Chemical Biophysics: Quantitative Analysis of Cellular Systems

List of Figures

Chapter 1: Concepts from Physical Chemistry

Figure 1.1: Illustration of the Boltzmann probability law of Equations (1.6) and (1.7). The state probability distribution is plotted at two different temperatures for a system with ten possible microstates with energy ranging from 10 ? 21 to 10 ? 20 joules. At the lower temperature (T = 273 K), the lower-energy states are significantly more probable than the higher-energy states. At the higher temperature (T = 1000 K), the energy distribution becomes more uniform than at the lower temperature.
Figure 1.2: Illustration of an enzyme binding and reaction scheme for the reaction .
Figure 1.3: Illustration of a potassium ion concentration gradient across a cell membrane. The concentration gradient and the electrostatic potential oppose and balance one another in thermodynamic equilibrium.

Chapter 2: Conventions and Calculations for Biochemical Systems

Figure 2.1: Illustration of two species of ATP: ATP 4? and HATP 3?.
Figure 2.2: Mole fractions of ATP 4? and HATP 3? as functions of pH, predicted by Equation (2.5), given pK = 6.47.
Figure 2.3: Mole fractions of ATP 4? and HATP 3? as functions of pH, predicted by Equation (2.11), given pK 1 = 6.47, pK 2 = 3.83.
Figure 2.4: Transformed equilibrium Gibbs free energy as a function of pH, predicted from Equation (2.17), using the reference K eq = 0.1, and the pK values from Table 2.1.
Figure 2.5: Upper panel shows change in pH as a...

UNLIMITED FREE
ACCESS
TO THE WORLD'S BEST IDEAS

SUBMIT
Already a GlobalSpec user? Log in.

This is embarrasing...

An error occurred while processing the form. Please try again in a few minutes.

Customize Your GlobalSpec Experience

Category: pH Transmitters
Finish!
Privacy Policy

This is embarrasing...

An error occurred while processing the form. Please try again in a few minutes.