FUN30 cDNA ORF clone, Saccharomyces cerevisiae S288C

Gene
Clones
gRNAs

Summary

Gene Symbol	FUN30
Entrez Gene ID	851214
Full Name	DNA-dependent ATPase FUN30
Gene Type	protein-coding
Organism	Saccharomyces cerevisiae S288C

mRNA and Protein(s)

mRNA	Protein	Name
NM_001178164.1	NP_009383.1	DNA-dependent ATPase FUN30

Pathways from BioSystems

Homologies

Schizosaccharomyces pombe (fission yeast)	fft2	NP_587731.1
Saccharomyces cerevisiae (baker's yeast)	FUN30	NP_009383.1
Kluyveromyces lactis	KLLA0F07513g	XP_455420.1
Schizosaccharomyces pombe (fission yeast)	fft3	NP_593617.1
Eremothecium gossypii	AGOS_ACR286C	NP_983688.1
Schizosaccharomyces pombe (fission yeast)	fft1	NP_593325.1

Gene Ontology
Bibliography

Related articles in PubMed

Life with 6000 genes.
Goffeau A, Barrell BG, Bussey H, Davis RW, Dujon B, Feldmann H, Galibert F, Hoheisel JD, Jacq C, Johnston M, Louis EJ, Mewes HW, Murakami Y, Philippsen P, Tettelin H, Oliver SG
Science (New York, N.Y.)274(5287)546, 563-7(1996 Oct)

The nucleotide sequence of chromosome I from Saccharomyces cerevisiae.
Bussey H, Kaback DB, Zhong W, Vo DT, Clark MW, Fortin N, Hall J, Ouellette BF, Keng T, Barton AB
Proceedings of the National Academy of Sciences of the United States of America92(9)3809-13(1995 Apr)

GeneRIFs: Gene References Into Functions What's a GeneRIF?

Fun30 acts to down regulate Rad9-dependent DNA damage checkpoint triggered by CPT or MMS, but does not affect Rad9-independent intra-S phase replication checkpoint induced by MMS or HU. It supports the notion that Fun30 contributes to cellular response to DSBs by preventing excessive DNA damage checkpoint activation in addition to its role in facilitating DNA end resection.
Title: Cell cycle-dependent positive and negative functions of Fun30 chromatin remodeler in DNA damage response.

Budding yeast Fun30 and human SMARCAD1 are cell cycle-regulated by interaction with the DNA double strand break-localized scaffold protein Dpb11/TOPBP1, respectively. In yeast, this protein assembly additionally comprises the 9-1-1 damage sensor, is involved in localizing Fun30 to damaged chromatin, and thus is required for efficient long-range resection of DNA double strand breaks.
Title: Targeting of the Fun30 nucleosome remodeller by the Dpb11 scaffold facilitates cell cycle-regulated DNA end resection.

Cdk1 and multiple cyclins become highly enriched at DSBs and that the recruitment of Cdk1 and cyclins Clb2 and Clb5 ensures optimal Fun30 phosphorylation and checkpoint activation.
Title: Enrichment of Cdk1-cyclins at DNA double-strand breaks stimulates Fun30 phosphorylation and DNA end resection.

These results define a role for Fun30 in the regulation of transcription and indicate that Fun30 remodels chromatin at the 5' end of genes by sliding promoter-proximal nucleosomes.
Title: The ATP-dependent chromatin remodeling enzyme Fun30 represses transcription by sliding promoter-proximal nucleosomes.

Fun30, a poorly characterized member of the Swi2/Snf2 family of chromatin remodelers, plays a role in end processing by facilitating the Exo1 and Sgs1-Dna2 resection pathways.
Title: Overcoming the chromatin barrier to end resection.

The following FUN30 gene cDNA ORF clone sequences were retrieved from the NCBI Reference Sequence Database (RefSeq). These sequences represent the protein coding region of the FUN30 cDNA ORF which is encoded by the open reading frame (ORF) sequence. ORF sequences can be delivered in our standard vector, pcDNA3.1⁺/C-(K)DYK or the vector of your choice as an expression/transfection-ready ORF clone. Not the clone you want? Click here to find your clone.

***CloneID	Accession No.	Definition	**Vector	*Turnaround time	Price (USD)	Select
OSi00800	NM_001178164.1 Latest version!	Saccharomyces cerevisiae S288C DNA-dependent ATPase FUN30 (FUN30), partial mRNA.	pcDNA3.1-C-(k)DYK or customized vector	20	$629.30 $899.00

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** You may select a custom vector to replace pcDNA3.1+/C-(K)DYK after clone is added to cart.

