Part
I Analyzing Physical Properties of the Bacterial Cell Wall
1. Atomic
Force Microscopic Analysis of Bacterial Cell Wall Peptidoglycan Architecture Robert D. Turner, Jamie K. Hobbs, and
Simon J. Foster
2. Ultra-Sensitive
High Throughput Analytical Methods to Identify Novel Components Involved in Cell
Wall Biology and to Study Bacterial Cell Wall Dynamics Laura Alvarez, Sara B. Hernandez, Miguel A.
de Pedro, and Felipe Cava
Part
II Genome-Wide Approaches for the Identification of Gene Products with Roles in
Cell Wall Homeostasis
3. Microarray
Analysis to Monitor Bacterial Cell Wall Homeostasis Hee-Jeon Hong and Andy Hesketh
4. Cell Shaving
and False Positive Control Strategies Coupled to Novel Statistical Tools to Profile
Gram-Positive Bacterial Surface ProteomesNestor Solis and Stuart J. Cordwell
5. Differential
Proteomics Based on Multidimensional Protein Identification Technology to Understand
the Biogenesis of Outer Membrane of Escherichia
coli Alessandra M. Martorana, Sara Motta, Paola Sperandeo, Pierluigi Mauri, and
Alessandra Polissi
6. Random
Transposon Mutagenesis for Cell-Envelope Resistant to Phage Infection Ruth
Reyes-Cortés, Emma S. Arguijo-Hernández, Marco A. Carballo-Ontiveros, Eva
Martínez-Peñafiel and Luis Kameyama
Part
III Functional Analysis of Cell-Wall Associated Proteins
7.
Zymographic
Techniques for the Analysis of Bacterial Cell Wall in Bactillus Tatsuya Fukushima and Junichi Sekiguchi
8. Liquid Chromatography-Tandem Mass Spectrometry
to Define Sortase Cleavage Products Andrew Duong, Kalinka Koteva, Danielle L.
Sexton, and Marie A. Elliot
9. Genetics
and Cell Morphology Analyses of the Actinomyces
oris srtA Mutant Chenggang Wu, Melissa Elizabeth
Reardon-Robinson, and Hung Ton-That
Part
IV Reporter Assays for Cell Wall Stress
10. Construction
of a Bioassay System to Identify Extracellular Agents Targeting Bacterial Cell Envelope Hee-Jeon Hong
11. Luciferase
Reporter Gene System to Detect Cell Wall Stress Stimulon Induction in Staphylococcus aureus Vanina Dengler and Nadine McCallum
Part
V Analysis of the Non-Protein Components of the Cell Wall
12. Extraction
and Analysis of Peptidoglycan Cell Wall Precursors Elisa Binda, Lùcia Carrano, Giorgia
Letizia Marcone, and Flavia Marinelli
13. Continuous
Fluorescence Assay for Peptidoglycan Glycosyltransferases Alexander J. F. Egan and Waldemar
Vollmer
14. Analysis
of Peptidoglycan Fragment Release Ryan E.
Schaub, Jonathan D. Lenz, and Joseph P. Dillard
15.
Analysis of Cell Wall Teichoic Acids in Staphylococcus aureus Gonçalo
Covas, Filipa Vaz, Gabriela Henriques, Mariana G. Pinho, and Sérgio R. Filipe
16. Analysis of Bacterial Cell Surface
Chemical Composition Using Cryogenic X-Ray Photoelectron Spectroscopy Madeleine
Ramstedt and Andrey Shchukarev
Part
VI Bioinformatics and Computational Biology Based Approaches
17. Biophysical Measurements of Bacterial
Cell Shape Jeffrey P. Nguyen, Benjamin P. Bratton, and
Joshua W. Shaevitz
18. Coarse-Grained Molecular Dynamics Simulations
of the Bacterial Cell Wall Lam T. Nguyen, James C.
Gumbart, and Grant J. Jensen
19. Structural
Comparison and Simulation of Pneumococcal Peptidoglycan Hydrolase LytB Xiao-Hui Bai, Qiong Li, Yong-Liang
Jiang, Jing-Ren Zhang, Yuxing Chen, and Cong-Zhao Zhou
This volume brings
together the most widely used and important protocols currently being employed
in researching and understanding bacterial cell wall homeostasis. Chapters in Bacterial
Cell Wall Homeostasis cover a variety of subjects, such as: modern
microscopy techniques and other biophysical methods used to characterize the
subcellular structure of the bacterial cell wall; high-throughput approaches
that can be used to identify all the genes and proteins that participate in the
correct functioning of an organism’s cell wall; protocols for assaying
individual gene products for specific cell wall functions or identify chemicals
with inhibitory activity against the cell wall; and methods for analyzing the non-protein
components of the cell wall and the increasing use of computational approaches
for predicting and modeling cell wall related functions and processes. Written
in the highly successful Methods in Molecular Biology series format,
chapters include introduction to their respective topics, lists of the
necessary material and reagents, step-by-step, readily reproducible laboratory
protocols, and tips on troubleshooting and avoiding known pitfalls.
Thorough
and cutting-edge, Bacterial Cell Wall Homeostasis: Methods and Protocols
emphasizes the diversity of the research taking place in bacterial cell wall
homeostasis, and explains how the integration of information from across
multiple disciplines is going to be essential if a holistic understanding of
this important process is to be obtained.