paragraph_index int64 | sec string | p_has_citation int64 | cites string | citeids list | pmid int64 | cited_id string | sentences string | all_sent_cites list | sent_len int64 | sentence_batch_index int64 | sent_has_citation float64 | qc_fail bool | cited_sentence string | cites_in_sentence list | cln_sentence string | is_cap bool | is_alpha bool | ends_wp bool | cit_qc bool | lgtm bool | __index_level_0__ int64 |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
3 | DISCUSSION | 0 | null | null | 17,151,076 | pmid-11406596|pmid-10899131|pmid-12145212|pmid-9776761|pmid-9334319|pmid-11689695 | The strong conservation of R480, W482 and W489 among species, combined with the observation that all three of these residues make extensive contributions to the Pcf11–Clp1 interface, suggests that the interactions made by these residues occur in the CFIA of other yeasts as well as in the 3′ end processing complexes of ... | null | 338 | 5,500 | 0 | false | null | null | The strong conservation of R480, W482 and W489 among species, combined with the observation that all three of these residues make extensive contributions to the Pcf11–Clp1 interface, suggests that the interactions made by these residues occur in the CFIA of other yeasts as well as in the 3′ end processing complexes of ... | true | true | true | true | true | 919 |
3 | DISCUSSION | 0 | null | null | 17,151,076 | pmid-11406596|pmid-10899131|pmid-12145212|pmid-9776761|pmid-9334319|pmid-11689695 | In the mammalian system, there is no equivalent of CFIA. | null | 56 | 5,501 | 0 | false | null | null | In the mammalian system, there is no equivalent of CFIA. | true | true | true | true | true | 919 |
3 | DISCUSSION | 0 | null | null | 17,151,076 | pmid-11406596|pmid-10899131|pmid-12145212|pmid-9776761|pmid-9334319|pmid-11689695 | hPcf11 and hClp are the only characterized components of the CFIIm complex and CstF77 and CstF64, the mammalian homologues of Rna14 and Rna15 are combined with a third protein CstF50 forming CstF (cleavage stimulation factor). | null | 226 | 5,502 | 0 | false | null | null | hPcf11 and hClp are the only characterized components of the CFIIm complex and CstF77 and CstF64, the mammalian homologues of Rna14 and Rna15 are combined with a third protein CstF50 forming CstF (cleavage stimulation factor). | false | true | true | true | false | 919 |
3 | DISCUSSION | 0 | null | null | 17,151,076 | pmid-11406596|pmid-10899131|pmid-12145212|pmid-9776761|pmid-9334319|pmid-11689695 | However, our data now suggest that although the subunit composition of yeast and mammalian 3′ end processing complexes may have diverged, it is likely that many of the interactions at the Clp1–Pcf11 interface have been preserved. | null | 229 | 5,503 | 0 | false | null | null | However, our data now suggest that although the subunit composition of yeast and mammalian 3′ end processing complexes may have diverged, it is likely that many of the interactions at the Clp1–Pcf11 interface have been preserved. | true | true | true | true | true | 919 |
3 | DISCUSSION | 0 | null | null | 17,151,076 | pmid-11406596|pmid-10899131|pmid-12145212|pmid-9776761|pmid-9334319|pmid-11689695 | Furthermore, since Pcf11 is extensively involved at the interface between the complexes involved in 3′ end processing it seems likely that this highly conserved Clp1–Pcf11 interaction is required to ensure the efficient and timely recruitment of the ATPase activity of Clp1 to the polyadenylation machinery. | null | 307 | 5,504 | 0 | false | null | null | Furthermore, since Pcf11 is extensively involved at the interface between the complexes involved in 3′ end processing it seems likely that this highly conserved Clp1–Pcf11 interaction is required to ensure the efficient and timely recruitment of the ATPase activity of Clp1 to the polyadenylation machinery. | true | true | true | true | true | 919 |
4 | DISCUSSION | 1 | 12 | [
"b12",
"b58",
"b59"
] | 17,151,076 | pmid-8900210|pmid-11344258|pmid-9334319|pmid-15215336|pmid-11344258|pmid-10619842|pmid-12853609|pmid-12853609|pmid-11344258|pmid-9032237|pmid-12727883|pmid-12727883|pmid-15665873|pmid-1352851|pmid-9857200|pmid-9099738 | The exact nature of ATP-binding and/or hydrolysis in the 3′ end processing reaction remains unclear. | [
"12",
"58",
"59"
] | 100 | 5,505 | 0 | false | The exact nature of ATP-binding and/or hydrolysis in the 3′ end processing reaction remains unclear. | [] | The exact nature of ATP-binding and/or hydrolysis in the 3′ end processing reaction remains unclear. | true | true | true | true | true | 920 |
4 | DISCUSSION | 1 | 12 | [
"b12",
"b58",
"b59"
] | 17,151,076 | pmid-8900210|pmid-11344258|pmid-9334319|pmid-15215336|pmid-11344258|pmid-10619842|pmid-12853609|pmid-12853609|pmid-11344258|pmid-9032237|pmid-12727883|pmid-12727883|pmid-15665873|pmid-1352851|pmid-9857200|pmid-9099738 | It has been demonstrated that in vitro reconstitution of the 3′ end cleavage and polyadenylation reaction is stimulated by ATP (12) and that the cleavage reaction alone can proceed in the presence of other nucleotides, CTP and 3′ dATP (58). | [
"12",
"58",
"59"
] | 240 | 5,506 | 1 | false | It has been demonstrated that in vitro reconstitution of the 3′ end cleavage and polyadenylation reaction is stimulated by ATP and that the cleavage reaction alone can proceed in the presence of other nucleotides, CTP and 3′ dATP. | [
"12",
"58"
] | It has been demonstrated that in vitro reconstitution of the 3′ end cleavage and polyadenylation reaction is stimulated by ATP and that the cleavage reaction alone can proceed in the presence of other nucleotides, CTP and 3′ dATP. | true | true | true | true | true | 920 |
4 | DISCUSSION | 1 | 59 | [
"b12",
"b58",
"b59"
] | 17,151,076 | pmid-8900210|pmid-11344258|pmid-9334319|pmid-15215336|pmid-11344258|pmid-10619842|pmid-12853609|pmid-12853609|pmid-11344258|pmid-9032237|pmid-12727883|pmid-12727883|pmid-15665873|pmid-1352851|pmid-9857200|pmid-9099738 | Furthermore, it has been shown that ATP is required for CFII to bind to RNA through the Cft2 protein (59). | [
"12",
"58",
"59"
] | 106 | 5,507 | 1 | false | Furthermore, it has been shown that ATP is required for CFII to bind to RNA through the Cft2 protein. | [
"59"
] | Furthermore, it has been shown that ATP is required for CFII to bind to RNA through the Cft2 protein. | true | true | true | true | true | 920 |
4 | DISCUSSION | 1 | 12 | [
"b12",
"b58",
"b59"
] | 17,151,076 | pmid-8900210|pmid-11344258|pmid-9334319|pmid-15215336|pmid-11344258|pmid-10619842|pmid-12853609|pmid-12853609|pmid-11344258|pmid-9032237|pmid-12727883|pmid-12727883|pmid-15665873|pmid-1352851|pmid-9857200|pmid-9099738 | In light of these observations, it seems likely that ATP is required for several steps of the cleavage and polyadenylation reaction, but to date an ATPase enzyme has not been identified within the 3′ end processing machinery. | [
"12",
"58",
"59"
] | 225 | 5,508 | 0 | false | In light of these observations, it seems likely that ATP is required for several steps of the cleavage and polyadenylation reaction, but to date an ATPase enzyme has not been identified within the 3′ end processing machinery. | [] | In light of these observations, it seems likely that ATP is required for several steps of the cleavage and polyadenylation reaction, but to date an ATPase enzyme has not been identified within the 3′ end processing machinery. | true | true | true | true | true | 920 |
4 | DISCUSSION | 1 | 12 | [
"b12",
"b58",
"b59"
] | 17,151,076 | pmid-8900210|pmid-11344258|pmid-9334319|pmid-15215336|pmid-11344258|pmid-10619842|pmid-12853609|pmid-12853609|pmid-11344258|pmid-9032237|pmid-12727883|pmid-12727883|pmid-15665873|pmid-1352851|pmid-9857200|pmid-9099738 | Our data now reveal that Clp1 is an ATP-binding protein that could provide ATPase activity in this system. | [
"12",
"58",
"59"
] | 106 | 5,509 | 0 | false | Our data now reveal that Clp1 is an ATP-binding protein that could provide ATPase activity in this system. | [] | Our data now reveal that Clp1 is an ATP-binding protein that could provide ATPase activity in this system. | true | true | true | true | true | 920 |
4 | DISCUSSION | 1 | 12 | [
"b12",
"b58",
"b59"
] | 17,151,076 | pmid-8900210|pmid-11344258|pmid-9334319|pmid-15215336|pmid-11344258|pmid-10619842|pmid-12853609|pmid-12853609|pmid-11344258|pmid-9032237|pmid-12727883|pmid-12727883|pmid-15665873|pmid-1352851|pmid-9857200|pmid-9099738 | The structure contains ATP bound at a P-loop and the conformation of the switch regions in the nucleotide binding site together with co-ordination of the magnesium ion is similar to that observed in other SIMIBI-class catalytically competent ATPases, most notably NifH. | [
"12",
"58",
"59"
] | 269 | 5,510 | 0 | false | The structure contains ATP bound at a P-loop and the conformation of the switch regions in the nucleotide binding site together with co-ordination of the magnesium ion is similar to that observed in other SIMIBI-class catalytically competent ATPases, most notably NifH. | [] | The structure contains ATP bound at a P-loop and the conformation of the switch regions in the nucleotide binding site together with co-ordination of the magnesium ion is similar to that observed in other SIMIBI-class catalytically competent ATPases, most notably NifH. | true | true | true | true | true | 920 |
4 | DISCUSSION | 1 | 12 | [
"b12",
"b58",
"b59"
] | 17,151,076 | pmid-8900210|pmid-11344258|pmid-9334319|pmid-15215336|pmid-11344258|pmid-10619842|pmid-12853609|pmid-12853609|pmid-11344258|pmid-9032237|pmid-12727883|pmid-12727883|pmid-15665873|pmid-1352851|pmid-9857200|pmid-9099738 | However, although the Clp1 ATP-binding site appears capable of supporting nucleotide hydrolysis, in an in vitro assay we have been unable to detect any ATPase activity either using Clp1 alone or Clp1–Pcf11 complexes in combination with other components of CFI, with or without the addition of RNA (C. G. Noble and I. | [
"12",
"58",
"59"
] | 316 | 5,511 | 0 | false | However, although the Clp1 ATP-binding site appears capable of supporting nucleotide hydrolysis, in an in vitro assay we have been unable to detect any ATPase activity either using Clp1 alone or Clp1–Pcf11 complexes in combination with other components of CFI, with or without the addition of RNA (C. G. Noble and I. | [] | However, although the Clp1 ATP-binding site appears capable of supporting nucleotide hydrolysis, in an in vitro assay we have been unable to detect any ATPase activity either using Clp1 alone or Clp1–Pcf11 complexes in combination with other components of CFI, with or without the addition of RNA (C. G. Noble and I. | true | true | true | true | true | 920 |
