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Introduction to RNA-seq
Paul Gardner
July 6, 2015
Paul Gardner RNA-seq intro
Where on the bio/math spectrum do you lie?
Paul Gardner RNA-seq intro
What is RNA?
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IUPAC ambiguity chars:
Paul Gardner RNA-seq intro
Crick’s “central dogma of molecular biology”
Paul Gardner RNA-seq intro
Types of RNA
Protein coding RNA:
Messenger RNA
Noncoding RNA:
Ribosomal RNA & Transfer RNA
Spliceosomal RNAs (U1, U2, U4, U5, & U6)
SRP RNA (protein export)
RNase P RNA
snoRNAs & microRNAs (David Humphreys)
Cis-regulatory RNA (riboswitches,
thermosensors, leaders)
Self-splicing introns
“Long” non-coding RNAs (lncRNA)
Clustered regularly interspaced short
palindromic repeats (CRISPR)
RNAs of Unknown Function (RUFs)
Paul Gardner RNA-seq intro
What is RNA-seq?
Martin & Wang (2011) Next-generation transcriptome
assembly. Nature Reviews Genetics.
Paul Gardner RNA-seq intro
Run the best statistical test in the universe:
Eye-ball results: positive & negative controls
Remember: only RNAs expressed under exp. conditions will
be observed
Paul Gardner RNA-seq intro
Applications and extensions of RNA-seq
Applications
Genome annotation (mRNAs, ncRNAs, spliceforms, UTRs)
Quantification (Listen to Alicia Oshlack)
Extensions
Infer RNA structure (SHAPE) (Lucks et al. (2011))
RNA:RNA (CLASH) (Travis et al. (2014))
RNA:protein (RIP-seq) (Cook et al. (2015))
Paul Gardner RNA-seq intro
RNA-seq identifies 1,000s of new RNAs
SraB yceD rpmF E.RUF plsX
E.coli K12
E.coli E24377A
C.rodentium
S.enterica
K.pneumoniae
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secY X.RUF rpsM
D. Enterobacteriaceae RUF E. Pseudomonas RUF
F. Xanthomonadaceae RUF
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A. Enterobacteriaceae RUF
B. Pseudomonas RUF
C. Xanthomonadaceae RUF
Gaps
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Number of RNA-seq reads
80%
90% 70%
40%
nucleotide
present
nucleotide
identity
N
N 90%
N 80%
covarying mutations
base pair annotations
compatible mutations
no mutations observed
R = A or G. Y = C or U.
Legend
70%
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P.aeruginosa-PA14
