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 |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
13 | DISCUSSION | 0 | null | null | 17,594,150 | null | For unruptured aneurysms, a follow-up angiography is necessary to detect formation or growth of aneurysm. | null | 105 | 42,319 | 0 | false | null | null | For unruptured aneurysms, a follow-up angiography is necessary to detect formation or growth of aneurysm. | true | true | true | true | true | 7,337 |
13 | DISCUSSION | 0 | null | null | 17,594,150 | null | The treatment modality of dissecting aneurysm of the VA should be selected according to the clinical characteristics of each patient and close collaboration between neurosurgeons and neurointerventionists is essential to improve the management outcome. | null | 252 | 42,320 | 0 | false | null | null | The treatment modality of dissecting aneurysm of the VA should be selected according to the clinical characteristics of each patient and close collaboration between neurosurgeons and neurointerventionists is essential to improve the management outcome. | true | true | true | true | true | 7,337 |
0 | DISCUSSION | 0 | null | null | 18,632,663 | null | In this work, we report the results of structure-activity analysis of
MccJ25 using a comprehensive panel of MccJ25 point mutants obtained from
saturation mutagenesis. | null | 168 | 42,321 | 0 | false | null | null | In this work, we report the results of structure-activity analysis of
MccJ25 using a comprehensive panel of MccJ25 point mutants obtained from
saturation mutagenesis. | true | true | true | true | true | 7,338 |
1 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref9",
"ref11"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-8655570|pmid-17656316 | Of the 381 single-amino acid substitutions analyzed, 242 were shown to be
compatible with production of MccJ25 (comprising synthesis of MccJ25
precursor, processing of MccJ25 precursor, export of mature MccJ25, and
stability of mature MccJ25) (Fig. | [
"5",
"7",
"9",
"11"
] | 251 | 42,322 | 0 | false | Of the 381 single-amino acid substitutions analyzed, 242 were shown to be compatible with production of MccJ25 (Fig. | [
"comprising synthesis of MccJ25\n precursor, processing of MccJ25 precursor, export of mature MccJ25, and\n stability of mature MccJ25"
] | Of the 381 single-amino acid substitutions analyzed, 242 were shown to be compatible with production of MccJ25 (Fig. | true | true | true | true | true | 7,339 |
1 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref9",
"ref11"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-8655570|pmid-17656316 | Inspection of the lariat-protoknot (threaded lasso) covalent
structure of MccJ25 suggests that the residues that form the lactam linkage of
the MccJ25 cycle and at least one of the two aromatic residues that lock the
threaded MccJ25 tail within the MccJ25 cycle may be critical for production of
MccJ25, whereas resi... | [
"5",
"7",
"9",
"11"
] | 386 | 42,323 | 0 | false | Inspection of the lariat-protoknot (threaded lasso) covalent structure of MccJ25 suggests that the residues that form the lactam linkage of the MccJ25 cycle and at least one of the two aromatic residues that lock the threaded MccJ25 tail within the MccJ25 cycle may be critical for production of MccJ25, whereas residues... | [] | Inspection of the lariat-protoknot (threaded lasso) covalent structure of MccJ25 suggests that the residues that form the lactam linkage of the MccJ25 cycle and at least one of the two aromatic residues that lock the threaded MccJ25 tail within the MccJ25 cycle may be critical for production of MccJ25, whereas residues... | true | true | true | true | true | 7,339 |
1 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref9",
"ref11"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-8655570|pmid-17656316 | Our findings support these expectations. | [
"5",
"7",
"9",
"11"
] | 40 | 42,324 | 0 | false | Our findings support these expectations. | [] | Our findings support these expectations. | true | true | true | true | true | 7,339 |
1 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref9",
"ref11"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-8655570|pmid-17656316 | The residues that form the
lactam linkage (Gly1 and Glu8) and one immediately
adjacent residue (Gly2) are the sole residues for which no
non-wild-type side chains are tolerated in production of MccJ25, and the
distal aromatic residue of the pair of aromatic residues that lock the
threaded MccJ25 tail within the Mc... | [
"5",
"7",
"9",
"11"