4 | DISCUSSION | 1 | 12 | [
"b12",
"b58",
"b59"
] | 17,151,076 | pmid-8900210|pmid-11344258|pmid-9334319|pmid-15215336|pmid-11344258|pmid-10619842|pmid-12853609|pmid-12853609|pmid-11344258|pmid-9032237|pmid-12727883|pmid-12727883|pmid-15665873|pmid-1352851|pmid-9857200|pmid-9099738 | A. Taylor, unpublished data). | [
"12",
"58",
"59"
] | 29 | 5,512 | 0 | false | A. Taylor, unpublished data). | [] | A. Taylor, unpublished data). | true | true | true | true | true | 920 |
4 | DISCUSSION | 1 | 12 | [
"b12",
"b58",
"b59"
] | 17,151,076 | pmid-8900210|pmid-11344258|pmid-9334319|pmid-15215336|pmid-11344258|pmid-10619842|pmid-12853609|pmid-12853609|pmid-11344258|pmid-9032237|pmid-12727883|pmid-12727883|pmid-15665873|pmid-1352851|pmid-9857200|pmid-9099738 | This lack of enzymatic turnover combined with the inaccessibility of the bound ATP molecule poses the question of whether the nucleotide can be hydrolysed in vivo or whether it functions purely as a structural element of the Clp1 protein. | [
"12",
"58",
"59"
] | 238 | 5,513 | 0 | false | This lack of enzymatic turnover combined with the inaccessibility of the bound ATP molecule poses the question of whether the nucleotide can be hydrolysed in vivo or whether it functions purely as a structural element of the Clp1 protein. | [] | This lack of enzymatic turnover combined with the inaccessibility of the bound ATP molecule poses the question of whether the nucleotide can be hydrolysed in vivo or whether it functions purely as a structural element of the Clp1 protein. | true | true | true | true | true | 920 |
4 | DISCUSSION | 1 | 12 | [
"b12",
"b58",
"b59"
] | 17,151,076 | pmid-8900210|pmid-11344258|pmid-9334319|pmid-15215336|pmid-11344258|pmid-10619842|pmid-12853609|pmid-12853609|pmid-11344258|pmid-9032237|pmid-12727883|pmid-12727883|pmid-15665873|pmid-1352851|pmid-9857200|pmid-9099738 | What is clear is that turnover of bound ATP would require significant conformational rearrangements in the protein in order for catalysis to occur together with ADP dissociation and ATP re-binding. | [
"12",
"58",
"59"
] | 197 | 5,514 | 0 | false | What is clear is that turnover of bound ATP would require significant conformational rearrangements in the protein in order for catalysis to occur together with ADP dissociation and ATP re-binding. | [] | What is clear is that turnover of bound ATP would require significant conformational rearrangements in the protein in order for catalysis to occur together with ADP dissociation and ATP re-binding. | true | true | true | true | true | 920 |
5 | DISCUSSION | 1 | 56 | [
"b56",
"b60",
"b61"
] | 17,151,076 | pmid-11060040|pmid-6329717|pmid-11344258|pmid-12853609|pmid-12177301|pmid-16213211|pmid-11060040|pmid-11848849|pmid-15458408|pmid-15635448 | In support of the idea that Clp1 does have ATPase activity it is interesting to examine the structurally related NifH protein. | [
"56",
"60",
"61"
] | 126 | 5,515 | 0 | false | In support of the idea that Clp1 does have ATPase activity it is interesting to examine the structurally related NifH protein. | [] | In support of the idea that Clp1 does have ATPase activity it is interesting to examine the structurally related NifH protein. | true | true | true | true | true | 921 |
5 | DISCUSSION | 1 | 56 | [
"b56",
"b60",
"b61"
] | 17,151,076 | pmid-11060040|pmid-6329717|pmid-11344258|pmid-12853609|pmid-12177301|pmid-16213211|pmid-11060040|pmid-11848849|pmid-15458408|pmid-15635448 | In this system, NifH lacks ATPase activity in isolation and in fact nucleotide hydrolysis activity only becomes strongly stimulated through the interaction of NifH with the Mo-Fe subunit of the nitrogenase (56). | [
"56",
"60",
"61"
] | 211 | 5,516 | 1 | false | In this system, NifH lacks ATPase activity in isolation and in fact nucleotide hydrolysis activity only becomes strongly stimulated through the interaction of NifH with the Mo-Fe subunit of the nitrogenase. | [
"56"
] | In this system, NifH lacks ATPase activity in isolation and in fact nucleotide hydrolysis activity only becomes strongly stimulated through the interaction of NifH with the Mo-Fe subunit of the nitrogenase. | true | true | true | true | true | 921 |
5 | DISCUSSION | 1 | 60 | [
"b56",
"b60",
"b61"
] | 17,151,076 | pmid-11060040|pmid-6329717|pmid-11344258|pmid-12853609|pmid-12177301|pmid-16213211|pmid-11060040|pmid-11848849|pmid-15458408|pmid-15635448 | Similarly, two other related SIMIBI ATPases, MinD and Soj also require the interaction of other components of a macromolecular complex to stimulate ATP hydrolysis; MinE in the MinCDE cell-division system (60) and SpoJ in the Soj bacterial chromosome segregation system (61). | [
"56",
"60",
"61"
] | 274 | 5,517 | 1 | false | Similarly, two other related SIMIBI ATPases, MinD and Soj also require the interaction of other components of a macromolecular complex to stimulate ATP hydrolysis; MinE in the MinCDE cell-division system and SpoJ in the Soj bacterial chromosome segregation system. | [
"60",
"61"
] | Similarly, two other related SIMIBI ATPases, MinD and Soj also require the interaction of other components of a macromolecular complex to stimulate ATP hydrolysis; MinE in the MinCDE cell-division system and SpoJ in the Soj bacterial chromosome segregation system. | true | true | true | true | true | 921 |
5 | DISCUSSION | 1 | 56 | [
"b56",
"b60",
"b61"
] | 17,151,076 | pmid-11060040|pmid-6329717|pmid-11344258|pmid-12853609|pmid-12177301|pmid-16213211|pmid-11060040|pmid-11848849|pmid-15458408|pmid-15635448 | Another common factor in all of these complexes is that the energy of ATP hydrolysis is coupled to the transduction of conformational changes through the macromolecular complex. | [
"56",
"60",
"61"
] | 177 | 5,518 | 0 | false | Another common factor in all of these complexes is that the energy of ATP hydrolysis is coupled to the transduction of conformational changes through the macromolecular complex. | [] | Another common factor in all of these complexes is that the energy of ATP hydrolysis is coupled to the transduction of conformational changes through the macromolecular complex. | true | true | true | true | true | 921 |
5 | DISCUSSION | 1 | 56 | [
"b56",
"b60",
"b61"
] | 17,151,076 | pmid-11060040|pmid-6329717|pmid-11344258|pmid-12853609|pmid-12177301|pmid-16213211|pmid-11060040|pmid-11848849|pmid-15458408|pmid-15635448 | For instance in NifH the conformational changes that result from ATP hydrolysis direct the transfer of electrons from NifH to the Mo-Fe subunit of the nitrogenase. | [
"56",
"60",
"61"
] | 163 | 5,519 | 0 | false | For instance in NifH the conformational changes that result from ATP hydrolysis direct the transfer of electrons from NifH to the Mo-Fe subunit of the nitrogenase. | [] | For instance in NifH the conformational changes that result from ATP hydrolysis direct the transfer of electrons from NifH to the Mo-Fe subunit of the nitrogenase. | true | true | true | true | true | 921 |
6 | DISCUSSION | 1 | 27 | [
"b27",
"b37",
"b39",
"b35"
] | 17,151,076 | pmid-11916378|pmid-12853609|pmid-12177301|pmid-16213211|pmid-11060040 | In light of these observations, it seems plausible that activation of Clp1 ATPase activity might require the interaction with a further 3′ end processing-factor. | [
"27",
"37",
"39",
"35"
] | 161 | 5,520 | 0 | false | In light of these observations, it seems plausible that activation of Clp1 ATPase activity might require the interaction with a further 3′ end processing-factor. | [] | In light of these observations, it seems plausible that activation of Clp1 ATPase activity might require the interaction with a further 3′ end processing-factor. | true | true | true | true | true | 922 |
6 | DISCUSSION | 1 | 27 | [
"b27",
"b37",
"b39",
"b35"
] | 17,151,076 | pmid-11916378|pmid-12853609|pmid-12177301|pmid-16213211|pmid-11060040 | As we do not observe a stimulation of Clp1 ATPase activity upon the addition of the other CFI subunits, the question arises of which other 3′ end processing-factor might be required. | [
"27",
"37",
"39",
"35"
] | 182 | 5,521 | 0 | false | As we do not observe a stimulation of Clp1 ATPase activity upon the addition of the other CFI subunits, the question arises of which other 3′ end processing-factor might be required. | [] | As we do not observe a stimulation of Clp1 ATPase activity upon the addition of the other CFI subunits, the question arises of which other 3′ end processing-factor might be required. | true | true | true | true | true | 922 |
6 | DISCUSSION | 1 | 27 | [
"b27",
"b37",
"b39",
"b35"
] | 17,151,076 | pmid-11916378|pmid-12853609|pmid-12177301|pmid-16213211|pmid-11060040 | Other than Pcf11, the only other factor demonstrated to bind to Clp1 is the Ysh1 subunit of CPF (27), proposed to be the endonuclease responsible for transcript cleavage (37–39). | [
"27",
"37",
"39",
"35"
] | 178 | 5,522 | 1 | false | Other than Pcf11, the only other factor demonstrated to bind to Clp1 is the Ysh1 subunit of CPF, proposed to be the endonuclease responsible for transcript cleavage. | [
"27",
"37–39"
] | Other than Pcf11, the only other factor demonstrated to bind to Clp1 is the Ysh1 subunit of CPF, proposed to be the endonuclease responsible for transcript cleavage. | true | true | true | true | true | 922 |
6 | DISCUSSION | 1 | 27 | [
"b27",
"b37",
"b39",
"b35"
] | 17,151,076 | pmid-11916378|pmid-12853609|pmid-12177301|pmid-16213211|pmid-11060040 | Since both CFIA and CPF are required for the cleavage reaction we propose that the association of the CFIA and CPF complexes bound at polyadenylation signal sequences is required to trigger nucleotide hydrolysis, perhaps through an Ysh1–Clp1 interaction. | [
"27",
"37",
"39",
"35"
] | 254 | 5,523 | 0 | false | Since both CFIA and CPF are required for the cleavage reaction we propose that the association of the CFIA and CPF complexes bound at polyadenylation signal sequences is required to trigger nucleotide hydrolysis, perhaps through an Ysh1–Clp1 interaction. | [] | Since both CFIA and CPF are required for the cleavage reaction we propose that the association of the CFIA and CPF complexes bound at polyadenylation signal sequences is required to trigger nucleotide hydrolysis, perhaps through an Ysh1–Clp1 interaction. | true | true | true | true | true | 922 |
6 | DISCUSSION | 1 | 35 | [
"b27",
"b37",
"b39",
"b35"