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TAGGCATATTTTTTTCCATCAGATATAGCGTATTGATGATAGCCATTTTAAACTATGCGC−−−TTCGTTTTGCAGGTTGATGTTTGTTATCAGCACTGAACGAAAATAAAGCAGTAACCCGCAATGTGTGCGAATTATTGGCAAAAGGCAACCACAGGCTGCCTTTTTCTTTGACTCTATGACGTTACAAAGTTAATATGCGCGCCCTATGCAAAAGGTAAAATTACCCCTGACTCTCGATCCGGTTCGTACGGCTCAAAAACGCCTTGATTACCAGGGTATCTATACCCCTGATCAGGTTGAGCGCGTCGCCGAATCCGTAGTCAGTGTGGACAGTGATGTGGAATGCTCCATGTCGTTCGCTATCGATAACCAACGTCTCGCAGTGTTAAACGGCGATGCGAAGGTGACGGTAACGCTCGAGTGTCAGCGTTGCGGGAAGCCGTTTACTCATCAGGTCTACACAACGTATTGTTTTAGTCCTGTGCGTTCAGACGAACAGGCTGAAGCACTGCCGGAAGCGTATGAACCGATTGAGGTTAACGAATTCGGTGAAATCGATCTGCTTGCAATGGTTGAAGATGAAATCATCCTCGCCTTGCCGGTAGTTCCGGTGCATGATTCTGAACACTGTGAAGTGTCCGAAGCGGACATGGTCTTTGGTGAACTGCCTGAAGAAGCGCAAAAGCCAAACCCATTTGCCGTATTAGCCAGCTTAAAGCGTAAGTAATTGGTGCTCCCCGTTGGATCGGGGATAAACCGTAATTGAGGAGTAAGGTCCATGGCCGTACAACAGAATAAACCAACCCGTTCCAAACGTGGCATGCGTCGTTCCCATGACGCGCTGACCGCAGTCACCAGCCTGTCTGTAGACAAAACTTCTGGTGAAAAACACCTGCGTCACCACATCACTGCCGACGGTTACTACCGCGGCCGCAAGGTCATCGCTAAGTAATCACGCA−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−TCTGC−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−GTGATGAAGCTTAGTGAGGATTTTCCCCAGGCAACTGGGGAAAGACCAAACCGGGCGGCGACGATACCTTGACACGTCTAACCCTGGCGTTAGATGTCATGGGAGGGGATTTTGGCCCTTCCGTGACAGTGCCTGCAGCATTGCAGGCACTGAATTCTAATTCGCAACTCACTCTTCTTTTAGTCGGCAATTCCGACGCCATCACGCCATTACTTGCTAAAGCTGACTTTGAACAACGTTCGCGTCTGCAGATTATTCCTGCGCAGTCAGT
ATGGCGCAGGCTGGCATTGGTAACCTCGGCGGCGGGCTCGGCAAGTTCACGGAACTTCGCCAGCGGTTGCTGTTCGTCCTCGGGGCATTGATCGTTTATCGCATCGGCTGCTATGTGCCGGTGCCTGGCGTGAATCCCGATGCCATGCTTTCGTTGATGCAGGCGCAGGGCGGCGGCATCGTGGACATGTTCAACATGTTCTCGGGCGGCGCCCTGCACCGTTTCAGTATTTTTGCATTGAACGTGATGCCGTATATCTCGGCATCGATCGTGATCCAGTTGGCCACGCACATCTTTCCCGCCCTCAAGGCGATGCAGAAAGAAGGCGAATCGGGCCGACGCAAGATCACCCAATATTCGCGCATCGGTGCGGTGTTGCTGGCGGTGGTGCAGGGCGGCAGTATCGCGCTGGCACTGCAGAACCAGACCGCCCCTGGTGGCGCTCCGGTGGTGTATGCGCCGGGCATGGGCTTCGTGCTCACCGCGGTGATCGCTTTGACCGCTGGTACCATCTTCCTGATGTGGGTAGGCGAGCAGGTTACCGAGCGCGGCATCGGTAACGGCGTATCGCTGATCATCTTTGCCGGCATCGTGGCTGGCCTGCCGTCGGCGGCCATCCAGACGGTCGAAGCCTTCCGCGAAGGCAATCTGAGCTTCATTTCGCTGTTGTTGATCGTCATCACCATCCTGGCGTTCACGCTGTTCGTCGTGTTTGTCGAGCGTGGGCAGCGGCGGATCACGGTCAACTACGCGCGCCGCCAGGGCGGTCGCAATGCGTACATGAACCAGACCTCGTTCTTGCCGCTCAAGCTGAACATGGCCGGTGTGATTCCGCCGATCTTTGCGTCCAGCATCCTGGCATTCCCGGCAACGTTGTCGATGTGGTCGGGTCAGGCTGC−−ATCGG−GTGGTATCGGCTCGTGGCTGCAGAAGATTGCCAACGCGCTTGGCCCCGGTGAGCCGGTACACATGCTGGTCTTCGCTGCGCTGATCATCGGTTTTGCATTCTTCTACACCGCGCTGGTGTTCAACTCGCAGGAAACCGCCGACAACCTCAAGAAATCGGGCGCGCTGATTCCGGGCATCCGTCCAGGCAAGGCCACCGCAGATTACGTCGATGGCGTACTGACGCGCCTGACAGCTGCCGGTTCGTTGTACCTGGTAATCGTCTGCCTGCTGCCGGAAATCATGCGCACGCAGCTCGGCACTTCGTTCCACTTCGGGGGCACCTCGCTATTGATTGCAGTGGTGGTGGTGATGGACTTCATTGCGCAGATCCAGGCGCACCTGATGTCGCACCAGTATGAGAGCTTGCTGAAGAAGGCCAACCTCAAGGGCGGCTCACGCGGCGGTCTTGCGCGCGGTTAAGTGGTACACTAGATCTTCATC−−−−−−ACGTGAAGACGGC−CTGGTTCCCGGGCCACGATCTTCCGATCAGAAGGGCGGCTCGCGCGACG−TCTCGCGCGCGGGTGTGACGGGGTGGTTCTGTGCGGGAGTAGCACAGGCGATTC−GGAGTGGTTTTCTGGATCAGCACCGTCCGGCGCCGGAGCGAGGGCACACTCCCCACGCCGGGTCCATGGAACCTCTGGTTCCACGGGCTTCAAAGCAATCCGAGGCCTTGCTATAATTCCGAGTTCACTTT−−TGATCCATCCTGCCGGATGG−−−CGCCTGGG−−−CGCTGTCGGGCCATCACTCAGTTGGAGAATCGCGTCATGGCGCGTATTGCAGGCGTCAACCTGCCAGCCCAGAAGCACGTCTGGGTCGGGTTGCAAAGCATCTACGGCATCGGCCGTACCCGTTCAAAGAAGCTCTGCGAATCCGCAGGCGTTACCTCGACCACGAAGATTCGTGATCTGTCCGAACCCGAAATCGAGCGCCTGCGCGCCGAAGTCGGCAAGTATGTCGTCGAAGGCGACCTGCGCCGCGAAATCGGTATCGCGATCAAGCGACTGATGGACCTCGGCTGCTATCGCGGTCTGCGTCATCGCCGTGGTCTTCCGCTGCGTGGTCAGCGCACCCGTACCAACGCCCGCACCCGCAAGGGTCCGCGCAAGGCGATCAGGAAGTAA
Lindgreen et al. (2014) Robust identification of noncoding RNA from transcriptomes requires
phylogenetically-informed sampling. PLOS Computational Biology.
Paul Gardner RNA-seq intro
Some open questions
How much transcription is ”functional”?
What’s a good negative control for transcriptome
experiments?
What causes variation in [protein]:[mRNA] ratios?
Lu, Vogel et al. (2007) Absolute protein expression profiling estimates the relative contributions of transcriptional
and translational regulation. Nature Biotechnology
Paul Gardner RNA-seq intro
Thanks & a plug
QMB 2015
Computational genomics
Proteins, animal genetics, genomes & disease, microbes &
disease
Paul Gardner RNA-seq intro

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Introduction to RNA-seq

  • 1. Introduction to RNA-seq Paul Gardner July 6, 2015 Paul Gardner RNA-seq intro
  • 2. Where on the bio/math spectrum do you lie? Paul Gardner RNA-seq intro
  • 3. What is RNA? �� ��� 2R 1R � � �� � ��� � �� � � � �� � � � � � �� �� � 1R 1R 1R ��� � � � � � �� ��� ��� 1 2R R : −OH −H : −H −CH3 ������� ����������� �� ���� ���� ��� � ����� ��� �� ��� �� ��� �� ��� ���� ��� ��� ��� ��� ��� ��� ��� ����� ����� ����� ����� ������� �������� ������� ������� ������������������������ RNA DNA ������������������ IUPAC ambiguity chars: Paul Gardner RNA-seq intro
  • 4. Crick’s “central dogma of molecular biology” Paul Gardner RNA-seq intro
  • 5. Types of RNA Protein coding RNA: Messenger RNA Noncoding RNA: Ribosomal RNA & Transfer RNA Spliceosomal RNAs (U1, U2, U4, U5, & U6) SRP RNA (protein export) RNase P RNA snoRNAs & microRNAs (David Humphreys) Cis-regulatory RNA (riboswitches, thermosensors, leaders) Self-splicing introns “Long” non-coding RNAs (lncRNA) Clustered regularly interspaced short palindromic repeats (CRISPR) RNAs of Unknown Function (RUFs) Paul Gardner RNA-seq intro
