Biophysical techniques 1st Edition by Iain D Campbell – Ebook PDF Instant Download/Delivery: 0199642141, 9780199642144
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Product details:
ISBN 10: 0199642141
ISBN 13: 9780199642144
Author: Iain D Campbell
Biophysical techniques 1st Table of contents:
1. Introduction
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What are “biophysical techniques”?
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What questions can biophysical techniques answer?
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Which technique to use?
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Organization of this book
2. Molecular Principles
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2.1 Molecules and interactions
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Introduction
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Box 2.1: Atoms and elements
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Box 2.2: Kinetic model of gases
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Non-covalent interactions
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Box 2.3: Electrostatics, dielectrics, and polarity
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Box 2.4: Molecular biology tools and base pairing
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Binding
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3. Transport and Heat
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3.1 Diffusion, osmosis, viscosity, and friction
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Introduction
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Diffusion
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Osmosis
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Application of a force to a molecule in solution
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Viscosity
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Box 3.1: The frictional coefficient, f, depends on molecular shape
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3.2 Analytical centrifugation
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Introduction
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Some basic principles of sedimentation
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Sedimentation velocity
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Sedimentation equilibrium
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Density gradient sedimentation
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3.3 Chromatography
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Introduction
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Theory
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Chromatography techniques
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Quantitative chromatography
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3.4 Electrophoresis
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Introduction
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Theory
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Experimental
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Some electrophoresis systems
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3.5 Mass spectrometry
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Introduction
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Ionization
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Ion sorting/analysis
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Applications of mass spectrometry
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3.6 Electrophysiology
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Introduction
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Membrane potential
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Action potentials
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Experimental
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Propagation of an action potential in a neuron
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3.7 Calorimetry
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Introduction
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Isothermal titration calorimetry
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Differential scanning calorimetry
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Box 3.2: Heat capacity
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4. Scattering, Refraction, and Diffraction
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4.1 Scattering of radiation
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Introduction
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Scattering theory
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Box 4.1: Weight average molecular weight
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Turbidity
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Solution scattering and molecular shape
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Box 4.2: Radii of gyration, RGR_GRG, and hydration, RHR_HRH
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Dynamic light scattering
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Box 4.3: Correlation functions
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4.2 Refraction, evanescent waves, and plasmons
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Introduction
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Box 4.4: Classical optics
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Evanescent waves
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Surface plasmon resonance
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Box 4.5: The streptavidin/biotin complex
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4.3 Diffraction
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Introduction
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Principles of diffraction
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Box 4.6: Single particle imaging with X-ray laser
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Diffraction experiments
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Interpretation of diffraction data
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Other crystallography techniques
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Achievements of crystallography
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5. Electronic and Vibrational Spectroscopy
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5.1 Introduction to absorption and emission spectra
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Introduction
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Energy states
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Absorption
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Box 5.1: Transition dipole moments and transition probability
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Emission
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Box 5.2: The laser
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5.2 Infrared and Raman spectroscopy
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Introduction
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IR spectra and applications
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Raman scattering
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Applications of Raman spectroscopy
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5.3 Ultraviolet/visible spectroscopy
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Introduction
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Measurement of electronic spectra
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Electronic energy levels and transitions
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Absorption properties of some key chromophores
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Applications of UV/visible spectra
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Box 5.3: Isosbestic points
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Properties associated with the direction of the transition dipole moment
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Monitoring rapid reactions
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5.4 Optical activity
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Introduction
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The phenomenon
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Measurement
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Applications of CD spectra
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5.5 Fluorescence
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Introduction
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Physical basis of fluorescence
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Measurement
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Fluorophores
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Environmental effects on fluorescence
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Fluorescence anisotropy
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Förster resonance energy transfer (FRET)
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Exploitation of fluorescence sensitivity
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Box 5.4: Immunofluorescence
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Box 5.5: Fluorescence in situ hybridization (FISH)
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Phosphorescence
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5.6 X-ray spectroscopy
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Introduction
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Theory
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Measurement
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Edge spectra
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EXAFS
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Analytical uses of X-ray emission
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6. Magnetic Resonance
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6.1 Nuclear magnetic resonance
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Introduction
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Box 6.1: Magnetism
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The NMR phenomenon
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Measurement
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The spectral parameters in NMR
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Applications of NMR
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Other NMR applications
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6.2 Electron paramagnetic resonance
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Introduction
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Measurement
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Spectral parameters
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Box 6.2: Spin labels
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Spectral anisotropy
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Applications of EPR
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7. Microscopy and Single Molecule Studies
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7.1 Microscopy
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Introduction
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Factors that influence resolution
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Box 7.1: Diffraction at a slit
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The optical microscope
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The fluorescence microscope
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Electron microscopy
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Box 7.2: X-ray tomography
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Box 7.3: The contrast transfer function (CTF)
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The scanning electron microscope
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Scanning probe microscopy
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7.2 Manipulation and observation of single molecules
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Introduction
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Manipulation by force
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Fluorescence methods
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8. Computational Biology
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8.1 Computational biology
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Introduction
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Mathematical modeling of systems
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Bioinformatics
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Molecular modeling
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Box 8.1: Force and potential energy
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9. Tutorials
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1. Biological molecules
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2. Thermodynamics
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3. Motion and energy of particles in different force fields
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4. Electrical circuits
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5. Mathematical representation of waves
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6. Fourier series, Fourier transforms, and convolution
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7. Oscillators and simple harmonic motion
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8. Electromagnetic radiation
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9. Quantum theory and the Schrödinger wave equation
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10. Atomic and molecular orbitals, their energy states, and transitions
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11. Dipoles, dipole–dipole interactions, and spectral effects
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