** GenScript guarantees 100% sequence accuracy of all synthetic DNA constructs we deliver, but we do not guarantee protein expression in your experimental system. Protein expression is influenced by many factors that may vary between experiments or laboratories. In addition, please pay attention to the signal peptide, propeptide and transit peptide in target ORF, which may affect the choice of vector (N/C terminal tag vector).

***One clone ID might be correlated to multiple accession numbers, which share the same CDS sequence.

Reference Sequences (Refseq)

FUN30 ( NM_001178164.1 ) cDNA ORF clone, Saccharomyces cerevisiae S288C -> NP_009383.1 Saccharomyces cerevisiae S288C DNA-dependent ATPase FUN30 (FUN30), partial mRNA.

Price & Availability↑

CloneID	OSi00800
Clone ID Related Accession (Same CDS sequence)	NM_001178164.1
Accession Version	NM_001178164.1 Latest version!	Documents for ORF clone product in default vector
Sequence Information	ORF Nucleotide Sequence (Length: 3396bp) Protein sequence SNP
Vector	pcDNA3.1-C-(k)DYK or customized vector	User Manual
Clone information	Clone Map	MSDS
Tag on pcDNA3.1⁺/C-(K)DYK	C terminal DYKDDDDK tags
ORF Insert Method	CloneEZ™ Seamless cloning technology
Insert Structure	linear
Update Date	2019-10-31
Organism	Saccharomyces cerevisiae S288C
Product	DNA-dependent ATPase FUN30
Comment	Comment: REVIEWED REFSEQ: This record has been curated by SGD. This record is derived from an annotated genomic sequence (NC_001133). ##Genome-Annotation-Data-START## Annotation Provider :: SGD Annotation Status :: Full Annotation Annotation Version :: R64-2-1 URL :: http://www.yeastgenome.org/ ##Genome-Annotation-Data-END## COMPLETENESS: incomplete on both ends.

