oligonucleotides used in this study (8)


elife-29118-v2.xml

10.7554/eLife.29118.017Oligonucleotides Used in this Study.

All oligonucleotides used in this study were ordered from IDT with the indicated modifications.

Oligo nameSequence (5’ to 3’)Modification(s)
50dupex LAGTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTGACGCTGCCGAATTCTGGCTTGCTAGGACATTACAGGATCGTTCGGTCTCNone
50duplex LAG dual biotinTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTGACGCTGCCGAATTCTGGCTTGCTAGGACATTACAGGATCGTTCGGTCTCTwo biotin-modified thymidine residues in BOLD
50duplex LEADGAGACCGAACGATCCTGTAATGTCCTAGCAAGCCAGAATTCGGCAGCGTCTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTT*T*T*T*T*T*TThe six dT residues at the 3’ end are connected by phosphorothioate bonds (*)
50duplex LAG2TTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTGACGCTGCCGAATTCTGGATTGCTAGGACATTACAGGATCGTTCGGTCTCNone
50duplex LEAD2 dual biotinGAGACCGAACGATCCTGTAATGTCCTAGCAATCCAGAATTCGGCAGCGTCTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTT*T*T*T*T*T*TTwo biotin-modified thymidine residues in BOLD; the six dT residues at the 3’ end are connected by phosphorothioate bonds (*)
160mer duplex LEADAGAGAGTAGAGTTGAGTTGTGATGTGTAGAGTTGTTGTAGAGAAGAGTTGTGAAGTGTTGAGTAGAGAAGAGAAGAGAAGTGTTGTGATGTGTTGAGTAGTGTAGAGTTGAGAAGTAGAGATGTGTTGAGATGAGAAGAGTTGTAGTTGAGTTGAAGTGGTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTT*T*T*T*T*TThe five dT residues at the 3’ end are connected by phosphorothioate bonds (*)
160mer duplex LAGTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTCCACTTCAACTCAACTACAACTCTTCTCATCTCAACACATCTCTACTTCTCAACTCTACACTACTCAACACATCACAACACTTCTCTTCTCTTCTCTACTCAACACTTCACAACTCTTCTCTACAACAACTCTACACATCACAACTCAACTCTACTCTCTNone
Blocked Fork LEADACCGGAGACCGAACGATCCTGTAATGTCCTAGCAAGCCAGAATTCGGCAGCGTCTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTGAGGAAAGAATGTTGGTGAGGGTTGGGAAGTGGAAGGATGGGCTCGAGAGGTTTTTTTTTTTTTTTTTTTTTTTTTTTTT*T*T*T*T*TThe five dT residues at the 3’ end are connected by phosphorothioate bonds (*)
Blocked Fork LAGTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTTGACGC TGCCGAATTCTGGCTTGCTAGGACATTACAGGATCGTTCG*G*T*C*T*CTwo biotin-modified thymidine residues in BOLD; the five dT residues at the 3’ end are connected by phosphorothioate bonds (*)
Blocked Fork PrimerCCTCTCGAGCCCATCCTTCCACTTCCCAACCCTCACCNone
 C2CCTCTCGAGCCCATCCTTCCACTTCCCAACCCTCACCNone

