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Team:UC Chile2/Cyanolux/Over
From 2012.igem.org
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<p><font face= "Calibri">Natural cycles have always fascinated mankind, probably due to the mysterious mechanisms involved in them and the power they exert in our everyday life. Since the dawn of synthetic biology, engineering oscillatory systems has been a recurrent topic, being Ellowitz's represillator a classical example.Nevertheless, to date no iGEM team has accomplished the implementation of a robust oscillatory system. We are going to change this.<br><br> | <p><font face= "Calibri">Natural cycles have always fascinated mankind, probably due to the mysterious mechanisms involved in them and the power they exert in our everyday life. Since the dawn of synthetic biology, engineering oscillatory systems has been a recurrent topic, being Ellowitz's represillator a classical example.Nevertheless, to date no iGEM team has accomplished the implementation of a robust oscillatory system. We are going to change this.<br><br> | ||
| - | To | + | To reach our goal we designed a synthethic circuit that joints to the endogenous circadian rhythm of synechocystis PCC6803. As a proof of concept we are going to engineer the first light-rechargeable biological lamp: Synechocystis PCC 6803 cells that emit light only by night while recovering and producing the substrates in the day. We strongly believe this will serve as an enabling tool to any project requiring the time control over a biological behavior independently of the user's input.<br><br> |
| - | As a proof of concept we are going to engineer the first light-rechargeable biological lamp: Synechocystis PCC 6803 cells that emit light only by night while recovering and producing the substrates in the day. We strongly believe this will serve as an enabling tool to any project requiring the time control over a biological behavior independently of the user's input.<br><br> | + | |
Furthermore. the characterization of this chasis is a fundamental step to explore new systems with minimal inputs in order to replace E. coli, for example, in the biotechnological industry achieving greener processes.</font></p> | Furthermore. the characterization of this chasis is a fundamental step to explore new systems with minimal inputs in order to replace E. coli, for example, in the biotechnological industry achieving greener processes.</font></p> | ||
Revision as of 02:23, 15 August 2012
Motivational drive
Natural cycles have always fascinated mankind, probably due to the mysterious mechanisms involved in them and the power they exert in our everyday life. Since the dawn of synthetic biology, engineering oscillatory systems has been a recurrent topic, being Ellowitz's represillator a classical example.Nevertheless, to date no iGEM team has accomplished the implementation of a robust oscillatory system. We are going to change this.
To reach our goal we designed a synthethic circuit that joints to the endogenous circadian rhythm of synechocystis PCC6803. As a proof of concept we are going to engineer the first light-rechargeable biological lamp: Synechocystis PCC 6803 cells that emit light only by night while recovering and producing the substrates in the day. We strongly believe this will serve as an enabling tool to any project requiring the time control over a biological behavior independently of the user's input.
Furthermore. the characterization of this chasis is a fundamental step to explore new systems with minimal inputs in order to replace E. coli, for example, in the biotechnological industry achieving greener processes.