ATGAGTGGTT CGCATTCAAA TGATGAGGAT GACGTAGTGC AAGTGCCCGA GACGTCCTCT 
CCCACCAAGG TAGCATCGTC GTCTCCCTTA AAGCCTACTT CGCCAACAGT TCCGGATGCA 
AGTGTGGCGT CTTTGAGAAG CAGGTTTACT TTCAAGCCTT CAGATCCCAG CGAAGGAGCT 
CATACTTCGA AGCCGCTCCC ATCTGGGAGT CCTGAGGTAG CACTGGTTAA CCTTGCGAGA 
GAGTTCCCCG ATTTCTCTCA AACTCTGGTG CAGGCTGTTT TCAAATCTAA CTCTTTTAAC 
TTACAGTCTG CCAGGGAACG TCTTACAAGA TTGAGGCAGC AAAGACAAAA TTGGACATGG 
AACAAGAACG CATCTCCCAA GAAGTCAGAA ACCCCGCCAC CTGTCAAGAA GTCATTACCA 
CTGGCAAACA CAGGCCGTTT ATCATCTATC CATGGCAATA TCAACAACAA ATCCTCCAAG 
ATTACCGTGG CCAAACAGAA AACGTCCATT TTTGACCGTT ACTCAAACGT CATCAACCAG 
AAACAATACA CTTTTGAGCT GCCAACTAAC TTGAATATAG ACTCGGAGGC ACTGAGCAAG 
TTGCCCGTGA ACTACAACAA AAAGAGAAGG CTGGTAAGGG CAGATCAGCA TCCAATTGGC 
AAGTCTTATG AGTCATCCGC TACACAATTA GGTTCTGCAA GAGAGAAACT ACTGGCGAAC 
CGCAAATACG GTCGTCATGC AAACGACAAC GATGAAGAGG AGGAAGAGAG TATGATGACG 
GACGATGACG ATGCAAGTGG CGACGACTAC ACAGAATCCA CGCCGCAGAT AAATCTGGAT 
GAACAAGTTT TACAGTTTAT TAATGACTCT GATATTGTCG ATCTCTCGGA CCTCTCAGAT 
ACCACGATGC ATAAGGCTCA ACTCATAGCC TCACATAGGC CATATTCTTC TTTAAATGCC 
TTTGTAAACA CAAATTTCAA TGATAAGGAC ACTGAGGAGA ACGCATCGAA CAAGAGAAAA 
AGACGTGCGG CTGCATCCGC CAATGAGAGT GAGAGGCTGC TCGATAAAAT CACCCAAAGT 
ATAAGAGGTT ACAATGCAAT TGAGTCTGTG ATCAAGAAAT GTTCTTCCTA CGGTGATTTG 
GTCACTTCGC AAATGAAGAA ATGGGGTGTG CAAGTGGAAG GCGATAACTC TGAGTTGGAC 
CTGATGAACC TTGGGGAAGA CGATGACGAC GACAATGATG ATGGCAATAA CGATAATAAT 
AATAGCAACA ATAACAATAC CGCTGGCGCA GACGCCACTA GCAAGGAAAA AGAAGATACA 
AAGGCCGTAG TGGAAGGTTT TGATGAAACT AGCGCAGAAC CTACTCCAGC ACCAGCACCA 
GCACCAGTGG AAAGAGAAAC AAAACGAATT AGAAACACAA CTAAGCCAAA AGTGGTCGAA 
GATGAAGATG ACGATGTAGA TTTGGAGGCA ATCGATGACG AATTGCCGCA GTCTGAGCAT 
GAAGATGATG ACTATGAAGA GGAGGACGAA GACTATAACG ATGAGGAAGA AGATGTGGAA 
TATGATGATG GTGACGATGA TGACGATGAT GACGATGAAT TTGTCGCTAC CAGAAAAAAC 
ACACACGTGA TCTCCACCAC GAGCAGAAAT GGCCGTAAAC CTATTGTCAA GTTCTTCAAG 
GGCAAACCCA GACTGTTAAG CCCGGAAATT TCACTAAAAG ACTACCAACA AACGGGTATA 
AACTGGTTGA ATCTGCTATA CCAAAACAAG ATGTCATGTA TCCTTGCAGA CGACATGGGT 
CTAGGTAAAA CATGTCAAGT CATTTCATTT TTCGCATATT TGAAACAAAT AAACGAACCG 
GGTCCTCACT TGGTTGTTGT GCCATCATCG ACGCTAGAAA ATTGGTTAAG GGAGTTCCAG 
AAATTCGCAC CTGCTTTGAA GATTGAACCC TACTATGGCT CTTTACAAGA AAGGGAAGAA 
TTGCGTGATA TCCTGGAAAG GAACGCTGGG AAATATGATG TTATCGTGAC CACGTATAAC 
TTGGCTGCAG GTAATAAATA CGACGTTTCG TTTTTGAAAA ATAGAAACTT CAATGTTGTG 
GTTTATGATG AAGGTCATAT GTTGAAAAAT TCCACTTCAG AGAGATTTGC CAAACTGATG 
AAAATTCGTG CCAATTTCCG CCTTTTATTA ACTGGTACGC CATTACAAAA TAACTTGAAG 
GAACTAATGT CGCTGTTGGA ATTTATCATG CCAAATCTTT TCATTTCCAA AAAGGAATCA 
TTTGACGCAA TCTTCAAACA ACGTGCCAAG ACCACAGACG ATAACAAAAA TCACAACCCG 
CTATTAGCGC AAGAAGCCAT TACAAGAGCT AAAACGATGA TGAAGCCATT TATTTTGAGA 
AGACGTAAGG ATCAAGTGTT GAAACATTTG CCACCAAAGC ACACGCATAT TCAGTATTGT 
GAATTGAACG CAATACAAAA AAAAATATAT GATAAGGAAA TACAAATCGT GTTAGAACAT 
AAGAGAATGA TTAAAGATGG CGAATTGCCA AAAGATGCAA AAGAAAAGTC TAAATTACAA 
TCTTCAAGTT CCAAAAATTT AATAATGGCA TTGCGAAAGG CCTCTCTGCA TCCACTTTTG 
TTCAGAAATA TCTATAATGA TAAAATCATC ACTAAAATGA GTGATGCCAT ATTGGATGAA 
CCTGCTTATG CTGAAAACGG TAACAAAGAG TATATTAAGG AAGATATGAG CTATATGACG 
GATTTTGAGT TGCACAAACT ATGCTGCAAT TTCCCGAACA CGTTATCCAA ATACCAACTT 
CATAATGACG AGTGGATGCA ATCTGGGAAG ATAGACGCTT TGAAAAAATT GCTGAAAACA 
ATCATTGTTG ACAAACAGGA AAAGGTGCTG ATATTTTCCT TATTCACTCA AGTCCTGGAT 
ATTCTAGAGA TGGTTTTGTC CACCTTAGAT TATAAATTTT TAAGATTAGA TGGTTCCACG 
CAAGTGAATG ATAGACAACT ACTAATAGAT AAGTTTTATG AAGATAAGGA TATTCCCATT 
TTCATCTTAT CAACAAAGGC AGGTGGATTC GGTATTAATT TGGTGTGCGC AAATAATGTT 
ATTATATTCG ATCAAAGTTT TAACCCACAT GATGACAGAC AAGCTGCTGA TAGGGCACAT 
CGTGTGGGAC AAACAAAGGA AGTTAATATA ACCACTTTAA TTACTAAGGA TTCCATAGAG 
GAAAAGATTC ATCAACTGGC CAAAAATAAA CTAGCTTTAG ATTCGTATAT CAGTGAAGAT 
AAAAAATCTC AAGATGTGTT GGAAAGTAAA GTTAGTGATA TGTTGGAGGA TATAATTTAT 
GATGAAAACT CGAAACCGAA GGGAACCAAA GAATAA

