dNTP pool quantification, mitochondrial ADP-ribosylation, blue-native gel approach, 3D optical cryo-imaging method, mitochondrial ATP and ROS production, protocol for untargeted metabolomic analysis, and methods for analysis of nitrotyrosine-containing proteins. Written in the highly successful Methods in Molecular Biology series format, chapters include introductions to their respective topics, application details for both the expert and non-expert reader, and tips on troubleshooting and avoiding known pitfalls. Authoritative and accessible, Mitochondrial Medicine, Second Edition, Volume 2: Assessing Mitochondria aims to be acomprehensive source of know-how in the wide-ranging field of Mitochondrial Medicine.

This second edition offers 88 chapters divided among three volumes providing the most comprehensive source of know-how in the wide-ranging field of Mitochondrial Medicine. Volume III guides readers through chapters on intercellular mitochondrial transfer, Cytoplasmic transfer methods, Ndufs4 knockout mouse, in vivo assessment of mitochondrial oxygen consumption, mitochondrial network analysis by imaging, mitochondrial respiration in platelets, Heterologous Inferential Analysis (HIA), bioenergetic profiling, integrative methods for studying cardiac energetics, and isolation and deep sequencing of mitochondrial DNA.Written in the highly successful Methods in Molecular Biology series format, chapters include introductions to their respective topics, application details for both the expert and non-expert reader, and tips on troubleshooting and avoiding known pitfalls.Authoritative and accessible, Mitochondrial Medicine, Second Edition, Volume 3: Manipulating Mitochondria and Disease- Specific Approaches aims to be a comprehensive source of know-how in the wide-ranging field of Mitochondrial Medicine.

This second edition offers 88 chapters divided among three volumes providing the most comprehensive source of know-how in the wide-ranging field of Mitochondrial Medicine. Volume III guides readers through chapters on intercellular mitochondrial transfer, Cytoplasmic transfer methods, Ndufs4 knockout mouse, in vivo assessment of mitochondrial oxygen consumption, mitochondrial network analysis by imaging, mitochondrial respiration in platelets, Heterologous Inferential Analysis (HIA), bioenergetic profiling, integrative methods for studying cardiac energetics, and isolation and deep sequencing of mitochondrial DNA.Written in the highly successful Methods in Molecular Biology series format, chapters include introductions to their respective topics, application details for both the expert and non-expert reader, and tips on troubleshooting and avoiding known pitfalls.Authoritative and accessible, Mitochondrial Medicine, Second Edition, Volume 3: Manipulating Mitochondria and Disease- Specific Approaches aims to be a comprehensive source of know-how in the wide-ranging field of Mitochondrial Medicine.

This expert volume covers an interdisciplinary and rapidly growing area of biomedical research comprising genetic, biochemical, pathological, and clinical studies aimed at the diagnosis and therapy of human diseases which are either caused by or associated with mitochondrial dysfunction. It dedicates itself to showcasing the tremendous efforts and the progress that has been made over the last decades in developing techniques and protocols for probing, imaging, and manipulating mitochondrial functions. Mitochondrial Medicine: Volume I, Probing Mitochondrial Function focuses on methods being used for the assessment of mitochondrial function under physiological conditions as well as in healthy isolated mitochondria. Written in the highly successful Methods in Molecular Biology series format, chapters include introductions to their respective topics, lists of the necessary materials and reagents, step-by-step, readily reproducible laboratory protocols, and tips on troubleshooting and avoiding known pitfalls.Comprehensive and practical, Mitochondrial Medicine provides an essential source of know-how and inspiration to all researchers who are fascinated by this tiny organelle that seems so clearly to control the life and death of a single cell and whole organisms alike.

