Physical Methods in Plant Sciences | ISBN 9783642836114

Physical Methods in Plant Sciences

herausgegeben von Hans-Ferdinand Linskens und John F. Jackson
Mitwirkende
Unterstützt vonC. Buschmann
Herausgegeben vonHans-Ferdinand Linskens
Unterstützt vonR. Hampp
Herausgegeben vonJohn F. Jackson
Unterstützt vonG. Heinrich
Unterstützt vonJ.S. Heslop-Harrison
Unterstützt vonA.J. Hoff
Unterstützt vonF. Homble
Unterstützt vonA. Jenard
Unterstützt vonM.J.M. Martens
Unterstützt vonK. Omasa
Unterstützt vonW.H., Jr. Outlaw
Unterstützt vonH. Prehn
Unterstützt vonD. Rhodes
Unterstützt vonA. Rieger
Buchcover Physical Methods in Plant Sciences  | EAN 9783642836114 | ISBN 3-642-83611-9 | ISBN 978-3-642-83611-4

Physical Methods in Plant Sciences

herausgegeben von Hans-Ferdinand Linskens und John F. Jackson
Mitwirkende
Unterstützt vonC. Buschmann
Herausgegeben vonHans-Ferdinand Linskens
Unterstützt vonR. Hampp
Herausgegeben vonJohn F. Jackson
Unterstützt vonG. Heinrich
Unterstützt vonJ.S. Heslop-Harrison
Unterstützt vonA.J. Hoff
Unterstützt vonF. Homble
Unterstützt vonA. Jenard
Unterstützt vonM.J.M. Martens
Unterstützt vonK. Omasa
Unterstützt vonW.H., Jr. Outlaw
Unterstützt vonH. Prehn
Unterstützt vonD. Rhodes
Unterstützt vonA. Rieger

Inhaltsverzeichnis

  • Laser—Doppler Vibrometer Measurements of Leaves.
  • 1 Introduction.
  • 2 Materials and Methods.
  • 3 Two Simple Models for Vibrating Leaf Tissue.
  • 4 Experiments and Results with Clamped Leaves.
  • 5 Experiments and Results with Free Hanging Leaves.
  • 6 Discussion.
  • References.
  • Triplet States in Photosynthesis: Linear Dichroic Optical Difference Spectra via Magnetic Resonance.
  • 1 Why Triplet States Are of Interest.
  • 2 Information Obtainable from ODMR Spectroscopy.
  • 3 Applications of ODMR in Photosynthesis.
  • 4 Conclusions and Prospects.
  • Laser Physical Methods: Laser Microprobe Mass Spectrometry.
  • 2 Historical Survey.
  • 3 Instrumentation.
  • 4 Specimen Preparation.
  • 5 Features of the Instrument.
  • 6 Experimental Parameters of Different Groups.
  • 7 Ion Formation Mechanisms and Characteristics of Spectra.
  • 8 Efficiency of Different Microprobe Methods.
  • 9 LAMMA Applications, Inorganic Ions.
  • 10 LAMMA Applications Organic Compound Analysis.
  • 11 Stable Isotopes as Markers.
  • Fast Atom Bombardment Mass Spectrometry.
  • 1 Introduction to Fast Atom Bombardment Mass Spectrometry.
  • 2 Quantification and Stable Isotope Analysis of Quaternary Ammonium Compounds.
  • 3 Quantification and Stable Isotope Analysis of Amino Acids.
  • 4 Analysis of Oligosaccharides.
  • 5 Analysis of Polypeptides.
  • 6 Analysis of Glycoproteins.
  • 7 Nucleotide Analysis.
  • 8 Structural Characterization of Miscellaneous Secondary Plant Products.
  • 9 Concluding Remarks.
  • 10 References.
  • Microdissection and Biochemical Analysis of Plant Tissues.
  • 2 Freeze Stop.
  • 3 Storage of Frozen Tissues.
  • 4 Freeze-Drying.
  • 5 Sample Containers.
  • 6 Storage of Freeze-Dried Material.
  • 7 Dissection of Tissue.
  • 8 Determination of Sample Mass.
  • 9 Biochemical Analysis of Samples.
  • 10 Example for theComplete Procedure: Determination of Fumarase Activity.
  • 11 Examples for Application: Intercellular Compartmentation of Physiological and Biochemical Properties in Plant Tissues.
  • 12 Final Remarks.
  • Photoacoustic Spectroscopy — Photoacoustic and Photothermal Effects.
  • 2 Physics of the Photoacoustic Effect.
  • 3 Measuring Systems.
  • 4 Applications in Plant Analysis.
  • 5 Further Development.
  • Membrane Operational Impedance Spectra of Plant Cells.
  • 2 The Laplace Transform.
  • 3 Measuring Techniques.
  • 4 Data Analysis Technique.
  • 5 The Concept of Membrane Capacitance.
  • 6 Conclusion.
  • Image Instrumentation Methods of Plant Analysis.
  • 2 Image Sensor Selection and Processing System.
  • 3 TV Spectral Image Instrumentation.
  • 4 Remote-Control Light Microscope System.
  • 5 Image Instrumentation of Chlorophyll Fluorescence Transients.
  • 6 Thermal Image Instrumentation.
  • 7 Computed Tomography.
  • Energy Dispersive X-Ray Analysis.
  • 2 Principles — Application and Physics.
  • 3 The Specimen.
  • 4 The Spectrum.
  • 5 Maps and Line Scans.
  • 6 Quantitative Analysis.
  • 7 Alternatives to EDX.
  • 8 Conclusions.