Template strand: Difference between revisions

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DNA Template strand (also known as the aniti-sense strand), is the strand that [[RNA polymerase|RNA polymerase]] binds to and uses as its template during DNA [[Transcription|transcription]], generating a complementary [[MRNA|mRNA]] molecule. This mRNA can then be [[Translation|translated]] by [[Ribosome|ribosomes]] forming a [[Polypeptide|polypeptide]] chain of [[Amino acid|amino acids]]&nbsp;<ref>Lodish H., Kaiser CA., Bretscher A., Amon A., Berk A., Krieger M., Ploegh H and Scott MP (2012) Molecular Cell Biology, 7th edition, New York: WH Freeman
DNA Template strand (also known as the aniti-sense strand), is one of the strands of&nbsp;DNA&nbsp;after being unwound by Helicase.&nbsp;[[RNA polymerase|RNA polymerase]] binds to the template strand&nbsp;using as&nbsp;a 'template' during transcription of a particular gene,&nbsp;this produces&nbsp;a complementary [[Pre-mRNA|pre-mRNA]] molecule within the nucleus. Splicing will then take place&nbsp;in order to remove any non-coding regions of DNA (occurs only in Eukaryotes) to give the final [[MRNA|mRNA ]]strand, which leaves the nucleus through a pore and joins to a ribosome where translation of this mRNA will occur.
page:124</ref>.<br>  
 
This mRNA can then be [[Translation|translated]] by [[Ribosome|ribosomes]] forming a&nbsp;sequence of&nbsp;[[Amino acid|amino acids]]&nbsp;<ref>Lodish H., Kaiser CA., Bretscher A., Amon A., Berk A., Krieger M., Ploegh H and Scott MP (2012) Molecular Cell Biology, 7th edition, New York: WH FreemanfckLRpage:124</ref>.<br>


=== References  ===
=== References  ===


<references /><br>
<references /><br>

Revision as of 13:10, 16 November 2017

DNA Template strand (also known as the aniti-sense strand), is one of the strands of DNA after being unwound by Helicase. RNA polymerase binds to the template strand using as a 'template' during transcription of a particular gene, this produces a complementary pre-mRNA molecule within the nucleus. Splicing will then take place in order to remove any non-coding regions of DNA (occurs only in Eukaryotes) to give the final mRNA strand, which leaves the nucleus through a pore and joins to a ribosome where translation of this mRNA will occur.

This mRNA can then be translated by ribosomes forming a sequence of amino acids [1].

References

  1. Lodish H., Kaiser CA., Bretscher A., Amon A., Berk A., Krieger M., Ploegh H and Scott MP (2012) Molecular Cell Biology, 7th edition, New York: WH FreemanfckLRpage:124