  • 6. What is RNA-seq? Martin & Wang (2011) Next-generation transcriptome assembly. Nature Reviews Genetics. Paul Gardner RNA-seq intro
  • 7. Run the best statistical test in the universe: Eye-ball results: positive & negative controls Remember: only RNAs expressed under exp. conditions will be observed Paul Gardner RNA-seq intro
  • 8. Applications and extensions of RNA-seq Applications Genome annotation (mRNAs, ncRNAs, spliceforms, UTRs) Quantification (Listen to Alicia Oshlack) Extensions Infer RNA structure (SHAPE) (Lucks et al. (2011)) RNA:RNA (CLASH) (Travis et al. (2014)) RNA:protein (RIP-seq) (Cook et al. (2015)) Paul Gardner RNA-seq intro
  • 9. RNA-seq identifies 1,000s of new RNAs SraB yceD rpmF E.RUF plsX E.coli K12 E.coli E24377A C.rodentium S.enterica K.pneumoniae rmf RNA motif rmf P.RUF pyrD S.maltophilia X.axonopodis secY X.RUF rpsM D. Enterobacteriaceae RUF E. Pseudomonas RUF F. Xanthomonadaceae RUF G A U U A C C A G C A C G C C C Y A U C C G G G C G G C G G G C RGCCC A G G G G C U C C Y YR R G G A G C C C Y U UUUU 5' terminator G U C U C GY G C G C GG G U G G A Y G G Y G G UC C U G C G C Y G GA G U A G C G C G G G C GRY C G R R R Y Y Y C R G G Y C A R C Y R U C C G G C G C C G G A G C R U GGG CA C A C U C C C C A Y GC C G G G U Y C R Y G G A A C C R A G U U C C R Y G G G C U U C C A G Y A A Y CC G R G A C C U U G Y U A A U U C A G U U C A C U U 5´ U A A U C A C G C R Y G C G U G A U G A A G C U U A G U G A G G A Y U U C C C C G G C A A Y G G G G A A Y A C C G A A C C R G G C R G C G A C G A U A C C U U G5´ GNRA tetraloop 0-48 BPs A. Enterobacteriaceae RUF B. Pseudomonas RUF C. Xanthomonadaceae RUF Gaps 0-9 10-99 100-999 1,000-4,999 >5,000 Number of RNA-seq reads 80% 90% 70% 40% nucleotide present nucleotide identity N N 90% N 80% covarying mutations base pair annotations compatible mutations no mutations observed R = A or G. Y = C or U. Legend 70% P.putida P.aeruginosa-PAO1 P.aeruginosa-PA14 T T A G C G C C G G A A A C C A G G C G T C A T G A G C C T G C A A C A T A T G G C C C T A T C G A C G A A A G C G T T A A G T C T T T A T G A C A A A T C G G T C A T T C A C A C G C C T G A A C G C T T T G G T T A G A A C T C C A G T T A A T C C G C C C A C C G C A A C G G T G T C G G G C G A − − G G G T C G T C A C G C C G G C A A C G A C C C C T T − T C G G C G A A A − − G C T T C G C C A G G C C T C C C C T G G G G G C C A A C G G G A C A T A A C A G T C A A C A A G T G A G G G C A A C A C C C T A T G A G A A G A C