The Application of Laser Light Scattering to the Study of Biological Motion
Several previous Advanced Study Institutes have concentrated on the techniques of light scattering, while the biological appli cations were not fully explored. Many of the techniques are now standardised and are being applied to a wide range of biologically significant problems both in vivo and in...
Other Authors: | |
---|---|
Format: | eBook |
Language: | English |
Published: |
New York, NY
Springer US
1983, 1983
|
Edition: | 1st ed. 1983 |
Series: | NATO Science Series A:, Life Sciences
|
Subjects: | |
Online Access: | |
Collection: | Springer Book Archives -2004 - Collection details see MPG.ReNa |
Table of Contents:
- Analysis of Diffusion of Biological Materials by Quasielastic Light Scattering
- The Diffusion of Compact Macromolecules Through Biological Gels
- Correlation Spectroscopy and Structural Properties of Macromolecular Solutions
- Depolarized Rayleigh Spectra of DNA in Solution
- Double Scattering in a Structured System of Particles
- Membranes and Amphiphilic Systems
- Fluorescence Techniques for the Study of Biological Motion
- Light Scattering by Model Membranes
- The Movement of Molecules Across Membranes: the Thermodynamic Analysis of the Dependence on Structure, Pressure and Temperature
- Light Scattering and Phase Transitions in GMO Membranes
- Photon Correlatior Studies of Phase Transitions in Lipid Monolayers
- Light Scattering from Micellar Solutions — Proposal for a Light Scattering Standard
- Laser LightScattering Study of the Fractionation of Casein Micelles in Skim Milk by Controlled Pore Glass Chromotography
- Physical Principles of Light Scattering
- Structure and Movement in Cells
- Applications of Laser Light Scattering to Biological Systems
- Techniques and Instrumentation
- Correlation Function Profile Analysis in Laser Light Scattering I. General Review on Methods of Data Analysis
- Correlation Function Profile Analysis in Laser Light Scattering II. A Hybrid Photon Correlation Spectrometer
- Electrophoretic Light Scattering: Modern Methods and Recent Applications to Biological Membranes and Polyelectrolytes
- Laser Doppler Velocimetry in a Biological Context
- Implementation of Two Different Techniques for Measuring Lateral Diffusion and Optimisation of the Fluorescence Correlation Spectroscopy Concept
- Laser Doppler Microscopy: Especially as a Method for Studying Brownian Motion and Flow in the Sieve Tubes of Plants
- Studies of Neurotransmitter Receptor Interactions Using Quantitative Video Intensification Microscopy (V.I.M.)
- Macromolecules and Gels
- Motility
- Motility of Living Cells and Micro-organisms
- Chemotaxis and Band Formation of Escherichia coli Studied by Light Scattering
- A Comparison of Models Used in the Analysis of Quasi-Elastic Light Scattering Data from Two Motile Systems: Spermatozoa and Chlamydomonasreinhardtii
- Light Scattering Studies of Biological Populations and Biological Structures
- Systematic Assessment of Sperm Motility
- The Application of Laser Light Scattering to the Study of Photo-Responses of Unicellular Motile Algae
- Concluding Statements
- A Biologist Sums Up
- Epilogue
- Participants
- Structural Studies on Bovine Casein Micelles by Laser Light Scattering
- Piological Applications
- Vesicles
- Structure and Dynamics of Disk Membrane Vesicles
- Vesicle Dynamics in Pollen Tubes
- A Preliminary Rheological Investigation of Living Physarum Endoplasm
- Muscles and Muscle Proteins
- The Application of Quasi-Elastic Light Scattering to the Study of Muscular Contraction
- Dynamic Light Scattering Study of Muscle F-Actin in Solution
- Further Evidence of Cross-Bridge Motion in Limulus Thick Myofilament Suspensions
- Stretch-Induced Transparency Change Associated With Cross-Bridge Deformation in Active Frog’s Muscle
- Actin Polymerization in Cell Cytoplasm
- Ctyoplasmic Streaming
- Dynamic Cellular Phenomena in Physarum Possibly Accessible to Laser Techniques
- Amoeboid Movement in Chaoscarolinensis
- Cytoplasmic Streaming in Plant Cells and Its Relation to the Cytoskeleton
- The Rotation Model for Filament Sliding as Applied to the Cytoplasmic Streaming