The stop codons will be deleted if pcDNA3.1⁺/C-(K)DYK vector is selected.

RefSeq	NP_009383.1
CDS	1..3396
Translation	MSGSHSNDEDDVVQVPETSSPTKVASSSPLKPTSPTVPDASVASLRSRFTFKPSDPSEGAHTSKPLPSGSPEVALVNLAREFPDFSQTLVQAVFKSNSFNLQSARERLTRLRQQRQNWTWNKNASPKKSETPPPVKKSLPLANTGRLSSIHGNINNKSSKITVAKQKTSIFDRYSNVINQKQYTFELPTNLNIDSEALSKLPVNYNKKRRLVRADQHPIGKSYESSATQLGSAREKLLANRKYGRHANDNDEEEEESMMTDDDDASGDDYTESTPQINLDEQVLQFINDSDIVDLSDLSDTTMHKAQLIASHRPYSSLNAFVNTNFNDKDTEENASNKRKRRAAASANESERLLDKITQSIRGYNAIESVIKKCSSYGDLVTSQMKKWGVQVEGDNSELDLMNLGEDDDDDNDDGNNDNNNSNNNNTAGADATSKEKEDTKAVVEGFDETSAEPTPAPAPAPVERETKRIRNTTKPKVVEDEDDDVDLEAIDDELPQSEHEDDDYEEEDEDYNDEEEDVEYDDGDDDDDDDDEFVATRKNTHVISTTSRNGRKPIVKFFKGKPRLLSPEISLKDYQQTGINWLNLLYQNKMSCILADDMGLGKTCQVISFFAYLKQINEPGPHLVVVPSSTLENWLREFQKFAPALKIEPYYGSLQEREELRDILERNAGKYDVIVTTYNLAAGNKYDVSFLKNRNFNVVVYDEGHMLKNSTSERFAKLMKIRANFRLLLTGTPLQNNLKELMSLLEFIMPNLFISKKESFDAIFKQRAKTTDDNKNHNPLLAQEAITRAKTMMKPFILRRRKDQVLKHLPPKHTHIQYCELNAIQKKIYDKEIQIVLEHKRMIKDGELPKDAKEKSKLQSSSSKNLIMALRKASLHPLLFRNIYNDKIITKMSDAILDEPAYAENGNKEYIKEDMSYMTDFELHKLCCNFPNTLSKYQLHNDEWMQSGKIDALKKLLKTIIVDKQEKVLIFSLFTQVLDILEMVLSTLDYKFLRLDGSTQVNDRQLLIDKFYEDKDIPIFILSTKAGGFGINLVCANNVIIFDQSFNPHDDRQAADRAHRVGQTKEVNITTLITKDSIEEKIHQLAKNKLALDSYISEDKKSQDVLESKVSDMLEDIIYDENSKPKGTKE

Target ORF information:

RefSeq Version	NM_001178164.1
Organism	Saccharomyces cerevisiae S288C
Definition	Saccharomyces cerevisiae S288C DNA-dependent ATPase FUN30 (FUN30), partial mRNA.