elife-32057-v1.xml

10.7554/eLife.32057.034Oligonucleotides used in this study.
Oligonucleotide nameSequence (5’ to 3’)
eYFP-FCGGCGCGCCTCAGGTTCAGGTTCAGGTATGGTGAGCAAGGGCGAG
eYFP-RCGCGGCCGCTTACTTGTACAGCTCGTCCATGCCGAGAGTGATCCCGGC
GFP-FCGGCGCGCCTCAGGTTCAGGTTCAGGTATGGCTAGCAAAGGAGAAGAA CTTTTCACTGGAGTTGTCCC
GFP-RCGCGGCCGCTTATTTGTAGAGCTCATCCATGCCATGTGTAATCCCAGCAGC
SNAP-FGGGCGCGCCTCAGGTTCAGGTTCAGGTATGGACAAAGACTGCGAAATG AAGCGCAC
SNAP-RCGAATTCTCATTAACCCAGCCCAGGCTTGCCCAGTCTG
meYFP-FCTACCAGTCCAAGCTGAGCAAAGAC
meYFP-RCTCAGGTAGTGGTTGTCG
pOB-ezrA-up-FTTTACGTACACTATCTGCAGATGCTTCTCCTCCTAATTTATCATT
pOB-ezrA-up-RATTCGAGCTCGGTACCCGGGTTTTAAATTAATAAAAAAAACAC CCACAATT
pOB-ezrA-down-FCACTATAGAATACTCAAGCTTACTCCTTAATTTCCTCATAAATGATGA
pOB-ezrA-down-RGGATCAACTTTGGGAGAGAGAAACTAGTATGTAGTTATACTTAAA TAATATGAGC
pOB-TetR-FTAAATTAGGAGGAGAAGCATCTGCAGATAGTGTACGTAAAAAGA
pOB-TetR-RGTATAACTACATACTAGTTTCTCTCTCCCAAAGTTGATCCC
ftsZ-eyfp-FACATGGCCATGTCAGGTTCAG
ftsZ-eyfp-RGGCGCGCCTTATTTATATAATTC
FGFtsZXhoI-FCTCGAGATGTTAGAATTTGAACAAGG
FGFtsZEcoRI-RTTAGAATTCACGTCTTGTTCTTCTTGAA
FGFtsZNheI-FGTTGCTAGCATGTTAGAATTTGAACAAGG
FGFtsZAscI-RGTTGGCGCGCCTTATCCCAGACCCGGTTTAC

elife-32358-v1.xml

10.7554/eLife.32358.021Oligonucleotides used in this study
Mouse primersOligonucleotide sequences (5’−3’)
Aldh1a1-/-ForwardTGAGCAAATCCTCCACAGCCCTGTTC
ReverseCTGCTAAAGCGCATGCTCCAGACTG
Aldh1a3 floxForwardTCTCTGACCAGCTTTCCAACCTTCAG
ReverseCTCAAACCAGCACCACCTCCATATTG
Sox9 floxForwardTCAGCAAGACTCTGGGCAAGCTCT
ReverseCTCAAAATCTGAGCCACTCCCTC
Tyr-Cre, Pax6-α-CreForwardCCTGGAAAATGCTTCTGTCCGT
ReverseGTGTCCACATAGTCATTGGCAGAGTG
Sox9-Tg, Kdr-BAC-EGFPForwardAGCTGACCCTGAAGTTCATCTG
ReverseGTCGTCCTTGAAGAAGATGGTG
Flt1-BAC-tdsRedForwardGCTGCAGGCGCGGAGAAGGGCTCTC
ReverseCTTCACGTACACCTTGGAGC
IL2 (internal control)ForwardGCCTAGAAGATGAACTTGGACCTCTG
ReverseGTGGAAGGATTCACTTGCACAGTGAC
Human RPE primers
Sox9ForwardCGTACCCGCACTTGCACAAC
ReverseTCTCGCTCTCGTTCAGAAGTC
VegfaForwardTGCCCGCTGCTGTCTAAT
ReverseTCTCCGCTCTGAGCAAGG
β-actinForwardCCAACCGCGAGAAGATGA
ReverseCCAGAGGCGTACAGGGATAG

elife-32358-v2.xml

10.7554/eLife.32358.021Oligonucleotides used in this study
Mouse primersOligonucleotide sequences (5’−3’)
Aldh1a1-/-ForwardTGAGCAAATCCTCCACAGCCCTGTTC
ReverseCTGCTAAAGCGCATGCTCCAGACTG
Aldh1a3 floxForwardTCTCTGACCAGCTTTCCAACCTTCAG
ReverseCTCAAACCAGCACCACCTCCATATTG
Sox9 floxForwardTCAGCAAGACTCTGGGCAAGCTCT
ReverseCTCAAAATCTGAGCCACTCCCTC
Tyr-Cre, Pax6-α-CreForwardCCTGGAAAATGCTTCTGTCCGT
ReverseGTGTCCACATAGTCATTGGCAGAGTG
Sox9-Tg, Kdr-BAC-EGFPForwardAGCTGACCCTGAAGTTCATCTG
ReverseGTCGTCCTTGAAGAAGATGGTG
Flt1-BAC-tdsRedForwardGCTGCAGGCGCGGAGAAGGGCTCTC
ReverseCTTCACGTACACCTTGGAGC
IL2 (internal control)ForwardGCCTAGAAGATGAACTTGGACCTCTG
ReverseGTGGAAGGATTCACTTGCACAGTGAC
Human RPE primers
Sox9ForwardCGTACCCGCACTTGCACAAC
ReverseTCTCGCTCTCGTTCAGAAGTC
VegfaForwardTGCCCGCTGCTGTCTAAT
ReverseTCTCCGCTCTGAGCAAGG
β-actinForwardCCAACCGCGAGAAGATGA
ReverseCCAGAGGCGTACAGGGATAG

