Dana\GF22599 cDNA ORF clone, Drosophila ananassae

The following Dana\GF22599 gene cDNA ORF clone sequences were retrieved from the NCBI Reference Sequence Database (RefSeq). These sequences represent the protein coding region of the Dana\GF22599 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
ODh16256 XM_001965600.2
Latest version!
Drosophila ananassae uncharacterized protein (Dana\GF22599), mRNA. pcDNA3.1-C-(k)DYK or customized vector 19-21 $727.30
$1039.00

ORF Online Only Promotion

Next-day Shipping ORF Clones ( in default vector with tag)
1 Clone 30% OFF
2-4 Clone 40% OFF
5 or more Clone 50% OFF
All Other ORF Clones
30% OFF

*Business Day

** 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)
    CloneID ODh16256
    Clone ID Related Accession (Same CDS sequence) XM_001965600.2
    Accession Version XM_001965600.2 Latest version! Documents for ORF clone product in default vector
    Sequence Information ORF Nucleotide Sequence (Length: 4383bp)
    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 1450108800000
    Organism Drosophila ananassae
    Product uncharacterized protein
    Comment Comment: PROVISIONAL REFSEQ: This record has not yet been subject to final NCBI review. This record is derived from an annotated genomic sequence (NW_001939300). On Dec 16, 2015 this sequence version replaced XM_001965600.1. ##Genome-Annotation-Data-START## Annotation Provider :: FlyBase Annotation Status :: Full annotation Annotation Version :: Release 1.04 Annotation Pipeline :: NCBI eukaryotic genome annotation pipeline URL :: http://flybase.org ##Genome-Annotation-Data-END##

