Difference between revisions of "Team:MIT"

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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
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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.