Navigating exponentially large spaces in biology : methods for directed evolution and smFRET time series analysis
The recent explosion of high throughput technologies in many fields of biology has necessitated the use of sophisticated algorithms to guide experimental design and analyze results. This thesis explores two such fields: directed protein evolution and single molecule fluorescence resonance energy tra...
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ndltd-columbia.edu-oai-academiccommons.columbia.edu-10.7916-D8Z325MN2019-05-09T15:13:32ZNavigating exponentially large spaces in biology : methods for directed evolution and smFRET time series analysisBronson, Jonathan Eiseman2011ThesesChemistryThe recent explosion of high throughput technologies in many fields of biology has necessitated the use of sophisticated algorithms to guide experimental design and analyze results. This thesis explores two such fields: directed protein evolution and single molecule fluorescence resonance energy transfer analysis. Although the methodologies and applications of the fields differ greatly, they are both limited by a process which scales exponentially with problem size. In the former case, the problem is determining which combination of amino acids should be mutated to enhance or create protein function. In the latter case, the problem is inferring the number of conformations a molecule explores during an experiment and the probability of being in each state at each time point in the experiment. Methods to address both problems will be presented in this thesis.Englishhttps://doi.org/10.7916/D8Z325MN |
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English |
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Chemistry |
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Chemistry Bronson, Jonathan Eiseman Navigating exponentially large spaces in biology : methods for directed evolution and smFRET time series analysis |
description |
The recent explosion of high throughput technologies in many fields of biology has necessitated the use of sophisticated algorithms to guide experimental design and analyze results. This thesis explores two such fields: directed protein evolution and single molecule fluorescence resonance energy transfer analysis. Although the methodologies and applications of the fields differ greatly, they are both limited by a process which scales exponentially with problem size. In the former case, the problem is determining which combination of amino acids should be mutated to enhance or create protein function. In the latter case, the problem is inferring the number of conformations a molecule explores during an experiment and the probability of being in each state at each time point in the experiment. Methods to address both problems will be presented in this thesis. |
author |
Bronson, Jonathan Eiseman |
author_facet |
Bronson, Jonathan Eiseman |
author_sort |
Bronson, Jonathan Eiseman |
title |
Navigating exponentially large spaces in biology : methods for directed evolution and smFRET time series analysis |
title_short |
Navigating exponentially large spaces in biology : methods for directed evolution and smFRET time series analysis |
title_full |
Navigating exponentially large spaces in biology : methods for directed evolution and smFRET time series analysis |
title_fullStr |
Navigating exponentially large spaces in biology : methods for directed evolution and smFRET time series analysis |
title_full_unstemmed |
Navigating exponentially large spaces in biology : methods for directed evolution and smFRET time series analysis |
title_sort |
navigating exponentially large spaces in biology : methods for directed evolution and smfret time series analysis |
publishDate |
2011 |
url |
https://doi.org/10.7916/D8Z325MN |
work_keys_str_mv |
AT bronsonjonathaneiseman navigatingexponentiallylargespacesinbiologymethodsfordirectedevolutionandsmfrettimeseriesanalysis |
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