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<!DOCTYPE GBSet PUBLIC "-//NCBI//NCBI GBSeq/EN" "http://www.ncbi.nlm.nih.gov/dtd/NCBI_GBSeq.dtd">
<GBSet>
<GBSeq>
  <GBSeq_locus>NM_198241</GBSeq_locus>
  <GBSeq_length>5463</GBSeq_length>
  <GBSeq_strandedness value="single-stranded">1</GBSeq_strandedness>
  <GBSeq_moltype value="mrna">5</GBSeq_moltype>
  <GBSeq_topology value="linear">1</GBSeq_topology>
  <GBSeq_division>PRI</GBSeq_division>
  <GBSeq_update-date>27-NOV-2005</GBSeq_update-date>
  <GBSeq_create-date>07-NOV-2003</GBSeq_create-date>
  <GBSeq_definition>Homo sapiens eukaryotic translation initiation factor 4 gamma, 1 (EIF4G1), transcript variant 2, mRNA</GBSeq_definition>
  <GBSeq_primary-accession>NM_198241</GBSeq_primary-accession>
  <GBSeq_accession-version>NM_198241.1</GBSeq_accession-version>
  <GBSeq_other-seqids>
    <GBSeqid>ref|NM_198241.1|</GBSeqid>
    <GBSeqid>gi|38201622</GBSeqid>
  </GBSeq_other-seqids>
  <GBSeq_source>Homo sapiens (human)</GBSeq_source>
  <GBSeq_organism>Homo sapiens</GBSeq_organism>
  <GBSeq_taxonomy>Eukaryota; Metazoa; Chordata; Craniata; Vertebrata; Euteleostomi; Mammalia; Eutheria; Euarchontoglires; Primates; Catarrhini; Hominidae; Homo</GBSeq_taxonomy>
  <GBSeq_references>
    <GBReference>
      <GBReference_reference>1 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Marintchev,A.</GBAuthor>
        <GBAuthor>Wagner,G.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>eIF4G and CBP80 share a common origin and similar domain organization: implications for the structure and function of eIF4G</GBReference_title>
      <GBReference_journal>Biochemistry 44 (37), 12265-12272 (2005)</GBReference_journal>
      <GBReference_pubmed>16156639</GBReference_pubmed>
      <GBReference_remark>GeneRIF: The organization of the CBP80-CBP20 complex suggests how the activity of eIF4G in translation initiation could be regulated through a dynamic network of overlapping intra- and intermolecular interactions.</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>2 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Gorrini,C.</GBAuthor>
        <GBAuthor>Loreni,F.</GBAuthor>
        <GBAuthor>Gandin,V.</GBAuthor>
        <GBAuthor>Sala,L.A.</GBAuthor>
        <GBAuthor>Sonenberg,N.</GBAuthor>
        <GBAuthor>Marchisio,P.C.</GBAuthor>
        <GBAuthor>Biffo,S.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Fibronectin controls cap-dependent translation through beta1 integrin and eukaryotic initiation factors 4 and 2 coordinated pathways</GBReference_title>
      <GBReference_journal>Proc. Natl. Acad. Sci. U.S.A. 102 (26), 9200-9205 (2005)</GBReference_journal>
      <GBReference_pubmed>15961545</GBReference_pubmed>
      <GBReference_remark>GeneRIF: FN has a role in controlling translation through beta1 integrin and eukaryotic initiation factors 4 and 2 coordinated pathways</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>3 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Byrd,M.P.</GBAuthor>
        <GBAuthor>Zamora,M.</GBAuthor>
        <GBAuthor>Lloyd,R.E.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Translation of eukaryotic translation initiation factor 4GI (eIF4GI) proceeds from multiple mRNAs containing a novel cap-dependent internal ribosome entry site (IRES) that is active during poliovirus infection</GBReference_title>
      <GBReference_journal>J. Biol. Chem. 280 (19), 18610-18622 (2005)</GBReference_journal>
      <GBReference_pubmed>15755734</GBReference_pubmed>
      <GBReference_remark>GeneRIF: intact eIF4GI protein is not required for the de novo synthesis of eIF4GI, suggesting its expression can continue under stress or infection conditions where eIF4GI is cleaved</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>4 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Foeger,N.</GBAuthor>
        <GBAuthor>Kuehnel,E.</GBAuthor>
        <GBAuthor>Cencic,R.</GBAuthor>
        <GBAuthor>Skern,T.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>The binding of foot-and-mouth disease virus leader proteinase to eIF4GI involves conserved ionic interactions</GBReference_title>
      <GBReference_journal>FEBS J. 272 (10), 2602-2611 (2005)</GBReference_journal>
      <GBReference_pubmed>15885108</GBReference_pubmed>
      <GBReference_remark>GeneRIF: Results identify two conserved basic residues (K646 and R650) in human eukaryotic initiation factor 4GI (eIF4GI) that are important for foot-and-mouth disease virus leader proteinase binding.</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>5 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Kudchodkar,S.B.</GBAuthor>
        <GBAuthor>Yu,Y.</GBAuthor>
        <GBAuthor>Maguire,T.G.</GBAuthor>
        <GBAuthor>Alwine,J.C.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Human cytomegalovirus infection induces rapamycin-insensitive phosphorylation of downstream effectors of mTOR kinase</GBReference_title>
      <GBReference_journal>J. Virol. 78 (20), 11030-11039 (2004)</GBReference_journal>
      <GBReference_pubmed>15452223</GBReference_pubmed>
