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* Implemented SVD solution for MLE results
* Added standard errors for state free energies and transition rates
* `Multibind.effective_energy_difference` now returns an error estimate in addition to the
macroscopic free energy difference
* Added CHANGELOG and increased version to 0.2.0
Thermodynamic cycles which are defined by a set of individually determined free energy differences are not guaranteed to be thermodynamically consistent.
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## State definitions
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States are minimally defined by a name and should be added to a csv file.
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Macrostates can be added as additional columns with the name of the category being the column header.
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Macrostate classes can be added as additional columns with the name of the class being the column header.
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```text
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name,bound
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1,unbound
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2,bound
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3,bound
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4,unbound
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name,n_protons,n_sodium
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1,0,0
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2,0,1
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3,1,0
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4,1,1
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```
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## Graph definition
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Multibind allows for three process type, which are specified under the ligand column:
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- "H+": proton binding which takes as its free energy value, the pKa.
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- "helm": undefined process which takes a free energy directly in kT.
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- general ligand: binding of a general ligand. The standard state free energy in kT. By defining the concentration to build the cycle, this free energy becomes concentration dependent.
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- "helm": undefined process which takes a free energy directly in kT.
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In defining the edges, always treat the free energies as going from state 1 to state 2.
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In defining the edges, always treat the free energies as going from state 1 to state 2 for that process.
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For 'H+', state 1 should be the deprotonated state and state 2 is the protonated state.
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For a general ligand, state 1 is the unbound state and state 2 is the bound state.
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Failure to do so will assign the negative of the desired free energy to that edge.
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