Entrainment of Bacterial Synthetic Oscillators using Proteolytic Queueing and Aperiodic Signaling

The bulk of this thesis considers how biological rhythms (oscillators) can be made to synchronize their rhythms by virtue of coupling to an external signal. Such externally controlled synchronization, known as entrainment, is explored using a synthetic biology approach in E.~coli, where I have use...

Full description

Bibliographic Details
Main Author: Hochendoner, Philip Louis
Other Authors: Physics
Format: Others
Published: Virginia Tech 2015
Subjects:
Online Access:http://hdl.handle.net/10919/64373
id ndltd-VTETD-oai-vtechworks.lib.vt.edu-10919-64373
record_format oai_dc
spelling ndltd-VTETD-oai-vtechworks.lib.vt.edu-10919-643732021-05-19T05:27:12Z Entrainment of Bacterial Synthetic Oscillators using Proteolytic Queueing and Aperiodic Signaling Hochendoner, Philip Louis Physics Mather, William Pleimling, Michel J. Robinson, Hans D. Cheng, Shengfeng Biophysics Synthetic Biology Entrainment Queueing The bulk of this thesis considers how biological rhythms (oscillators) can be made to synchronize their rhythms by virtue of coupling to an external signal. Such externally controlled synchronization, known as entrainment, is explored using a synthetic biology approach in E.~coli, where I have used rationally designed gene circuits as an experimental model. Two novel modes of entrainment are explored: entrainment by competition between components for degradation, and entrainment by a noisy (aperiodic) stimulus. Both of these modes of entrainment can be shown to strongly synchronize ensembles of synthetic gene oscillators, and thus, these modes of entrainment may be important to understand the appearance of synchrony in natural systems. In addition to the study of entrainment, this thesis contains a general background of relevant material, contributions to the biophysics of multisite proteases, and updated protocols for experimental procedures in microfluidics and microscopy. Ph. D. 2015-12-26T09:04:53Z 2015-12-26T09:04:53Z 2015-12-12 Dissertation vt_gsexam:6884 http://hdl.handle.net/10919/64373 In Copyright http://rightsstatements.org/vocab/InC/1.0/ ETD application/pdf application/pdf application/x-zip-compressed Virginia Tech
collection NDLTD
format Others
sources NDLTD
topic Biophysics
Synthetic Biology
Entrainment
Queueing
spellingShingle Biophysics
Synthetic Biology
Entrainment
Queueing
Hochendoner, Philip Louis
Entrainment of Bacterial Synthetic Oscillators using Proteolytic Queueing and Aperiodic Signaling
description The bulk of this thesis considers how biological rhythms (oscillators) can be made to synchronize their rhythms by virtue of coupling to an external signal. Such externally controlled synchronization, known as entrainment, is explored using a synthetic biology approach in E.~coli, where I have used rationally designed gene circuits as an experimental model. Two novel modes of entrainment are explored: entrainment by competition between components for degradation, and entrainment by a noisy (aperiodic) stimulus. Both of these modes of entrainment can be shown to strongly synchronize ensembles of synthetic gene oscillators, and thus, these modes of entrainment may be important to understand the appearance of synchrony in natural systems. In addition to the study of entrainment, this thesis contains a general background of relevant material, contributions to the biophysics of multisite proteases, and updated protocols for experimental procedures in microfluidics and microscopy. === Ph. D.
author2 Physics
author_facet Physics
Hochendoner, Philip Louis
author Hochendoner, Philip Louis
author_sort Hochendoner, Philip Louis
title Entrainment of Bacterial Synthetic Oscillators using Proteolytic Queueing and Aperiodic Signaling
title_short Entrainment of Bacterial Synthetic Oscillators using Proteolytic Queueing and Aperiodic Signaling
title_full Entrainment of Bacterial Synthetic Oscillators using Proteolytic Queueing and Aperiodic Signaling
title_fullStr Entrainment of Bacterial Synthetic Oscillators using Proteolytic Queueing and Aperiodic Signaling
title_full_unstemmed Entrainment of Bacterial Synthetic Oscillators using Proteolytic Queueing and Aperiodic Signaling
title_sort entrainment of bacterial synthetic oscillators using proteolytic queueing and aperiodic signaling
publisher Virginia Tech
publishDate 2015
url http://hdl.handle.net/10919/64373
work_keys_str_mv AT hochendonerphiliplouis entrainmentofbacterialsyntheticoscillatorsusingproteolyticqueueingandaperiodicsignaling
_version_ 1719405518312701952