Team:Hong Kong HKUST/riboregulator
From 2014.igem.org
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<h4>Future Work</h4></a> | <h4>Future Work</h4></a> | ||
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<div class='content_1'><h3>Riboregulator Project Abstract</h3> | <div class='content_1'><h3>Riboregulator Project Abstract</h3> | ||
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- | <p | + | <p><b><u>Background</b></u> |
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<p class="first_letter_enhanced">Regulatory RNAs are RNAs that regulate biological processes on genetic and metabolic levels, and their importance has been established through the discoveries including those of RNA interference (RNAi) and long noncoding RNAs (lncRNA). The elucidation of their mechanism has enabled their reverse engineering, transforming them into versatile tools in synthetic biology. | <p class="first_letter_enhanced">Regulatory RNAs are RNAs that regulate biological processes on genetic and metabolic levels, and their importance has been established through the discoveries including those of RNA interference (RNAi) and long noncoding RNAs (lncRNA). The elucidation of their mechanism has enabled their reverse engineering, transforming them into versatile tools in synthetic biology. | ||
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Riboregulators belong to a class of regulatory RNAs that controls translation by pairs of cis-repressing (CR) and trans-activating (TA) RNAs. They have received attention from at least 7 teams during the early years of iGEM. For example, Farren Isaacs in 2005, iGEM 2006 UC Berkeley team and iGEM 2007 Caltech team contributed many CR and TA devices to the Registry. Though there are more than > 100 riboregulator BioBrick records, comprehensive characterization information is missing. This hinders the iGEM community to compare and contrast different riboregulators pairs and evaluate their performances. For example, if we want to use the CR and TA devices that Berkeley 2006 made, we would not know which one to use and whether the device would work, because documentations then were not put down in the Registry or wiki page and were therefore no longer accessible. | Riboregulators belong to a class of regulatory RNAs that controls translation by pairs of cis-repressing (CR) and trans-activating (TA) RNAs. They have received attention from at least 7 teams during the early years of iGEM. For example, Farren Isaacs in 2005, iGEM 2006 UC Berkeley team and iGEM 2007 Caltech team contributed many CR and TA devices to the Registry. Though there are more than > 100 riboregulator BioBrick records, comprehensive characterization information is missing. This hinders the iGEM community to compare and contrast different riboregulators pairs and evaluate their performances. For example, if we want to use the CR and TA devices that Berkeley 2006 made, we would not know which one to use and whether the device would work, because documentations then were not put down in the Registry or wiki page and were therefore no longer accessible. | ||
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Given this situation, iGEM 2014 HKUST team decided to embark on "Project Riboregulator" with the following goals: | Given this situation, iGEM 2014 HKUST team decided to embark on "Project Riboregulator" with the following goals: | ||
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Revision as of 05:56, 17 October 2014
Riboregulator Project Abstract
Background
Regulatory RNAs are RNAs that regulate biological processes on genetic and metabolic levels, and their importance has been established through the discoveries including those of RNA interference (RNAi) and long noncoding RNAs (lncRNA). The elucidation of their mechanism has enabled their reverse engineering, transforming them into versatile tools in synthetic biology.
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