] | 17,151,076 | pmid-11916378|pmid-12853609|pmid-12177301|pmid-16213211|pmid-11060040 | This notion that Clp1 might link 3′ end processing complexes together has a precedence in the mammalian system where it has been proposed that Clp1 is involved in bridging CFIIm to the other mammalian 3′ end processing complexes CPSF and CFIm (35). | [
"27",
"37",
"39",
"35"
] | 248 | 5,524 | 1 | false | This notion that Clp1 might link 3′ end processing complexes together has a precedence in the mammalian system where it has been proposed that Clp1 is involved in bridging CFIIm to the other mammalian 3′ end processing complexes CPSF and CFIm. | [
"35"
] | This notion that Clp1 might link 3′ end processing complexes together has a precedence in the mammalian system where it has been proposed that Clp1 is involved in bridging CFIIm to the other mammalian 3′ end processing complexes CPSF and CFIm. | true | true | true | true | true | 922 |
7 | DISCUSSION | 0 | null | null | 17,151,076 | null | The function of Clp1 mediated nucleotide hydrolysis in 3′-end processing remains obscure. | null | 89 | 5,525 | 0 | false | null | null | The function of Clp1 mediated nucleotide hydrolysis in 3′-end processing remains obscure. | true | true | true | true | true | 923 |
7 | DISCUSSION | 0 | null | null | 17,151,076 | null | However, in the other structurally related ATPases that forms part of multisubunit complexes, hydrolysis results in conformational changes that are transmitted between component subunits and actuate a variety of diverse effects. | null | 228 | 5,526 | 0 | false | null | null | However, in the other structurally related ATPases that forms part of multisubunit complexes, hydrolysis results in conformational changes that are transmitted between component subunits and actuate a variety of diverse effects. | true | true | true | true | true | 923 |
7 | DISCUSSION | 0 | null | null | 17,151,076 | null | Therefore, the idea that Clp1 mediated ATP hydrolysis might be used to transduce conformational effects through complexes bound at the polyadenylation site is an attractive proposition. | null | 185 | 5,527 | 0 | false | null | null | Therefore, the idea that Clp1 mediated ATP hydrolysis might be used to transduce conformational effects through complexes bound at the polyadenylation site is an attractive proposition. | true | true | true | true | true | 923 |
0 | INTRODUCTION | 1 | 1–3 | [
"B1 B2 B3",
"B4",
"B5"
] | 17,517,771 | pmid-12522297|pmid-14675814|pmid-15546744|pmid-20859781|NA | Chemical shift contains a wealth of structural information of DNAs. | [
"1–3",
"4",
"5"
] | 67 | 5,528 | 0 | false | Chemical shift contains a wealth of structural information of DNAs. | [] | Chemical shift contains a wealth of structural information of DNAs. | true | true | true | true | true | 924 |
0 | INTRODUCTION | 1 | 1–3 | [
"B1 B2 B3",
"B4",
"B5"
] | 17,517,771 | pmid-12522297|pmid-14675814|pmid-15546744|pmid-20859781|NA | At present, several methods have been established to predict chemical shifts of DNAs in random coil form (1–3) and double helical B-form (4,5). | [
"1–3",
"4",
"5"
] | 143 | 5,529 | 1 | false | At present, several methods have been established to predict chemical shifts of DNAs in random coil form and double helical B-form. | [
"1–3",
"4,5"
] | At present, several methods have been established to predict chemical shifts of DNAs in random coil form and double helical B-form. | true | true | true | true | true | 924 |
0 | INTRODUCTION | 1 | 1–3 | [
"B1 B2 B3",
"B4",
"B5"
] | 17,517,771 | pmid-12522297|pmid-14675814|pmid-15546744|pmid-20859781|NA | These methods are based on sets of reference chemical shift values and correction factors from experimental measurements, statistical analysis or semi-empirical calculations. | [
"1–3",
"4",
"5"
] | 174 | 5,530 | 0 | false | These methods are based on sets of reference chemical shift values and correction factors from experimental measurements, statistical analysis or semi-empirical calculations. | [] | These methods are based on sets of reference chemical shift values and correction factors from experimental measurements, statistical analysis or semi-empirical calculations. | true | true | true | true | true | 924 |
0 | INTRODUCTION | 1 | 1–3 | [
"B1 B2 B3",
"B4",
"B5"
] | 17,517,771 | pmid-12522297|pmid-14675814|pmid-15546744|pmid-20859781|NA | Shielding or deshielding contributions from nearest neighbor and/or next-nearest neighbor nucleotides have been included in these prediction methods. | [
"1–3",
"4",
"5"
] | 149 | 5,531 | 0 | false | Shielding or deshielding contributions from nearest neighbor and/or next-nearest neighbor nucleotides have been included in these prediction methods. | [] | Shielding or deshielding contributions from nearest neighbor and/or next-nearest neighbor nucleotides have been included in these prediction methods. | true | true | true | true | true | 924 |
0 | INTRODUCTION | 1 | 1–3 | [
"B1 B2 B3",
"B4",
"B5"
] | 17,517,771 | pmid-12522297|pmid-14675814|pmid-15546744|pmid-20859781|NA | To automate these prediction methods, a web server called ‘DSHIFT’ has been established for predicting DNA chemical shifts in this work. | [
"1–3",
"4",
"5"
] | 136 | 5,532 | 0 | false | To automate these prediction methods, a web server called ‘DSHIFT’ has been established for predicting DNA chemical shifts in this work. | [] | To automate these prediction methods, a web server called ‘DSHIFT’ has been established for predicting DNA chemical shifts in this work. | true | true | true | true | true | 924 |
0 | INTRODUCTION | 1 | 1–3 | [
"B1 B2 B3",
"B4",
"B5"
] | 17,517,771 | pmid-12522297|pmid-14675814|pmid-15546744|pmid-20859781|NA | This web server is open access to everyone. | [
"1–3",
"4",
"5"
] | 43 | 5,533 | 0 | false | This web server is open access to everyone. | [] | This web server is open access to everyone. | true | true | true | true | true | 924 |
0 | INTRODUCTION | 1 | 1–3 | [
"B1 B2 B3",
"B4",
"B5"
] | 17,517,771 | pmid-12522297|pmid-14675814|pmid-15546744|pmid-20859781|NA | Through entering a DNA sequence, random coil or double helical B-DNA chemical shifts will be predicted. | [
"1–3",
"4",
"5"
] | 103 | 5,534 | 0 | false | Through entering a DNA sequence, random coil or double helical B-DNA chemical shifts will be predicted. | [] | Through entering a DNA sequence, random coil or double helical B-DNA chemical shifts will be predicted. | true | true | true | true | true | 924 |
1 | INTRODUCTION | 0 | null | null | 17,517,771 | null | DSHIFT results can provide a quick reference guide for resonance assignments based on conventional NOESY and COSY-type experiments, thus facilitating solution structure studies of DNAs. | null | 185 | 5,535 | 0 | false | null | null | DSHIFT results can provide a quick reference guide for resonance assignments based on conventional NOESY and COSY-type experiments, thus facilitating solution structure studies of DNAs. | true | true | true | true | true | 925 |
1 | INTRODUCTION | 0 | null | null | 17,517,771 | null | These results can also provide useful information for studying structure–chemical shift relationship, identifying unstructured or right-handed double helical regions, monitoring DNA–drug or DNA–protein binding, and investigating conformational details of special features in DNA structures. | null | 290 | 5,536 | 0 | false | null | null | These results can also provide useful information for studying structure–chemical shift relationship, identifying unstructured or right-handed double helical regions, monitoring DNA–drug or DNA–protein binding, and investigating conformational details of special features in DNA structures. | true | true | true | true | true | 925 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2 B3 B4"
] | 17,591,613 | pmid-9736694|pmid-2536835|pmid-2539491|pmid-2536836|pmid-1329037|NA|pmid-10501485 | Viral infection often entails the hindering of the host cell's translation machinery in order that the viral genome is expressed more efficiently relative to the expression of the host's proteins. | [
"1",
"2–4"
] | 196 | 5,537 | 0 | false | Viral infection often entails the hindering of the host cell's translation machinery in order that the viral genome is expressed more efficiently relative to the expression of the host's proteins. | [] | Viral infection often entails the hindering of the host cell's translation machinery in order that the viral genome is expressed more efficiently relative to the expression of the host's proteins. | true | true | true | true | true | 926 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2 B3 B4"
] | 17,591,613 | pmid-9736694|pmid-2536835|pmid-2539491|pmid-2536836|pmid-1329037|NA|pmid-10501485 | In the Picornaviridae family of single-stranded RNA viruses, a viral protease cleaves the scaffolding translation initiation factors of the eIF4G family, thereby reducing the efficiency of the host cell's cap-dependent translation initiation and favouring the alternate internal ribosome entry site (IRES) mechanism used... | [
"1",
"2–4"
] | 338 | 5,538 | 1 | false | In the Picornaviridae family of single-stranded RNA viruses, a viral protease cleaves the scaffolding translation initiation factors of the eIF4G family, thereby reducing the efficiency of the host cell's cap-dependent translation initiation and favouring the alternate internal ribosome entry site (IRES) mechanism used... | [
"1"
] | In the Picornaviridae family of single-stranded RNA viruses, a viral protease cleaves the scaffolding translation initiation factors of the eIF4G family, thereby reducing the efficiency of the host cell's cap-dependent translation initiation and favouring the alternate internal ribosome entry site (IRES) mechanism used... | true | true | true | true | true | 926 |
0 | INTRODUCTION | 1 | 2–4 | [
"B1",
"B2 B3 B4"
] | 17,591,613 | pmid-9736694|pmid-2536835|pmid-2539491|pmid-2536836|pmid-1329037|NA|pmid-10501485 | The importance of this mechanism for viruses has been best demonstrated in the attenuated Sabin poliovirus strains used for worldwide polio vaccination, which contains point mutations in the IRES (2–4) that allow efficient translation in the gut but not in neuronal cells. | [
"1",
"2–4"
] | 272 | 5,539 | 1 | false | The importance of this mechanism for viruses has been best demonstrated in the attenuated Sabin poliovirus strains used for worldwide polio vaccination, which contains point mutations in the IRES that allow efficient translation in the gut but not in neuronal cells. | [
"2–4"