elife-44248-v3.xml

10.7554/eLife.44248.020Oligonucleotides used in this study.
Sequence (5ʹ → 3ʹ)Description
GATTTTCGCTGTCGCACTCTTCATGGGTGCGTGGATTGAAAT ATTGAcgatagTCAATATTTCAATCCACGCACCCATGAAGAGTGC GACAGCGAAAATCCRISPR hairpin target*
GATTTTCGCTGTCGCACTCTTCATGGGTGCGTGGATTGAAAT ATTGAGGTAGGTATTGMini-CRISPR array
CAATACCTACCTCAATATTTCAATCCACGCACCC ATGAAGAGTGCGACAGCGAAAATCRC
CGTAGCTGAGGACCACCAGAACAG TTTTGAATTTTTTTT15-nt 3ʹ overhang prespacer, 4-nt between duplex and PAM††
CGTAGCTGAGGACCACCAGAACAG TTGAATTTTTTTTTT2-nt between duplex and PAM
CGTAGCTGAGGACCACCAGAACAG TTTTTTGAATTTTTT6-nt between duplex and PAM
CGTAGCTGAGGACCACCAGAACAG TTTTTTTTGAATTTT8-nt between duplex and PAM
CTGTTCTGGTGGTCCTCAGCTACG TTTTGAATTTTTTTTRC of previous four oligos
GATTTTCGCTGTCGCACTCTTCATGGGTGCGTGGATTGAAATATTGACRISPR DNA substrate
TCAATATTTCAATCCACGCACCCATGAAGAGTGCGACAGCGAAAATCRC
GCGTAGCTGAGGACCACCAGAACAGTTTTGAATTTTTTTTTTTTTTTTTT25-nt 3ʹ overhang prespacer
GCGTAGCTGAGGACCACCAGAACAG25 bp duplex
CTGTTCTGGTGGTCCTCAGCTACGCRC
GCGTAGCTGAGGACCTTTTTTTTTTTTTGAATTTTTTTTTTTTTTCAGGT CGACAAGCTTGT-rich ssDNA prespacer
CAAGCTTGTCGACCTGAAAAAAAAAAAAAATTCAAAAAAAAAAAAA GGTCCTCAGCTACGCRC
CTAGTATGATCATGTCCAACGAATCAATACCTACCTCAATGAACGGAT48 bp duplex
ATCCGTTCATTGAGGTAGGTATTGATTCGTTGGACATGATCATACTAGRC
GCGTAGCTGAGGACCTTTTTTTTTTTTTTTTTTGAATTGAATTGAA TTTTTTTTTTTTTTTTTTGACAAGCTTGCGACA3 PAM sites interspersed in 2-nt
TGTCGCAAGCTTGTCAAAAAAAAAAAAAAAAAATTCAATTCAATTCA AAAAAAAAAAAAAAAAAGGTCCTCAGCTACGCRC
GCGTAGCTGAGGACCTTTTTTTTTTTTTTTTTTTTGAAGAAGAATTTTT TTTTTTTTTTTTTTTGACAAGCTTGCGACA3 PAM sites without spacing
TGTCGCAAGCTTGTCAAAAAAAAAAAAAAAAAAAATTCTTCTTCAAA AAAAAAAAAAAAAAAAAGGTCCTCAGCTACGCRC
GCGTAGCTGAGGACCTTTTTTTTTTGAATTTTTTTTTTGAATTTT TTTTTTGAATTTTTTTTTTGACAAGCTTGCGACA3 PAM sites interspersed with 10-nt
TGTCGCAAGCTTGTCAAAAAAAAAATTCAAAAAAAAAATTCAAAAA AAAAATTCAAAAAAAAAAGGTCCTCAGCTACGCRC
GCGTAGCTGAGGACCTTTTTTTTTTTTGAATTTTTTTTGAATTTTTTTT GAATTTTTTTTTTTTGACAAGCTTGCGACA3 PAM sites interspersed with 8-nt
TGTCGCAAGCTTGTCAAAAAAAAAAAATTCAAAAAAAATTCAAAAAAAA TTCAAAAAAAAAAAAGGTCCTCAGCTACGCRC
GCGTAGCTGAGGACCTTTTTTTTTTTTTTGAATTTTTTGAATTTT TTGAATTTTTTTTTTTTTTGACAAGCTTGCGACA3 PAM sites interspersed with 6-nt