    1
    61
    121
    181
    241
    301
    361
    421
    481
    541
    601
    661
    721
    781
    841
    901
    961
    1021
    1081
    1141
    1201
    1261
    1321
    1381
    1441
    1501
    1561
    1621
    1681
    1741
    1801
    1861
    1921
    1981
    2041
    2101
    2161
    2221
    2281
    2341
    2401
    2461
    2521
    2581
    2641
    2701
    2761
    2821
    2881
    2941
    3001
    3061
    3121
    3181
    3241
    3301
    3361
    3421
    3481
    3541
    3601
    3661
    3721
    3781
    3841
    3901
    3961
    4021
    4081
    4141
    4201
    4261
    4321
    4381
    ATGAGCATGA GCCTGGACGA GTCCATCTGC GCGTATTTCG TGAAGAATGC GAAGCCGGCG 
    GATGGCAGCA GCAGCTTGGA TGCGGAAATT CTGGAACAGT TTGAGGCGTC GCTGGAGTTA
    CTAGGCCAGC AGCTGGCCGA GACCCAGATC CGGCAGATAA AGCCCAGCGA GGGCTATCCC
    CTGATAGCGG CCGGCAACCT CTCCAAGAAG GATGTCTTCA TTTTGGCCCA CTTCGAGGGC
    GACTTCTTCG AGCAGCTGAA GAAAACAAAA GCTCTGATTC TGGGGCCACC GTGCCTGCTG
    GCATGCCTCC GGCAGGAGCA GCCCATTCCC CTGGGCAGCA GCGCCATCTA CACCACAGCC
    ATGCGCGACC TGCAGATATC CGCCACCGGC ATACCTCCCG ACAAGAAGGA GGAGCTCAGC
    AACCTGATCC AGTGGATGGG CGGAGTTTAC TTCCAGAACT TCGGCCACCG CACCACCCAC
    CTCATTTCCA ACACCATCAA GTCGCACAAG TACGAGCAGG CCACGCTAAA CGGGGTGCCC
    GTGATGCACG TGGATTGGGT GCAGTACGTC TGGGATCTGA GCCGCCGGCA GCAGCGCGAA
    AGCATCCGTG CCACTGATCC GGAGTTCGAC AAGTACCGAC TGCCCGTATT CTTCGGGGTA
    AACATCACAT GCAGCGGCCT GGACGTGGCA CGCAAGGATC AGGTGATGAA GTTGGTCCAG
    GAGAACGGCG GCATCTACCA TCGAGCCTTT CGCTCCCAGG TGGTGGACAT CGTCATAACC
    GAGCAATCCA AAACGGACAC GGAGAAGTAC AAGGCGGCCA TCCGTTACAA GAAGGATGTC
    CTGCTGCCGG AGTGGATCTT CGACAGCAGC AACCGCGGCT ACGCCCTGCC CACCAAGGAG
    TACGAGGTGC GGCCCGGCAA GAAGTCCTCC ACGCCCACAA AATCAAACAG ATCTATGGCT
    CCCAGTGCCG ACCACACTCA GCTCTCGGAT CTCTCTAGGA TTAGCTTCGT TTCCGGCTCC
    CGTCGCATGT GCAGCGATCT CACCACCGTT AATGAGTCCC TGAGCAGCCT GGGCAGCAGC
