Team:Heidelberg/notebook/mm
Methods
Extension PCR
Extension PCR was performed using Phusion Flash master mix with equimolar amounts of overlapping oligo DNA and 5 % DMSO.
In vitro Transcription
dsDNA was transcribed into sRNA with T7 RNA polymerase in transcription buffer in the presence of 4 mM ATP, GTP, CTP, UTP each, 10 mM DTT and 5 % DMSO. Reaction was incubated at 37 °C for ~3 h. Then DNase I was added an the reaction was further incubated at 37 °C for 20 min. RNA of interested was purified in 10 % denaturing PAGE. Band were visualized by UV shadowing and appropriate band was excised and eluted using 0.3 M NaAc pH 5.5.
3’ Modifiction of sRNA
Various amounts of sRNA (1-20 µM) were incubated with modified NTPs (150-400 µM) (Biotin-, Alkyne-, Azide-NTP) using either yeast Poly A Polymerase (PAP), affimetrix or Terminale dinucleotidyl Transferase (TdT), NEB in supplied buffers. Reaction was precipitated. Success was check via CuAAC.
Precipitation of nucleic acids
RNA/DNA was precipitated in the presence of 0.3 M NaAc pH 5.5 at -20 °C by the addition of 2.5 volumes of -20 °C cold EtOH. After storing sample at –20 °C for at least 1.5 h is was centrifuged at 14,000 g. Supernatant was removed and pellet was dissolved in H2O. The concentration of the sample was determined using a NanoDrop and calculated using the extinction coefficient from idt oligoanalyzer.
Copper-catalyzed 1,3-dipolar azide-alkyne cycloaddition (CuAAC)
Copper click reaction was performed as described in Winz, 2012. Success was check on denaturing PAGE that was first scanned in appropriate fluorescent mode and after staining with SYBR Gold in SYBR Gold mode on a Typhoon Scanner, GE.
Initial DNAzyme Activity
DNAzyme activity was initially tested by incubating 0.5- 5 µM DNAzyme with 200nM Substrate in DNAzyme buffer at 37 °C for 1.5 h. Then 2 µL (to 25 µL reaction) were added and DNAzyme was digested for 20 min at 37 °C. Reaction was separated on 20 % denaturing PAGE and visualized with SYBR Gold.
Denaturing Polyacrylamid gel electrophorese (PAGE)
Polyacrylamide gels were prepared using Rotiphorese Sequencing Gel System according to manual. Gel were run in TBE buffer. RNA or DNA was visualized by UV shadowing or SYBR Gold stain and scanning with a Typhoon Scanner, GE.
PCR
PCR was performed using Phusion Flash Master Mix (Thermo Scientific), OneTaq® Quick-Load® 2X Master Mix (NEB), Q5® High-Fidelity 2X Master Mix (NEB) or Velocity DNA Polymerase (Bioline) according to manufacturer’s protocol.
PCR Purification
PCR was purified using QIAquick PCR Purification kit from Qiagen according to manufacturer’s protocol.
Gel Extraction
To extract DNA from agarose gel sample was run on a 0.8 % gel in TAE buffer. DNA was visualized under UV using EtBr. Suitable bands were excised and DNA was extracted using QIAquick Gel Extraction kit according to manufacturer’s protocol.
Agarose gel electrophorese
To check the size of DNA fragments or to purify DNA samples were run on a 0.8-4 % agarose gel. To prepare the gel 0.8-4 % (w/v) agarose were heated in TAE or TBE buffer in the microwave. Gel was poured containing ethidium bromide or Roti Gel Stain and visualized by UV light.
Digest of DNA with restriction enzymes
DNA was incubated with restriction enzyme in appropriate buffer and incubated as described in the manual. If necessary enzymes were heat inactivated and afterwards purified by precipitation or PCR purification kit.
Initial DNAzyme Activity
DNAzyme activity was initially tested by incubating 0.5- 5 µM DNAzyme with 200nM Substrate in DNAzyme buffer at 37 °C for 1.5 h. Then 2 µL (to 25 µL reaction) were added and DNAzyme was digested for 20 min at 37 °C. Reaction was separated on 20 % denaturing PAGE and visualized with SYBR Gold.
Ligation
DNA with matching sticky ends were ligated using T4 DNA Ligase in supplied buffer.
Cryostock of E. coli strain
500 µL of oN culture was mixed with 500 µL of autoclaved 40 % glycerol and stored at -80 °C.
Plasmid prep
Plasmids were purified from liquid cultures using QIAprep Mini-, Midi or Maxiprep according to manufacturer’s protocol. Concentration was determined with a NanoDrop.
Kits
____________________________________________________________
Kit
Manufacturer
Marker
________________________________________________________________
Marker
Supplier
Organisms
____________________________________________________________
Organism
Supplier
BL21(DE3) E. coli
DiVentura Group
TOP10 E. coli
DiVentura Group
BY4741 yeast strain
Knop Lab
HEK 293T Cell Line human
Grimm Lab
HeLa Cell Line human
Eils Lab
Antibiotics
____________________________________________________________
Substance
Supplier
Media
____________________________________________________________
Media
Supplier
Other enzymes
_ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ __ __ __ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _
Enzyme
Supplier
Equipment
__________________________________________________________________
Equipment
Supplier
Buffer
_ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ __ __ __ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _
Name
Detail
10x BSA Buffer
440 mM Tris HCl 8.1; 40 µg/ µL BSA; 2% v/v Glycerol; 300 mM KCl; 200 mM MgCl2
2x Loading Dye
95 % v/v Formamid; 5 % 10 x TBE Buffer (Roth); 1 Tip of a spatula of Bromphenol Blue and Xylenxylanol
10x Transcription Buffer 100 mM Spermidine
400 mM Tris HCl pH 8.1; 100 mM Spermidine; 220 mM MgCl2; 0.1 % Triton X
10x Transcription Buffer 10 mM Spermidine
400 mM Tris HCl pH 8.1; 10 mM Spermidine; 220 mM MgCl2; 0.1 % Triton X
10x Transcription Buffer w/o Spermidine
400 mM Tris HCl pH 8.1; 220 mM MgCl2; 0.1 % Triton X
10x Tris HCl/ KCl Buffer for in vitro transcription
440 mM Tris HCl pH 8.1; 300 mM KCl; 200 mM MgCl2
10x TBE
Tris HCl; EDTA; Boric Acid
2x Renaturing Buffer
40 mM HEPES, pH 7.5; 125 mM KCl
DFHBI Solution
198 µl DMSO; 1 mg DFHBI
Software Libraries
____________________________________________________________
Libray
Description
Python
Python is a general purpose, interpreted, cross-platform, object-oriented, open-source programming language widely used in the scientific world.