      <GBReference_remark>GeneRIF: phoshorylation induced by human Cytomegalovirus infections is both mTOR and phosphatidylinositol kinase independent.</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>6 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Orton,K.C.</GBAuthor>
        <GBAuthor>Ling,J.</GBAuthor>
        <GBAuthor>Waskiewicz,A.J.</GBAuthor>
        <GBAuthor>Cooper,J.A.</GBAuthor>
        <GBAuthor>Merrick,W.C.</GBAuthor>
        <GBAuthor>Korneeva,N.L.</GBAuthor>
        <GBAuthor>Rhoads,R.E.</GBAuthor>
        <GBAuthor>Sonenberg,N.</GBAuthor>
        <GBAuthor>Traugh,J.A.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Phosphorylation of Mnk1 by caspase-activated Pak2/gamma-PAK inhibits phosphorylation and interaction of eIF4G with Mnk</GBReference_title>
      <GBReference_journal>J. Biol. Chem. 279 (37), 38649-38657 (2004)</GBReference_journal>
      <GBReference_pubmed>15234964</GBReference_pubmed>
      <GBReference_remark>GeneRIF: eIF4G binding to Mnk is inhibted by Mnk1 phosphorylation by caspase-activated Pak2/gamma-PAK</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>7 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Beausoleil,S.A.</GBAuthor>
        <GBAuthor>Jedrychowski,M.</GBAuthor>
        <GBAuthor>Schwartz,D.</GBAuthor>
        <GBAuthor>Elias,J.E.</GBAuthor>
        <GBAuthor>Villen,J.</GBAuthor>
        <GBAuthor>Li,J.</GBAuthor>
        <GBAuthor>Cohn,M.A.</GBAuthor>
        <GBAuthor>Cantley,L.C.</GBAuthor>
        <GBAuthor>Gygi,S.P.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Large-scale characterization of HeLa cell nuclear phosphoproteins</GBReference_title>
      <GBReference_journal>Proc. Natl. Acad. Sci. U.S.A. 101 (33), 12130-12135 (2004)</GBReference_journal>
      <GBReference_pubmed>15302935</GBReference_pubmed>
    </GBReference>
    <GBReference>
      <GBReference_reference>8 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Xi,Q.</GBAuthor>
        <GBAuthor>Cuesta,R.</GBAuthor>
        <GBAuthor>Schneider,R.J.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Tethering of eIF4G to adenoviral mRNAs by viral 100k protein drives ribosome shunting</GBReference_title>
      <GBReference_journal>Genes Dev. 18 (16), 1997-2009 (2004)</GBReference_journal>
      <GBReference_pubmed>15314025</GBReference_pubmed>
      <GBReference_remark>GeneRIF: role of binding to adenoviral mRNA in ribosome shunting</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>9 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Cuesta,R.</GBAuthor>
        <GBAuthor>Xi,Q.</GBAuthor>
        <GBAuthor>Schneider,R.J.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Structural basis for competitive inhibition of eIF4G-Mnk1 interaction by the adenovirus 100-kilodalton protein</GBReference_title>
      <GBReference_journal>J. Virol. 78 (14), 7707-7716 (2004)</GBReference_journal>
      <GBReference_pubmed>15220445</GBReference_pubmed>
      <GBReference_remark>GeneRIF: Adenovirus 100K protein blocks cellular protein synthesis by coopting eIF4G and cap-initiation complexes and displacing or blocking binding by Mnk1, which occurs only on preassembled complexes, resulting in dephosphorylation of eIF4E.</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>10 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Avdulov,S.</GBAuthor>
        <GBAuthor>Li,S.</GBAuthor>
        <GBAuthor>Michalek,V.</GBAuthor>
        <GBAuthor>Burrichter,D.</GBAuthor>
        <GBAuthor>Peterson,M.</GBAuthor>
        <GBAuthor>Perlman,D.M.</GBAuthor>
        <GBAuthor>Manivel,J.C.</GBAuthor>
        <GBAuthor>Sonenberg,N.</GBAuthor>
        <GBAuthor>Yee,D.</GBAuthor>
        <GBAuthor>Bitterman,P.B.</GBAuthor>
        <GBAuthor>Polunovsky,V.A.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Activation of translation complex eIF4F is essential for the genesis and maintenance of the malignant phenotype in human mammary epithelial cells</GBReference_title>
      <GBReference_journal>Cancer Cell 5 (6), 553-563 (2004)</GBReference_journal>
      <GBReference_pubmed>15193258</GBReference_pubmed>
      <GBReference_remark>GeneRIF: eIF4F activation is an essential component of the malignant phenotype in breast carcinoma</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>11 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Coldwell,M.J.</GBAuthor>
        <GBAuthor>Hashemzadeh-Bonehi,L.</GBAuthor>
        <GBAuthor>Hinton,T.M.</GBAuthor>
        <GBAuthor>Morley,S.J.</GBAuthor>
        <GBAuthor>Pain,V.M.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Expression of fragments of translation initiation factor eIF4GI reveals a nuclear localisation signal within the N-terminal apoptotic cleavage fragment N-FAG</GBReference_title>
      <GBReference_journal>J. Cell. Sci. 117 (PT 12), 2545-2555 (2004)</GBReference_journal>
      <GBReference_pubmed>15128869</GBReference_pubmed>
      <GBReference_remark>GeneRIF: Expression of fragments of eIF4GI reveals a nuclear localization sequence within the N-terminal apoptotic cleavage fragment N-FAG.</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>12 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Vitour,D.</GBAuthor>
        <GBAuthor>Lindenbaum,P.</GBAuthor>