    TCCCCAGCCA AGGATCTGCT GAAGCAGGCC ACATTCCAGG CCAGAAACTA CCAGCAAGTG
    CTGGCGGAGA TCGATCCCAG GCAGGCAAAG AAATCGGGCG CTTTCCTGGA CGGCTGCTGT
    GTCTATTTGA GTGGCTTCCG GGCCGAGGAG CGGGAGAAGC TCAATCGCAT TCTGAACACT
    GGCGGCGCCA CGCGCTACGA CGAGGCCAAC GAGGGAGTGT CCCACATCAT AGTCGGCCAG
    TTGGACGACG CCGAGTACAG GCAGTGGCAG CGCGACGGCC TTATGGGCTC GGTGCACGTG
    GTGCGGCTGG ACTGGCTGCT GGAGAGCATC CGCAGCGGCA AGGTGGTCAG TGAGCTCACC
    TACCGCGTCT CCCTTCCGAC CACTGGAGAA CCCGACGTGG CCTCCCCGGC CAGCAAGAGG
    ACCCTTCGCT CCATGAACCA CAGCTTCAAG CAGCCGCAGC TGCCCATCAA GAAGAAGCTG
    TTCGAACAGG AGCAACAGCA GCAGCAGGAA CAGGAGGACC AGGAGCAGGA CAACCAGCTG
    CTGGGCCAGT ATTCGCAGGA TCAGGGTGCA GTGGCTCAGT TGCCGCCAGT GGACATAAGC
    GTCCTTCATC CGGCCGCCAG TTCCACGCAA ATGGAAATCA ATCCCAGGAC CTCCATGGCT
    CCCAATCCGA GCTCAACTTC GGCTGCTCCT GTTGGTGTTC CGGATCTGAG TGCCAGCGCC
    ATGTCGATTG ATTACGAGAA GCTGGACTAC TTCGCCGGCC TGACCGTCTA CGTCCACAAG
    GAGTGCTTCA ACTCGGAGTT CTACAACCAG TTGCTGGTCG AGGTGGAGGC CGCCCAGGGC
    ATCCTGGTGC CGCCCAGCTA CGTCGACCAG GTGGACTTTG CCATCGTCAG CTTCGAGGTG
    CCGTTCGACG AGAAGGAGTT GCCGGTCAAG TCGAACTTCG TGGCCACCGA GCTGTTCCTC
    GAGAGCTGCA TGAAGCTGAA CAAGTTACTG CCCCTGGACT ACTACCACAA GCCGGTGCCC
    GCCGCCGCCT TGAAGCAGCC GCTGGAGGGC ATGACGATTG TGGTGTCCAT TTATGCCGGT
    CTGGAGAGGG ACTTCATCAA CTCGGTGTCG GAGCTGCTGG GCGCCTCCGT CAACAAGACG
    TTCATCAAGA AGGAGAAGCC CCTGCTGATC TGCCCAAGCG CCGAGGGCTC CAAGTATGAG
    GGCGCCATCA AGTGGAACTA TCCGGTGGTC ACATCCGAGT GGCTGGTGCA GTGCGCCCGC
    TCCGGCCAGA AGCTGCCTTA CCTGGGTCAT TTGGTCGGCA AGAGTCCCGA AGACTTTCCA
    ATCTCGCCCA AGCTTCGAGA GAGCAACACT CGCACTCCGA GGCGTCCAGA GGCGACTACT
    CCGCTGCCAC CGCCGCCAGT GCCCATGGAG GAGGAGGAGA ACCAGCCGGA GATGGATGTC
    CAGCCGGTGG CAGCGTCCAA TCCTCCAGCA GCAGCTCCGG AACTGACTCC TTTGCGCAAT
    CGGAGAGTCT CCGAGCTGGC GGGCATTCCT GGTGGCAGTG CCCGTCGTCG CAGCAGCAGC
    TCCACATCCT CGCCAGACTC ACCGTGCACG CCCCTCAGCC AGGTGGGCGC CCAGAACTAC
    AACTTCGACT TCCTCGAGCA GTTCGTGCAG CGCCTGGACA ACGACGAGGG GAGGGACTGC