OpenMM
We used OpenMM for molecular simulation, specifically to compute the energy levels of given systems consisting of a ligand and an aptamere.
NumPy
NumPy is a fundamental package for scientific computing with Python, version 1.9.2 has been used to hel us doing math.
Amber
Amber is a toolkit for molecular diynamic computations.
pexpect
pexpect is a Python module for handling child applications.
mpmath
mpmath is a Python library for real and complex floating point arithmetic with arbitrary precicion.
zitator.js
Developed to make online-citing easier
plasmid.js
Developed to make plasmid maps interactive
dh001
GibsonmCherry fwd
CGACGGTATCGATAAGCTTGATATCATGGTGAGCAAGGGCGAG
dh001
aGibsonmCherry fwd
CCCGGGCTGCAGGAATTCATGGTGAGCAAGGGCGAG
dh002
GibsonmCherryrev
tttttgttcGTCGAGCTTGTACAATTCGTCC
dh003
Gibsonctfrtestconstruct fwd
aagctcgacGAACAAAAACTCATCTCAGAAGAGGA
dh004
Gibsonctfrtestconstruct rev
cttggacatACCAGAACCACCCGTGATG
dh005
GibsonGFP fwd
ggttctggtATGTCCAAGGGTGAAGAGCT
dh006
GibsonGFP rev
CCCGGGCTGCAGGAATTCCTTATAAAGCTCGTCCATTCCGTG
dh006
aGibsonGFP rev
CGACGGTATCGATAAGCTTGATATCCTTATAAAGCTCGTCCATTCCGTG
dh007
p413GPD fwd
GATATCAAGCTTATCGATACCGTCG
dh008
p413GPD rev
GAATTCCTGCAGCCCGGG
dh009
p413/415GPDsequencing fwd
CGACGGATTCTAGAACTAGTGGATCC
dh010
p413/415GPDsequencing rev
CTTTTCGGTTAGAGCGGATG
dh011
GFPpMaM fwd
AAATAGCTCTTCACCCTTGGACAT
dh012
GFPpMaM rev
CTTATAAAGCTCGTCCATTCCGT
dh013
CFTR x fwd
GGATCCGGGAGACGTGG
dh014
CFTR1 T/A/C sc (site change) rev
GCTAGCCTGGCACCAATGAACC
dh015
CFTR2 A/C sc (site change) rev
GCTAGCCTTCTGGCACCAATGAAC
dh016
GFP1 fwd
GGATCCGGGAGACG
dh017
GFP site change rev
GCTAGCACCTGTTCCTTGGCC
dh018
seq 1rev cftrfrag(in fr)
CGCCCTCACCTCTAACAG
dh018
amplif ins CFTR/21 fwd
GGATCCAAAAAAAAAAGATATTTTCCTGATG
dh018
a amplif ins CFTR/21 fwd
GATCAGGGATCCAAAAAAAAAAGATATTTTCCTGATG
dh019
seq 2fwd cftrfrag(in fr)
AAGGCGATGCCACCAATGG
dh019
amplif ins CFTR1/2 rev
GTCGACTAGATCTGTCCCATTC
dh020
GFPpMaM fwd + BamHI
AAAGGATCCATGTCCAAGGGTGAAGAGC
dh020
amplif ins GFP1 fwd
GGATCCAAAAAAAAAACGTAACCTG
dh020
a amplif ins GFP1 fwd
GATCAGGGATCCAAAAAAAAAACGTAACCTG
dh021
GFPpMaM rev + EcoRI
AAAGAATTCCTTATAAAGCTCGTCCATTCCG
dh021
amplif ins GFP1/2 rev
GTCGACTAGATCTGTCCCATTC
dh022
amplif ins GFP2 fwd
GGATCCAAAAAAAAAAGTTACCTGATG
dh022
a amplif ins GFP2 fwd
GATCAGGGATCCAAAAAAAAAAGTTACCTGATG
dh023
cftrcestkostruktcherrygfp mut fwd
GAAGCTGAAG GACGGCGACC ACT
dh024
cftrcestkostruktcherrygfp mut red
CCTCAGCGTC GTAGTGGTCGCC
dh025
cftrcestkostruktcherrygfp bam fwd
AGATCAGGATCC ATGGTGAGCAAGGGCG
dh026
cftrcestkostruktcherrygfp hind fwd
AGATCAAAGCTT CTTATAAAGCTCGTCCATTCCGTG
dh027
insert cftr/gfp 1/2 amplif bgl ---- sal rev
GTCGACTGTTATCTAGATCTGTCCCATTCGCCATTAC
dh027
a insert cftr/gfp 1/2 amplif bgl ---- sal rev
GATCAGGTCGACTGTTATCTAGATCTGTCCCATTCGCCATTAC
dh028
ins CFTR2 P1 olig fw IVT
TAATACGACTCACTATAGATATTTTCCTGATGAGGTCGCAAGACCGAAACGGTACGCCGTCGAAAATATCATCTAG
dh029
ins CFTR2 P1 olig rv IVT