TGTCGCAAGCTTGTCAAAAAAAAAAAAAATTCAAAAAATTCAAAA AATTCAAAAAAAAAAAAAAGGTCCTCAGCTACGCRC
GCGTAGCTGAGGACCTTTTTTTTTTTTTTTTGAATTTTGAATTTTGAA TTTTTTTTTTTTTTTTGACAAGCTTGCGACA3 PAM sites interspersed with 4-nt
TGTCGCAAGCTTGTCAAAAAAAAAAAAAAAATTCAAAATTCAAAA TTCAAAAAAAAAAAAAAAAGGTCCTCAGCTACGCRC
GCGTAGCTGAGGACCTATATATATATATGAATATATATATATATA CAGGTCGACAAGCTTGAT-rich ssDNA prespacer
CAAGCTTGTCGACCTGTATATATATATATATTCATATATATAT ATAGGTCCTCAGCTACGCRC
GCGTAGCTGAGGACCTTGGTATTCAACAGAATTTTTTTTTTTTTTCA GGTCGACAAGCTTGNon-T-rich upstream/T rich downstream ssDNA prespacer
CAAGCTTGTCGACCTGAAAAAAAAAAAAAATTCTGTTGAATACCAAG GTCCTCAGCTACGCRC
GCGTAGCTGAGGACCTTTTTTTTTTTTTGAACTCGTATTCAACAG CAGGTCGACAAGCTTGT-rich upstream/non T-rich downstream ssDNA prespacer
CAAGCTTGTCGACCTGCTGTTGAATACGAGTTCAAAAAAAAAAAAA GGTCCTCAGCTACGCRC
GCGTAGCTGAGGACCTTGGTATTCAACAGAACTCGTATTC AACAGCAGGTCGACAAGCTTGNon-T-rich up- and downstream ssDNA prespacer
CAAGCTTGTCGACCTGCTGTTGAATACGAGTTCTGTTGAATACCAA GGTCCTCAGCTACGCRC
GCGTAGCTGAGGACCPrimer used for ddNTP Sanger sequencing
GCGTAGCTGAGGACCCGTGGCACCGACATGGCATTTTTNNNNGAA TTTTTGCTGGGCGCTAAGGGACAACTCCAGGTCGACAAGCTTGNNNN on upstream region
GCGTAGCTGAGGACCCGTGGCACCGACATGGCAGTTTTTNNNGAA TTTTTGCTGGGCGCTAAGGGACAACTCCAGGTCGACAAGCTTGNNN on upstream region
GCGTAGCTGAGGACCCGTGGCACCGACATGGCAGGTTTTTNNGAA TTTTTGCTGGGCGCTAAGGGACAACTCCAGGTCGACAAGCTTGNN on upstream region
GCGTAGCTGAGGACCCGTGGCACCGACATGGCAGGCTTTTTNGAA TTTTTGCTGGGCGCTAAGGGACAACTCCAGGTCGACAAGCTTGN on upstream region
GCGTAGCTGAGGACCCGTGGCACCGACATGGCATTTTTGAANNNN TTTTTGCTGGGCGCTAAGGGACAACTCCAGGTCGACAAGCTTGNNNN on downstream region
GCGTAGCTGAGGACCCGTGGCACCGACATGGCATTTTTGAANNNTTTTT CGCTGGGCGCTAAGGGACAACTCCAGGTCGACAAGCTTGNNN on downstream region
GCGTAGCTGAGGACCCGTGGCACCGACATGGCATTTTTGAANN TTTTTCAGCTGGGCGCTAAGGGACAACTCCAGGTCGACAAGCTTGNN on downstream region
GCGTAGCTGAGGACCCGTGGCACCGACATGGCATTTTTGAAN TTTTTCATGCTGGGCGCTAAGGGACAACTCCAGGTCGACAAGCTTGN on downstream region
CAAGCTTGTCGACCTGPrimer used for primer extension
TCGTCGGCAGCGTCAGATGTGTATAAGAGACAGCAAGCTTGTCGACCTGPrimer used for amplification-Forward
GTCTCGTGGGCTCGGAGATGTGTATAAGAGACAGGCGTAGCTGAGGACCPrimer used for amplification-Reverse