Target ORF information:

Epitope	DYKDDDDK
Bacterial selection	AMP^R
Mammalian selection	Neo^R
Vector	pcDNA3.1⁺/C-(K)DYK

NM_001178164.1

ORF Insert Sequence:

ATGAGTGGTT CGCATTCAAA TGATGAGGAT GACGTAGTGC AAGTGCCCGA GACGTCCTCT 
CCCACCAAGG TAGCATCGTC GTCTCCCTTA AAGCCTACTT CGCCAACAGT TCCGGATGCA 
AGTGTGGCGT CTTTGAGAAG CAGGTTTACT TTCAAGCCTT CAGATCCCAG CGAAGGAGCT 
CATACTTCGA AGCCGCTCCC ATCTGGGAGT CCTGAGGTAG CACTGGTTAA CCTTGCGAGA 
GAGTTCCCCG ATTTCTCTCA AACTCTGGTG CAGGCTGTTT TCAAATCTAA CTCTTTTAAC 
TTACAGTCTG CCAGGGAACG TCTTACAAGA TTGAGGCAGC AAAGACAAAA TTGGACATGG 
AACAAGAACG CATCTCCCAA GAAGTCAGAA ACCCCGCCAC CTGTCAAGAA GTCATTACCA 
CTGGCAAACA CAGGCCGTTT ATCATCTATC CATGGCAATA TCAACAACAA ATCCTCCAAG 
ATTACCGTGG CCAAACAGAA AACGTCCATT TTTGACCGTT ACTCAAACGT CATCAACCAG 
AAACAATACA CTTTTGAGCT GCCAACTAAC TTGAATATAG ACTCGGAGGC ACTGAGCAAG 
TTGCCCGTGA ACTACAACAA AAAGAGAAGG CTGGTAAGGG CAGATCAGCA TCCAATTGGC 
AAGTCTTATG AGTCATCCGC TACACAATTA GGTTCTGCAA GAGAGAAACT ACTGGCGAAC 
CGCAAATACG GTCGTCATGC AAACGACAAC GATGAAGAGG AGGAAGAGAG TATGATGACG 
GACGATGACG ATGCAAGTGG CGACGACTAC ACAGAATCCA CGCCGCAGAT AAATCTGGAT 
GAACAAGTTT TACAGTTTAT TAATGACTCT GATATTGTCG ATCTCTCGGA CCTCTCAGAT 
ACCACGATGC ATAAGGCTCA ACTCATAGCC TCACATAGGC CATATTCTTC TTTAAATGCC 
TTTGTAAACA CAAATTTCAA TGATAAGGAC ACTGAGGAGA ACGCATCGAA CAAGAGAAAA 
AGACGTGCGG CTGCATCCGC CAATGAGAGT GAGAGGCTGC TCGATAAAAT CACCCAAAGT 
ATAAGAGGTT ACAATGCAAT TGAGTCTGTG ATCAAGAAAT GTTCTTCCTA CGGTGATTTG 
GTCACTTCGC AAATGAAGAA ATGGGGTGTG CAAGTGGAAG GCGATAACTC TGAGTTGGAC 
CTGATGAACC TTGGGGAAGA CGATGACGAC GACAATGATG ATGGCAATAA CGATAATAAT 
AATAGCAACA ATAACAATAC CGCTGGCGCA GACGCCACTA GCAAGGAAAA AGAAGATACA 
AAGGCCGTAG TGGAAGGTTT TGATGAAACT AGCGCAGAAC CTACTCCAGC ACCAGCACCA 
GCACCAGTGG AAAGAGAAAC AAAACGAATT AGAAACACAA CTAAGCCAAA AGTGGTCGAA 
GATGAAGATG ACGATGTAGA TTTGGAGGCA ATCGATGACG AATTGCCGCA GTCTGAGCAT 
GAAGATGATG ACTATGAAGA GGAGGACGAA GACTATAACG ATGAGGAAGA AGATGTGGAA 
TATGATGATG GTGACGATGA TGACGATGAT GACGATGAAT TTGTCGCTAC CAGAAAAAAC 
ACACACGTGA TCTCCACCAC GAGCAGAAAT GGCCGTAAAC CTATTGTCAA GTTCTTCAAG 
GGCAAACCCA GACTGTTAAG CCCGGAAATT TCACTAAAAG ACTACCAACA AACGGGTATA 
AACTGGTTGA ATCTGCTATA CCAAAACAAG ATGTCATGTA TCCTTGCAGA CGACATGGGT 
CTAGGTAAAA CATGTCAAGT CATTTCATTT TTCGCATATT TGAAACAAAT AAACGAACCG 
GGTCCTCACT TGGTTGTTGT GCCATCATCG ACGCTAGAAA ATTGGTTAAG GGAGTTCCAG 
AAATTCGCAC CTGCTTTGAA GATTGAACCC TACTATGGCT CTTTACAAGA AAGGGAAGAA 
TTGCGTGATA TCCTGGAAAG GAACGCTGGG AAATATGATG TTATCGTGAC CACGTATAAC 