CTAGATGATATTTTCGACGGCGTACCGTTTCGGTCTTGCGACCTCATCAGGAAAATATCTATAGTGAGTCGTATTA
dh030
ins CFTR2 P2 olig fw IVT
TAATACGACTCACTATAGTGTTTCCTATGGCCGGCATGCCGGCTGGGCAACATTCCGAGGGGACCGTCCCCTCGGTAATGGCGAATGGGAC
dh031
ins CFTR2 P2 olig rv IVT
GTCCCATTCGCCATTACCGAGGGGACGGTCCCCTCGGAATGTTGCCCAGCCGGCATGCCGGCCATAGGAAACACTATAGTGAGTCGTATTA
dh032
Riboz CFTR2A fwd IVT
TAATACGACTCACTATAGTGTATCTATATTCTAAATAGGACC
dh033
Riboz CFTR2C fwd IVT
TAATACGACTCACTATAGTGTATCTATATTCTCAATAGGACC
dh034
Riboz CFTR2T fwd IVT
TAATACGACTCACTATAGTGTATCTATATTCTTAATAGGACC
dh035
Riboz CFTR2 A/C/T rv IVT
CTGGCACCAATGAACCAGGTAATG
dh035
Rib CFTR1 T/A/C fwd
ATGTAGGATCCGGGAGACGTGG
dh036
Rib CFTR2 T fwd
ATGTAGGATCCTGTATCTATATTCTTAATAGGAC
dh037
Rib CFTR2 A fwd
ATGTAGGATCCTGTATCTATATTCTAAATAGGAC
dh038
Rib CFTR2 C fwd
ATGTAGGATCCTGTATCTATATTCTCAATAGGAC
dh039
Rib CFTR1DE T/A/C fwd
ATGTAGGATCCCTCCCCTGATGAG
dh040
Rib CFTR2 DE T/A/C fwd
ATGTAGGATCCATACACTGATGAGGTC
dh041
Rib GFP1 DE fwd
ATGTAGGATCCCTCCCCTGATGAG
dh042
Rib GFP2 DE fwd
ATGTAGGATCCCCATACTGATGAGG
dh043
Rib GFP1 fwd
ATGTAGGATCCGGGAGACGTGG
dh044
Rib GFP2 fwd
ATGTAGGATCCTATGGTCTGGGTATC
dh045
Rib CFTR1 T/A/C rev
ATGTAGCTAGCCTGGCACCAATGAAC
dh046
Rib CFTR2 T rev
ATGTAGCTAGCCTGGCACCAATGAAC
dh047
Rib CFTR2 A/C rev
ATGTAGCTAGCCTTCTGGCACCAATG
dh048
Rib CFTR/ GFP DE rev
ATGTAGCTAGCGTCCCATTCGCC
dh049
Rib GFP 1/2 rev
ATGTAGCTAGCACCTGTTCCTTGGC
dh050
cftrtestconstr fshift pac fwd
AGTCATTAATTAAGAAATATCATCGGTGTTTCCTACGAC
dh051
cftrtestconstr fshift pac rev
TATGATTAATTAATGGTGCCAGGCATACCAG
dh052
mutcorr p415gpd cftrtest fwd
GTGGTTCTGGTGCACCACCATCAC
dh053
mutcorr p415gpd cftrtest rev
GATGGTGATGGTGGTGCACCAGAAC
dh054
Fw CFTR 2 ins IVT pt 1
TAATACGACTCACTATAGATATTTTCCTGATGAGGTCGCAAG
dh055
Re CFTR 2 ins IVT pt 1
CTAGATGATATTTTCGACGGCGTAC
dh056
Fw CFTR 2 ins IVT pt 2
TAATACGACTCACTATAGTGTTTCCTATGGCCGGCATG
dh057
Re CFTR 2 ins IVT pt 2
GTCCCATTCGCCATTACCGAG
dh058
Ribozyme cftr target ivt fwd
TAATACGACTCACTATA G ATGCCTGGCACCATTAAAGAAAATATC
dh059
Ribozyme cftr target ivt rev
TCTGTATCTGTATTCGTCGTAGGAAAC
dh060
Splint p1+p2 cftr2 insert
ATAGGAAACACCCTAGATGATATTTTC
dh061
mut bfp no SalI fwd
CGGGTGTTTACTATGTAGACTACCG
dh062
mut bfp no SalI rev
CGTTCCAGACGGTAGTCTACATAG
dh063
pIRES-U6 BB(Cftrtest) fwd
GAATGGACGAGCTTTATAAG CTAGTAACGGCCGCCAGTG
dh064
pIRES-U6 BB(Cftrtest) rev
TCCTCGCCCTTGCTCACCAT GCCCGGGCTAGAGCGG
dh065
pIRES-U6 Cftrtest(BB) fwd
GCGGCCGCTCTAGCCCGGGC ATGGTGAGCAAGGGCGAGG
dh066
pIRES-U6 Cftrtest(BB) rev
ACACTGGCGGCCGTTACTAG CTTATAAAGCTCGTCCATTCCGTG
dh067
pIRES-U6 BB(BFP) fwd
GTCATAAACTGAATTAATAACTAGTAACGGCCGCCAGTG
dh068
pIRES-U6 BB(BFP) rev
TCTTTGATCAGTTCGCTCATGCCCGGGCTAGAGCGG
dh069
pIRES-U6 BFP(BB) fwd
GCGGCCGCTCTAGCCCGGGCATGAGCGAACTGATCAAAGAGAACAT
dh070
pIRES-U6 BFP(BB) rev
ACACTGGCGGCCGTTACTAGTTATTAATTCAGTTTATGACCCAGCTTGC
dh071
pIRES-U6 lin BamHI fwd
ATCAT GGATCC GGTGTTTCGTCCTTTCCACAAG
dh072
pIRES-U6 lin SalI rev
ATCAT GTCGAC CATTTTTTCTCGAGCCCCAGCTG
dh073
SAFOR pIRES-U6
