MissedEventsG¶
- class HJCFIT.likelihood.MissedEventsG(*args, **kwargs)[source]¶
Computes missed-events likelihood.
Exact calculations take place for times smaller than \(n_{\mathrm{max}}\\tau\). Asymptotic calculations take over for larger times.
- af(self, t) HJCFIT::t_rmatrixLikelihood of an observed open time of length ``t``[source]¶
- Parameters:
t – A scalar or something to a numpy array. In the latter case, the return is an array of matrices.
- property af_factor¶
Factor accounting for minimum shut time
It is the likelihood \(\mathcal{Q}_{AF}e^{-\mathcal{Q}_{FF}\tau}\) of a shut time of length \(\tau\).
- fa(self, t) HJCFIT::t_rmatrixLikelihood of a shut time of length ``t``[source]¶
- Parameters:
t – A scalar or something to a numpy array. In the latter case, the return is an array of matrices.
- property fa_factor¶
Factor accounting for minimum open time
It is the likelihood \(\mathcal{Q}_{FA}e^{-\mathcal{Q}_{AA}\tau}\) of an open time of length \(\tau\).
- property final_vectors¶
Equilibrium vectors for final states.
Computes the right eigenvector of \({}^e\mathcal{G}_{FA}{}^e\mathcal{G}_{AF}\), where \({}^e\mathcal{G}_{FA}\) is the laplacian for \(s=0\) of the likelihood.
- property initial_vectors¶
Equilibrium vectors for initial states.
Computes the left eigenvector of \({}^e\mathcal{G}_{AF}{}^e\mathcal{G}_{FA}\), where \({}^e\mathcal{G}_{AF}\) is the laplacian for \(s=0\) of the likelihood.
- laplace_af(self, s) HJCFIT::t_rmatrixExact missed-events G in Laplace space.[source]¶
The exact expression is \(^{e}\mathcal{G}_{AF}(s) = {}^AR(s) e^{-s\\tau}\mathcal{Q}_{AF}e^{\mathcal{Q}_{FF}\\tau}\), with \({}^AR(s) = [sI - \mathcal{Q}_{AA} - \mathcal{Q}_{AF} \\int_0^\\tau e^{-st}e^{\mathcal{Q}_{FF}t}\\partial t \mathcal{Q}_{FA}]^{-1}\).
- Parameters:
s – The laplace scale. A real scalar or something convertible to a numpy array.
- Returns:
A matrix if the input is scalar, an array of matrices otherwise, with the shape of the input.
- laplace_fa(self, s) HJCFIT::t_rmatrixExact missed-events G in Laplace space.[source]¶
The exact expression is \(^{e}\mathcal{G}_{FA}(s) = {}^FR(s) e^{-s\\tau}\mathcal{Q}_{FA}e^{\mathcal{Q}_{AA}\\tau}\), with \({}^FR(s) = [sI - \mathcal{Q}_{FF} - \mathcal{Q}_{FA} \\int_0^\\tau e^{-st}e^{\mathcal{Q}_{AA}t}\\partial t \mathcal{Q}_{AF}]^{-1}\).
- Parameters:
s – The laplace scale. A real scalar or something convertible to a numpy array.
- Returns:
A matrix if the input is scalar, an array of matrices otherwise, with the shape of the input.
- property nmax¶
Cut-off time of exact calculations in units of \(\\tau\).
- property nopen¶
Number of open-states.
- property nshut¶
Number of shut-states.
- property tau¶
Resolution or maximum length of the missed events.
- property thisown¶
The membership flag
- property tmax¶
Cut-off time of exact calculations \(t_{\mathrm{max}} = (n_{\mathrm{max}}-1)\\tau\).
For practical reasons, the minimum observation time has alreadybeen removed here.