    GTCCGGCAGA TCATCCGCGA GATGCGCGAG AACCAGACCC CCGAGCTGGA GCGCATCCGG
    CGGCAGGCCT GCACTCCAGT CAGCCGGCGG CATTCGCGAC CCGCTTCCGG CATTCCCGAC
    TTCTGCCTGA CGCCGGAGTT CCAGCAGCGG ATGGCGGACG ACTTTGAGCG ACGGTGGCGA
    CTGCCGACGC AGAAGATCAA GCCGGACACA CCGCTGGCGG TGATCAGGCA GCGGGTGATG
    CGCATTACCT GCGAGACCCT GGGCATAGAG TACGACGAGG GATCAGATCA GATGGAGGAG
    GAGGAGCAGC AGGCGCAGAA GGCACAGCGC CAGCAGGAGG AGGCACTGGG CACGGCCAAG
    AAGAAGCCAC CGCCGAGGAC TCAGGCCACG AAGCTCGTCT TCGAAAGGTC ACCGCCGACG
    CCCAAGCTGC CGGTGGCCAG CAGCGGCAGC TCCGCCACAC CCAAGCTATC ACTTTCGAGC
    AAGAGTTCCA CCACTCCCAG ACTGTCCCTG GCCAGCAGAT CCCCCCGAGC TTCGGTAGAC
    GCCAATCCAA GGCGTTCGTC CTTCATACCG CCCACCCAGG ATAGTCCCGG ACTGGCCCGG
    AAGCCGGAGG AGCCATCGAA ACTGCCGAGA CGGTCGGATG TAGCGACGGA GGAGGAAACT
    GCCGGCCAGA GCACCATCAA CTTTGACAAG ATCAGCTTCG AGGAGACCGC CCCGCCGGCC
    ATGAACACGG ATCTGAAGCA GATCACCGAC TACCTGAAGA ACTGCGAGAG CCGGAGGAAC
    AGCCTGAAGC GGAGCCACGA CAGCGACATG GAGTGCCCCG AGAGCGAGGT GCAGTATGTC
    CAGCCGTTCG AGTCCGAAGG CTTCGCCATG GGCACCGAGG ACATGGTGAG TTGGCGGGAT
    CCCGCCGAGT TCAATGCCGC CAAGAGGCGC TCCTCCGGCG GCTCTCCCAG GATGCAGCAC
    CGGGGCACTC CCTGCTTCAG CATCTCGTGC GGCGATGATG GCGACAAGCG AGCGGAGCTG
    ATAGCCAGGA TCTCCCAGTT GGGCGGACAG ATGTGCGAGA ATCTGGTGAA CTACGACGAC
    GCGTGCACCC ATCTGCTCTG CGAGCGTCCC AACCGGGGCG AGAAGATGCT CGGCTGCATG
    GCCGCCGGCA AGTGGATCCT CAGCATCCAG TACGTGGATC AGTGCCATGC CCGCGGGCAC
    TTCCTGGACG AGACCCTGTT CGAGTGGGGC AACCCGAAGG CCCTCAACCT GCCCGTCCTG
    CCGCCGGAGG AGCAGCCCAT TGCGGCTGCA GTGCATCGCT GGCGCTCGGA GCTGAGCAGC
    CGGGGCGGAG GTGCCTTCTC CGGCCACCGG GCCATCCTCA GTATGCAGCG CAGCGGAGCG
    GCCATCCGGA ATGTCCTGGT CGCCGGCGGA GCCGTCATCC TGGAGCCCAA GTCGCCCTTT
    TCGGCGGATC CCATTGCCGC CACCGCCACC CACTGCTTCG TGGACGTGAA GAAGGCTCCG
    CTCTCGCCCC AGGATCTGGC CTATCTGCTG AAGAAGGGCG TGCGAGTCCT CAGCCAGATA
    GCCATCAACA GTTATCTGAT GAAGGGCCGG GATGCCGATC TGGGGGCCTA CGAGCTCAGT
    TGA