TTGGCTGCAG GTAATAAATA CGACGTTTCG TTTTTGAAAA ATAGAAACTT CAATGTTGTG 
GTTTATGATG AAGGTCATAT GTTGAAAAAT TCCACTTCAG AGAGATTTGC CAAACTGATG 
AAAATTCGTG CCAATTTCCG CCTTTTATTA ACTGGTACGC CATTACAAAA TAACTTGAAG 
GAACTAATGT CGCTGTTGGA ATTTATCATG CCAAATCTTT TCATTTCCAA AAAGGAATCA 
TTTGACGCAA TCTTCAAACA ACGTGCCAAG ACCACAGACG ATAACAAAAA TCACAACCCG 
CTATTAGCGC AAGAAGCCAT TACAAGAGCT AAAACGATGA TGAAGCCATT TATTTTGAGA 
AGACGTAAGG ATCAAGTGTT GAAACATTTG CCACCAAAGC ACACGCATAT TCAGTATTGT 
GAATTGAACG CAATACAAAA AAAAATATAT GATAAGGAAA TACAAATCGT GTTAGAACAT 
AAGAGAATGA TTAAAGATGG CGAATTGCCA AAAGATGCAA AAGAAAAGTC TAAATTACAA 
TCTTCAAGTT CCAAAAATTT AATAATGGCA TTGCGAAAGG CCTCTCTGCA TCCACTTTTG 
TTCAGAAATA TCTATAATGA TAAAATCATC ACTAAAATGA GTGATGCCAT ATTGGATGAA 
CCTGCTTATG CTGAAAACGG TAACAAAGAG TATATTAAGG AAGATATGAG CTATATGACG 
GATTTTGAGT TGCACAAACT ATGCTGCAAT TTCCCGAACA CGTTATCCAA ATACCAACTT 
CATAATGACG AGTGGATGCA ATCTGGGAAG ATAGACGCTT TGAAAAAATT GCTGAAAACA 
ATCATTGTTG ACAAACAGGA AAAGGTGCTG ATATTTTCCT TATTCACTCA AGTCCTGGAT 
ATTCTAGAGA TGGTTTTGTC CACCTTAGAT TATAAATTTT TAAGATTAGA TGGTTCCACG 
CAAGTGAATG ATAGACAACT ACTAATAGAT AAGTTTTATG AAGATAAGGA TATTCCCATT 
TTCATCTTAT CAACAAAGGC AGGTGGATTC GGTATTAATT TGGTGTGCGC AAATAATGTT 
ATTATATTCG ATCAAAGTTT TAACCCACAT GATGACAGAC AAGCTGCTGA TAGGGCACAT 
CGTGTGGGAC AAACAAAGGA AGTTAATATA ACCACTTTAA TTACTAAGGA TTCCATAGAG 
GAAAAGATTC ATCAACTGGC CAAAAATAAA CTAGCTTTAG ATTCGTATAT CAGTGAAGAT 
AAAAAATCTC AAGATGTGTT GGAAAGTAAA GTTAGTGATA TGTTGGAGGA TATAATTTAT 
GATGAAAACT CGAAACCGAA GGGAACCAAA GAATAA

The stop codons will be deleted if pcDNA3.1⁺/C-(K)DYK vector is selected.

PubMed

Life with 6000 genes.
Science (New York, N.Y.)274(5287)546, 563-7(1996 Oct)
Goffeau A,Barrell BG,Bussey H,Davis RW,Dujon B,Feldmann H,Galibert F,Hoheisel JD,Jacq C,Johnston M,Louis EJ,Mewes HW,Murakami Y,Philippsen P,Tettelin H,Oliver SG

The nucleotide sequence of chromosome I from Saccharomyces cerevisiae.
Proceedings of the National Academy of Sciences of the United States of America92(9)3809-13(1995 Apr)
Bussey H,Kaback DB,Zhong W,Vo DT,Clark MW,Fortin N,Hall J,Ouellette BF,Keng T,Barton AB

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FUN30 cDNA ORF clone, Saccharomyces cerevisiae S288C

Gene

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gRNAs

Related articles in PubMed

Target ORF information:

Target ORF information:

ORF Insert Sequence:

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