Ultrasensitive Negative Feedback Control: A Natural Approach for the Design of Synthetic Controllers.

Many of the most important potential applications of Synthetic Biology will require the ability to design and implement high performance feedback control systems that can accurately regulate the dynamics of multiple molecular species within the cell. Here, we argue that the use of design strategies...

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Main Authors: Francesco Montefusco, Ozgur E Akman, Orkun S Soyer, Declan G Bates
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2016-01-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC5004582?pdf=render
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spelling doaj-97383aa9a6ce4b9d8fd58af7d3b58e372020-11-25T01:30:58ZengPublic Library of Science (PLoS)PLoS ONE1932-62032016-01-01118e016160510.1371/journal.pone.0161605Ultrasensitive Negative Feedback Control: A Natural Approach for the Design of Synthetic Controllers.Francesco MontefuscoOzgur E AkmanOrkun S SoyerDeclan G BatesMany of the most important potential applications of Synthetic Biology will require the ability to design and implement high performance feedback control systems that can accurately regulate the dynamics of multiple molecular species within the cell. Here, we argue that the use of design strategies based on combining ultrasensitive response dynamics with negative feedback represents a natural approach to this problem that fully exploits the strongly nonlinear nature of cellular information processing. We propose that such feedback mechanisms can explain the adaptive responses observed in one of the most widely studied biomolecular feedback systems-the yeast osmoregulatory response network. Based on our analysis of such system, we identify strong links with a well-known branch of mathematical systems theory from the field of Control Engineering, known as Sliding Mode Control. These insights allow us to develop design guidelines that can inform the construction of feedback controllers for synthetic biological systems.http://europepmc.org/articles/PMC5004582?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Francesco Montefusco
Ozgur E Akman
Orkun S Soyer
Declan G Bates
spellingShingle Francesco Montefusco
Ozgur E Akman
Orkun S Soyer
Declan G Bates
Ultrasensitive Negative Feedback Control: A Natural Approach for the Design of Synthetic Controllers.
PLoS ONE
author_facet Francesco Montefusco
Ozgur E Akman
Orkun S Soyer
Declan G Bates
author_sort Francesco Montefusco
title Ultrasensitive Negative Feedback Control: A Natural Approach for the Design of Synthetic Controllers.
title_short Ultrasensitive Negative Feedback Control: A Natural Approach for the Design of Synthetic Controllers.
title_full Ultrasensitive Negative Feedback Control: A Natural Approach for the Design of Synthetic Controllers.
title_fullStr Ultrasensitive Negative Feedback Control: A Natural Approach for the Design of Synthetic Controllers.
title_full_unstemmed Ultrasensitive Negative Feedback Control: A Natural Approach for the Design of Synthetic Controllers.
title_sort ultrasensitive negative feedback control: a natural approach for the design of synthetic controllers.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2016-01-01
description Many of the most important potential applications of Synthetic Biology will require the ability to design and implement high performance feedback control systems that can accurately regulate the dynamics of multiple molecular species within the cell. Here, we argue that the use of design strategies based on combining ultrasensitive response dynamics with negative feedback represents a natural approach to this problem that fully exploits the strongly nonlinear nature of cellular information processing. We propose that such feedback mechanisms can explain the adaptive responses observed in one of the most widely studied biomolecular feedback systems-the yeast osmoregulatory response network. Based on our analysis of such system, we identify strong links with a well-known branch of mathematical systems theory from the field of Control Engineering, known as Sliding Mode Control. These insights allow us to develop design guidelines that can inform the construction of feedback controllers for synthetic biological systems.
url http://europepmc.org/articles/PMC5004582?pdf=render
work_keys_str_mv AT francescomontefusco ultrasensitivenegativefeedbackcontrolanaturalapproachforthedesignofsyntheticcontrollers
AT ozgureakman ultrasensitivenegativefeedbackcontrolanaturalapproachforthedesignofsyntheticcontrollers
AT orkunssoyer ultrasensitivenegativefeedbackcontrolanaturalapproachforthedesignofsyntheticcontrollers
AT declangbates ultrasensitivenegativefeedbackcontrolanaturalapproachforthedesignofsyntheticcontrollers
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