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

    RefSeq XP_001965636.2
    CDS113..4495
    Translation

    Target ORF information:

    RefSeq Version XM_001965600.2
    Organism Drosophila ananassae
    Definition Drosophila ananassae uncharacterized protein (Dana\GF22599), mRNA.

    Target ORF information:

    Epitope DYKDDDDK
    Bacterial selection AMPR
    Mammalian selection NeoR
    Vector pcDNA3.1+/C-(K)DYK
    XM_001965600.2

    ORF Insert Sequence:

    1
    61
    121
    181
    241
    301
    361
    421
    481
    541
    601
    661
    721
    781
    841
    901
    961
    1021
    1081
    1141
    1201
    1261
    1321
    1381
    1441
    1501
    1561
    1621
    1681
    1741
    1801
    1861
    1921
    1981
    2041
    2101
    2161
    2221
    2281
    2341
    2401
    2461
    2521
    2581
    2641
    2701
    2761
    2821
    2881
    2941
    3001
    3061
    3121
    3181
    3241
    3301
    3361
    3421
    3481
    3541
    3601
    3661
    3721
    3781
    3841
    3901
    3961
    4021
    4081
    4141
    4201
    4261
    4321
    4381
    ATGAGCATGA GCCTGGACGA GTCCATCTGC GCGTATTTCG TGAAGAATGC GAAGCCGGCG 
    GATGGCAGCA GCAGCTTGGA TGCGGAAATT CTGGAACAGT TTGAGGCGTC GCTGGAGTTA
    CTAGGCCAGC AGCTGGCCGA GACCCAGATC CGGCAGATAA AGCCCAGCGA GGGCTATCCC
    CTGATAGCGG CCGGCAACCT CTCCAAGAAG GATGTCTTCA TTTTGGCCCA CTTCGAGGGC
    GACTTCTTCG AGCAGCTGAA GAAAACAAAA GCTCTGATTC TGGGGCCACC GTGCCTGCTG
    GCATGCCTCC GGCAGGAGCA GCCCATTCCC CTGGGCAGCA GCGCCATCTA CACCACAGCC
    ATGCGCGACC TGCAGATATC CGCCACCGGC ATACCTCCCG ACAAGAAGGA GGAGCTCAGC
    AACCTGATCC AGTGGATGGG CGGAGTTTAC TTCCAGAACT TCGGCCACCG CACCACCCAC
    CTCATTTCCA ACACCATCAA GTCGCACAAG TACGAGCAGG CCACGCTAAA CGGGGTGCCC
    GTGATGCACG TGGATTGGGT GCAGTACGTC TGGGATCTGA GCCGCCGGCA GCAGCGCGAA
    AGCATCCGTG CCACTGATCC GGAGTTCGAC AAGTACCGAC TGCCCGTATT CTTCGGGGTA
    AACATCACAT GCAGCGGCCT GGACGTGGCA CGCAAGGATC AGGTGATGAA GTTGGTCCAG
    GAGAACGGCG GCATCTACCA TCGAGCCTTT CGCTCCCAGG TGGTGGACAT CGTCATAACC
    GAGCAATCCA AAACGGACAC GGAGAAGTAC AAGGCGGCCA TCCGTTACAA GAAGGATGTC