This expert volume covers an interdisciplinary and rapidly growing area of biomedical research comprising genetic, biochemical, pathological, and clinical studies aimed at the diagnosis and therapy of human diseases which are either caused by or associated with mitochondrial dysfunction. It dedicates itself to showcasing the tremendous efforts and the progress that has been made over the last decades in developing techniques and protocols for probing, imaging, and manipulating mitochondrial functions. Mitochondrial Medicine: Volume II, Manipulating Mitochondrial Function describes techniques developed for manipulating and assessing mitochondrial function under general pathological conditions and specific disease states. Written in the highly successful Methods in Molecular Biology series format, chapters include introductions to their respective topics, lists of the necessary materials and reagents, step-by-step, readily reproducible laboratory protocols, and tips on troubleshooting and avoiding known pitfalls.Comprehensive and practical, Mitochondrial Medicine provides an essential source of know-how and inspiration to all researchers who are fascinated by this tiny organelle that seems so clearly to control the life and death of a single cell and whole organisms alike.

This expert volume covers an interdisciplinary and rapidly growing area of biomedical research comprising genetic, biochemical, pathological, and clinical studies aimed at the diagnosis and therapy of human diseases which are either caused by or associated with mitochondrial dysfunction. It dedicates itself to showcasing the tremendous efforts and the progress that has been made over the last decades in developing techniques and protocols for probing, imaging, and manipulating mitochondrial functions. Mitochondrial Medicine: Volume I, Probing Mitochondrial Function focuses on methods being used for the assessment of mitochondrial function under physiological conditions as well as in healthy isolated mitochondria. Written in the highly successful Methods in Molecular Biology series format, chapters include introductions to their respective topics, lists of the necessary materials and reagents, step-by-step, readily reproducible laboratory protocols, and tips on troubleshooting and avoiding known pitfalls.Comprehensive and practical, Mitochondrial Medicine provides an essential source of know-how and inspiration to all researchers who are fascinated by this tiny organelle that seems so clearly to control the life and death of a single cell and whole organisms alike.

This expert volume covers an interdisciplinary and rapidly growing area of biomedical research comprising genetic, biochemical, pathological, and clinical studies aimed at the diagnosis and therapy of human diseases which are either caused by or associated with mitochondrial dysfunction. It dedicates itself to showcasing the tremendous efforts and the progress that has been made over the last decades in developing techniques and protocols for probing, imaging, and manipulating mitochondrial functions. Mitochondrial Medicine: Volume II, Manipulating Mitochondrial Function describes techniques developed for manipulating and assessing mitochondrial function under general pathological conditions and specific disease states. Written in the highly successful Methods in Molecular Biology series format, chapters include introductions to their respective topics, lists of the necessary materials and reagents, step-by-step, readily reproducible laboratory protocols, and tips on troubleshooting and avoiding known pitfalls.Comprehensive and practical, Mitochondrial Medicine provides an essential source of know-how and inspiration to all researchers who are fascinated by this tiny organelle that seems so clearly to control the life and death of a single cell and whole organisms alike.

Although during the following 4 decades biological membrane models have grown in complexity and functionality [6], liposomes are, besides supported bilayers, membrane nanodiscs, and hybrid membranes, still an indisputably important tool for membrane b- physicists and biochemists.

In Cellular and Subcellular Nanotechnology: Methods and Protocols expert researchers in the field detail the most recent advances which have been made in utilizing the enormous potential of nanotechnology for probing, imaging and manipulating life on a cellular and subcellular level.

This volume details protocols on formulation, surface modification, characterization, and application of a variety of pharmaceutical nanocarriers such as micelles, nanoparticles, dendrimers, carbon dots, polymersomes, and others.

This volume details protocols on formulation, surface modification, characterization, and application of a variety of pharmaceutical nanocarriers such as micelles, nanoparticles, dendrimers, carbon dots, polymersomes, and others.