T T A A G C G T G A T C C G T T G G A A A G A G C C T T C T T G C G T G G T T A T C A G A A C G G C A T A A C C G G T A A A T C T C G T G A T C T T T G T C C G T T C A C C C A T C C T A C G A C G C G G C A G T C C T G G C T C A A C G G C T G G C G C G A G G G C C G T G G C G A C A A C T G G G A C G G C C T C A C T G G C A C G G C C G G C T T A C A A C G T C T C A A T C A A C T C C A G C A C G T G T A A G C G A C A A C A C G G A T A G C A C C G A T T T C C C C A A G G C A C G C C C C A T C C G G G C G G C G G G C G C A A G C C C A A G G G C T C C G C − A A G G A G C C C T T T T C A A T T C C − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − − G C C G C G G C A A T G C G G C G A T G G C G T C C A C C G C T T C G C G G A T C A A C G C C G G T C C C T T G T A G A T G A A A C C C G A A T A G A T C T G C A C C A G G C T C G C C C C G G C G G C G A T C T T C T TAGGCATATTTTTTTCCATCAGATATAGCGTATTGATGATAGCCATTTTAAACTATGCGC−−−TTCGTTTTGCAGGTTGATGTTTGTTATCAGCACTGAACGAAAATAAAGCAGTAACCCGCAATGTGTGCGAATTATTGGCAAAAGGCAACCACAGGCTGCCTTTTTCTTTGACTCTATGACGTTACAAAGTTAATATGCGCGCCCTATGCAAAAGGTAAAATTACCCCTGACTCTCGATCCGGTTCGTACGGCTCAAAAACGCCTTGATTACCAGGGTATCTATACCCCTGATCAGGTTGAGCGCGTCGCCGAATCCGTAGTCAGTGTGGACAGTGATGTGGAATGCTCCATGTCGTTCGCTATCGATAACCAACGTCTCGCAGTGTTAAACGGCGATGCGAAGGTGACGGTAACGCTCGAGTGTCAGCGTTGCGGGAAGCCGTTTACTCATCAGGTCTACACAACGTATTGTTTTAGTCCTGTGCGTTCAGACGAACAGGCTGAAGCACTGCCGGAAGCGTATGAACCGATTGAGGTTAACGAATTCGGTGAAATCGATCTGCTTGCAATGGTTGAAGATGAAATCATCCTCGCCTTGCCGGTAGTTCCGGTGCATGATTCTGAACACTGTGAAGTGTCCGAAGCGGACATGGTCTTTGGTGAACTGCCTGAAGAAGCGCAAAAGCCAAACCCATTTGCCGTATTAGCCAGCTTAAAGCGTAAGTAATTGGTGCTCCCCGTTGGATCGGGGATAAACCGTAATTGAGGAGTAAGGTCCATGGCCGTACAACAGAATAAACCAACCCGTTCCAAACGTGGCATGCGTCGTTCCCATGACGCGCTGACCGCAGTCACCAGCCTGTCTGTAGACAAAACTTCTGGTGAAAAACACCTGCGTCACCACATCACTGCCGACGGTTACTACCGCGGCCGCAAGGTCATCGCTAAGTAATCACGCA−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−TCTGC−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−−GTGATGAAGCTTAGTGAGGATTTTCCCCAGGCAACTGGGGAAAGACCAAACCGGGCGGCGACGATACCTTGACACGTCTAACCCTGGCGTTAGATGTCATGGGAGGGGATTTTGGCCCTTCCGTGACAGTGCCTGCAGCATTGCAGGCACTGAATTCTAATTCGCAACTCACTCTTCTTTTAGTCGGCAATTCCGACGCCATCACGCCATTACTTGCTAAAGCTGACTTTGAACAACGTTCGCGTCTGCAGATTATTCCTGCGCAGTCAGT