        <GBAuthor>Vende,P.</GBAuthor>
        <GBAuthor>Becker,M.M.</GBAuthor>
        <GBAuthor>Poncet,D.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>RoXaN, a novel cellular protein containing TPR, LD, and zinc finger motifs, forms a ternary complex with eukaryotic initiation factor 4G and rotavirus NSP3</GBReference_title>
      <GBReference_journal>J. Virol. 78 (8), 3851-3862 (2004)</GBReference_journal>
      <GBReference_pubmed>15047801</GBReference_pubmed>
      <GBReference_remark>GeneRIF: RoXaN is capable of interacting with NSP3 and eIF4G I in vivo and during rotavirus infection. Domains of interaction were mapped.</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>13 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Robalino,J.</GBAuthor>
        <GBAuthor>Joshi,B.</GBAuthor>
        <GBAuthor>Fahrenkrug,S.C.</GBAuthor>
        <GBAuthor>Jagus,R.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Two zebrafish eIF4E family members are differentially expressed and functionally divergent</GBReference_title>
      <GBReference_journal>J. Biol. Chem. 279 (11), 10532-10541 (2004)</GBReference_journal>
      <GBReference_pubmed>14701818</GBReference_pubmed>
    </GBReference>
    <GBReference>
      <GBReference_reference>14 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Thompson,S.R.</GBAuthor>
        <GBAuthor>Sarnow,P.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Enterovirus 71 contains a type I IRES element that functions when eukaryotic initiation factor eIF4G is cleaved</GBReference_title>
      <GBReference_journal>Virology 315 (1), 259-266 (2003)</GBReference_journal>
      <GBReference_pubmed>14592777</GBReference_pubmed>
      <GBReference_remark>GeneRIF: cleavage of EIF4G by Coxsackievirus 2A protease enhances the translation efficiency of EV71 IRES activity</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>15 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Hashemzadeh-Bonehi,L.</GBAuthor>
        <GBAuthor>Curtis,P.S.</GBAuthor>
        <GBAuthor>Morley,S.J.</GBAuthor>
        <GBAuthor>Thorpe,J.R.</GBAuthor>
        <GBAuthor>Pain,V.M.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Overproduction of a conserved domain of fission yeast and mammalian translation initiation factor eIF4G causes aberrant cell morphology and results in disruption of the localization of F-actin and the organization of microtubules</GBReference_title>
      <GBReference_journal>Genes Cells 8 (2), 163-178 (2003)</GBReference_journal>
      <GBReference_pubmed>12581158</GBReference_pubmed>
      <GBReference_remark>GeneRIF: Overexpression of EIF4G1 causes aberrant cell morphology and results in disruption of the localization of F-actin and the organization of microtubules.</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>16 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Perales,C.</GBAuthor>
        <GBAuthor>Carrasco,L.</GBAuthor>
        <GBAuthor>Ventoso,I.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Cleavage of eIF4G by HIV-1 protease: effects on translation</GBReference_title>
      <GBReference_journal>FEBS Lett. 533 (1-3), 89-94 (2003)</GBReference_journal>
      <GBReference_pubmed>12505164</GBReference_pubmed>
      <GBReference_remark>GeneRIF: proteolytic activity of HIV-1 protease on eIF4GI and eIF4GII and its implications for the translation of mRNAs</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>17 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Connor,J.H.</GBAuthor>
        <GBAuthor>Lyles,D.S.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Vesicular stomatitis virus infection alters the eIF4F translation initiation complex and causes dephosphorylation of the eIF4E binding protein 4E-BP1</GBReference_title>
      <GBReference_journal>J. Virol. 76 (20), 10177-10187 (2002)</GBReference_journal>
      <GBReference_pubmed>12239292</GBReference_pubmed>
      <GBReference_remark>GeneRIF: Vesicular stomatitis virus infection alters the eIF4F translation initiation complex and causes dephosphorylation of the eIF4E binding protein 4E-BP1</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>18 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Groft,C.M.</GBAuthor>
        <GBAuthor>Burley,S.K.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Recognition of eIF4G by rotavirus NSP3 reveals a basis for mRNA circularization</GBReference_title>
      <GBReference_journal>Mol. Cell 9 (6), 1273-1283 (2002)</GBReference_journal>
      <GBReference_pubmed>12086624</GBReference_pubmed>
      <GBReference_remark>GeneRIF: X-ray structure of rotavirus NSP3-C bound to the 30 residue fragment of eIF4G that is also recognized by poly(A) binding protein (PABP)</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>19 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Bradley,C.A.</GBAuthor>
        <GBAuthor>Padovan,J.C.</GBAuthor>
        <GBAuthor>Thompson,T.L.</GBAuthor>
        <GBAuthor>Benoit,C.A.</GBAuthor>
        <GBAuthor>Chait,B.T.</GBAuthor>
        <GBAuthor>Rhoads,R.E.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Mass spectrometric analysis of the N terminus of translational initiation factor eIF4G-1 reveals novel isoforms</GBReference_title>