] | The importance of this mechanism for viruses has been best demonstrated in the attenuated Sabin poliovirus strains used for worldwide polio vaccination, which contains point mutations in the IRES that allow efficient translation in the gut but not in neuronal cells. | true | true | true | true | true | 926 |
1 | INTRODUCTION | 1 | 5 | [
"B5",
"B6",
"B7",
"B8 B9 B10",
"B11",
"B12",
"B13",
"B14 B15 B16 B17 B18 B19",
"B20",
"B21",
"B22"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | Cap-dependent translation initiation is also rendered less efficient under several cellular conditions, but specific cellular mRNAs are still translated with relative efficiency using the IRES mechanism for translation initiation. | [
"5",
"6",
"7",
"8–10",
"11",
"12",
"13",
"14–19",
"20",
"21",
"22"
] | 230 | 5,540 | 0 | false | Cap-dependent translation initiation is also rendered less efficient under several cellular conditions, but specific cellular mRNAs are still translated with relative efficiency using the IRES mechanism for translation initiation. | [] | Cap-dependent translation initiation is also rendered less efficient under several cellular conditions, but specific cellular mRNAs are still translated with relative efficiency using the IRES mechanism for translation initiation. | true | true | true | true | true | 927 |
1 | INTRODUCTION | 1 | 5 | [
"B5",
"B6",
"B7",
"B8 B9 B10",
"B11",
"B12",
"B13",
"B14 B15 B16 B17 B18 B19",
"B20",
"B21",
"B22"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | Many fine reviews have been written on IRES in cellular messages (5), viruses (6,7), stress and apoptosis (8–10). | [
"5",
"6",
"7",
"8–10",
"11",
"12",
"13",
"14–19",
"20",
"21",
"22"
] | 113 | 5,541 | 1 | false | Many fine reviews have been written on IRES in cellular messages, viruses, stress and apoptosis. | [
"5",
"6,7",
"8–10"
] | Many fine reviews have been written on IRES in cellular messages, viruses, stress and apoptosis. | true | true | true | true | true | 927 |
1 | INTRODUCTION | 1 | 5 | [
"B5",
"B6",
"B7",
"B8 B9 B10",
"B11",
"B12",
"B13",
"B14 B15 B16 B17 B18 B19",
"B20",
"B21",
"B22"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | Typical translation of cellular messages in eukaryotes begins with the association of translation initiation factors with the cap-binding protein factor, eIF4E, on the 5′end of the message where the ‘cap’, a methyl7GDP nucleotide resides. | [
"5",
"6",
"7",
"8–10",
"11",
"12",
"13",
"14–19",
"20",
"21",
"22"
] | 238 | 5,542 | 0 | false | Typical translation of cellular messages in eukaryotes begins with the association of translation initiation factors with the cap-binding protein factor, eIF4E, on the 5′end of the message where the ‘cap’, a methyl7GDP nucleotide resides. | [] | Typical translation of cellular messages in eukaryotes begins with the association of translation initiation factors with the cap-binding protein factor, eIF4E, on the 5′end of the message where the ‘cap’, a methyl7GDP nucleotide resides. | true | true | true | true | true | 927 |
1 | INTRODUCTION | 1 | 5 | [
"B5",
"B6",
"B7",
"B8 B9 B10",
"B11",
"B12",
"B13",
"B14 B15 B16 B17 B18 B19",
"B20",
"B21",
"B22"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | This complex, which includes eIF4E, eIF4G, eIF4A, eIF3, the 40S ribosomal small subunit and an activated start codon tRNAi, will scan along the untranslated region (UTR) of the mRNA until it finds a suitable start codon where the large ribosomal subunit will join and protein translation will begin. | [
"5",
"6",
"7",
"8–10",
"11",
"12",
"13",
"14–19",
"20",
"21",
"22"
] | 299 | 5,543 | 0 | false | This complex, which includes eIF4E, eIF4G, eIF4A, eIF3, the 40S ribosomal small subunit and an activated start codon tRNAi, will scan along the untranslated region (UTR) of the mRNA until it finds a suitable start codon where the large ribosomal subunit will join and protein translation will begin. | [] | This complex, which includes eIF4E, eIF4G, eIF4A, eIF3, the 40S ribosomal small subunit and an activated start codon tRNAi, will scan along the untranslated region (UTR) of the mRNA until it finds a suitable start codon where the large ribosomal subunit will join and protein translation will begin. | true | true | true | true | true | 927 |
1 | INTRODUCTION | 1 | 11 | [
"B5",
"B6",
"B7",
"B8 B9 B10",
"B11",
"B12",
"B13",
"B14 B15 B16 B17 B18 B19",
"B20",
"B21",
"B22"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | During mitosis, cellular perturbation or stress, and apoptosis, canonical initiation factors like eIF4E, 4E-BPs, eIF2α and the eIF4G family of proteins are either modified by changes in phosphorylation state or by protein cleavage (11) and are no longer available for efficient cap-dependent translation initiation. | [
"5",
"6",
"7",
"8–10",
"11",
"12",
"13",
"14–19",
"20",
"21",
"22"
] | 315 | 5,544 | 1 | false | During mitosis, cellular perturbation or stress, and apoptosis, canonical initiation factors like eIF4E, 4E-BPs, eIF2α and the eIF4G family of proteins are either modified by changes in phosphorylation state or by protein cleavage and are no longer available for efficient cap-dependent translation initiation. | [
"11"
] | During mitosis, cellular perturbation or stress, and apoptosis, canonical initiation factors like eIF4E, 4E-BPs, eIF2α and the eIF4G family of proteins are either modified by changes in phosphorylation state or by protein cleavage and are no longer available for efficient cap-dependent translation initiation. | true | true | true | true | true | 927 |
1 | INTRODUCTION | 1 | 12 | [
"B5",
"B6",
"B7",
"B8 B9 B10",
"B11",
"B12",
"B13",
"B14 B15 B16 B17 B18 B19",
"B20",
"B21",
"B22"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | The ribosome may also undergo some modifications as well (12). | [
"5",
"6",
"7",
"8–10",
"11",
"12",
"13",
"14–19",
"20",
"21",
"22"
] | 62 | 5,545 | 1 | false | The ribosome may also undergo some modifications as well. | [
"12"
] | The ribosome may also undergo some modifications as well. | true | true | true | true | true | 927 |
1 | INTRODUCTION | 1 | 13 | [
"B5",
"B6",
"B7",
"B8 B9 B10",
"B11",
"B12",
"B13",
"B14 B15 B16 B17 B18 B19",
"B20",
"B21",
"B22"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | At these times, other protein factors (13), many of which are part of the ribonucleoprotein complex, are required to enhance translation initiation through the IRES mechanism. | [
"5",
"6",
"7",
"8–10",
"11",
"12",
"13",
"14–19",
"20",
"21",
"22"
] | 175 | 5,546 | 1 | false | At these times, other protein factors, many of which are part of the ribonucleoprotein complex, are required to enhance translation initiation through the IRES mechanism. | [
"13"
] | At these times, other protein factors, many of which are part of the ribonucleoprotein complex, are required to enhance translation initiation through the IRES mechanism. | true | true | true | true | true | 927 |
1 | INTRODUCTION | 1 | 5 | [
"B5",
"B6",
"B7",
"B8 B9 B10",
"B11",
"B12",
"B13",
"B14 B15 B16 B17 B18 B19",
"B20",
"B21",
"B22"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | An IRES is a stretch of sequence usually upstream of the AUG start codon in the 5′ untranslated region (UTR) of the messenger RNA that along with the IRES trans-acting protein factors (ITAFs), recruit the ribosome. | [
"5",
"6",
"7",
"8–10",
"11",
"12",
"13",
"14–19",
"20",
"21",
"22"
] | 214 | 5,547 | 0 | false | An IRES is a stretch of sequence usually upstream of the AUG start codon in the 5′ untranslated region (UTR) of the messenger RNA that along with the IRES trans-acting protein factors (ITAFs), recruit the ribosome. | [] | An IRES is a stretch of sequence usually upstream of the AUG start codon in the 5′ untranslated region (UTR) of the messenger RNA that along with the IRES trans-acting protein factors (ITAFs), recruit the ribosome. | true | true | true | true | true | 927 |
1 | INTRODUCTION | 1 | 5 | [
"B5",
"B6",
"B7",
"B8 B9 B10",
"B11",
"B12",
"B13",
"B14 B15 B16 B17 B18 B19",
"B20",
"B21",
"B22"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | It is not clear whether these factors need a sequence motif or a RNA secondary structure/sequence motif combination to bind to IRES-containing mRNAs. | [
"5",
"6",
"7",
"8–10",
"11",
"12",
"13",
"14–19",
"20",
"21",
"22"
] | 149 | 5,548 | 0 | false | It is not clear whether these factors need a sequence motif or a RNA secondary structure/sequence motif combination to bind to IRES-containing mRNAs. | [] | It is not clear whether these factors need a sequence motif or a RNA secondary structure/sequence motif combination to bind to IRES-containing mRNAs. | true | true | true | true | true | 927 |
1 | INTRODUCTION | 1 | 14–19 | [
"B5",
"B6",
"B7",
"B8 B9 B10",
"B11",
"B12",
"B13",
"B14 B15 B16 B17 B18 B19",
"B20",
"B21",
"B22"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | In viral IRESes, like HCV and EMCV, RNA secondary structure has been shown to be crucial for IRES function (14–19). | [
"5",
"6",
"7",
"8–10",
"11",
"12",
"13",
"14–19",
"20",
"21",
"22"
] | 115 | 5,549 | 1 | false | In viral IRESes, like HCV and EMCV, RNA secondary structure has been shown to be crucial for IRES function. | [
"14–19"
] | In viral IRESes, like HCV and EMCV, RNA secondary structure has been shown to be crucial for IRES function. | true | true | true | true | true | 927 |
1 | INTRODUCTION | 1 | 5 | [
"B5",
"B6",
"B7",
"B8 B9 B10",
"B11",
"B12",
"B13",
"B14 B15 B16 B17 B18 B19",
"B20",
"B21",
"B22"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | These structures are also conserved in other viruses that do not share primary sequence similarity. | [
"5",
"6",
"7",
"8–10",
"11",
"12",
"13",
"14–19",
"20",
"21",
"22"
] | 99 | 5,550 | 0 | false | These structures are also conserved in other viruses that do not share primary sequence similarity. | [] | These structures are also conserved in other viruses that do not share primary sequence similarity. | true | true | true | true | true | 927 |
1 | INTRODUCTION | 1 | 22 | [
"B5",
"B6",
"B7",
"B8 B9 B10",
"B11",
"B12",
"B13",
"B14 B15 B16 B17 B18 B19",
"B20",
"B21",
"B22"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | For example, the HCV IRES structure is similar to CSFV and BVDV (20,21), whereas the EMCV IRES structure is shared with other cardio- picornaviruses (22). | [
"5",
"6",
"7",
"8–10",
"11",
"12",
"13",
"14–19",
"20",
"21",
"22"
] | 154 | 5,551 | 1 | false | For example, the HCV IRES structure is similar to CSFV and BVDV, whereas the EMCV IRES structure is shared with other cardio- picornaviruses. | [