GACTACAAGGACGACGATGACAAG
dh074
SAREV pIRES-U6
CAACAGCTGGCCCTCGCAGACAGCG
dh075
ribseq pIRES-U6 fwd seq
CTTGTGGAAAGGACGAAACACC
dh076
BFP fwd pac
ATAGTTAATTAAATGAGCGAACTGATCAAAGAGAACAT
dh077
BFP rev Age I
TAGAACCGGTTTAATTCAGTTTATGACCCAGCTTGC
dh078
CFTRtest fwd pac
ATGCTTAATTAAATGGTGAGCAAGGGCGAGG
dh079
CFTRtest rev AgeI
TAGAACCGGTCTTATAAAGCTCGTCCATTCCGTG
dh080
pIRES-U6 pac
ATGATTAATTAAGCCCGGGCTAGAGCGG
dh080
a CFTRtest fwd pac
ATGCTTAATTAAGAGCTCGGATCGATATCGCC
dh081
pIRES-U6 AgeI
AGATACCGGTCTAGTAACGGCCGCCAGTG
dh082
Riboz CFTR2 A/C/T fwd IVT
TAATACGACTCACTATA GGGAGACGTGGTATATTACCTG
dh083
Riboz CFTR2 A/C/T rev IVT
CTGGCACCAATGAACCAGG
fs001
FwdFrag_T7-E
GGGCTAATACGACTCACTATAGGAAGTTGTTATCACTTGTTACGTAAG
fs002
RevFrag_T7-E
TAAGTTGCGGTCTCATACTTCAACCCATCCAAAGTGTTACTTACGTAACAAGTGATAAC
fs004
FwdFrag_T7-B-HHR
GGGCTAATACGACTCACTATAGAGACCGCAACTTATACGGAAACGTACTG
fs005
RevFrag_T7-B-HHR
CAACTTTTCGGCCTTTCGGCCTCATCAGTACGTTTCCGTATAAGT
fs008
fwd_T7-M1RNA (Tm 52,6; dG=-0.80)
GGGCTAATACGACTCACTATAGGAAGCTGACCAGACAGTC
fs009
rev_M1RNA (Tm 54,8; dG=0.37)
AGGTGAAACTGACCGATAAGC
fs010
fwd_T7-EGS-HHR
GGCTAATACGACTCACTATAGGAGTAAGTTGCGGTCTCACCATCTACGGAAACGTACTGATGAGGCCG
fs011
rev_T7-EGS-HHR
TCACCATCTTCGGCCTTTCGGCCTCATCAGTACGTTTCCGTAGATGG
fs013
fwd_gggc-T7-Promotor(Tm 51.7;dG=0)
GGGCTAATACGACTCACTATAG
fs014
rev_T7-E_Joyce_MethodsinEnzymology(Tm50,4;dG=-0.80)
TAAGTTGCGGTCTCATACT
fs015
rev_T7-B-HHR_Joyce_MethodsinEnzymology (Tm 52,1;dG=-0.20)
CAACTTTTCGGCCTTTCG
fs016
rev_T7-EGS-HHR_Joyce_MethodsinEnzymology (Tm 52.6;dG=0)
TCACCATCTTCGGCCTTTC
fs017
10-23D_FragA
GGGCAAGGCTAGCTACAACGACTAAATTGGAGGAAGCTC
fs018
10-23D_FragB
GAGCTGGAGGAAACGGCAGT
fs019
10-23DmLink
GGGCAAGGCTAGCTACAACGACTAAATTGGAGGAAGCTTTTTTTTTGCTGGAGGAAACGGCAG
fs021
tscaf_f_label
GGGCTAATACGACTCACTATAGGCGGCCGCGGGTCCAGGGTTCAAGTCCCTGTTCGGGCGCCA
fs022
10-23D_S_fwd
GGGCTAATACGACTCACTATAGGTTTTTTTTTGACTGCCGTAGGTTGCCCG
fs023
10-23D_S_rev
CGGCCGCTGCTCTACCGACTGAGCTATCCGGGCGGGCAACCTACGGCAGTCAAAAAAAAACC
fs024
tscaf_comp
TGGCGCCCGAACAGGGACTTGAACCCTGGACCCGCGGCCGCCTATAGTGAGTCGTATTAGCCC
fs025
7-18D_FragA
GGCAACTCCGAGCCGGACGAACGTTGGAGGAAGCTC
fs026
7-18D_FragB
GAGCTGGAGGAAAAAGCAGTC
fs027
7-18DmLink
GGCAACTCCGAGCCGGACGAACGTTGGAGGAAGCTTTTTTTTTGCTGGAGGAAAAAGCAGTC
fs028
7-18D_S_fwd
GGGCTAATACGACTCACTATAGGTTTTTTTTTGACTGCCGTAGGTTGCCCG
fs029
10-23D_S_rev
CGGCCGCTGCTCTACCGACTGAGCTATCCGGGCGGGCAACCTACGGCAGTCAAAAAAAAACC
fs030
splint_C
GGGCAACCTACGGCAGTCAAAAAAAAACCCTGGCGCCCGAACAGGG
fs031
splint_U
GGGCAACCTACGGCAGTCAAAAAAAAACCUTGGCGCCCGAACAGGG
fs032
10-23D
GGGCAAGGCTAGCTACAACGACTACGGCAG
fs033
7-18D
GGCAACTCCGAGCCGGACGAACGGCAGTC
fs038
S_rev+AULinker
AAAATTAAATCGGCCGCTGCTCTACCGACTGAGCTATCCGGGCGGGCAACCTACGGCAGTCAAAAAAAAACC
fs039
S_AULink_rev
AAAATTAAATCGGCCGCTGCTCTACC
fs040
assembly fwd
ATTTCTGGAATTCGCGGCCGCTTCTAGAGGATATCGCGCGCTAATACGACTCACTATAGGGCCGGCATGGTCCCAGCCTCCTCGCTGGCG
fs041
assembly rev
GGCCGCTACTAGTAGATATCGTCCCATTCGCCATTACCGAGGGGACGGTCCCCTCGGAATGTTGCCCAGCCGGCGCCAGCGAGGAGGCTGGGACCATGC