      <GBReference_journal>J. Biol. Chem. 277 (15), 12559-12571 (2002)</GBReference_journal>
      <GBReference_pubmed>11821405</GBReference_pubmed>
      <GBReference_remark>GeneRIF: mass spectrometric analysis of N terminus reveals novel isoforms</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>20 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Wakiyama,M.</GBAuthor>
        <GBAuthor>Miura,K.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Inhibition of translation and progesterone-induced maturation of Xenopus oocytes by expressing the amino-terminal portion of the eukaryotic translation initiation factor 4G</GBReference_title>
      <GBReference_journal>Biosci. Biotechnol. Biochem. 66 (1), 185-187 (2002)</GBReference_journal>
      <GBReference_pubmed>11866104</GBReference_pubmed>
      <GBReference_remark>GeneRIF: demonstrate that the expression of the amino-terminal one-third of eIF4G, which interacts with eIF4E and PABP, in Xenopus oocyte inhibits translation and progesterone-induced maturation</GBReference_remark>
    </GBReference>
    <GBReference>
      <GBReference_reference>21 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Cuesta,R.</GBAuthor>
        <GBAuthor>Xi,Q.</GBAuthor>
        <GBAuthor>Schneider,R.J.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Adenovirus-specific translation by displacement of kinase Mnk1 from cap-initiation complex eIF4F</GBReference_title>
      <GBReference_journal>EMBO J. 19 (13), 3465-3474 (2000)</GBReference_journal>
      <GBReference_pubmed>10880459</GBReference_pubmed>
    </GBReference>
    <GBReference>
      <GBReference_reference>22 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Vary,T.C.</GBAuthor>
        <GBAuthor>Jefferson,L.S.</GBAuthor>
        <GBAuthor>Kimball,S.R.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Amino acid-induced stimulation of translation initiation in rat skeletal muscle</GBReference_title>
      <GBReference_journal>Am. J. Physiol. 277 (6 PT 1), E1077-E1086 (1999)</GBReference_journal>
      <GBReference_pubmed>10600798</GBReference_pubmed>
    </GBReference>
    <GBReference>
      <GBReference_reference>23 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Laroia,G.</GBAuthor>
        <GBAuthor>Cuesta,R.</GBAuthor>
        <GBAuthor>Brewer,G.</GBAuthor>
        <GBAuthor>Schneider,R.J.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Control of mRNA decay by heat shock-ubiquitin-proteasome pathway</GBReference_title>
      <GBReference_journal>Science 284 (5413), 499-502 (1999)</GBReference_journal>
      <GBReference_pubmed>10205060</GBReference_pubmed>
    </GBReference>
    <GBReference>
      <GBReference_reference>24 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Pyronnet,S.</GBAuthor>
        <GBAuthor>Imataka,H.</GBAuthor>
        <GBAuthor>Gingras,A.C.</GBAuthor>
        <GBAuthor>Fukunaga,R.</GBAuthor>
        <GBAuthor>Hunter,T.</GBAuthor>
        <GBAuthor>Sonenberg,N.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Human eukaryotic translation initiation factor 4G (eIF4G) recruits mnk1 to phosphorylate eIF4E</GBReference_title>
      <GBReference_journal>EMBO J. 18 (1), 270-279 (1999)</GBReference_journal>
      <GBReference_pubmed>9878069</GBReference_pubmed>
    </GBReference>
    <GBReference>
      <GBReference_reference>25 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Imataka,H.</GBAuthor>
        <GBAuthor>Gradi,A.</GBAuthor>
        <GBAuthor>Sonenberg,N.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>A newly identified N-terminal amino acid sequence of human eIF4G binds poly(A)-binding protein and functions in poly(A)-dependent translation</GBReference_title>
      <GBReference_journal>EMBO J. 17 (24), 7480-7489 (1998)</GBReference_journal>
      <GBReference_pubmed>9857202</GBReference_pubmed>
    </GBReference>
    <GBReference>
      <GBReference_reference>26 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Gradi,A.</GBAuthor>
        <GBAuthor>Imataka,H.</GBAuthor>
        <GBAuthor>Svitkin,Y.V.</GBAuthor>
        <GBAuthor>Rom,E.</GBAuthor>
        <GBAuthor>Raught,B.</GBAuthor>
        <GBAuthor>Morino,S.</GBAuthor>
        <GBAuthor>Sonenberg,N.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>A novel functional human eukaryotic translation initiation factor 4G</GBReference_title>
      <GBReference_journal>Mol. Cell. Biol. 18 (1), 334-342 (1998)</GBReference_journal>
      <GBReference_pubmed>9418880</GBReference_pubmed>
    </GBReference>
    <GBReference>
      <GBReference_reference>27 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Imataka,H.</GBAuthor>
        <GBAuthor>Sonenberg,N.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Human eukaryotic translation initiation factor 4G (eIF4G) possesses two separate and independent binding sites for eIF4A</GBReference_title>
      <GBReference_journal>Mol. Cell. Biol. 17 (12), 6940-6947 (1997)</GBReference_journal>
      <GBReference_pubmed>9372926</GBReference_pubmed>
    </GBReference>
    <GBReference>