*For CRISPR oligonucleotides, leader is in italics, repeat is in bold, and spacer is in plain uppercase font. For hairpin, the loop region is in lowercase.

RC = reverse complement of previous oligonucleotide.

††For cleavage substrates, PAM sequences are underlined.


elife-45952-v2.xml

10.7554/eLife.45952.014Oligonucleotides used in this study.

Restriction enzyme recognition sequences are capitalised. BsaI overhangs are underlined. Introduced mutations are in bolded capital letters. Additional oligonucleotides used for site-directed mutagenesis are listed in Tables S1 and S2 of Supplementary file 1.

NameSequence (5’ to 3’)Function
F2-pUC19-BsaIgcgAGATCTgtcgtGAGACCggtgatgacggtgaaaacctgtsB mutagenesis vector construction
R3-pUC19-MfeI-SpeIactgcgACTAGTCAATTGattaatgcagctggcacgacgtsB mutagenesis vector construction
F-800RightactgcgCAATTGagaccccggaagacatcaggtsB mutagenesis vector construction
R-800RightactgcgTCTAGAcattgcgaagttcaagcgtagtsB mutagenesis vector construction
F2-gtsB-FactgcgGGTCTCagtcgaaaagtcgcgacctacatggConserved gtsB forward primer
R3-gtsB-RactgcgGGTCTCctgccggaCaccacggtcggccagctcConserved gtsB reverse primer
4845-M13FGTAAAACGACGGCCAGTTCCGACAGGCTGTAGTCCTTgtsB sequencing primer
R2-M13R-gtsBGGAAACAGCTATGACCATGTGGTCCTCAGCTCGGAATAgtsB sequencing primer
SP1ACCACACCGAACAGGAAGTC5’ RACE cDNA synthesis
B-SP2ACTGCGTCTAGAGACCAAGGTGATACCGATAAACA5’ RACE gtsB amplification
B-SP3ACTGCGTCTAGACGAACAAGGCCAGGTTTTT5’ RACE gtsB amplification
A-SP2ACTGCGTCTAGATTTCTTGTCGAGCAGGGAGT5’ RACE gtsA amplification
A-SP3ACTGCGTCTAGATTCTTCTTTGGCGACGTCTT5’ RACE gtsA amplification

elife-47365-v2.xml

Oligonucleotides used in this study.
NameSequenceReference
agr-aCGCGGATCCTACATAGCACTGAGTCCAAGGThis study
agr-bGCCGTTAACTGACTTTATTATCTTTTTTACACCACTCTCCTCACTGThis study
agr-cCAGTGAGGAGAGTGGTGTAAAAAAGATAATAAAGTCAGTTAACGGCThis study
agr-dCCGGAATTCCAGTTATTAGCAGGATTTTAGCThis study