fs042
extraction fwd
GATATCGCGCGCTAATACGACTCACTATAG
fs043
extraction rev
GATATCGTCCCATTCGCCATTACCGAGG
fs044
linearization fwd
CATGGTCCCAGCCTCCTCGC
fs045
linearization rev
CTATAGTGAGTCGTATTAGCGCGCGATATC
fs046
Spinach-Primer fwd
GATATCGCGCGCTAATACGACTCACTATAGATGTAACTGAATGAAATGGTGAAGGACGGGTCCAGTAGGCTGCTTCGGCAGCCTACTTG
fs047
Spinach-Primer rev
GCGAGGAGGCTGGGACCATGCCGGCCGATGTAACTAGTTACGGAGCTCACACTCTACTCAACAAGTAGGCTGCCGAAGCAGCCTACTGG
fs049
HRP_DNALink
GGGTAGGGCGGGTTGGGAAAAA
fs050
SubsHRPDNA
GGGCTAATACGACTCACTATAGGAAAAAAGACTGCCGTAGGTTGCCCAAAAA
fs051
SubsHRPDNArev
TTTTTGGGCAACCTACGGCAGTCTTTTTTCCTATAGTGAGTCGTATTAGCCC
fs052
SplintHRPDNA
CTTTTTCCTTTTTTC
fs053
tscaf_LabelAU
GGGCTAATACGACTCACTATAGGCGGCCGCGGGTCCAGGGTTCAAGTCCCTGTTCGGGCGCCAGAAAAA
fs054
tscaf_labelAU comp
TTTTTCTGGCGCCCGAACAGGGACTTGAACCCTGGACCCGCGGCCGCCTATAGTGAGTCGTATTAGCCC
hb001
GFPpMaM fwd + EcoRI
GAATTCAAATAGCTCTTCACCCTTGGACAT
hb002
GFPpMaM rev + BamHI
GGATCCCTTATAAAGCTCGTCCATTCCGT
hb003
GFPdelY fwd
AGTAACAACGTTGACAGGTGTCCAATGTTTCTCAAGATACCC
hb004
GFPdelY rev
AGAAACATTGGACACCTGTCAACGTTGTTACTAGGGTTGGCC
jd001
mTagBFP_fwd_Gibson
ATGGAACAAAAACTTATTAGCGAAGAAGATCTTATGAGCGAACTGATCAAAGAG
jd002
mTagBFP_rev_Gibson
CAAAGTCTTGACGAAAATCTGCATATTCAGTTTATGACCCAGCTTGC
jd003
Ub_fwd_Gibson
GCAAGCTGGGTCATAAACTGAATATGCAGATTTTCGTCAAGACTTTG
jd004
Ub_rev_Gibson
GCTCTTCACCCTTGGACATAGAACCACCTCTTAGCCTTAGCAC
jd005
sfGFP_fwd_Gibson
GTGCTAAGGCTAAGAGGTGGTTCTATGTCCAAGGGTGAAGAGC
jd006
sfGFP_rev_Gibson
CGTGACATAACTAATTACATGACTCGAGTTATTACTTATAAAGCTCGTCCATTCCG
jd007
p415GPD_fwd_Gibson
CGGAATGGACGAGCTTTATAAGTAATAACTCGAGTCATGTAATTAGTTATGTCACG
jd008
p415GPD_rev_Gibson
AAGATCTTCTTCGCTAATAAGTTTTTGTTCCATGTCGACGGTATCGATAAGCTTG
jd022
GibsonfwdccdB
CCCCCGGGCTGCAGGAATTCGATTGAGACCACTGGCTGTGTATAAGGGAGC
jd023
GibsonrevccdB
GGTCGACGGTATCGATAAGCTTGATTGAGACCCGCGTGGATCCGGCTTACTAAAAG
jd024
Gibsonp415rev
ATCGAATTCCTGCAGCCCGGGGG
jd025
Gibsonp415fwd
ATCAAGCTTATCGATACCGTCGACCTCGAGTCATGTAATTAG
jd026
Gibsonmutationrev
CAATGATACCGCGAGAGCCACGCTCACCGGCTCCAGATTTATC
jd027
Gibsonmutationfwd
CCGGTGAGCGTGGCTCTCGCGGTATCATTG
jd029
umklonierungpcfwd
TTTTGGTCTCTGATCCCCCGGGCTGCAGGAATTC
jd030
umklonierungpcrev
TTTTGGTCTCTTCGACGGTATCGATAAGCTTGAT
jd031
ggexfwd1.1
AAGGTCTCACTCGCCTAACGAGAAACGGGACCACATGGTTCTTCTTGAGTTCGTAACAGC
jd031
ggexfwd1.2
GTTCATCCATACCATGGGTAATGCCGGCGGCTGTTACGAACTCAAGAAGAACCATGTGG
jd032
ggexref1.1
TTGGTCTCTTGATTTATTAAAGATCTTCTTCGCTAATCAGCTTTTGCTCTTTGTAGAG
jd032
ggexref1.2
CGGCATTACCCATGGTATGGATGAACTCTACAAAGAGCAAAAGCTGATTAGCGAAGAAG
jd033
RTmyc
AAGATCTTCTTCGCTAATAAGTTTTTG
jd034
RTgfp
CTTATAAAGCTCGTCCATTCCG
mj001
olig mcs extens fw
GATCCGCTAGCAGATCTGTCGACA
mj002
olig mcs extens rv
CTAGTGTCGACAGATCTGCTAGCG
mj003
olig pcat promoter fwd
AATTCGCGGCCGCTTCTAGAGGGCACGTAAGAGGTTCCAACTTTCACCATAATGAAACATAG
mj004
olig pcat promoter rev
GATCCTATGTTTCATTATGGTGAAAGTTGGAACCTCTTACGTGCCCTCTAGAAGCGGCCGCG
mj006
pSB1C3 seq fwd
TGCCACCTGACGTCTAAGAA
mj007
