Detecting the Number of States in Raw Trajectories
In this paper, we present a simple method to detect the number of states in a stochastic trajectory. The method quantifies the degree of correlations in stochastic trajectories, computes the correlation function with two variables (the three-point correlation function), then finds the rank of the co...
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doaj-1d18bb2a61ea4e86b98f1efa8cbe139b2021-02-09T00:45:13ZengWorld Scientific PublishingReports in Advances of Physical Sciences2424-94242529-752X2020-03-01412050002-12050002-2210.1142/S242494242050002410.1142/S2424942420500024Detecting the Number of States in Raw TrajectoriesOphir Flomenbom0Flomenbom-BPS, 19 Louis Marshal Street, Tel Aviv, 62668 IsraelIn this paper, we present a simple method to detect the number of states in a stochastic trajectory. The method quantifies the degree of correlations in stochastic trajectories, computes the correlation function with two variables (the three-point correlation function), then finds the rank of the computed matrix (the method identifies the signal singular values, those that are beyond the noise). The computed rank is the number of states in the discrete trajectory, yet meaningful also in continuous trajectories; in such cases, the rank is compiled with the number of terms in the correlation function to determine the number of fluctuating independent potential profiles in the approximated discrete representation of the process.http://www.worldscientific.com/doi/epdf/10.1142/S2424942420500024rank of noisy matrixsolving single moleculesstates in trajectories |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Ophir Flomenbom |
spellingShingle |
Ophir Flomenbom Detecting the Number of States in Raw Trajectories Reports in Advances of Physical Sciences rank of noisy matrix solving single molecules states in trajectories |
author_facet |
Ophir Flomenbom |
author_sort |
Ophir Flomenbom |
title |
Detecting the Number of States in Raw Trajectories |
title_short |
Detecting the Number of States in Raw Trajectories |
title_full |
Detecting the Number of States in Raw Trajectories |
title_fullStr |
Detecting the Number of States in Raw Trajectories |
title_full_unstemmed |
Detecting the Number of States in Raw Trajectories |
title_sort |
detecting the number of states in raw trajectories |
publisher |
World Scientific Publishing |
series |
Reports in Advances of Physical Sciences |
issn |
2424-9424 2529-752X |
publishDate |
2020-03-01 |
description |
In this paper, we present a simple method to detect the number of states in a stochastic trajectory. The method quantifies the degree of correlations in stochastic trajectories, computes the correlation function with two variables (the three-point correlation function), then finds the rank of the computed matrix (the method identifies the signal singular values, those that are beyond the noise). The computed rank is the number of states in the discrete trajectory, yet meaningful also in continuous trajectories; in such cases, the rank is compiled with the number of terms in the correlation function to determine the number of fluctuating independent potential profiles in the approximated discrete representation of the process. |
topic |
rank of noisy matrix solving single molecules states in trajectories |
url |
http://www.worldscientific.com/doi/epdf/10.1142/S2424942420500024 |
work_keys_str_mv |
AT ophirflomenbom detectingthenumberofstatesinrawtrajectories |
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