      <GBReference_reference>28 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Eberle,J.</GBAuthor>
        <GBAuthor>Krasagakis,K.</GBAuthor>
        <GBAuthor>Orfanos,C.E.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Translation initiation factor eIF-4A1 mRNA is consistently overexpressed in human melanoma cells in vitro</GBReference_title>
      <GBReference_journal>Int. J. Cancer 71 (3), 396-401 (1997)</GBReference_journal>
      <GBReference_pubmed>9139875</GBReference_pubmed>
    </GBReference>
    <GBReference>
      <GBReference_reference>29 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Brass,N.</GBAuthor>
        <GBAuthor>Heckel,D.</GBAuthor>
        <GBAuthor>Sahin,U.</GBAuthor>
        <GBAuthor>Pfreundschuh,M.</GBAuthor>
        <GBAuthor>Sybrecht,G.W.</GBAuthor>
        <GBAuthor>Meese,E.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Translation initiation factor eIF-4gamma is encoded by an amplified gene and induces an immune response in squamous cell lung carcinoma</GBReference_title>
      <GBReference_journal>Hum. Mol. Genet. 6 (1), 33-39 (1997)</GBReference_journal>
      <GBReference_pubmed>9002667</GBReference_pubmed>
    </GBReference>
    <GBReference>
      <GBReference_reference>30 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Lamphear,B.J.</GBAuthor>
        <GBAuthor>Rhoads,R.E.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>A single amino acid change in protein synthesis initiation factor 4G renders cap-dependent translation resistant to picornaviral 2A proteases</GBReference_title>
      <GBReference_journal>Biochemistry 35 (49), 15726-15733 (1996)</GBReference_journal>
      <GBReference_pubmed>8961935</GBReference_pubmed>
    </GBReference>
    <GBReference>
      <GBReference_reference>31 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Yan,R.</GBAuthor>
        <GBAuthor>Rhoads,R.E.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Human protein synthesis initiation factor eIF-4 gamma is encoded by a single gene (EIF4G) that maps to chromosome 3q27-qter</GBReference_title>
      <GBReference_journal>Genomics 26 (2), 394-398 (1995)</GBReference_journal>
      <GBReference_pubmed>7601469</GBReference_pubmed>
    </GBReference>
    <GBReference>
      <GBReference_reference>32 (bases 1 to 5463)</GBReference_reference>
      <GBReference_authors>
        <GBAuthor>Yan,R.</GBAuthor>
        <GBAuthor>Rychlik,W.</GBAuthor>
        <GBAuthor>Etchison,D.</GBAuthor>
        <GBAuthor>Rhoads,R.E.</GBAuthor>
      </GBReference_authors>
      <GBReference_title>Amino acid sequence of the human protein synthesis initiation factor eIF-4 gamma</GBReference_title>
      <GBReference_journal>J. Biol. Chem. 267 (32), 23226-23231 (1992)</GBReference_journal>
      <GBReference_pubmed>1429670</GBReference_pubmed>
    </GBReference>
  </GBSeq_references>
  <GBSeq_comment>REVIEWED REFSEQ: This record has been curated by NCBI staff. The reference sequence was derived from AY082886.1, AK096719.1, BX647812.1, AF104913.1, BU683097.1 and BU944064.1.; Summary: The protein encoded by this gene is a component of the protein complex EIF4F, which is involved in the recognition of the mRNA cap, ATP-dependent unwinding of 5&apos;-terminal secondary structure, and recruitment of mRNA to the ribosome. Alternative splicing results in five transcript variants encoding four distinct isoforms.; Transcript Variant: This variant (2) differs in the 5&apos; UTR compared to variant 1. Variants 1 and 2 encode the same isoform (1).; COMPLETENESS: complete on the 3&apos; end.</GBSeq_comment>
  <GBSeq_feature-table>
    <GBFeature>
      <GBFeature_key>source</GBFeature_key>
      <GBFeature_location>1..5463</GBFeature_location>
      <GBFeature_quals>
        <GBQualifier>
          <GBQualifier_name>organism</GBQualifier_name>
          <GBQualifier_value>Homo sapiens</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>mol_type</GBQualifier_name>
          <GBQualifier_value>mRNA</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>db_xref</GBQualifier_name>
          <GBQualifier_value>taxon:9606</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>chromosome</GBQualifier_name>
          <GBQualifier_value>3</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>map</GBQualifier_name>
          <GBQualifier_value>3q27-qter</GBQualifier_value>
        </GBQualifier>
      </GBFeature_quals>
    </GBFeature>
    <GBFeature>
      <GBFeature_key>gene</GBFeature_key>
      <GBFeature_location>1..5463</GBFeature_location>
      <GBFeature_intervals>
        <GBInterval>
          <GBInterval_from>1</GBInterval_from>
          <GBInterval_to>5463</GBInterval_to>
          <GBInterval_accession>NM_198241.1</GBInterval_accession>
        </GBInterval>
      </GBFeature_intervals>
      <GBFeature_quals>
        <GBQualifier>
          <GBQualifier_name>gene</GBQualifier_name>
          <GBQualifier_value>EIF4G1</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>note</GBQualifier_name>
          <GBQualifier_value>synonyms: p220, EIF4F, EIF4G, DKFZp686A1451</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>db_xref</GBQualifier_name>