Efforts to describe and model the molecular structure of biological membranes go back to the beginning of the last century. In 1917, Langmuir described membranes as a layer of lipids one molecule thick [1]. Eight years later, Gorter and Grendel concluded from their studies that “the phospholipid molecules that formed the cell membrane were arranged in two layers to form a lipid bilayer” [2]. Danielli and Robertson proposed, in 1935, a model in which the bilayer of lipids is sequestered between two monolayers of unfolded proteins [3], and the currently still accepted fuid mosaic model was proposed by Singer and Nicolson in 1972 [4]. Among those landmarks of biomembrane history, a serendipitous observation made by Alex Bangham during the early 1960s deserves undoubtedly a special place. His fnding that exposure of dry phospholipids to an excess of water gives rise to lamellar structures [5] has opened versatile experimental access to studying the biophysics and biochemistry of biological phospholipid membranes. Although during the following 4 decades biological membrane models have grown in complexity and functionality [6], liposomes are, besides supported bilayers, membrane nanodiscs, and hybrid membranes, still an indisputably important tool for membrane b- physicists and biochemists. In vol. II of this book, the reader will fnd detailed methods for the use of liposomes in studying a variety of biochemical and biophysical membrane phenomena concomitant with chapters describing a great palette of state-of-the-art analytical technologies.

Efforts to describe and model the molecular structure of biological membranes go back to the beginning of the last century. In 1917, Langmuir described membranes as a layer of lipids one molecule thick [1]. Eight years later, Gorter and Grendel concluded from their studies that “the phospholipid molecules that formed the cell membrane were arranged in two layers to form a lipid bilayer” [2]. Danielli and Robertson proposed, in 1935, a model in which the bilayer of lipids is sequestered between two monolayers of unfolded proteins [3], and the currently still accepted fuid mosaic model was proposed by Singer and Nicolson in 1972 [4]. Among those landmarks of biomembrane history, a serendipitous observation made by Alex Bangham during the early 1960s deserves undoubtedly a special place. His fnding that exposure of dry phospholipids to an excess of water gives rise to lamellar structures [5] has opened versatile experimental access to studying the biophysics and biochemistry of biological phospholipid membranes. Although during the following 4 decades biological membrane models have grown in complexity and functionality [6], liposomes are, besides supported bilayers, membrane nanodiscs, and hybrid membranes, still an indisputably important tool for membrane b- physicists and biochemists. In vol. II of this book, the reader will fnd detailed methods for the use of liposomes in studying a variety of biochemical and biophysical membrane phenomena concomitant with chapters describing a great palette of state-of-the-art analytical technologies.

Efforts to describe and model the molecular structure of biological membranes go back to the beginning of the last century. In 1917, Langmuir described membranes as a layer of lipids one molecule thick [1]. Eight years later, Gorter and Grendel concluded from their studies that “the phospholipid molecules that formed the cell membrane were arranged in two layers to form a lipid bilayer” [2]. Danielli and Robertson proposed, in 1935, a model in which the bilayer of lipids is sequestered between two monolayers of unfolded proteins [3], and the currently still accepted fuid mosaic model was proposed by Singer and Nicolson in 1972 [4]. Among those landmarks of biomembrane history, a serendipitous observation made by Alex Bangham during the early 1960s deserves undoubtedly a special place. His fnding that exposure of dry phospholipids to an excess of water gives rise to lamellar structures [5] has opened versatile experimental access to studying the biophysics and biochemistry of biological phospholipid membranes. Although during the following 4 decades biological membrane models have grown in complexity and functionality [6], liposomes are, besides supported bilayers, membrane nanodiscs, and hybrid membranes, still an indisputably important tool for membrane b- physicists and biochemists. In vol. II of this book, the reader will fnd detailed methods for the use of liposomes in studying a variety of biochemical and biophysical membrane phenomena concomitant with chapters describing a great palette of state-of-the-art analytical technologies.

In Cellular and Subcellular Nanotechnology: Methods and Protocols expert researchers in the field detail the most recent advances which have been made in utilizing the enormous potential of nanotechnology for probing, imaging and manipulating life on a cellular and subcellular level. Written in the highly successful Methods in Molecular Biology™ series format, chapters include introductions to their respective topics, lists of the necessary materials and reagents, step-by-step, readily reproducible laboratory protocols, and key tips on troubleshooting and avoiding known pitfalls. Authoritative and Practical, Cellular and Subcellular Nanotechnology: Methods and Protocols seeks to aid scientists in the further study of applying nanotechnology to all areas of biomedical sciences.