pSB1C3 seq rev
ATTACCGCCTTTGAGTGAGC
mj010
Splint CFTR 2 insert CLICK
ATAGGAAACACCTTTGATGATATTTTC
mj011
Rev CFTR 2 insert CLICK pt 2
GUCCCAUUCGCCAUUACC
mj012
Rev CFTR 2 insert CLICK pt 1
AAAGAUGAUAUUUUCGACG
mj013
Fwd CFTR 2 insert CLICK pt 2
TAATACGACTCACTATAGTGTTTCCTATGGCCGG
mj014
Fwd CFTR 2 insert CLICK pt 1
TAATACGACTCACTATAGAUAUUUUCCUGAUGAGG
mj015
Rescue Primer CFRT I/II Rv
CGCCAGCGAGGAGGCTGGGACCATGCCGGCCCTGG
mj016
Rescue Primer CFTR II insert Rv
CGCCAGCGAGGAGGCTGGGACCATGCCGGCCATAGGAAAC
mj017
Rescue Primer CFTR I insert Rv
CGCCAGCGAGGAGGCTGGGACCATGCCGGCCACCCTAG
mj018
Rescue Primer GFP I/II Rv
CGCCAGCGAGGAGGCTGGGACCATGCCGGCCACCTG
mj019
Rescue Primer GFP II insert Rv
CGCCAGCGAGGAGGCTGGGACCATGCCGGCCATTGAACACC
mj020
Rescue Primer GFP I insert Rv
CGCCAGCGAGGAGGCTGGGACCATGCCGGCCACCATATGTC
mj021
Rescue Primer HDV Forward Insert/Ribozyme
GTCCCAGCCTCCTCGCTGGCGCCGGCTGGGCAACATTCCG
mjz001
BR_HIS_linker_0
GCTATGGGTGGTCTGGTTGGGATTGGCCCCGGGAGCTGGCGGGTAGGGCGGGTTGGG
mjz002
BR_HIS_linker_A_3
GCTATGGGTGGTCTGGTTGGGATTGGCCCCGGGAGCTGGCAAAGGGTAGGGCGGGTTGGG
mjz003
BR_HIS_linker_A_5
GCTATGGGTGGTCTGGTTGGGATTGGCCCCGGGAGCTGGCAAAAAGGGTAGGGCGGGTTGGG
mjz004
BR_HIS_linker_A_10
GCTATGGGTGGTCTGGTTGGGATTGGCCCCGGGAGCTGGCAAAAAAAAAAGGGTAGGGCGGGTTGGG
mjz005
BR_HIS_linker_A_20
GCTATGGGTGGTCTGGTTGGGATTGGCCCCGGGAGCTGGCAAAAAAAAAAAAAAAAAAAAGGGTAGGGCGGGTTGGG
mjz006
BR_HIS_linker_A_20_LR
GCTATGGGTGGTCTGGTTGGGATTGGCCCCGGGAGCTGGCAAAAAAAAAAAAAAAAAAAAGGGTAGGGCGGGTTGGGAAAAAAAAAAAAAAAAAAAAGCTATGGGTGGTCTGGTTGGGATTGGCCCCGGGAGCTGGC
mjz007
BR_HIS_II_linker_0
GTTTGCCGGTGGGCAGGTCTAGGGTCTGCTCGGGATTGCGGAGGAACATGCGTCGCAAACGGGTAGGGCGGGTTGGG
mjz008
BR_HIS_II_linker_A_3
GTTTGCCGGTGGGCAGGTCTAGGGTCTGCTCGGGATTGCGGAGGAACATGCGTCGCAAACAAAGGGTAGGGCGGGTTGGG
mjz009
BR_HIS_II_linker_A_5
GTTTGCCGGTGGGCAGGTCTAGGGTCTGCTCGGGATTGCGGAGGAACATGCGTCGCAAACAAAAAGGGTAGGGCGGGTTGGG
mjz010
BR_HIS_II_linker_A_10
GTTTGCCGGTGGGCAGGTCTAGGGTCTGCTCGGGATTGCGGAGGAACATGCGTCGCAAACAAAAAAAAAAGGGTAGGGCGGGTTGGG
mjz011
BR_HIS_II_linker_A_20
GTTTGCCGGTGGGCAGGTCTAGGGTCTGCTCGGGATTGCGGAGGAACATGCGTCGCAAACAAAAAAAAAAAAAAAAAAAAGGGTAGGGCGGGTTGGG
mjz012
BR_HIS_II_linker_A_10_LR
GTTTGCCGGTGGGCAGGTCTAGGGTCTGCTCGGGATTGCGGAGGAACATGCGTCGCAAACAAAAAAAAAAAAAAAAAAAAGGGTAGGGCGGGTTGGGAAAAAAAAAAAAAAAAAAAAGTTTGCCGGTGGGCAGGTCTAGGGTCTGCTCGGGATTGCGGAGGAACATGCGTCGCAAAC
ms001
GGGCTAATACGACTCACTATAGGATGTAACTGAATGAAATGGTGAAGGACGGGTCCA
ms002
GATGTAACTAGTTACGGAGCTCACACTCTACTCAACAAGTAGGCTGCCGAAGCAGCCTACTGGACCCGTCCTTCACCATTTC
ms004
reverse EGS with 3' Hammerhead Ribozyme
GAGCTCGTACCAGGTTTCGTCCTCACGGACTCATCAGACCGGAAAGCACATCCGGTGACCTGGTGAGACCGCAACTTACT
ms005
GATGTAACTAGTTACGGAGCTCACACTCTACTCAACAACTGCCAAGGGCCTTTCGGCTGGTATTGGACCCGTCCTTCACCATTTC
ms006
GATGTAACTAGTTACGGAGCTCACACTCTACTCAACAACTGCCAATGGCCTTTCGGCTGGTATTGGACCCGTCCTTCACCATTTC
ms007
forward T7 promotor with Spinach2 containing the c-di-GMP Aptamer
GGGCTAATACGACTCACTATAGGATGTAACTGAATGAAATGGTGAAGGACGGGTCCACACGCACAGGGCAAACCATTCGAAAGAGTGGGACGCAAAGCCTCCGGCCTAAACCAGAAGACATGGTAGGTAGCGGGGTTACCGATGTTGTTGAGTAGAGTGTGAGCTCCGTAACTAGTTACATC