elife-56048-v2.xml

Oligonucleotides used in this study.
NameSequence (5´→3´)
JR163GCGCCCATGGCTAAGGCATCCATTTCAATAGACGAGAAG
JR164GCGCGTCGACTTATTCTTTTTCCGTATCCATTTGCTGTA
JR169GCGCCCATGGATTCAAAAGATCAAACAATGTTTTACAACTTC
JR170GCGCGTCGACTCATTTCTCACCAATTTCGTTATTTTTCAG
JR197GCGCGGATCCCAATTATTTCGAATGGTGCGGTGTC
JR198TCCTTATTCGTCGACCATCTTTCCTCAGTCCCTTCCTG
JR199GGAAAGATGGTCGACGAATAAGGAATAAATCCTAGTTAGTAGGG
JR200CGCGCGAATTCCCAAGACTCAACCTCTTTCACTC
JR249GCGCCTGCAGAAAAAATTATTGTACGCGGTGGAAAAC
JR250GCGCGGTACCGCGAATAAAGACGCTAAGTTTGTTACATCG
JR253GCGCTCTAGAAAAGGCATCCATTTCAATAGACGAG
JR254GCGCGGTACCTCTTTTTCCGTATCCATTTGCTG
JR255GCGCTCTAGATTCAAAAGATCAAACAATGTTTTACAAC
JR256GCGCGGTACCTTCTCACCAATTTCGTTATTTTTCAG
JR257GCGCCTGCAGGGAAAAAATTATTGTACGCGGTGGAAAAC
JR264GCGCAGATCTGGCAAATACAGCATTGAACTATGTG
JR265GCGCGGATCCAATCGAAGCACCTCATTCCTTC
JR266GCGCGGATCCATGAGAATAATGGGTTTAGATGTCGGC
JR267GCGCGTCGACGCTAGGAATGTAGCAAGGATTTCTTC
SHW815GATCTATCGATGCATGCCATGGGCTAAATGACCAAGGAATTACCG
SHW816CGCGTCGGGCGATATCGGATCCTTTCTTCCGCGTTTTGGTAACG
SHW817CAATCATCATTTTAAAAGCACCTCACTATTTTTCAG
SHW818TGCTTTTAAAATGATGATTGGTAAGCGATTAAGC
SHW819GATCTATCGATGCATGCCATGGAGATAGAGGCAGAATAAGACATC
SHW820CGCGTCGGGCGATATCGGATCCGGTATTTACAACCACTACGTCG
SHW821CGTTCTTATTTCATGAAGCATCCCTCCCTTTC
SHW822TGCTTCATGAAATAAGAACGGAGGAAATGTGCTG
SHW830GCGCGCTCTAGATGGACGATTTACGCAAAGAGCTCAG
SHW831GCGCGCGGTACCTTAGCTTTTACTTTTTTAGAGGTTGTTTTC
SHW832GCGCGCTCTAGAAATTCCAACAGTAATTGAACAAACTAGC
SHW833GCGCGCGGTACCCCTTTTAAGCCAGATTTATTAATGATAATATC
SW77GTAAAACATTGCTTGATCTTTTGAATCCATGGGTTTCAC
SW78GATCAAGCAATGTTTTACAACTTCGGCGATGATTC
SW79GTAAAACATGTCTTGATCTTTTGAATCCATGGGTTTCAC
SW80GATCAAGACATGTTTTACAACTTCGGCG ATGATTC
SW110GCGCGCGGATCCATGCATGCAGAATTTAGAACAGATAG
SW111GCGCGCGTCGACTCATGAAGCATCCCTCCCTTTC
SW112GCGCGCGGATCCATGATGATTGGTAAGCGATTAAGCG
SW113GCGCGCGTCGACTTAATTTGGATAAGGGACTGTACCTTC
SW136CTAAACGAGCTATCATACTTCTAGCATCCTTGTGAC
SW137GTATGATAGCTCGTTTAGAACGAGATGAAATTATCGAG
SW138AATTTCATCTGCTTCTAAACGACGTATCATACTTCTAGC
SW139GTTTAGAAGCAGATGAAATTATCGAGGAACTTGTCAAAG
SW144CCTTGTGAGCAGGAATATAAGCAGGATCGCCTG
SW145TATATTCCTGCTCACAAGGATGCTAGAAGTATGATAC
SW146GTATCATACTTGCAGCATCCTTGTGACGAGGAATATAAG
SW147GGATGCTGCAAGTATGATACGTCGTTTAGAACGAG
Lmo1503FGCTATACCATGGATTCAAAAGATCAAACAATGTTTTACAAC
Lmo1503RCGATATCTCGAGTCATTTCTCACCAATTTCGTTATTTTTCAG
PrkAFGCTATACCATGGCAATGATGATTGGTAAGCGATTAAGCG
PrkARCGATATCTCGAGTCATTTTTTCTTTTTCTTATCTTTTTTCTCCTCAGG
PrpCFGCTATACCATGGCAATGCATGCAGAATTTAGAACAGATAGAG
PrpCRCGATATCTCGAGTCATGAAGCATCCCTCCCTTTC