"20,21",
"22"
] | For example, the HCV IRES structure is similar to CSFV and BVDV, whereas the EMCV IRES structure is shared with other cardio- picornaviruses. | true | true | true | true | true | 927 |
2 | INTRODUCTION | 1 | 23 | [
"B23",
"B24",
"B25",
"B26",
"B27",
"B28",
"B29",
"B30",
"B31",
"B32"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | The secondary structure of the cellular IRES of c-Myc (23), L-Myc (24), Apaf-1 (25), FGF-2 (26), FGF1 (27), Kv1.4 (28), Bag-1 (29), Igf2 (30), cat-1 (31), Mnt and MTG8a (32) have been empirically determined using enzymatic and chemical probing, but no similarities between the structures of these cellular IRES were iden... | [
"23",
"24",
"25",
"26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 327 | 5,552 | 1 | false | The secondary structure of the cellular IRES of c-Myc, L-Myc, Apaf-1, FGF-2, FGF1, Kv1.4, Bag-1, Igf2, cat-1, Mnt and MTG8a have been empirically determined using enzymatic and chemical probing, but no similarities between the structures of these cellular IRES were identified. | [
"23",
"24",
"25",
"26",
"27",
"28",
"29",
"30",
"31",
"32"
] | The secondary structure of the cellular IRES of c-Myc, L-Myc, Apaf-1, FGF-2, FGF1, Kv1.4, Bag-1, Igf2, cat-1, Mnt and MTG8a have been empirically determined using enzymatic and chemical probing, but no similarities between the structures of these cellular IRES were identified. | true | true | true | true | true | 928 |
2 | INTRODUCTION | 1 | 23 | [
"B23",
"B24",
"B25",
"B26",
"B27",
"B28",
"B29",
"B30",
"B31",
"B32"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | This could be due to a much wider regulatory range of translation initiation that is needed in distinct cellular contexts relative to a virus's need to translate its messages more efficiently than the host's transcripts. | [
"23",
"24",
"25",
"26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 220 | 5,553 | 0 | false | This could be due to a much wider regulatory range of translation initiation that is needed in distinct cellular contexts relative to a virus's need to translate its messages more efficiently than the host's transcripts. | [] | This could be due to a much wider regulatory range of translation initiation that is needed in distinct cellular contexts relative to a virus's need to translate its messages more efficiently than the host's transcripts. | true | true | true | true | true | 928 |
2 | INTRODUCTION | 1 | 23 | [
"B23",
"B24",
"B25",
"B26",
"B27",
"B28",
"B29",
"B30",
"B31",
"B32"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | Therefore, the possibility exists that there are structural motifs that are shared in co-ordinately regulated as yet undiscovered IRES. | [
"23",
"24",
"25",
"26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 135 | 5,554 | 0 | false | Therefore, the possibility exists that there are structural motifs that are shared in co-ordinately regulated as yet undiscovered IRES. | [] | Therefore, the possibility exists that there are structural motifs that are shared in co-ordinately regulated as yet undiscovered IRES. | true | true | true | true | true | 928 |
3 | INTRODUCTION | 1 | 33 | [
"B33"
] | 17,591,613 | pmid-16957278|pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-14712232|pmid-15169918|pmid-15339906|pmid-10677496|pmid-2536978|pmid-15452230|pmid-12757712 | Determination of viral IRES structures can often benefit from the comparison of many sequences from the same virus, using the variation of sequence to determine which bases pair together. | [
"33"
] | 187 | 5,555 | 0 | false | Determination of viral IRES structures can often benefit from the comparison of many sequences from the same virus, using the variation of sequence to determine which bases pair together. | [] | Determination of viral IRES structures can often benefit from the comparison of many sequences from the same virus, using the variation of sequence to determine which bases pair together. | true | true | true | true | true | 929 |
3 | INTRODUCTION | 1 | 33 | [
"B33"
] | 17,591,613 | pmid-16957278|pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-14712232|pmid-15169918|pmid-15339906|pmid-10677496|pmid-2536978|pmid-15452230|pmid-12757712 | When a structure is preserved, a mutation in a base will be coupled with a second site mutation that preserves the base pairing, and therefore the IRES structure. | [
"33"
] | 162 | 5,556 | 0 | false | When a structure is preserved, a mutation in a base will be coupled with a second site mutation that preserves the base pairing, and therefore the IRES structure. | [] | When a structure is preserved, a mutation in a base will be coupled with a second site mutation that preserves the base pairing, and therefore the IRES structure. | true | true | true | true | true | 929 |
3 | INTRODUCTION | 1 | 33 | [
"B33"
] | 17,591,613 | pmid-16957278|pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-14712232|pmid-15169918|pmid-15339906|pmid-10677496|pmid-2536978|pmid-15452230|pmid-12757712 | This co-variation analysis is not always possible with a lower number of available mammalian sequences, and therefore secondary structure determination requires enzymatic or chemical probing to determine the secondary structure in lieu of tertiary structure analysis with NMR or X-ray crystallography. | [
"33"
] | 301 | 5,557 | 0 | false | This co-variation analysis is not always possible with a lower number of available mammalian sequences, and therefore secondary structure determination requires enzymatic or chemical probing to determine the secondary structure in lieu of tertiary structure analysis with NMR or X-ray crystallography. | [] | This co-variation analysis is not always possible with a lower number of available mammalian sequences, and therefore secondary structure determination requires enzymatic or chemical probing to determine the secondary structure in lieu of tertiary structure analysis with NMR or X-ray crystallography. | true | true | true | true | true | 929 |
3 | INTRODUCTION | 1 | 33 | [
"B33"
] | 17,591,613 | pmid-16957278|pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-14712232|pmid-15169918|pmid-15339906|pmid-10677496|pmid-2536978|pmid-15452230|pmid-12757712 | Computational de novo secondary structure prediction has still not achieved the accuracy needed to skip empirical structure determination, but it can be used for comparative purposes when at least one structure is known (33). | [
"33"
] | 225 | 5,558 | 1 | false | Computational de novo secondary structure prediction has still not achieved the accuracy needed to skip empirical structure determination, but it can be used for comparative purposes when at least one structure is known. | [
"33"
] | Computational de novo secondary structure prediction has still not achieved the accuracy needed to skip empirical structure determination, but it can be used for comparative purposes when at least one structure is known. | true | true | true | true | true | 929 |
4 | INTRODUCTION | 1 | 34 | [
"B34",
"B35",
"B35 B36 B37 B38 B39",
"B40",
"B41"
] | 17,591,613 | pmid-11433370|pmid-10559907|pmid-10559907|pmid-10962579|pmid-12458215|pmid-16595687|pmid-16690864|pmid-14499004|pmid-10733578|pmid-11239155|pmid-10966112|pmid-9759489 | The X-linked inhibitor of apoptosis protein (XIAP) is the key inhibitor of apoptosis by virtue of binding to and inhibiting distinct caspases (34). | [
"34",
"35",
"35–39",
"40",
"41"
] | 147 | 5,559 | 1 | false | The X-linked inhibitor of apoptosis protein (XIAP) is the key inhibitor of apoptosis by virtue of binding to and inhibiting distinct caspases. | [
"34"
] | The X-linked inhibitor of apoptosis protein (XIAP) is the key inhibitor of apoptosis by virtue of binding to and inhibiting distinct caspases. | true | true | true | true | true | 930 |
4 | INTRODUCTION | 1 | 35 | [
"B34",
"B35",
"B35 B36 B37 B38 B39",
"B40",
"B41"
] | 17,591,613 | pmid-11433370|pmid-10559907|pmid-10559907|pmid-10962579|pmid-12458215|pmid-16595687|pmid-16690864|pmid-14499004|pmid-10733578|pmid-11239155|pmid-10966112|pmid-9759489 | It was shown that XIAP mRNA is translated by an IRES-dependent mechanism (35), and that this mode of XIAP translation is absolutely required for maintaining protective levels of XIAP protein in cells undergoing various forms of cellular stress (35–39). | [
"34",
"35",
"35–39",
"40",
"41"
] | 252 | 5,560 | 1 | false | It was shown that XIAP mRNA is translated by an IRES-dependent mechanism, and that this mode of XIAP translation is absolutely required for maintaining protective levels of XIAP protein in cells undergoing various forms of cellular stress. | [
"35",
"35–39"
] | It was shown that XIAP mRNA is translated by an IRES-dependent mechanism, and that this mode of XIAP translation is absolutely required for maintaining protective levels of XIAP protein in cells undergoing various forms of cellular stress. | true | true | true | true | true | 930 |
4 | INTRODUCTION | 1 | 34 | [
"B34",
"B35",
"B35 B36 B37 B38 B39",
"B40",
"B41"
] | 17,591,613 | pmid-11433370|pmid-10559907|pmid-10559907|pmid-10962579|pmid-12458215|pmid-16595687|pmid-16690864|pmid-14499004|pmid-10733578|pmid-11239155|pmid-10966112|pmid-9759489 | Thus, it is likely that functionally similar IRES exist that govern the expression of cellular genes involved in the control of cellular growth, proliferation and death. | [
"34",
"35",
"35–39",
"40",
"41"
] | 169 | 5,561 | 0 | false | Thus, it is likely that functionally similar IRES exist that govern the expression of cellular genes involved in the control of cellular growth, proliferation and death. | [] | Thus, it is likely that functionally similar IRES exist that govern the expression of cellular genes involved in the control of cellular growth, proliferation and death. | true | true | true | true | true | 930 |
4 | INTRODUCTION | 1 | 34 | [
"B34",
"B35",
"B35 B36 B37 B38 B39",
"B40",
"B41"
] | 17,591,613 | pmid-11433370|pmid-10559907|pmid-10559907|pmid-10962579|pmid-12458215|pmid-16595687|pmid-16690864|pmid-14499004|pmid-10733578|pmid-11239155|pmid-10966112|pmid-9759489 | In this work, the secondary structure of the XIAP IRES was determined using enzymatic probing. | [
"34",
"35",
"35–39",
"40",
"41"
] | 94 | 5,562 | 0 | false | In this work, the secondary structure of the XIAP IRES was determined using enzymatic probing. | [] | In this work, the secondary structure of the XIAP IRES was determined using enzymatic probing. | true | true | true | true | true | 930 |
