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<h2 style="color:#ff0000; text-align: center; font-size: 20px; line-height: 40px;">Using dCas13a to control alternative splicing in mammalian cells</h2> | <h2 style="color:#ff0000; text-align: center; font-size: 20px; line-height: 40px;">Using dCas13a to control alternative splicing in mammalian cells</h2> | ||
− | <center><p>Alternative splicing is a process that takes mRNA transcripts and modifies it in various ways to create a final mature mRNA molecule for translation. Some sequences known as introns are removed; other sequences known as exons remain to be translated. With such a process, a single gene can result in many types of proteins transcripts | + | <body> |
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+ | <center><p style="font-family:helvetica; font-size:150%">Alternative splicing is a process that takes mRNA transcripts and modifies it in various ways to create a final mature mRNA molecule for translation. Some sequences known as introns are removed; other sequences known as exons remain to be translated. With such a process, a single gene can result in many types of proteins transcripts | ||
Our iGEM projects seeks to control alternative splicing of RNA, specifically exon skipping and inclusion, using a protein called Cas13a. This is a protein that attaches to RNA via a complementary guide RNA, then cuts the RNA strand. For our purposes, we're using a modified version of this protein, known as dCas13a, that can attach, but doesn't cut. By targeting certain portions of a fluorescent protein construct, we can determine whether or not we achieved the intended isoforms based on the presence or absence of the fluorescent protein in addition to sequencing. | Our iGEM projects seeks to control alternative splicing of RNA, specifically exon skipping and inclusion, using a protein called Cas13a. This is a protein that attaches to RNA via a complementary guide RNA, then cuts the RNA strand. For our purposes, we're using a modified version of this protein, known as dCas13a, that can attach, but doesn't cut. By targeting certain portions of a fluorescent protein construct, we can determine whether or not we achieved the intended isoforms based on the presence or absence of the fluorescent protein in addition to sequencing. | ||
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Revision as of 03:11, 2 November 2017
Using dCas13a to control alternative splicing in mammalian cells
Alternative splicing is a process that takes mRNA transcripts and modifies it in various ways to create a final mature mRNA molecule for translation. Some sequences known as introns are removed; other sequences known as exons remain to be translated. With such a process, a single gene can result in many types of proteins transcripts Our iGEM projects seeks to control alternative splicing of RNA, specifically exon skipping and inclusion, using a protein called Cas13a. This is a protein that attaches to RNA via a complementary guide RNA, then cuts the RNA strand. For our purposes, we're using a modified version of this protein, known as dCas13a, that can attach, but doesn't cut. By targeting certain portions of a fluorescent protein construct, we can determine whether or not we achieved the intended isoforms based on the presence or absence of the fluorescent protein in addition to sequencing.