Dietmar Pum – författare

Crystalline Bacterial Cell Surface Proteins assembles information on the understanding of the occurrence, structure, chemistry, genetics, assembly, function, and application potential of S-layers. The chapters are designed to stand independent of each other and provide a complete survey of the different topics in S-layer research. This book is intended to stimulate further development in basic and applied S-layer research.- Assembles present-day understanding of S-layers- Provides a detailed survey of the entire field of basic and applied S-layer research- Potential for broad application in biotechnology, vaccine development, diagnostics, molecular nanotechnology, and biomimetics

Crystalline Bacterial Cell Surface Proteins assembles information on the understanding of the occurrence, structure, chemistry, genetics, assembly, function, and application potential of S-layers. The chapters are designed to stand independent of each other and provide a complete survey of the different topics in S-layer research. This book is intended to stimulate further development in basic and applied S-layer research. Assembles present-day understanding of S-layers Provides a detailed survey of the entire field of basic and applied S-layer research Potential for broad application in biotechnology, vaccine development, diagnostics, molecular nanotechnology, and biomimetics

Crystalline surface layers (S-layers) represent an almost universal feature of archaebacterial cell envelopes and can be found in gram-positive and gram-negative eubacterial species from nearly all phylogenetic branches. S-layers consist of a single protein- or glycoprotein species and thus can be considered as one of the most primitive membrane structures developed during evolution. Prokaryotes carrying S-layers are ubiquitously found in every part of the biosphere. This supports the concept of a general supramolecular "porous crystalline surface layer" fulfilling a broad spectrum of functions which are strongly dependent on the particular environmental and ecological conditions. Their structural simplicity makes S-layers a suitable model for analyzing structure-function relationships as well as dynamic aspects of membrane morphogenesis.