    CTGCTGCCGG AGTGGATCTT CGACAGCAGC AACCGCGGCT ACGCCCTGCC CACCAAGGAG
    TACGAGGTGC GGCCCGGCAA GAAGTCCTCC ACGCCCACAA AATCAAACAG ATCTATGGCT
    CCCAGTGCCG ACCACACTCA GCTCTCGGAT CTCTCTAGGA TTAGCTTCGT TTCCGGCTCC
    CGTCGCATGT GCAGCGATCT CACCACCGTT AATGAGTCCC TGAGCAGCCT GGGCAGCAGC
    TCCCCAGCCA AGGATCTGCT GAAGCAGGCC ACATTCCAGG CCAGAAACTA CCAGCAAGTG
    CTGGCGGAGA TCGATCCCAG GCAGGCAAAG AAATCGGGCG CTTTCCTGGA CGGCTGCTGT
    GTCTATTTGA GTGGCTTCCG GGCCGAGGAG CGGGAGAAGC TCAATCGCAT TCTGAACACT
    GGCGGCGCCA CGCGCTACGA CGAGGCCAAC GAGGGAGTGT CCCACATCAT AGTCGGCCAG
    TTGGACGACG CCGAGTACAG GCAGTGGCAG CGCGACGGCC TTATGGGCTC GGTGCACGTG
    GTGCGGCTGG ACTGGCTGCT GGAGAGCATC CGCAGCGGCA AGGTGGTCAG TGAGCTCACC
    TACCGCGTCT CCCTTCCGAC CACTGGAGAA CCCGACGTGG CCTCCCCGGC CAGCAAGAGG
    ACCCTTCGCT CCATGAACCA CAGCTTCAAG CAGCCGCAGC TGCCCATCAA GAAGAAGCTG
    TTCGAACAGG AGCAACAGCA GCAGCAGGAA CAGGAGGACC AGGAGCAGGA CAACCAGCTG
    CTGGGCCAGT ATTCGCAGGA TCAGGGTGCA GTGGCTCAGT TGCCGCCAGT GGACATAAGC
    GTCCTTCATC CGGCCGCCAG TTCCACGCAA ATGGAAATCA ATCCCAGGAC CTCCATGGCT
    CCCAATCCGA GCTCAACTTC GGCTGCTCCT GTTGGTGTTC CGGATCTGAG TGCCAGCGCC
    ATGTCGATTG ATTACGAGAA GCTGGACTAC TTCGCCGGCC TGACCGTCTA CGTCCACAAG
    GAGTGCTTCA ACTCGGAGTT CTACAACCAG TTGCTGGTCG AGGTGGAGGC CGCCCAGGGC
    ATCCTGGTGC CGCCCAGCTA CGTCGACCAG GTGGACTTTG CCATCGTCAG CTTCGAGGTG
    CCGTTCGACG AGAAGGAGTT GCCGGTCAAG TCGAACTTCG TGGCCACCGA GCTGTTCCTC
    GAGAGCTGCA TGAAGCTGAA CAAGTTACTG CCCCTGGACT ACTACCACAA GCCGGTGCCC
    GCCGCCGCCT TGAAGCAGCC GCTGGAGGGC ATGACGATTG TGGTGTCCAT TTATGCCGGT
    CTGGAGAGGG ACTTCATCAA CTCGGTGTCG GAGCTGCTGG GCGCCTCCGT CAACAAGACG
    TTCATCAAGA AGGAGAAGCC CCTGCTGATC TGCCCAAGCG CCGAGGGCTC CAAGTATGAG
    GGCGCCATCA AGTGGAACTA TCCGGTGGTC ACATCCGAGT GGCTGGTGCA GTGCGCCCGC
    TCCGGCCAGA AGCTGCCTTA CCTGGGTCAT TTGGTCGGCA AGAGTCCCGA AGACTTTCCA
    ATCTCGCCCA AGCTTCGAGA GAGCAACACT CGCACTCCGA GGCGTCCAGA GGCGACTACT
    CCGCTGCCAC CGCCGCCAGT GCCCATGGAG GAGGAGGAGA ACCAGCCGGA GATGGATGTC
    CAGCCGGTGG CAGCGTCCAA TCCTCCAGCA GCAGCTCCGG AACTGACTCC TTTGCGCAAT
