unfolding force is proportional to time, so we expect exponential
population decay, even with multiple unfolding domains.
-For example, with a spring constant
+Analytically, with a spring constant
.. math:: k = df/dx
.. math:: f = kvt + f_0 \;.
-With an unfolding rate constant
-
-.. math:: K = 1 \text{frac/s}
-
-The population follows
+With an unfolding rate constant :math:`K`, the population follows
.. math::
- dp/dt = Kp = 1 \text{s^{-1}}
+ dp/dt = Kp
p(t) = exp(-tK) = exp(-(f-f_0)K/kv) = p(f) \;.
Therefore, a histogram of unfolding vs. force :math:`p(f)` normalized