4 | INTRODUCTION | 1 | 40 | [
"B34",
"B35",
"B35 B36 B37 B38 B39",
"B40",
"B41"
] | 17,591,613 | pmid-11433370|pmid-10559907|pmid-10559907|pmid-10962579|pmid-12458215|pmid-16595687|pmid-16690864|pmid-14499004|pmid-10733578|pmid-11239155|pmid-10966112|pmid-9759489 | This structure was then used to search a 5′UTR database using the RSEARCH program (40), which predicted that several mRNAs had some similar structure features. | [
"34",
"35",
"35–39",
"40",
"41"
] | 159 | 5,563 | 1 | false | This structure was then used to search a 5′UTR database using the RSEARCH program, which predicted that several mRNAs had some similar structure features. | [
"40"
] | This structure was then used to search a 5′UTR database using the RSEARCH program, which predicted that several mRNAs had some similar structure features. | true | true | true | true | true | 930 |
4 | INTRODUCTION | 1 | 41 | [
"B34",
"B35",
"B35 B36 B37 B38 B39",
"B40",
"B41"
] | 17,591,613 | pmid-11433370|pmid-10559907|pmid-10559907|pmid-10962579|pmid-12458215|pmid-16595687|pmid-16690864|pmid-14499004|pmid-10733578|pmid-11239155|pmid-10966112|pmid-9759489 | When tested in a bicistronic reporter construct, two of these UTRs from Aquaporin4 and the uncharacterized ELG1 exhibited IRES activity, while the 5′UTR of NRF was shown previously to contain an IRES element (41). | [
"34",
"35",
"35–39",
"40",
"41"
] | 213 | 5,564 | 1 | false | When tested in a bicistronic reporter construct, two of these UTRs from Aquaporin4 and the uncharacterized ELG1 exhibited IRES activity, while the 5′UTR of NRF was shown previously to contain an IRES element. | [
"41"
] | When tested in a bicistronic reporter construct, two of these UTRs from Aquaporin4 and the uncharacterized ELG1 exhibited IRES activity, while the 5′UTR of NRF was shown previously to contain an IRES element. | true | true | true | true | true | 930 |
4 | INTRODUCTION | 1 | 34 | [
"B34",
"B35",
"B35 B36 B37 B38 B39",
"B40",
"B41"
] | 17,591,613 | pmid-11433370|pmid-10559907|pmid-10559907|pmid-10962579|pmid-12458215|pmid-16595687|pmid-16690864|pmid-14499004|pmid-10733578|pmid-11239155|pmid-10966112|pmid-9759489 | Further structural and biochemical probing showed that XIAP, AQP4 and ELG1 share only limited RNA structure similarity; however, additional biochemical analyses demonstrated that they have several IRES trans-acting factors in common. | [
"34",
"35",
"35–39",
"40",
"41"
] | 233 | 5,565 | 0 | false | Further structural and biochemical probing showed that XIAP, AQP4 and ELG1 share only limited RNA structure similarity; however, additional biochemical analyses demonstrated that they have several IRES trans-acting factors in common. | [] | Further structural and biochemical probing showed that XIAP, AQP4 and ELG1 share only limited RNA structure similarity; however, additional biochemical analyses demonstrated that they have several IRES trans-acting factors in common. | true | true | true | true | true | 930 |
4 | INTRODUCTION | 1 | 34 | [
"B34",
"B35",
"B35 B36 B37 B38 B39",
"B40",
"B41"
] | 17,591,613 | pmid-11433370|pmid-10559907|pmid-10559907|pmid-10962579|pmid-12458215|pmid-16595687|pmid-16690864|pmid-14499004|pmid-10733578|pmid-11239155|pmid-10966112|pmid-9759489 | These data prompt us to propose that, unlike viral IRES elements, the cellular IRES are primarily defined not by an overall common structure but rather by common short RNA motifs and shared trans-acting factors. | [
"34",
"35",
"35–39",
"40",
"41"
] | 211 | 5,566 | 0 | false | These data prompt us to propose that, unlike viral IRES elements, the cellular IRES are primarily defined not by an overall common structure but rather by common short RNA motifs and shared trans-acting factors. | [] | These data prompt us to propose that, unlike viral IRES elements, the cellular IRES are primarily defined not by an overall common structure but rather by common short RNA motifs and shared trans-acting factors. | true | true | true | true | true | 930 |
0 | DISCUSSION | 1 | 20 | [
"B20",
"B21",
"B54"
] | 17,591,613 | pmid-9736694|pmid-2536835|pmid-2539491|pmid-2536836|pmid-1329037|NA|pmid-10501485 | In this work, we empirically determined the secondary structure of the XIAP IRES and set out to identify novel cellular IRES by searching for human 5′UTR sequences that display a structural similarity to the XIAP IRES. | [
"20",
"21",
"54"
] | 218 | 5,567 | 0 | false | In this work, we empirically determined the secondary structure of the XIAP IRES and set out to identify novel cellular IRES by searching for human 5′UTR sequences that display a structural similarity to the XIAP IRES. | [] | In this work, we empirically determined the secondary structure of the XIAP IRES and set out to identify novel cellular IRES by searching for human 5′UTR sequences that display a structural similarity to the XIAP IRES. | true | true | true | true | true | 931 |
0 | DISCUSSION | 1 | 20 | [
"B20",
"B21",
"B54"
] | 17,591,613 | pmid-9736694|pmid-2536835|pmid-2539491|pmid-2536836|pmid-1329037|NA|pmid-10501485 | We first tested the efficacy of our search protocol by using the well-characterized structure of the HCV IRES to search a database of human 5′UTRs and UTRs known to contain IRES. | [
"20",
"21",
"54"
] | 178 | 5,568 | 0 | false | We first tested the efficacy of our search protocol by using the well-characterized structure of the HCV IRES to search a database of human 5′UTRs and UTRs known to contain IRES. | [] | We first tested the efficacy of our search protocol by using the well-characterized structure of the HCV IRES to search a database of human 5′UTRs and UTRs known to contain IRES. | true | true | true | true | true | 931 |
0 | DISCUSSION | 1 | 20 | [
"B20",
"B21",
"B54"
] | 17,591,613 | pmid-9736694|pmid-2536835|pmid-2539491|pmid-2536836|pmid-1329037|NA|pmid-10501485 | This search effectively identified IRES from GbvB, CSFV and BVDV, which have been previously shown to have structural similarity to the HCV IRES (20,21,54). | [
"20",
"21",
"54"
] | 156 | 5,569 | 0 | false | This search effectively identified IRES from GbvB, CSFV and BVDV, which have been previously shown to have structural similarity to the HCV IRES. | [
"20,21,54"
] | This search effectively identified IRES from GbvB, CSFV and BVDV, which have been previously shown to have structural similarity to the HCV IRES. | true | true | true | true | true | 931 |
0 | DISCUSSION | 1 | 20 | [
"B20",
"B21",
"B54"
] | 17,591,613 | pmid-9736694|pmid-2536835|pmid-2539491|pmid-2536836|pmid-1329037|NA|pmid-10501485 | This exercise established that structurally similar UTRs could be found using the RSEARCH program, thus validating our approach. | [
"20",
"21",
"54"
] | 128 | 5,570 | 0 | false | This exercise established that structurally similar UTRs could be found using the RSEARCH program, thus validating our approach. | [] | This exercise established that structurally similar UTRs could be found using the RSEARCH program, thus validating our approach. | true | true | true | true | true | 931 |
0 | DISCUSSION | 1 | 20 | [
"B20",
"B21",
"B54"
] | 17,591,613 | pmid-9736694|pmid-2536835|pmid-2539491|pmid-2536836|pmid-1329037|NA|pmid-10501485 | Our search of the human 5′UTR database using the structure of the XIAP IRES resulted in the identification of five 5′UTRs in which the region with structural similarity was in the correct position (at the 3′ end of the UTR, proximal to the AUG codon) and orientation to exhibit IRES activity. | [
"20",
"21",
"54"
] | 292 | 5,571 | 0 | false | Our search of the human 5′UTR database using the structure of the XIAP IRES resulted in the identification of five 5′UTRs in which the region with structural similarity was in the correct position (at the 3′ end of the UTR, proximal to the AUG codon) and orientation to exhibit IRES activity. | [] | Our search of the human 5′UTR database using the structure of the XIAP IRES resulted in the identification of five 5′UTRs in which the region with structural similarity was in the correct position (at the 3′ end of the UTR, proximal to the AUG codon) and orientation to exhibit IRES activity. | true | true | true | true | true | 931 |
0 | DISCUSSION | 1 | 20 | [
"B20",
"B21",
"B54"
] | 17,591,613 | pmid-9736694|pmid-2536835|pmid-2539491|pmid-2536836|pmid-1329037|NA|pmid-10501485 | Characterization of the IRES activity of these identified sequences showed that the 5′UTRs of AQP4, ELG1 and NRF promote IRES-dependent translation. | [
"20",
"21",
"54"
] | 148 | 5,572 | 0 | false | Characterization of the IRES activity of these identified sequences showed that the 5′UTRs of AQP4, ELG1 and NRF promote IRES-dependent translation. | [] | Characterization of the IRES activity of these identified sequences showed that the 5′UTRs of AQP4, ELG1 and NRF promote IRES-dependent translation. | true | true | true | true | true | 931 |
0 | DISCUSSION | 1 | 20 | [
"B20",
"B21",
"B54"
] | 17,591,613 | pmid-9736694|pmid-2536835|pmid-2539491|pmid-2536836|pmid-1329037|NA|pmid-10501485 | However, empirical determination of the structure of the AQP4 and ELG1 5′UTRs and subsequent comparison to the structure of the XIAP IRES revealed that the structures of these sequences share little similarity. | [
"20",
"21",
"54"
] | 210 | 5,573 | 0 | false | However, empirical determination of the structure of the AQP4 and ELG1 5′UTRs and subsequent comparison to the structure of the XIAP IRES revealed that the structures of these sequences share little similarity. | [] | However, empirical determination of the structure of the AQP4 and ELG1 5′UTRs and subsequent comparison to the structure of the XIAP IRES revealed that the structures of these sequences share little similarity. | true | true | true | true | true | 931 |
0 | DISCUSSION | 1 | 20 | [
"B20",
"B21",
"B54"
] | 17,591,613 | pmid-9736694|pmid-2536835|pmid-2539491|pmid-2536836|pmid-1329037|NA|pmid-10501485 | We then found that a polypyrimidine tract in the XIAP IRES and AQP4 IRES is absolutely necessary for IRES activity, and that similar trans-acting factors (ITAFs) can bind to these IRES sequences. | [
"20",
"21",
"54"
] | 195 | 5,574 | 0 | false | We then found that a polypyrimidine tract in the XIAP IRES and AQP4 IRES is absolutely necessary for IRES activity, and that similar trans-acting factors (ITAFs) can bind to these IRES sequences. | [] | We then found that a polypyrimidine tract in the XIAP IRES and AQP4 IRES is absolutely necessary for IRES activity, and that similar trans-acting factors (ITAFs) can bind to these IRES sequences. | true | true | true | true | true | 931 |