          <GBQualifier_value>GeneID:1981</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>db_xref</GBQualifier_name>
          <GBQualifier_value>HGNC:3296</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>db_xref</GBQualifier_name>
          <GBQualifier_value>MIM:600495</GBQualifier_value>
        </GBQualifier>
      </GBFeature_quals>
    </GBFeature>
    <GBFeature>
      <GBFeature_key>CDS</GBFeature_key>
      <GBFeature_location>199..4998</GBFeature_location>
      <GBFeature_intervals>
        <GBInterval>
          <GBInterval_from>199</GBInterval_from>
          <GBInterval_to>4998</GBInterval_to>
          <GBInterval_accession>NM_198241.1</GBInterval_accession>
        </GBInterval>
      </GBFeature_intervals>
      <GBFeature_quals>
        <GBQualifier>
          <GBQualifier_name>gene</GBQualifier_name>
          <GBQualifier_value>EIF4G1</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>note</GBQualifier_name>
          <GBQualifier_value>isoform 1 is encoded by transcript variant 2; EIF4-gamma; go_component: eukaryotic translation initiation factor 4F complex [goid 0016281] [evidence TAS] [pmid 9857202]; go_function: RNA binding [goid 0003723] [evidence IEA]; go_function: protein binding [goid 0005515] [evidence IPI] [pmid 14701818]; go_function: translation initiation factor activity [goid 0003743] [evidence IEA]; go_function: translation initiation factor activity [goid 0003743] [evidence TAS] [pmid 8961935]; go_function: translation initiation factor activity [goid 0003743] [evidence TAS] [pmid 9372926]; go_process: regulation of translational initiation [goid 0006446] [evidence IEA]; go_process: regulation of translational initiation [goid 0006446] [evidence NAS] [pmid 8961935]; go_process: regulation of translational initiation [goid 0006446] [evidence NAS] [pmid 9372926]</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>codon_start</GBQualifier_name>
          <GBQualifier_value>1</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>transl_table</GBQualifier_name>
          <GBQualifier_value>1</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>product</GBQualifier_name>
          <GBQualifier_value>eukaryotic translation initiation factor 4 gamma, 1 isoform 1</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>protein_id</GBQualifier_name>
          <GBQualifier_value>NP_937884.1</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>db_xref</GBQualifier_name>
          <GBQualifier_value>GI:38201623</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>db_xref</GBQualifier_name>
          <GBQualifier_value>CCDS:CCDS3259.1</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>db_xref</GBQualifier_name>
          <GBQualifier_value>GeneID:1981</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>db_xref</GBQualifier_name>
          <GBQualifier_value>HGNC:3296</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>db_xref</GBQualifier_name>
          <GBQualifier_value>MIM:600495</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>translation</GBQualifier_name>
          <GBQualifier_value>MNKAPQSTGPPPAPSPGLPQPAFPPGQTAPVVFSTPQATQMNTPSQPRQHFYPSRAQPPSSAASRVQSAAPARPGPAAHVYPAGSQVMMIPSQISYPASQGAYYIPGQGRSTYVVPTQQYPVQPGAPGFYPGASPTEFGTYAGAYYPAQGVQQFPTGVAPAPVLMNQPPQIAPKRERKTIRIRDPNQGGKDITEEIMSGARTASTPTPPQTGGGLEPQANGETPQVAVIVRPDDRSQGAIIADRPGLPGPEHSPSESQPSSPSPTPSPSPVLEPGSEPNLAVLSIPGDTMTTIQMSVEESTPISRETGEPYRLSPEPTPLAEPILEVEVTLSKPVPESEFSSSPLQAPTPLASHTVEIHEPNGMVPSEDLEPEVESSPELAPPPACPSESPVPIAPTAQPEELLNGAPSPPAVDLSPVSEPEEQAKEVTASMAPPTIPSATPATAPSATSPAQEEEMEEEEEEEEGEAGEAGEAESEKGGEELLPPESTPIPANLSQNLEAAAATQVAVSVPKRRRKIKELNKKEAVGDLLDAFKEANPAVPEVENQPPAGSNPGPESEGSGVPPRPEEADETWDSKEDKIHNAENIQPGEQKYEYKSDQWKPLNLEEKKRYDREFLLGFQFIFASMQKPEGLPHISDVVLDKANKTPLRPLDPTRLQGINCGPDFTPSFANLGRTTLSTRGPPRGGPGGELPRGPAGLGPRRSQQGPRKEPRKIIATVLMTEDIKLNKAEKAWKPSSKRTAADKDRGEEDADGSKTQDLFRRVRSILNKLTPQMFQQLMKQVTQLAIDTEERLKGVIDLIFEKAISEPNFSVAYANMCRCLMALKVPTTEKPTVTVNFRKLLLNRCQKEFEKDKDDDEVFEKKQKEMDEAATAEERGRLKEELEEARDIARRRSLGNIKFIGELFKLKMLTEAIMHDCVVKLLKNHDEESLECLCRLLTTIGKDLDFEKAKPRMDQYFNQMEKIIKEKKTSSRIRFMLQDVLDLRGSNWVPRRGDQGPKTIDQIHKEAEMEEHREHIKVQQLMAKGSDKRRGGPPGPPISRGLPLVDDGGWNTVPISKGSRPIDTSRLTKITKPGSIDSNNQLFAPGGRLSWGKGSSGGSGAKPSDAASEAARPATSTLNRFSALQQAVPTESTDNRRVVQRSSLSRERGEKAGDRGDRLERSERGGDRGDRLDRARTPATKRSFSKEVEERSRERPSQPEGLRKAASLTEDRDRGRDAVKREAALPPVSPLKAALSEEELEKKSKAIIEEYLHLNDMKEAVQCVQELASPSLLFIFVRHGVESTLERSAIAREHMGQLLHQLLCAGHLSTAQYYQGLYEILELAEDMEIDIPHVWLYLAELVTPILQEGGVPMGELFREITKPLRPLGKAASLLLEILGLLCKSMGPKKVGTLWREAGLSWKEFLPEGQDIGAFVAEQKVEYTLGEESEAPGQRALPSEELNRQLEKLLKEGSSNQRVFDWIEANLSEQQIVSNTLVRALMTAVCYSAIIFETPLRVDVAVLKARAKLLQKYLCDEQKELQALYALQALVVTLEQPPNLLRMFFDALYDEDVVKEDAFYSWESSKDPAEQQGKGVALKSVTAFFKWLREAEEESDHN</GBQualifier_value>
        </GBQualifier>
      </GBFeature_quals>
    </GBFeature>
    <GBFeature>
      <GBFeature_key>STS</GBFeature_key>
      <GBFeature_location>2537..3166</GBFeature_location>
      <GBFeature_intervals>
        <GBInterval>
          <GBInterval_from>2537</GBInterval_from>
          <GBInterval_to>3166</GBInterval_to>
          <GBInterval_accession>NM_198241.1</GBInterval_accession>
        </GBInterval>
      </GBFeature_intervals>