    CGGAGAGTCT CCGAGCTGGC GGGCATTCCT GGTGGCAGTG CCCGTCGTCG CAGCAGCAGC
    TCCACATCCT CGCCAGACTC ACCGTGCACG CCCCTCAGCC AGGTGGGCGC CCAGAACTAC
    AACTTCGACT TCCTCGAGCA GTTCGTGCAG CGCCTGGACA ACGACGAGGG GAGGGACTGC
    GTCCGGCAGA TCATCCGCGA GATGCGCGAG AACCAGACCC CCGAGCTGGA GCGCATCCGG
    CGGCAGGCCT GCACTCCAGT CAGCCGGCGG CATTCGCGAC CCGCTTCCGG CATTCCCGAC
    TTCTGCCTGA CGCCGGAGTT CCAGCAGCGG ATGGCGGACG ACTTTGAGCG ACGGTGGCGA
    CTGCCGACGC AGAAGATCAA GCCGGACACA CCGCTGGCGG TGATCAGGCA GCGGGTGATG
    CGCATTACCT GCGAGACCCT GGGCATAGAG TACGACGAGG GATCAGATCA GATGGAGGAG
    GAGGAGCAGC AGGCGCAGAA GGCACAGCGC CAGCAGGAGG AGGCACTGGG CACGGCCAAG
    AAGAAGCCAC CGCCGAGGAC TCAGGCCACG AAGCTCGTCT TCGAAAGGTC ACCGCCGACG
    CCCAAGCTGC CGGTGGCCAG CAGCGGCAGC TCCGCCACAC CCAAGCTATC ACTTTCGAGC
    AAGAGTTCCA CCACTCCCAG ACTGTCCCTG GCCAGCAGAT CCCCCCGAGC TTCGGTAGAC
    GCCAATCCAA GGCGTTCGTC CTTCATACCG CCCACCCAGG ATAGTCCCGG ACTGGCCCGG
    AAGCCGGAGG AGCCATCGAA ACTGCCGAGA CGGTCGGATG TAGCGACGGA GGAGGAAACT
    GCCGGCCAGA GCACCATCAA CTTTGACAAG ATCAGCTTCG AGGAGACCGC CCCGCCGGCC
    ATGAACACGG ATCTGAAGCA GATCACCGAC TACCTGAAGA ACTGCGAGAG CCGGAGGAAC
    AGCCTGAAGC GGAGCCACGA CAGCGACATG GAGTGCCCCG AGAGCGAGGT GCAGTATGTC
    CAGCCGTTCG AGTCCGAAGG CTTCGCCATG GGCACCGAGG ACATGGTGAG TTGGCGGGAT
    CCCGCCGAGT TCAATGCCGC CAAGAGGCGC TCCTCCGGCG GCTCTCCCAG GATGCAGCAC
    CGGGGCACTC CCTGCTTCAG CATCTCGTGC GGCGATGATG GCGACAAGCG AGCGGAGCTG
    ATAGCCAGGA TCTCCCAGTT GGGCGGACAG ATGTGCGAGA ATCTGGTGAA CTACGACGAC
    GCGTGCACCC ATCTGCTCTG CGAGCGTCCC AACCGGGGCG AGAAGATGCT CGGCTGCATG
    GCCGCCGGCA AGTGGATCCT CAGCATCCAG TACGTGGATC AGTGCCATGC CCGCGGGCAC
    TTCCTGGACG AGACCCTGTT CGAGTGGGGC AACCCGAAGG CCCTCAACCT GCCCGTCCTG
    CCGCCGGAGG AGCAGCCCAT TGCGGCTGCA GTGCATCGCT GGCGCTCGGA GCTGAGCAGC
    CGGGGCGGAG GTGCCTTCTC CGGCCACCGG GCCATCCTCA GTATGCAGCG CAGCGGAGCG
    GCCATCCGGA ATGTCCTGGT CGCCGGCGGA GCCGTCATCC TGGAGCCCAA GTCGCCCTTT
    TCGGCGGATC CCATTGCCGC CACCGCCACC CACTGCTTCG TGGACGTGAA GAAGGCTCCG
    CTCTCGCCCC AGGATCTGGC CTATCTGCTG AAGAAGGGCG TGCGAGTCCT CAGCCAGATA
    GCCATCAACA GTTATCTGAT GAAGGGCCGG GATGCCGATC TGGGGGCCTA CGAGCTCAGT
    TGA