0 | DISCUSSION | 1 | 20 | [
"B20",
"B21",
"B54"
] | 17,591,613 | pmid-9736694|pmid-2536835|pmid-2539491|pmid-2536836|pmid-1329037|NA|pmid-10501485 | Our results lead us to propose that, unlike the viral IRES, the overall structure of cellular IRES is not necessarily an important factor in determining IRES activity, but rather small motifs and the cohort of proteins that bind them define cellular IRES activity. | [
"20",
"21",
"54"
] | 264 | 5,575 | 0 | false | Our results lead us to propose that, unlike the viral IRES, the overall structure of cellular IRES is not necessarily an important factor in determining IRES activity, but rather small motifs and the cohort of proteins that bind them define cellular IRES activity. | [] | Our results lead us to propose that, unlike the viral IRES, the overall structure of cellular IRES is not necessarily an important factor in determining IRES activity, but rather small motifs and the cohort of proteins that bind them define cellular IRES activity. | true | true | true | true | true | 931 |
1 | DISCUSSION | 1 | 14 | [
"B14",
"B15",
"B17",
"B62"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | It has been recognized that both viral and cellular IRES do not share primary sequence homology, and therefore it is not possible to identify mRNAs that harbour IRES elements by comparison of sequence data using search programs such as BLAST. | [
"14",
"15",
"17",
"62"
] | 242 | 5,576 | 0 | false | It has been recognized that both viral and cellular IRES do not share primary sequence homology, and therefore it is not possible to identify mRNAs that harbour IRES elements by comparison of sequence data using search programs such as BLAST. | [] | It has been recognized that both viral and cellular IRES do not share primary sequence homology, and therefore it is not possible to identify mRNAs that harbour IRES elements by comparison of sequence data using search programs such as BLAST. | true | true | true | true | true | 932 |
1 | DISCUSSION | 1 | 14 | [
"B14",
"B15",
"B17",
"B62"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | This realization has presented a barrier to the genome-wide identification of IRES, resulting in the identification of mRNAs that contain IRES in a piecemeal fashion—a message is suspected to be translated under conditions that repress cap-dependent translation and the 5′UTR is subsequently tested for IRES activity. | [
"14",
"15",
"17",
"62"
] | 317 | 5,577 | 0 | false | This realization has presented a barrier to the genome-wide identification of IRES, resulting in the identification of mRNAs that contain IRES in a piecemeal fashion—a message is suspected to be translated under conditions that repress cap-dependent translation and the 5′UTR is subsequently tested for IRES activity. | [] | This realization has presented a barrier to the genome-wide identification of IRES, resulting in the identification of mRNAs that contain IRES in a piecemeal fashion—a message is suspected to be translated under conditions that repress cap-dependent translation and the 5′UTR is subsequently tested for IRES activity. | true | true | true | true | true | 932 |
1 | DISCUSSION | 1 | 62 | [
"B14",
"B15",
"B17",
"B62"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | However, several studies have highlighted the importance of secondary structure for the function of viral IRES (14,15,17) and some viral IRES share structural homology, suggesting that an underlying determinant for function of viral IRES is the presence of specific structural elements (62). | [
"14",
"15",
"17",
"62"
] | 291 | 5,578 | 1 | false | However, several studies have highlighted the importance of secondary structure for the function of viral IRES and some viral IRES share structural homology, suggesting that an underlying determinant for function of viral IRES is the presence of specific structural elements. | [
"14,15,17",
"62"
] | However, several studies have highlighted the importance of secondary structure for the function of viral IRES and some viral IRES share structural homology, suggesting that an underlying determinant for function of viral IRES is the presence of specific structural elements. | true | true | true | true | true | 932 |
1 | DISCUSSION | 1 | 14 | [
"B14",
"B15",
"B17",
"B62"
] | 17,591,613 | pmid-11445534|pmid-8840784|pmid-12457563|pmid-11050335|pmid-15803138|pmid-15818406|pmid-15900314|pmid-15883184|pmid-15900315|pmid-10497018|pmid-11498532|pmid-10648778|pmid-1656072|pmid-8972770|pmid-7769702|pmid-1329037|NA|pmid-2548167|pmid-10497018|pmid-11498532|pmid-1656072|pmid-9926403 | We therefore hypothesized that cellular IRES may also share structural homology, and that comparison of the secondary structure of 5′UTRs may be a means to identify novel IRES on a genomic scale. | [
"14",
"15",
"17",
"62"
] | 195 | 5,579 | 0 | false | We therefore hypothesized that cellular IRES may also share structural homology, and that comparison of the secondary structure of 5′UTRs may be a means to identify novel IRES on a genomic scale. | [] | We therefore hypothesized that cellular IRES may also share structural homology, and that comparison of the secondary structure of 5′UTRs may be a means to identify novel IRES on a genomic scale. | true | true | true | true | true | 932 |
2 | DISCUSSION | 1 | 35 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | Our searches of a human 5′UTR genome, supplemented with 5′UTRs known to exhibit IRES activity from all species and viruses, with the structure of the XIAP IRES did indeed result in the identification of RNA sequences that exhibit IRES activity. | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 244 | 5,580 | 0 | false | Our searches of a human 5′UTR genome, supplemented with 5′UTRs known to exhibit IRES activity from all species and viruses, with the structure of the XIAP IRES did indeed result in the identification of RNA sequences that exhibit IRES activity. | [] | Our searches of a human 5′UTR genome, supplemented with 5′UTRs known to exhibit IRES activity from all species and viruses, with the structure of the XIAP IRES did indeed result in the identification of RNA sequences that exhibit IRES activity. | true | true | true | true | true | 933 |
2 | DISCUSSION | 1 | 35 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | Of the top matches, two were the 5′UTRs of the mouse XIAP ortholog (MIAP) and the rat XIAP ortholog (RIAP) that both display IRES activity (35) (Holcik,M., unpublished data), one that has previously been shown to have IRES activity [NRF;(41)], and we have demonstrated that two others (ELG1 and AQP4) also display IRES f... | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 328 | 5,581 | 1 | false | Of the top matches, two were the 5′UTRs of the mouse XIAP ortholog (MIAP) and the rat XIAP ortholog (RIAP) that both display IRES activity (Holcik,M., unpublished data), one that has previously been shown to have IRES activity, and we have demonstrated that two others (ELG1 and AQP4) also display IRES function. | [
"35",
"NRF;(41)"
] | Of the top matches, two were the 5′UTRs of the mouse XIAP ortholog (MIAP) and the rat XIAP ortholog (RIAP) that both display IRES activity (Holcik,M., unpublished data), one that has previously been shown to have IRES activity, and we have demonstrated that two others (ELG1 and AQP4) also display IRES function. | true | true | true | true | true | 933 |
2 | DISCUSSION | 1 | 35 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | The IRES activity of AQP4 and ELG1 are much less than XIAP. | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 59 | 5,582 | 0 | false | The IRES activity of AQP4 and ELG1 are much less than XIAP. | [] | The IRES activity of AQP4 and ELG1 are much less than XIAP. | true | true | true | true | true | 933 |
2 | DISCUSSION | 1 | 35 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | However, we have only tested IRES activity in one cell line and under conditions of normal cell growth. | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 103 | 5,583 | 0 | false | However, we have only tested IRES activity in one cell line and under conditions of normal cell growth. | [] | However, we have only tested IRES activity in one cell line and under conditions of normal cell growth. | true | true | true | true | true | 933 |
2 | DISCUSSION | 1 | 63 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | AQP4, a water channel-forming protein expressed in the brain, has recently been shown to have a role in edema during eclampsia, as its protein levels are elevated during pregnancy (63). | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 185 | 5,584 | 1 | false | AQP4, a water channel-forming protein expressed in the brain, has recently been shown to have a role in edema during eclampsia, as its protein levels are elevated during pregnancy. | [
"63"
] | AQP4, a water channel-forming protein expressed in the brain, has recently been shown to have a role in edema during eclampsia, as its protein levels are elevated during pregnancy. | true | true | true | true | true | 933 |
2 | DISCUSSION | 1 | 63 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | Interestingly, mRNA levels of AQP4 have not been shown to change (63), suggesting a possible IRES function. | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 107 | 5,585 | 1 | false | Interestingly, mRNA levels of AQP4 have not been shown to change, suggesting a possible IRES function. | [
"63"
] | Interestingly, mRNA levels of AQP4 have not been shown to change, suggesting a possible IRES function. | true | true | true | true | true | 933 |
2 | DISCUSSION | 1 | 35 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | ELG1 is an uncharacterized transcript that exists in the database as a fully sequenced cDNA clone, accession # AK125048 and a portion of the UTR is represented by EST DB217710.1. | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 178 | 5,586 | 0 | false | ELG1 is an uncharacterized transcript that exists in the database as a fully sequenced cDNA clone, accession # AK125048 and a portion of the UTR is represented by EST DB217710.1. | [] | ELG1 is an uncharacterized transcript that exists in the database as a fully sequenced cDNA clone, accession # AK125048 and a portion of the UTR is represented by EST DB217710.1. | true | true | true | true | true | 933 |