ATGGCGCAGGCTGGCATTGGTAACCTCGGCGGCGGGCTCGGCAAGTTCACGGAACTTCGCCAGCGGTTGCTGTTCGTCCTCGGGGCATTGATCGTTTATCGCATCGGCTGCTATGTGCCGGTGCCTGGCGTGAATCCCGATGCCATGCTTTCGTTGATGCAGGCGCAGGGCGGCGGCATCGTGGACATGTTCAACATGTTCTCGGGCGGCGCCCTGCACCGTTTCAGTATTTTTGCATTGAACGTGATGCCGTATATCTCGGCATCGATCGTGATCCAGTTGGCCACGCACATCTTTCCCGCCCTCAAGGCGATGCAGAAAGAAGGCGAATCGGGCCGACGCAAGATCACCCAATATTCGCGCATCGGTGCGGTGTTGCTGGCGGTGGTGCAGGGCGGCAGTATCGCGCTGGCACTGCAGAACCAGACCGCCCCTGGTGGCGCTCCGGTGGTGTATGCGCCGGGCATGGGCTTCGTGCTCACCGCGGTGATCGCTTTGACCGCTGGTACCATCTTCCTGATGTGGGTAGGCGAGCAGGTTACCGAGCGCGGCATCGGTAACGGCGTATCGCTGATCATCTTTGCCGGCATCGTGGCTGGCCTGCCGTCGGCGGCCATCCAGACGGTCGAAGCCTTCCGCGAAGGCAATCTGAGCTTCATTTCGCTGTTGTTGATCGTCATCACCATCCTGGCGTTCACGCTGTTCGTCGTGTTTGTCGAGCGTGGGCAGCGGCGGATCACGGTCAACTACGCGCGCCGCCAGGGCGGTCGCAATGCGTACATGAACCAGACCTCGTTCTTGCCGCTCAAGCTGAACATGGCCGGTGTGATTCCGCCGATCTTTGCGTCCAGCATCCTGGCATTCCCGGCAACGTTGTCGATGTGGTCGGGTCAGGCTGC−−ATCGG−GTGGTATCGGCTCGTGGCTGCAGAAGATTGCCAACGCGCTTGGCCCCGGTGAGCCGGTACACATGCTGGTCTTCGCTGCGCTGATCATCGGTTTTGCATTCTTCTACACCGCGCTGGTGTTCAACTCGCAGGAAACCGCCGACAACCTCAAGAAATCGGGCGCGCTGATTCCGGGCATCCGTCCAGGCAAGGCCACCGCAGATTACGTCGATGGCGTACTGACGCGCCTGACAGCTGCCGGTTCGTTGTACCTGGTAATCGTCTGCCTGCTGCCGGAAATCATGCGCACGCAGCTCGGCACTTCGTTCCACTTCGGGGGCACCTCGCTATTGATTGCAGTGGTGGTGGTGATGGACTTCATTGCGCAGATCCAGGCGCACCTGATGTCGCACCAGTATGAGAGCTTGCTGAAGAAGGCCAACCTCAAGGGCGGCTCACGCGGCGGTCTTGCGCGCGGTTAAGTGGTACACTAGATCTTCATC−−−−−−ACGTGAAGACGGC−CTGGTTCCCGGGCCACGATCTTCCGATCAGAAGGGCGGCTCGCGCGACG−TCTCGCGCGCGGGTGTGACGGGGTGGTTCTGTGCGGGAGTAGCACAGGCGATTC−GGAGTGGTTTTCTGGATCAGCACCGTCCGGCGCCGGAGCGAGGGCACACTCCCCACGCCGGGTCCATGGAACCTCTGGTTCCACGGGCTTCAAAGCAATCCGAGGCCTTGCTATAATTCCGAGTTCACTTT−−TGATCCATCCTGCCGGATGG−−−CGCCTGGG−−−CGCTGTCGGGCCATCACTCAGTTGGAGAATCGCGTCATGGCGCGTATTGCAGGCGTCAACCTGCCAGCCCAGAAGCACGTCTGGGTCGGGTTGCAAAGCATCTACGGCATCGGCCGTACCCGTTCAAAGAAGCTCTGCGAATCCGCAGGCGTTACCTCGACCACGAAGATTCGTGATCTGTCCGAACCCGAAATCGAGCGCCTGCGCGCCGAAGTCGGCAAGTATGTCGTCGAAGGCGACCTGCGCCGCGAAATCGGTATCGCGATCAAGCGACTGATGGACCTCGGCTGCTATCGCGGTCTGCGTCATCGCCGTGGTCTTCCGCTGCGTGGTCAGCGCACCCGTACCAACGCCCGCACCCGCAAGGGTCCGCGCAAGGCGATCAGGAAGTAA Lindgreen et al. (2014) Robust identification of noncoding RNA from transcriptomes requires phylogenetically-informed sampling. PLOS Computational Biology. Paul Gardner RNA-seq intro
  • 10. Some open questions How much transcription is ”functional”? What’s a good negative control for transcriptome experiments? What causes variation in [protein]:[mRNA] ratios? Lu, Vogel et al. (2007) Absolute protein expression profiling estimates the relative contributions of transcriptional and translational regulation. Nature Biotechnology Paul Gardner RNA-seq intro
  • 11. Thanks & a plug QMB 2015 Computational genomics Proteins, animal genetics, genomes & disease, microbes & disease Paul Gardner RNA-seq intro