      <GBFeature_quals>
        <GBQualifier>
          <GBQualifier_name>gene</GBQualifier_name>
          <GBQualifier_value>EIF4G1</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>standard_name</GBQualifier_name>
          <GBQualifier_value>GDB:593083</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>db_xref</GBQualifier_name>
          <GBQualifier_value>UniSTS:157934</GBQualifier_value>
        </GBQualifier>
      </GBFeature_quals>
    </GBFeature>
    <GBFeature>
      <GBFeature_key>STS</GBFeature_key>
      <GBFeature_location>4822..5110</GBFeature_location>
      <GBFeature_intervals>
        <GBInterval>
          <GBInterval_from>4822</GBInterval_from>
          <GBInterval_to>5110</GBInterval_to>
          <GBInterval_accession>NM_198241.1</GBInterval_accession>
        </GBInterval>
      </GBFeature_intervals>
      <GBFeature_quals>
        <GBQualifier>
          <GBQualifier_name>gene</GBQualifier_name>
          <GBQualifier_value>EIF4G1</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>standard_name</GBQualifier_name>
          <GBQualifier_value>RH79680</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>db_xref</GBQualifier_name>
          <GBQualifier_value>UniSTS:84472</GBQualifier_value>
        </GBQualifier>
      </GBFeature_quals>
    </GBFeature>
    <GBFeature>
      <GBFeature_key>STS</GBFeature_key>
      <GBFeature_location>4875..5432</GBFeature_location>
      <GBFeature_intervals>
        <GBInterval>
          <GBInterval_from>4875</GBInterval_from>
          <GBInterval_to>5432</GBInterval_to>
          <GBInterval_accession>NM_198241.1</GBInterval_accession>
        </GBInterval>
      </GBFeature_intervals>
      <GBFeature_quals>
        <GBQualifier>
          <GBQualifier_name>gene</GBQualifier_name>
          <GBQualifier_value>EIF4G1</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>standard_name</GBQualifier_name>
          <GBQualifier_value>EIF4G1_3109</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>db_xref</GBQualifier_name>
          <GBQualifier_value>UniSTS:462180</GBQualifier_value>
        </GBQualifier>
      </GBFeature_quals>
    </GBFeature>
    <GBFeature>
      <GBFeature_key>STS</GBFeature_key>
      <GBFeature_location>5101..5330</GBFeature_location>
      <GBFeature_intervals>
        <GBInterval>
          <GBInterval_from>5101</GBInterval_from>
          <GBInterval_to>5330</GBInterval_to>
          <GBInterval_accession>NM_198241.1</GBInterval_accession>
        </GBInterval>
      </GBFeature_intervals>
      <GBFeature_quals>
        <GBQualifier>
          <GBQualifier_name>gene</GBQualifier_name>
          <GBQualifier_value>EIF4G1</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>standard_name</GBQualifier_name>
          <GBQualifier_value>RH68199</GBQualifier_value>
        </GBQualifier>
        <GBQualifier>
          <GBQualifier_name>db_xref</GBQualifier_name>
          <GBQualifier_value>UniSTS:33666</GBQualifier_value>
        </GBQualifier>
      </GBFeature_quals>
    </GBFeature>
    <GBFeature>
      <GBFeature_key>polyA_signal</GBFeature_key>
      <GBFeature_location>5423..5428</GBFeature_location>
      <GBFeature_intervals>
        <GBInterval>
          <GBInterval_from>5423</GBInterval_from>
          <GBInterval_to>5428</GBInterval_to>
          <GBInterval_accession>NM_198241.1</GBInterval_accession>
        </GBInterval>
      </GBFeature_intervals>
      <GBFeature_quals>
        <GBQualifier>
          <GBQualifier_name>gene</GBQualifier_name>
          <GBQualifier_value>EIF4G1</GBQualifier_value>
        </GBQualifier>
      </GBFeature_quals>
    </GBFeature>
    <GBFeature>
      <GBFeature_key>polyA_site</GBFeature_key>
      <GBFeature_location>5439</GBFeature_location>
      <GBFeature_intervals>
        <GBInterval>
          <GBInterval_point>5439</GBInterval_point>
          <GBInterval_accession>NM_198241.1</GBInterval_accession>
        </GBInterval>
      </GBFeature_intervals>
      <GBFeature_quals>
        <GBQualifier>
          <GBQualifier_name>gene</GBQualifier_name>
          <GBQualifier_value>EIF4G1</GBQualifier_value>
        </GBQualifier>
      </GBFeature_quals>
    </GBFeature>
    <GBFeature>
      <GBFeature_key>polyA_site</GBFeature_key>
      <GBFeature_location>5448</GBFeature_location>
      <GBFeature_intervals>
        <GBInterval>
          <GBInterval_point>5448</GBInterval_point>
          <GBInterval_accession>NM_198241.1</GBInterval_accession>
        </GBInterval>
      </GBFeature_intervals>
      <GBFeature_quals>
        <GBQualifier>
          <GBQualifier_name>gene</GBQualifier_name>
          <GBQualifier_value>EIF4G1</GBQualifier_value>
        </GBQualifier>
      </GBFeature_quals>
    </GBFeature>
  </GBSeq_feature-table>