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

  • PubMed

    Assembly reconciliation.
    Bioinformatics (Oxford, England)24(1)42-5(2008 Jan)
    Zimin AV,Smith DR,Sutton G,Yorke JA


    Evolution of genes and genomes on the Drosophila phylogeny.
    Nature450(7167)203-18(2007 Nov)
    ,Clark AG,Eisen MB,Smith DR,Bergman CM,Oliver B,Markow TA,Kaufman TC,Kellis M,Gelbart W,Iyer VN,Pollard DA,Sackton TB,Larracuente AM,Singh ND,Abad JP,Abt DN,Adryan B,Aguade M,Akashi H,Anderson WW,Aquadro CF,Ardell DH,Arguello R,Artieri CG,Barbash DA,Barker D,Barsanti P,Batterham P,Batzoglou S,Begun D,Bhutkar A,Blanco E,Bosak SA,Bradley RK,Brand AD,Brent MR,Brooks AN,Brown RH,Butlin RK,Caggese C,Calvi BR,Bernardo de Carvalho A,Caspi A,Castrezana S,Celniker SE,Chang JL,Chapple C,Chatterji S,Chinwalla A,Civetta A,Clifton SW,Comeron JM,Costello JC,Coyne JA,Daub J,David RG,Delcher AL,Delehaunty K,Do CB,Ebling H,Edwards K,Eickbush T,Evans JD,Filipski A,Findeiss S,Freyhult E,Fulton L,Fulton R,Garcia AC,Gardiner A,Garfield DA,Garvin BE,Gibson G,Gilbert D,Gnerre S,Godfrey J,Good R,Gotea V,Gravely B,Greenberg AJ,Griffiths-Jones S,Gross S,Guigo R,Gustafson EA,Haerty W,Hahn MW,Halligan DL,Halpern AL,Halter GM,Han MV,Heger A,Hillier L,Hinrichs AS,Holmes I,Hoskins RA,Hubisz MJ,Hultmark D,Huntley MA,Jaffe DB,Jagadeeshan S,Jeck WR,Johnson J,Jones CD,Jordan WC,Karpen GH,Kataoka E,Keightley PD,Kheradpour P,Kirkness EF,Koerich LB,Kristiansen K,Kudrna D,Kulathinal RJ,Kumar S,Kwok R,Lander E,Langley CH,Lapoint R,Lazzaro BP,Lee SJ,Levesque L,Li R,Lin CF,Lin MF,Lindblad-Toh K,Llopart A,Long M,Low L,Lozovsky E,Lu J,Luo M,Machado CA,Makalowski W,Marzo M,Matsuda M,Matzkin L,McAllister B,McBride CS,McKernan B,McKernan K,Mendez-Lago M,Minx P,Mollenhauer MU,Montooth K,Mount SM,Mu X,Myers E,Negre B,Newfeld S,Nielsen R,Noor MA,O'Grady P,Pachter L,Papaceit M,Parisi MJ,Parisi M,Parts L,Pedersen JS,Pesole G,Phillippy AM,Ponting CP,Pop M,Porcelli D,Powell JR,Prohaska S,Pruitt K,Puig M,Quesneville H,Ram KR,Rand D,Rasmussen MD,Reed LK,Reenan R,Reily A,Remington KA,Rieger TT,Ritchie MG,Robin C,Rogers YH,Rohde C,Rozas J,Rubenfield MJ,Ruiz A,Russo S,Salzberg SL,Sanchez-Gracia A,Saranga DJ,Sato H,Schaeffer SW,Schatz MC,Schlenke T,Schwartz R,Segarra C,Singh RS,Sirot L,Sirota M,Sisneros NB,Smith CD,Smith TF,Spieth J,Stage DE,Stark A,Stephan W,Strausberg RL,Strempel S,Sturgill D,Sutton G,Sutton GG,Tao W,Teichmann S,Tobari YN,Tomimura Y,Tsolas JM,Valente VL,Venter E,Venter JC,Vicario S,Vieira FG,Vilella AJ,Villasante A,Walenz B,Wang J,Wasserman M,Watts T,Wilson D,Wilson RK,Wing RA,Wolfner MF,Wong A,Wong GK,Wu CI,Wu G,Yamamoto D,Yang HP,Yang SP,Yorke JA,Yoshida K,Zdobnov E,Zhang P,Zhang Y,Zimin AV,Baldwin J,Abdouelleil A,Abdulkadir J,Abebe A,Abera B,Abreu J,Acer SC,Aftuck L,Alexander A,An P,Anderson E,Anderson S,Arachi H,Azer M,Bachantsang P,Barry A,Bayul T,Berlin A,Bessette D,Bloom T,Blye J,Boguslavskiy L,Bonnet C,Boukhgalter B,Bourzgui I,Brown A,Cahill P,Channer S,Cheshatsang Y,Chuda L,Citroen M,Collymore A,Cooke P,Costello M,D'Aco K,Daza R,De Haan G,DeGray S,DeMaso C,Dhargay N,Dooley K,Dooley E,Doricent M,Dorje P,Dorjee K,Dupes A,Elong R,Falk J,Farina A,Faro S,Ferguson D,Fisher S,Foley CD,Franke A,Friedrich D,Gadbois L,Gearin G,Gearin CR,Giannoukos G,Goode T,Graham J,Grandbois E,Grewal S,Gyaltsen K,Hafez N,Hagos B,Hall J,Henson C,Hollinger A,Honan T,Huard MD,Hughes L,Hurhula B,Husby ME,Kamat A,Kanga B,Kashin S,Khazanovich D,Kisner P,Lance K,Lara M,Lee W,Lennon N,Letendre F,LeVine R,Lipovsky A,Liu X,Liu J,Liu S,Lokyitsang T,Lokyitsang Y,Lubonja R,Lui A,MacDonald P,Magnisalis V,Maru K,Matthews C,McCusker W,McDonough S,Mehta T,Meldrim J,Meneus L,Mihai O,Mihalev A,Mihova T,Mittelman R,Mlenga V,Montmayeur A,Mulrain L,Navidi A,Naylor J,Negash T,Nguyen T,Nguyen N,Nicol R,Norbu C,Norbu N,Novod N,O'Neill B,Osman S,Markiewicz E,Oyono OL,Patti C,Phunkhang P,Pierre F,Priest M,Raghuraman S,Rege F,Reyes R,Rise C,Rogov P,Ross K,Ryan E,Settipalli S,Shea T,Sherpa N,Shi L,Shih D,Sparrow T,Spaulding J,Stalker J,Stange-Thomann N,Stavropoulos S,Stone C,Strader C,Tesfaye S,Thomson T,Thoulutsang Y,Thoulutsang D,Topham K,Topping I,Tsamla T,Vassiliev H,Vo A,Wangchuk T,Wangdi T,Weiand M,Wilkinson J,Wilson A,Yadav S,Young G,Yu Q,Zembek L,Zhong D,Zimmer A,Zwirko Z,Jaffe DB,Alvarez P,Brockman W,Butler J,Chin C,Gnerre S,Grabherr M,Kleber M,Mauceli E,MacCallum I