2 | DISCUSSION | 1 | 33 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | While the presence of numerous AUGs in its 5′UTRs is unusual, it is nevertheless not completely uncommon as around 1% of all 5′UTRs have 30 to 100 upstream AUGs (33). | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 166 | 5,587 | 1 | false | While the presence of numerous AUGs in its 5′UTRs is unusual, it is nevertheless not completely uncommon as around 1% of all 5′UTRs have 30 to 100 upstream AUGs. | [
"33"
] | While the presence of numerous AUGs in its 5′UTRs is unusual, it is nevertheless not completely uncommon as around 1% of all 5′UTRs have 30 to 100 upstream AUGs. | true | true | true | true | true | 933 |
2 | DISCUSSION | 1 | 64 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | Interestingly, we did not identify the 5′UTRs of p27(Kip1) (64) or Bcl-xL, both of which exhibit IRES activity (39), in our search (matching scores were between 16 and 17). | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 172 | 5,588 | 1 | false | Interestingly, we did not identify the 5′UTRs of p27(Kip1) or Bcl-xL, both of which exhibit IRES activity, in our search (matching scores were between 16 and 17). | [
"64",
"39"
] | Interestingly, we did not identify the 5′UTRs of p27(Kip1) or Bcl-xL, both of which exhibit IRES activity, in our search. | true | true | true | true | true | 933 |
2 | DISCUSSION | 1 | 35 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | Yoon et al. | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 11 | 5,589 | 0 | false | Yoon et al. | [] | Yoon et al. | true | true | true | true | true | 933 |
2 | DISCUSSION | 1 | 39 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | (39) recently showed that the IRES activity of XIAP, p27(Kip1) and Bcl-xL is specifically and severely impaired in cells harbouring mutations in the pseudouridinase gene Dkc1. | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 175 | 5,590 | 1 | false | recently showed that the IRES activity of XIAP, p27(Kip1) and Bcl-xL is specifically and severely impaired in cells harbouring mutations in the pseudouridinase gene Dkc1. | [
"39"
] | recently showed that the IRES activity of XIAP, p27(Kip1) and Bcl-xL is specifically and severely impaired in cells harbouring mutations in the pseudouridinase gene Dkc1. | false | true | true | true | false | 933 |
2 | DISCUSSION | 1 | 39 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | This mutation was shown to prevent the proper pseudouridylation of rRNA and is thought to disrupt ribosome structure (39). | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 122 | 5,591 | 1 | false | This mutation was shown to prevent the proper pseudouridylation of rRNA and is thought to disrupt ribosome structure. | [
"39"
] | This mutation was shown to prevent the proper pseudouridylation of rRNA and is thought to disrupt ribosome structure. | true | true | true | true | true | 933 |
2 | DISCUSSION | 1 | 35 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | The IRES-dependent translation of the XIAP, p27(Kip1) and Bcl-xL messages is specifically sensitive to these changes, as global translation is not affected. | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 156 | 5,592 | 0 | false | The IRES-dependent translation of the XIAP, p27(Kip1) and Bcl-xL messages is specifically sensitive to these changes, as global translation is not affected. | [] | The IRES-dependent translation of the XIAP, p27(Kip1) and Bcl-xL messages is specifically sensitive to these changes, as global translation is not affected. | true | true | true | true | true | 933 |
2 | DISCUSSION | 1 | 39 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | It was therefore hypothesized that these IRES may share some common feature, such as secondary structure, that is sensitive to changes in ribosome architecture (39). | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 165 | 5,593 | 1 | false | It was therefore hypothesized that these IRES may share some common feature, such as secondary structure, that is sensitive to changes in ribosome architecture. | [
"39"
] | It was therefore hypothesized that these IRES may share some common feature, such as secondary structure, that is sensitive to changes in ribosome architecture. | true | true | true | true | true | 933 |
2 | DISCUSSION | 1 | 35 | [
"B35",
"B41",
"B63",
"B63",
"B33",
"B64",
"B39",
"B39",
"B39",
"B39"
] | 17,591,613 | pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-10559907|pmid-10733578|pmid-15677340|pmid-15677340|pmid-16957278|pmid-11438653|pmid-16690864|pmid-16690864|pmid-16690864|pmid-16690864 | Based on our results, the secondary structures of these IRES elements may not be similar, and other factors, such as changes in the association of trans-acting factors with the modified ribosome or direct association of the IRES with the ribosome, may account for the coordinated reduction of XIAP, p27(Kip1) and Bcl-xL ... | [
"35",
"41",
"63",
"63",
"33",
"64",
"39",
"39",
"39",
"39"
] | 355 | 5,594 | 0 | false | Based on our results, the secondary structures of these IRES elements may not be similar, and other factors, such as changes in the association of trans-acting factors with the modified ribosome or direct association of the IRES with the ribosome, may account for the coordinated reduction of XIAP, p27(Kip1) and Bcl-xL ... | [] | Based on our results, the secondary structures of these IRES elements may not be similar, and other factors, such as changes in the association of trans-acting factors with the modified ribosome or direct association of the IRES with the ribosome, may account for the coordinated reduction of XIAP, p27(Kip1) and Bcl-xL ... | true | true | true | true | true | 933 |
3 | DISCUSSION | 1 | 23–32 | [
"B23 B24 B25 B26 B27 B28 B29 B30 B31 B32",
"B65",
"B29",
"B28",
"B66",
"B67",
"B68",
"B31"
] | 17,591,613 | pmid-16957278|pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-14712232|pmid-15169918|pmid-15339906|pmid-10677496|pmid-2536978|pmid-15452230|pmid-12757712 | To our surprise, comparison of the empirically determined secondary structures of the ELG1 and AQP4 5′UTRs to the secondary structure of the XIAP IRES showed only limited homology, with only small regions of AQP4 displaying some similarity within the overall structure. | [
"23–32",
"65",
"29",
"28",
"66",
"67",
"68",
"31"
] | 269 | 5,595 | 0 | false | To our surprise, comparison of the empirically determined secondary structures of the ELG1 and AQP4 5′UTRs to the secondary structure of the XIAP IRES showed only limited homology, with only small regions of AQP4 displaying some similarity within the overall structure. | [] | To our surprise, comparison of the empirically determined secondary structures of the ELG1 and AQP4 5′UTRs to the secondary structure of the XIAP IRES showed only limited homology, with only small regions of AQP4 displaying some similarity within the overall structure. | true | true | true | true | true | 934 |
3 | DISCUSSION | 1 | 23–32 | [
"B23 B24 B25 B26 B27 B28 B29 B30 B31 B32",
"B65",
"B29",
"B28",
"B66",
"B67",
"B68",
"B31"
] | 17,591,613 | pmid-16957278|pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-14712232|pmid-15169918|pmid-15339906|pmid-10677496|pmid-2536978|pmid-15452230|pmid-12757712 | From the search of HCV IRES structure we learned that the score of CSFV, which is just over 13% of a perfect match, was significant. | [
"23–32",
"65",
"29",
"28",
"66",
"67",
"68",
"31"
] | 132 | 5,596 | 0 | false | From the search of HCV IRES structure we learned that the score of CSFV, which is just over 13% of a perfect match, was significant. | [] | From the search of HCV IRES structure we learned that the score of CSFV, which is just over 13% of a perfect match, was significant. | true | true | true | true | true | 934 |
3 | DISCUSSION | 1 | 23–32 | [
"B23 B24 B25 B26 B27 B28 B29 B30 B31 B32",
"B65",
"B29",
"B28",
"B66",
"B67",
"B68",
"B31"
] | 17,591,613 | pmid-16957278|pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-14712232|pmid-15169918|pmid-15339906|pmid-10677496|pmid-2536978|pmid-15452230|pmid-12757712 | Our search for a similar IRES structure with a cut-off score of 35 had us examining matches with scores in the range of 11–14% of a perfect match. | [
"23–32",
"65",
"29",
"28",
"66",
"67",
"68",
"31"
] | 146 | 5,597 | 0 | false | Our search for a similar IRES structure with a cut-off score of 35 had us examining matches with scores in the range of 11–14% of a perfect match. | [] | Our search for a similar IRES structure with a cut-off score of 35 had us examining matches with scores in the range of 11–14% of a perfect match. | true | true | true | true | true | 934 |
3 | DISCUSSION | 1 | 23–32 | [
"B23 B24 B25 B26 B27 B28 B29 B30 B31 B32",
"B65",
"B29",
"B28",
"B66",
"B67",
"B68",
"B31"
] | 17,591,613 | pmid-16957278|pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-14712232|pmid-15169918|pmid-15339906|pmid-10677496|pmid-2536978|pmid-15452230|pmid-12757712 | In retrospect, these values may have been too low to be significant, but represent the top matches available. | [
"23–32",
"65",
"29",
"28",
"66",
"67",
"68",
"31"
] | 109 | 5,598 | 0 | false | In retrospect, these values may have been too low to be significant, but represent the top matches available. | [] | In retrospect, these values may have been too low to be significant, but represent the top matches available. | true | true | true | true | true | 934 |
3 | DISCUSSION | 1 | 23–32 | [
"B23 B24 B25 B26 B27 B28 B29 B30 B31 B32",
"B65",
"B29",
"B28",
"B66",
"B67",
"B68",
"B31"
] | 17,591,613 | pmid-16957278|pmid-11419940|pmid-14730027|pmid-12667457|pmid-12857733|pmid-15314170|pmid-15339906|pmid-15169918|pmid-11903044|pmid-12757712|pmid-15998809|pmid-14712232|pmid-15169918|pmid-15339906|pmid-10677496|pmid-2536978|pmid-15452230|pmid-12757712 | As the search with the HCV structure validated this search protocol, the lack of results with the XIAP IRES structure search strongly supports the notion that there are no similar structures. | [
"23–32",
"65",
"29",
"28",
"66",
"67",
"68",
"31"
] | 191 | 5,599 | 0 | false | As the search with the HCV structure validated this search protocol, the lack of results with the XIAP IRES structure search strongly supports the notion that there are no similar structures. | [] | As the search with the HCV structure validated this search protocol, the lack of results with the XIAP IRES structure search strongly supports the notion that there are no similar structures. | true | true | true | true | true | 934 |
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