Biofilms

Abelson, John N.; Simon, Melvin I.

In stock
Regular price 74.000 KD inc. VAT
License
Table of contents
  • Table of Contentsv
  • Contributors to Volume 310xi
  • Prefacexvii
  • Volumes in Seriesxix
  • Section I: Molecular Biology of Biofilm Bacteria1
  • Chapter 1. Reporter Systems for Microscopic Analysis of Microbial Biofilms3
  • Chapter 2. Molecular Tools for Study of Biofilm Physiology20
  • Chapter 3. Quorum Sensing Signals in Development of Pseudomonas aeruginosa Biofilms43
  • Chapter 4. Monitoring Gene Expression in Biofilms56
  • Chapter 5. In Situ Analysis of Microbial Biofilms by rRNA- Targeted Oligonucleotide Probing79
  • Chapter 6. Genetic Approaches to Study of Biofilms91
  • Chapter 7. Identifying in Vivo Expressed Streptococcal Genes in Endocarditis109
  • Chapter 8. Quorum Sensing, Gene Expression, and Pseudomonas Biofilms117
  • Section II: Microscopic Methods of Biofilm Formation and Physiology129
  • Chapter 9. Confocal Laser Scanning Microscopy for Analysis of Microbial Biofilms131
  • Chapter 10. Lectin-Binding Analysis in Biofilm Systems145
  • Chapter 11. Spatially Resolved, Quantitative Determination of Luciferase Activity by Photon-Counting152
  • Chapter 12. Microscopy Flowcells: Perfusion Chambers for Real-Time Study of Biofilms160
  • Chapter 13. Fluorescent Probes Applied to Physiological and Structural Characterization of Bacterial166
  • Chapter 14. Deconvolution Fluorescence Microscopy for Observation and Analysis of Membrane Biofilm A178
  • Chapter 15. Bacterial Biofilms: Strategies for Preparing Glycocalyx for Electron Microscopy194
  • Section III: Flow and Steady-State Methods205
  • Chapter 16. Robbins Device in Biofilm Research207
  • Chapter 17. Controlled Environment Model for Accumulation of Biofilms of Oral Bacteria216
  • Chapter 18. Laminar Flow Chamber for Continuous Monitoring of Biofilm Formation and Succession224
  • Chapter 19. Perfused Biofilm Fermenters232
  • Chapter 20. Laboratory Techniques for Studying Biofilm Growth, Physiology, and Gene Expression in Fl248
  • Chapter 21. Use of Constant Depth Fermenter in Studies of Biofilms of Oral Bacteria264
  • Chapter 22. Use of Continuous Flow Techniques in Modeling Dental Plaque Biofilms279
  • Chapter 23. Steady-State Biofilm: Practical and Theoretical Models296
  • Chapter 24. Spatial Organization of Oral Bacteria in Biofilms322
  • Section IV: Biofilms in Archaea333
  • Chapter 25. Biofilm Formation in Hyperthermophilic Archaea335
  • Section V: Physical Methods351
  • Chapter 26. Use of Conductance Measurements for Determination of Enzymatic Degradation of Microbial353
  • Chapter 27. Evaluation and Quantification of Bacterial Attachment, Microbial Activity, and Biocide E361
  • Chapter 28. Surface Analyses by X-Ray Photoelectron Spectroscopy in Study of Bioadhesion and Biofilm375
  • Section VI: Physiology of Biofilm-Associated Microorganisms391
  • Chapter 29. Evaluating Biofilm Activity in Response to Mass Transfer-Limited Bioavailability of Sorb393
  • Chapter 30. Bacterial Survival in Biofilms: Probes for Exopolysaccharide and Its Hydrolysis, and Mea403
  • Chapter 31. Biosurfactants Produced by Lactobacillus426
  • Chapter 32. Proteome Analysis of Biofilms: Growth of Bacillus subtilis on Solid Medium as Model433
  • Chapter 33. Physiologic Homeostasis and Stress Responses of Oral Biofilms441
  • Section VII: Substrate for Biofilm Development461
  • Chapter 34. Biofouling of Membranes: Membrane Preparation, Characterization, and Analysis of Bacteri463
  • Chapter 35. Simple Physical Model to Study Formation and Physiology of Biofilms on Urethral Catheter494
  • Chapter 36. Studying Initial Phase of Biofilm Formation: Molecular Interaction of Host Matrix Protei501
  • Chapter 37. Studying Biofilm Formation of Mutans Streptococci513
  • Chapter 38. Models for Studying Initial Adhesion and Surface Growth in Biofilm Formation on Surfaces523
  • Chapter 39. Recovery and Characterization of Biofilm Bacteria Associated with Medical Devices534
  • Chapter 40. Primary Adhesion of Pseudomonas aeruginosa to Inanimate Surfaces Including Biomaterials551
  • Chapter 41. Biofilm and Biofilm-Related Encrustation of Urinary Tract Devices558
  • Chapter 42. Detection of Prosthetic Joint Biofilm Infection Using Immunological and Molecular Techni566
  • Chapter 43. In Vitro and in Vivo Models of Bacterial Biofilms577
  • Section VIII: Antifouling Methods597
  • Chapter 44. Pseudomonas aeruginosa Biofilm Sensitivity to Biocides: Use of Hydrogen Peroxide as Mode599
  • Chapter 45. Measuring Antimicrobial Effects on Biofilm Bacteria. From Laboratory to Field608
  • Chapter 46. Quantitative Assessment of Biocide Control of Biofilms Including Legionella pneumophila629
  • Chapter 47. Quantifying Effects of Antifouling Paints on Microbial Biofilm Formation637
  • Chapter 48. Candida Biofilms and Their Susceptibility to Antifungal Agents644
  • Chapter 49. Enhanced Bacterial Biofilm Control Using Electromagnetic Fields in Combination with Anti656
  • Author Index671
  • Subject Index701
Book details
  • Vendor Elsevier S & T
  • SKU 9780121822118
  • ISBN-13 9780080548722
  • Author Abelson, John N.; Simon, Melvin I.
  • Category Medical
  • Subject Pathology

Do you have questions about this book?

Ask an expert!

Volume 310 of Methods in Enzymology is the first volume devoted solely to biofilm research methods. It provides a contemporary source book for virtually any kind of experimental approach involving biofilms. It includes bioengineering, molecular, genetic, microscopic, chemical, continuous culture, and physical methods. This volume will serve as a starting point for future developments.
The critically acclaimed laboratory standard for more than forty years, Methods in Enzymology is one of the most highly respected publications in the field of biochemistry. Since 1955, each volume has been eagerly awaited, frequently consulted, and praised by researchers and reviewers alike. Now with more than 300 volumes (all of them still in print), the series contains much material still relevant today--truly an essential publication for researchers in all fields of life sciences.