Team:SJTU-BioX-Shanghai
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<img src="/wiki/images/8/81/12SJTU_entry1.png" style="width:320px"></img> | <img src="/wiki/images/8/81/12SJTU_entry1.png" style="width:320px"></img> | ||
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<p>Membrane Accelerator could help substrates flow by decreasing distance that intermediates have to travel between enzymes. Besides, restricted reaction space on membrane could increase the local products concentration near membrane, thus to facilitate the exportation of final products </p> | <p>Membrane Accelerator could help substrates flow by decreasing distance that intermediates have to travel between enzymes. Besides, restricted reaction space on membrane could increase the local products concentration near membrane, thus to facilitate the exportation of final products </p> | ||
<p>We successfully increased the yield of fatty acids by 24 fold through building a fatty-acid-producing Membrane Accelerator.</p> | <p>We successfully increased the yield of fatty acids by 24 fold through building a fatty-acid-producing Membrane Accelerator.</p> | ||
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<p>Previous synthetic scaffold controlling metabolic flux all focused on biosynthesis. Now we propose a new direction in the application of synthetic scaffold: accelerating biodegradation pathways. </p> | <p>Previous synthetic scaffold controlling metabolic flux all focused on biosynthesis. Now we propose a new direction in the application of synthetic scaffold: accelerating biodegradation pathways. </p> | ||
<p>Natural biodegradation is a very slow process but indispensible in environment restoration. Membrane Accelerator is expected to increase rate of biodegradation pathway sharply due to its multiple privileges.</p> | <p>Natural biodegradation is a very slow process but indispensible in environment restoration. Membrane Accelerator is expected to increase rate of biodegradation pathway sharply due to its multiple privileges.</p> | ||
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<img src="/wiki/images/c/ca/12SJTU_entry2.png"></img> | <img src="/wiki/images/c/ca/12SJTU_entry2.png"></img> | ||
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<p>Dynamically and artificially regulating the direction of biochemical pathway has remained a challenge to all. Based on Membrane Scaffold, we achieved this goal through controlling aggregation state of crucial enzymes in branched reactions. This novel device is called Membrane Rudder.</p> | <p>Dynamically and artificially regulating the direction of biochemical pathway has remained a challenge to all. Based on Membrane Scaffold, we achieved this goal through controlling aggregation state of crucial enzymes in branched reactions. This novel device is called Membrane Rudder.</p> | ||
<p>We then further connected the post-translational control system (Membrane Rudder) to genetic circuits and expanded its potential signal pool.</p> | <p>We then further connected the post-translational control system (Membrane Rudder) to genetic circuits and expanded its potential signal pool.</p> | ||
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Revision as of 02:27, 27 October 2012
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