ms008
GATGTAACTAGTTACGGAGC
ms009
GGGCTAATACGACTCACTATAGG
ms010
reverse Spinach2 containing the c-di-GMP Aptamer Mutant
GGGCTAATACGACTCACTATAGGATGTAACTGAATGAAATGGTGAAGGACGGGTCCACACGCACAGGGCAAACCGTTCGAAAGAGTGGGACGCAAAGCCTCCGGCCTAAACCAGAAGACATGGTAGGTAGCGGGGTTACCGATGTTGTTGAGTAGAGTGTGAGCTCCGTAACTAGTTACATC
ms011
GGGCTAATACGACTCACTATAGGGATCCGTCCTGATGAGTCCGTGAGGACGAAACGGTACCCGGTACCGTCGACGGGGAGTAAGTTGCGGTCTCACCA
ms011
(13)_reverse ATP Aptamer
GATGTAACTAGTTACGGAGCTCACACTCTACTCAACAAACACATGGACTCCTTCCATGTAGCTCCCGTAAGAGCCCTGAGATCCGTAGATCTCCCTGGACCCGTCCTTCACCATTTC
ms011
reverse Spinach2 containing the ATP Aptamer
GATGTAACTAGTTACGGAGCTCACACTCTACTCAACAAACACATGGACTCCTTCCATGTAGCTCCCGTAAGAGCCCTGAGATCCGTAGATCTCCCTGGACCCGTCCTTCACCATTTC
ms012
GAGCTCGTACCAGGTTTCGTCCTCACGGACTCATCAGACCGGAAAGCACATCCGGTGACCTGGTGAGACCGCAACTTACT
ms012
reverse ATP Spinach with computer generated stem 1
GATGTAACTAGTTACGGAGCTCACACTCTACTCAACAAGGGCAAAGACACATGGACTCCTTCCATGTAGCTCCCGTAAGAGCCCTGAGATCCGTAGATCTCCCCCTGGCCCTGGACCCGTCCTTCACCATTTC
ms013
reverse ATP Spinach with computer generated stem 2
GATGTAACTAGTTACGGAGCTCACACTCTACTCAACAAGGTACAATACACATGGACTCCTTCCATGTAGCTCCCGTAAGAGCCCTGAGATCCGTAGATCTCCCTACGCACCTGGACCCGTCCTTCACCATTTC
ms014
forward T7 promotor with Malachite Green Aptamer
TAATACGACTCACTATAGGATCCCGACTGGCGAGAGCCAGGTAACGAATGGATCC
ms015
reverse T7 promotor with Malachite Green Aptamer
GGATCCATTCGTTACCTGGCTCTCGCCAGTCGGGATCCTATAGTGAGTCGTATTA
ms016
forward EcoRV site, T7 promotor and Spinach2 with ATP Aptamer
GATATCGCGCGCTAATACGACTCACTATAGGATGTAACTGAATGAAATGGTGAAGGACGGGTCCA
ms017
reverse HDV and Spinach2 with ATP Aptamer
GGAGGCTGGGACCATGCCGGCCGATGTAACTAGTTACGGAGCTCACACTCTACTCAACAAACACATGGACTCCTTCCATGTAGCTCCCGTAAGAGCCCTGAGATCCGTAGATCTCCCTGGACCCGTCCTTCACCATTTC
ms023
forward T7 2.5 promotor with Malachite Green Aptamer
TAATACGACTCACTATTAGATCCCGACTGGCGAGAGCCAGGTAACGAATGGATCC
ms024
reverse T7 2.5 promotor with Malachite Green Aptamer
GGATCCATTCGTTACCTGGCTCTCGCCAGTCGGGATCTAATAGTGAGTCGTATTA
ms025
forward Sp6 promotor with Malachite Green Aptamer
TCATTTAGGTGACACTATAGGATCCCGACTGGCGAGAGCCAGGTAACGAATGGATCC
ms026
reverse Sp6 promotor with Malchite Green Aptamer
GGATCCATTCGTTACCTGGCTCTCGCCAGTCGGGATCCTATAGTGTCACCTAAATGA
ms027
forward T3 promotor with Malachite Green Aptamer
CAATTAACCCTCACTAAAGGATCCCGACTGGCGAGAGCCAGGTAACGAATGGATCC
ms028
reverse T3 promotor with Malachite Green Aptamer
GGATCCATTCGTTACCTGGCTCTCGCCAGTCGGGATCCTTTAGTGAGGGTTAATTG
ms029
forward E. coli (T7A1) promotor with Malachite Green
GGATCCATTCGTTACCTGGCTCTCGCCAGTCGGGATCCCCTCTCGATGGCTGTAAGTATCCTATAGGTTAGACTTTAAGTCAATACTCTTTTTGATAA
ms030
reverse E. coli (T7A1) promotor with Malachite Green
TTATCAAAAAGAGTATTGACTTAAAGTCTAACCTATAGGATACTTACAGCCATCGAGAGGGGATCCCGACTGGCGAGAGCCAGGTAACGAATGGATCC
ms031
forward EcoRV site, T7 promotor and Hammerhead Ribozyme