  <GBSeq_sequence>GAAGCGGTGGCCGCCGAGCGGGATCTGTGCGGGGAGCCGGAAATGGTTGTGGACTACGTCTGTGCGGCTGCGTGGGGCTCGGCCGCGCGGACTGAAGGAGACTGAAGGCCCTCGGATGCCCAGAACCTGTAGGCCGCACCGTGGACTTGTTCTTAATCGAGGGGGTGCTGGGGGGACCCTGATGTGGCACCAAATGAAATGAACAAAGCTCCACAGTCCACAGGCCCCCCACCCGCCCCATCCCCCGGACTCCCACAGCCAGCGTTTCCCCCGGGGCAGACAGCGCCGGTGGTGTTCAGTACGCCACAAGCGACACAAATGAACACGCCTTCTCAGCCCCGCCAGCACTTCTACCCTAGCCGGGCCCAGCCCCCGAGCAGTGCAGCCTCCCGAGTGCAGAGTGCAGCCCCTGCCCGCCCTGGCCCAGCTGCCCATGTCTACCCTGCTGGATCCCAAGTAATGATGATCCCTTCCCAGATCTCCTACCCAGCCTCCCAGGGGGCCTACTACATCCCTGGACAGGGGCGTTCCACATACGTTGTCCCGACACAGCAGTACCCTGTGCAGCCAGGAGCCCCAGGCTTCTATCCAGGTGCAAGCCCTACAGAATTTGGGACCTACGCTGGCGCCTACTATCCAGCCCAAGGGGTGCAGCAGTTTCCCACTGGCGTGGCCCCCGCCCCAGTTTTGATGAACCAGCCACCCCAGATTGCTCCCAAGAGGGAGCGTAAGACGATCCGAATTCGAGATCCAAACCAAGGAGGAAAGGATATCACAGAGGAGATCATGTCTGGGGCCCGCACTGCCTCCACACCCACCCCTCCCCAGACGGGAGGCGGTCTGGAGCCTCAAGCTAATGGGGAGACGCCCCAGGTTGCTGTCATTGTCCGGCCAGATGACCGGTCACAGGGAGCAATCATTGCTGACCGGCCAGGGCTGCCTGGCCCAGAGCATAGCCCTTCAGAATCCCAGCCTTCGTCGCCTTCTCCGACCCCATCACCATCCCCAGTCTTGGAACCGGGGTCTGAGCCTAATCTCGCAGTCCTCTCTATTCCTGGGGACACTATGACAACTATACAAATGTCTGTAGAAGAATCAACCCCCATCTCCCGTGAAACTGGGGAGCCATATCGCCTCTCTCCAGAACCCACTCCTCTCGCCGAACCCATACTGGAAGTAGAAGTGACACTTAGCAAACCGGTTCCAGAATCTGAGTTTTCTTCCAGTCCTCTCCAGGCTCCCACCCCTTTGGCATCTCACACAGTGGAAATTCATGAGCCTAATGGCATGGTCCCATCTGAAGATCTGGAACCAGAGGTGGAGTCAAGCCCAGAGCTTGCTCCTCCCCCAGCTTGCCCCTCCGAATCCCCTGTGCCCATTGCTCCAACTGCCCAACCTGAGGAACTGCTCAACGGAGCCCCCTCGCCACCAGCTGTGGACTTAAGCCCAGTCAGTGAGCCAGAGGAGCAGGCCAAGGAGGTGACAGCATCAATGGCGCCCCCCACCATCCCCTCTGCTACTCCAGCTACGGCTCCTTCAGCTACTTCCCCAGCTCAGGAGGAGGAAATGGAAGAAGAAGAAGAAGAGGAAGAAGGAGAAGCAGGAGAAGCAGGAGAAGCTGAGAGTGAGAAAGGAGGAGAGGAACTGCTCCCCCCAGAGAGTACCCCTATTCCAGCCAACTTGTCTCAGAATTTGGAGGCAGCAGCAGCCACTCAAGTGGCAGTATCTGTGCCAAAGAGGAGACGGAAAATTAAGGAGCTAAATAAGAAGGAGGCTGTTGGAGACCTTCTGGATGCCTTCAAGGAGGCGAACCCGGCAGTACCAGAGGTGGAAAATCAGCCTCCTGCAGGCAGCAATCCAGGCCCAGAGTCTGAGGGCAGTGGTGTGCCCCCACGTCCTGAGGAAGCAGATGAGACCTGGGACTCAAAGGAAGACAAAATTCACAATGCTGAGAACATCCAGCCCGGGGAACAGAAGTATGAATATAAGTCAGATCAGTGGAAGCCTCTAAACCTAGAGGAGAAAAAACGTTACGACCGTGAGTTCCTGCTTGGTTTTCAGTTCATCTTTGCCAGTATGCAGAAGCCAGAGGGATTGCCACATATCAGTGACGTGGTGCTGGACAAGGCCAATAAAACACCACTGCGGCCACTGGATCCCACTAGACTACAAGGCATAAATTGTGGCCCAGACTTCACTCCATCCTTTGCCAACCTTGGCCGGACAACCCTTAGCACCCGTGGGCCCCCAAGGGGTGGGCCAGGTGGGGAGCTGCCCCGTGGGCCGGCTGGCCTGGGACCCCGGCGCTCTCAGCAGGGACCCCGAAAAGAACCACGCAAGATCATTGCCACAGTGTTAATGACCGAAGATATAAAACTGAACAAAGCAGAGAAAGCCTGGAAACCCAGCAGCAAGCGGACGGCGGCTGATAAGGATCGAGGGGAAGAAGATGCTGATGGCAGCAAAACCCAGGACCTATTCCGCAGGGTGCGCTCCATCCTGAATAAACTGACACCCCAGATGTTCCAGCAGCTGATGAAGCAAGTGACGCAGCTGGCCATCGACACCGAGGAACGCCTCAAAGGGGTCATTGACCTCATTTTTGAGAAGGCCATTTCAGAGCCCAACTTCTCTGTGGCCTATGCCAACATGTGCCGCTGCCTCATGGCGCTGAAAGTGCCCACTACGGAAAAGCCAACAGTGACTGTGAACTTCCGAAAGCTGTTGTTGAATCGATGTCAGAAGGAGTTTGAGAAAGACAAAGATGATGATGAGGTTTTTGAGAAGAAGCAAAAAGAGATGGATGAAGCTGCTACGGCAGAGGAACGAGGACGCCTGAAGGAAGAGCTGGAAGAGGCTCGGGACATAGCCCGGCGGCGCTCTTTAGGGAATATCAAGTTTATTGGAGAGTTGTTCAAACTGAAGATGTTAACAGAGGCAATAATGCATGACTGTGTGGTCAAACTGCTTAAGAACCATGATGAAGAGTCCCTTGAGTGCCTTTGTCGTCTGCTCACCACCATTGGCAAAGACCTGGACTTTGAAAAAGCCAAGCCCCGAATGGATCAGTATTTCAACCAGATGGAAAAAATCATTAAAGAAAAGAAGACGTCATCCCGCATCCGCTTTATGCTGCAGGACGTGCTGGATCTGCGAGGGAGCAATTGGGTGCCACGCCGAGGGGATCAGGGTCCCAAGACCATTGACCAGATCCATAAGGAGGCTGAGATGGAAGAACATCGAGAGCACATCAAAGTGCAGCAGCTCATGGCCAAGGGCAGTGACAAGCGTCGGGGCGGTCCTCCAGGCCCTCCCATCAGCCGTGGACTTCCCCTTGTGGATGATGGTGGCTGGAACACAGTTCCCATCAGCAAAGGTAGCCGCCCCATTGACACCTCACGACTCACCAAGATCACCAAGCCTGGCTCCATCGATTCTAACAACCAGCTCTTTGCACCTGGAGGGCGACTGAGCTGGGGCAAGGGCAGCAGCGGAGGCTCAGGAGCCAAGCCCTCAGACGCAGCATCAGAAGCTGCTCGCCCAGCTACTAGTACTTTGAATCGCTTCTCAGCCCTTCAACAAGCGGTACCCACAGAAAGCACAGATAATAGACGTGTGGTGCAGAGGAGTAGCTTGAGCCGAGAACGAGGCGAGAAAGCTGGAGACCGAGGAGACCGCCTAGAGCGGAGTGAACGGGGAGGGGACCGTGGGGACCGGCTTGATCGTGCGCGGACACCTGCTACCAAGCGGAGCTTCAGCAAGGAAGTGGAGGAGCGGAGTAGAGAACGGCCCTCCCAGCCTGAGGGGCTGCGCAAGGCAGCTAGCCTCACGGAGGATCGGGACCGTGGGCGGGATGCCGTGAAGCGAGAAGCTGCCCTACCCCCAGTGAGCCCCCTGAAGGCGGCTCTCTCTGAGGAGGAGTTAGAGAAGAAATCCAAGGCTATCATTGAGGAATATCTCCATCTCAATGACATGAAAGAGGCAGTCCAGTGCGTGCAGGAGCTGGCCTCACCCTCCTTGCTCTTCATCTTTGTACGGCATGGTGTCGAGTCTACGCTGGAGCGCAGTGCCATTGCTCGTGAGCATATGGGGCAGCTGCTGCACCAGCTGCTCTGTGCTGGGCATCTGTCTACTGCTCAGTACTACCAAGGGTTGTATGAAATCTTGGAATTGGCTGAGGACATGGAAATTGACATCCCCCACGTGTGGCTCTACCTAGCGGAACTGGTAACACCCATTCTGCAGGAAGGTGGGGTGCCCATGGGGGAGCTGTTCAGGGAGATTACAAAGCCTCTGAGACCGTTGGGCAAAGCTGCTTCCCTGTTGCTGGAGATCCTGGGCCTCCTGTGCAAAAGCATGGGTCCTAAAAAGGTGGGGACGCTGTGGCGAGAAGCCGGGCTTAGCTGGAAGGAATTTCTACCTGAAGGCCAGGACATTGGTGCATTCGTCGCTGAACAGAAGGTGGAGTATACCCTGGGAGAGGAGTCGGAAGCCCCTGGCCAGAGGGCACTCCCCTCCGAGGAGCTGAACAGGCAGCTGGAGAAGCTGCTGAAGGAGGGCAGCAGTAACCAGCGGGTGTTCGACTGGATAGAGGCCAACCTGAGTGAGCAGCAGATAGTATCCAACACGTTAGTTCGAGCCCTCATGACGGCTGTCTGCTATTCTGCAATTATTTTTGAGACTCCCCTCCGAGTGGACGTTGCAGTGCTGAAAGCGCGAGCGAAGCTGCTGCAGAAATACCTGTGTGACGAGCAGAAGGAGCTACAGGCGCTCTACGCCCTCCAGGCCCTTGTAGTGACCTTAGAACAGCCTCCCAACCTGCTGCGGATGTTCTTTGACGCACTGTATGACGAGGACGTGGTGAAGGAGGATGCCTTCTACAGTTGGGAGAGTAGCAAGGACCCCGCTGAGCAGCAGGGCAAGGGTGTGGCCCTTAAATCTGTCACAGCCTTCTTCAAGTGGCTCCGTGAAGCAGAGGAGGAGTCTGACCACAACTGAGGGCTGGTGGGGCCGGGGACCTGGAGCCCCATGGACACACAGATGGCCCGGCTAGCCGCCTGGACTGCAGGGGGGCGGCAGCAGCGGCGGTGGCAGTGGGTGCCTGTAGTGTGATGTGTCTGAACTAATAAAGTGGCTGAAGAGGCAGGATGGCTTGGGGCTGCCTGGGCCCCCCTCCAGGATGCCGCCAGGTGTCCCTCTCCTCCCCCTGGGGCACAGAGATATATTATATATAAAGTCTTGAAATTTGGTGTGTCTTGGGGTGGGGAGGGGCACCAACGCCTGCCCCTGGGGTCCTTTTTTTTATTTTCTGAAAATCACTCTCGGGACTGCCGTCCTCGCTGCTGGGGGCATATGCCCCAGCCCCTGTACCACCCCTGCTGTTGCCTGGGCAGGGGGAAGGGGGGGCACGGTGCCTGTAATTATTAAACATGAATTCAATTAAGCTCAAAAAAAAAAAAAAAA</GBSeq_sequence>
</GBSeq>
</GBSet>
