Practical fluorescence spectroscopy

<P><STRONG>Chapter 1. Theory of Light and Light Interaction with Matter <BR></STRONG>Basics of Light<BR>Light Polarization<BR>Interaction of Light and Chromophores<BR>Interactions Among Chromphores<BR>Scattering<BR>Summary</P><P><STRONG>Chapter 2. Experimental Basics<BR></STRONG>Types of Cuvettes <BR>Types of Filters <BR>Measuring Transmittance/Absorbance<BR>Factors Affecting the Precision of Absorption Measurement<BR>Effect of Sample Scattering on Measured Transmission and Abosrbance<STRONG><BR></STRONG>Measuring Emission <BR>Efficiency of Collecting Emission: Measuring Quantum Yield <BR>Wavelength Calibration<BR>Instrucment Response<BR>Lamp Profile<STRONG><BR></STRONG>Peaks and Spectral Shapes <BR>Standard Deviation and Height <BR>Sums of Peaks<BR>Noise-Signal-to-Noise Ratio<BR>Sampling Rate<STRONG><BR></STRONG>Bandwidth <BR>Artifacts and Errors <BR>Spectral Overlap<BR>Peak Normalization<STRONG><BR></STRONG>Residuals <BR>Interpolation</P><P><STRONG>Chapter 3. Experiments<BR></STRONG>Introduction <BR>Experiments </P><P><STRONG>Chapter 4. Fluorescence-Steady-State Phenomena<BR></STRONG>Introduction <BR>Experiments</P><P><STRONG>Chapter 5. Steady-State Fluorescence: Applications<BR></STRONG>Introduction <BR>Experiments</P><P><STRONG>Chapter 6. Steady-State Fluorescence Polarization: Anisotropy</STRONG><BR>Introduction <BR>How to Select and Check Polarizers <BR>Transition Moments<BR>Polarized Absorption<BR>Emission Polarization (Anisotropy)<BR>Fundamental and Limiting Anistropies<BR>Consequences of Linear Transition Moments<BR>Determining the G-Factor for Spectrofluorometer<BR>Experiments</P><P><STRONG>Chapter 7. Fluorescence: Time-Resolved Phenomena<BR></STRONG>Introduction <BR>Experiments</P><P><STRONG>Chapter 8. Advanced Experiments<BR></STRONG>Introduction <BR>Experiments</P>