GATATCGCGCGCTAATACGACTCACTATAGTCCAGTCACCGGATGTGCTTTCCGGTCTGATGAGTCCGTGAGGACGAAACTGGT
ms032
reverse HDV, Malachite Green Aptamer and Hammerhead Ribozyme
GGAGGCTGGGACCATGCCGGCCGGATCCATTCGTTACCTGGCTCTCGCCAGTCGGGATCCACCAGTTTCGTCCTCACGGACTCATC
ms032
reverse HDV, Malachite Green Aptamer and Hammerhead Ribozyme
GGAGGCTGGGACCATGCCGGCCGGATCCATTCGTTACCTGGCTCTCGCCAGTCGGGATCCACCAGTTTCGTCCTCACGGACTCATC
ms034
reverse Malachite Green Aptamer with Hammerhead Ribozyme
GGATCCATTCGTTACCTGGCTCTCGCCAGTCGGGATCCACCAGTTTCGTCCTCACGGA
ms036
forward T7 promotor, ATP Aptamer and Hammerhead Ribozyme
TAATACGACTCACTATAGGAGATCTACGGATCTCAGGGCTCTCCAGTCACCGGATGTGCTTTCCGGTCTGATGAGTCCGTGAGGACGAAACTGGT
ms037
forward EcoRV site, T7 promotor and Spinach2 with ATP Aptamer with computer generated stem 1
GATATCGCGCGCTAATACGACTCACTATAGGATGTAACTGAATGAAATGGTGAAGGACGGGTCCAGGGCCAGGGGGAGATCTACGGATCTCAGGGCTCTTACGGGAGC
ms038
forward EcoRV site, T7 promotor and Spinach2 with ATP Aptermer with computer generated stem 2
GATATCGCGCGCTAATACGACTCACTATAGGATGTAACTGAATGAAATGGTGAAGGACGGGTCCAGGTGCGTAGGGAGATCTACGGATCTCAGGGCTCTTACGGG
ms039
reverse HDV and Spinach2 with ATP Aptamer with computer generated stem 1
GGAGGCTGGGACCATGCCGGCCGATGTAACTAGTTACGGAGCTCACACTCTACTCAACAAGGGCAAAGACACATGGACTCCTTCCATGTAGCTCCCGTAAGAGCCCTGAG
ms040
reverse HDV and Spinach2 with ATP Aptamer with computer generated stem
GGAGGCTGGGACCATGCCGGCCGATGTAACTAGTTACGGAGCTCACACTCTACTCAACAAGGTACAATACACATGGACTCCTTCCATGTAGCTCCCGTAAGAGCCCTGAG
ms041
reverse Spinach Mutation for RFC
AAGCAGCCTACTGGACCCGTCCTTCACCATTTCATTCAGATACATCCTAT
ms042
forward Spinach Mutation for RFC
CGGCAGCCTACTTGTTGAGTAGAGTGTGAGCTCCGTAACTAGATACATC
sh001
myc_pos_fwd_Gibson
GAACAAAAACTTATTAGCGAAGAAGATCTTTAATAACTCGAGTCATGTAATTAGTTATG
sh002
myc_pos_rev_Gibson
TTATTAAAGATCTTCTTCGCTAATAAGTTTTTGTTCCTTATAAAGCTCGTCCATTCCG
sh003
seq_Ub_Sandwich-rev
GATCTGGAGGGATACCTTCC
sh004
seq_Ub_Sandwich-fwd
GGAAGGTATCCCTCCAGATC
sh005
p413GPD_fwd_Gibson
CGGAATGGACGAGCTTTATAAGTAATAAGATATCAAGCTTATCGATACCGTCG
sh006
p413GPD_rev_Gibson
AAGATCTTCTTCGCTAATAAGTTTTTGTTCCATGAATTCCTGCAGCCCGGG
sh007
sfGFP_rev_Gibson_NEW
CGACGGTATCGATAAGCTTGATATCTTATTACTTATAAAGCTCGTCCATTCCG
sh008
myc_pos_fwd_Gibson_NEW
GAACAAAAACTTATTAGCGAAGAAGATCTTTAATAAGATATCAAGCTTATCGATACCGTC
sh014
cPCR_mycPos_Verify
CTTGATATCTTATTAAAGATCTTCTTCGC
sh015
blank_ribozyme_fwd
AAGGTCTCTGGCATGCACCTG
sh016
blank_ribozyme_rev
TTGGTCTCACGAGTACTCCAAAAC
sh017
GFP_guide_shorty_fwd
AAGGTCTCACGATCTTCTTCGCTTG
sh018
GFP_guide_shorty_rev
TTGGTCTCTTGCCTGATAACTTTTAAAGAC
sh019
GFP_exon_shorty_fwd
AAGGTCTCACTCGCCTAACGAG
sh020
GFP_exon_rev
TTGGTCTCTTGATTTATTAAAGATCTTCTTCGC
sh021
GFP_guide_long_fwd
AAGGTCTCACGATTGCGATTAACTAG
sh022
GFP_guide_long_rev
TTGGTCTCTTGCCTGATAACTTTTAAAAGC
sh023
GFP_exon_long_fwd
AAGGTCTCACTCGGCCATGC
tt001
bam_pcat_rbs_gfp
TGACAGAATTCGGATCCGGCACGTAAGAGGTTCCAACTTTCACCATAATGAAACAAAAGAGGAGAAAATGTCCAAGGGTGAAGAGCTATTTAC
tt002
sal_gfp
TGACTGCGGCCGCGTCGACCTTATAAAGCTCGTCCATTCCGTG