4 Matching Annotations
  1. Jul 2018
    1. On 2016 Nov 01, Torsten Seemann commented:

      The software has moved to Github: https://github.com/alexdobin/STAR


      This comment, imported by Hypothesis from PubMed Commons, is licensed under CC BY.

    2. On 2013 Nov 01, Stephen Turner commented:

      Aligning RNA-seq data is challenging because reads can overlap splice junctions. Many other RNA-seq alignment algorithms (e.g. Tophat) are built on top of DNA sequence aligners. STAR (Spliced Transcripts Alignment to a Reference) is a standalone RNA-seq alignment algorithm that uses uncompressed suffix arrays and a mapping algorithm similar to those used in large-scale genome alignment tools to align RNA-seq reads to a genomic reference. STAR is over 50 times faster than any other previously published RNA-seq aligner, and outperforms other aligners in both sensitivity and specificity using both simulated and real (replicated) RNA-seq data. The notable increase in speed comes at the price of a larger memory requirement. STAR requires ~27GB RAM to align reads to a human genome - a moderate amount, but not atypical on most modern servers. STAR aligns ~45 million paired reads per hour per processor. Notably, the STAR algorithm is also capable of handling longer reads such as those from PacBio SMRT and forthcoming nanopore technologies. STAR is free and open source software.


      This comment, imported by Hypothesis from PubMed Commons, is licensed under CC BY.

  2. Feb 2018
    1. On 2013 Nov 01, Stephen Turner commented:

      Aligning RNA-seq data is challenging because reads can overlap splice junctions. Many other RNA-seq alignment algorithms (e.g. Tophat) are built on top of DNA sequence aligners. STAR (Spliced Transcripts Alignment to a Reference) is a standalone RNA-seq alignment algorithm that uses uncompressed suffix arrays and a mapping algorithm similar to those used in large-scale genome alignment tools to align RNA-seq reads to a genomic reference. STAR is over 50 times faster than any other previously published RNA-seq aligner, and outperforms other aligners in both sensitivity and specificity using both simulated and real (replicated) RNA-seq data. The notable increase in speed comes at the price of a larger memory requirement. STAR requires ~27GB RAM to align reads to a human genome - a moderate amount, but not atypical on most modern servers. STAR aligns ~45 million paired reads per hour per processor. Notably, the STAR algorithm is also capable of handling longer reads such as those from PacBio SMRT and forthcoming nanopore technologies. STAR is free and open source software.


      This comment, imported by Hypothesis from PubMed Commons, is licensed under CC BY.

    2. On 2016 Nov 01, Torsten Seemann commented:

      The software has moved to Github: https://github.com/alexdobin/STAR


      This comment, imported by Hypothesis from PubMed Commons, is licensed under CC BY.