] | 432 | 42,325 | 0 | false | The residues that form the lactam linkage (Gly1 and Glu8) and one immediately adjacent residue (Gly2) are the sole residues for which no non-wild-type side chains are tolerated in production of MccJ25, and the distal aromatic residue of the pair of aromatic residues that lock the threaded MccJ25 tail within the MccJ25 ... | [] | The residues that form the lactam linkage (Gly1 and Glu8) and one immediately adjacent residue (Gly2) are the sole residues for which no non-wild-type side chains are tolerated in production of MccJ25, and the distal aromatic residue of the pair of aromatic residues that lock the threaded MccJ25 tail within the MccJ25 ... | true | true | true | true | true | 7,339 |
1 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref9",
"ref11"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-8655570|pmid-17656316 | In the three-dimensional structure of MccJ25
(5-7),
these residues form a discrete, continuous surface determinant on one face of
MccJ25 (Fig. | [
"5",
"7",
"9",
"11"
] | 145 | 42,326 | 0 | false | In the three-dimensional structure of MccJ25, these residues form a discrete, continuous surface determinant on one face of MccJ25 (Fig. | [
"5-7"
] | In the three-dimensional structure of MccJ25, these residues form a discrete, continuous surface determinant on one face of MccJ25 (Fig. | true | true | true | true | true | 7,339 |
1 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref9",
"ref11"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-8655570|pmid-17656316 | 4, black
residues). | [
"5",
"7",
"9",
"11"
] | 20 | 42,327 | 0 | false | 4, black residues). | [] | 4, black residues). | false | false | true | true | false | 7,339 |
1 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref9",
"ref11"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-8655570|pmid-17656316 | We propose that the MccJ25 maturation machinery (McjB and
McjC; see Refs. | [
"5",
"7",
"9",
"11"
] | 74 | 42,328 | 0 | false | We propose that the MccJ25 maturation machinery (McjB and McjC; see Refs. | [] | We propose that the MccJ25 maturation machinery (McjB and McjC; see Refs. | true | true | true | true | true | 7,339 |
1 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref9",
"ref11"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-8655570|pmid-17656316 | 9 and
11) recognizes and interacts
with this surface determinant during processing of MccJ25 precursor. | [
"5",
"7",
"9",
"11"
] | 105 | 42,329 | 0 | false | 9 and 11) recognizes and interacts with this surface determinant during processing of MccJ25 precursor. | [] | 9 and 11) recognizes and interacts with this surface determinant during processing of MccJ25 precursor. | false | false | true | true | false | 7,339 |
2 | DISCUSSION | 1 | 5 | [
"ref5",
"ref3",
"ref4"
] | 18,632,663 | pmid-14531691|pmid-1429464|pmid-10092860 | FIGURE 4.Locations of residues important for
production/maturation/export/stability of MccJ25 and for inhibition of RNAP by
MccJ25. | [
"5",
"3",
"4"
] | 133 | 42,330 | 0 | false | FIGURE 4.Locations of residues important for production/maturation/export/stability of MccJ25 and for inhibition of RNAP by MccJ25. | [] | FIGURE 4.Locations of residues important for production/maturation/export/stability of MccJ25 and for inhibition of RNAP by MccJ25. | true | true | true | true | true | 7,340 |
2 | DISCUSSION | 1 | 5 | [
"ref5",
"ref3",
"ref4"
] | 18,632,663 | pmid-14531691|pmid-1429464|pmid-10092860 | Shown are locations of residues shown here to be important for
production/maturation/export/stability of MccJ25 (residues 1, 2, 8, and 20;
black) and for inhibition of RNAP by MccJ25 (residues 4, 7, 9, 10,
17, and 19; red) on the three-dimensional structure of MccJ25 (see
Ref. | [
"5",
"3",
"4"
] | 281 | 42,331 | 0 | false | Shown are locations of residues shown here to be important for production/maturation/export/stability of MccJ25 (residues 1, 2, 8, and 20; black) and for inhibition of RNAP by MccJ25 on the three-dimensional structure of MccJ25 (see Ref. | [
"residues 4, 7, 9, 10,\n 17, and 19; red"
] | Shown are locations of residues shown here to be important for production/maturation/export/stability of MccJ25 (residues 1, 2, 8, and 20; black) and for inhibition of RNAP by MccJ25 on the three-dimensional structure of MccJ25 (see Ref. | true | true | true | true | true | 7,340 |
2 | DISCUSSION | 1 | 5 | [
"ref5",
"ref3",
"ref4"
] | 18,632,663 | pmid-14531691|pmid-1429464|pmid-10092860 | 5; see also Refs. | [
"5",
"3",
"4"
] | 17 | 42,332 | 0 | false | 5; see also Refs. | [] | 5; see also Refs. | false | false | true | true | false | 7,340 |
2 | DISCUSSION | 1 | 5 | [
"ref5",
"ref3",
"ref4"
] | 18,632,663 | pmid-14531691|pmid-1429464|pmid-10092860 | A, stereoviews in
solvent-accessible surface representation. | [
"5",
"3",
"4"
] | 61 | 42,333 | 0 | false | A, stereoviews in solvent-accessible surface representation. | [] | A, stereoviews in solvent-accessible surface representation. | true | true | true | true | true | 7,340 |
2 | DISCUSSION | 1 | 5 | [
"ref5",
"ref3",
"ref4"
] | 18,632,663 | pmid-14531691|pmid-1429464|pmid-10092860 | B, stereoviews in
stick representation. | [
"5",
"3",
"4"
] | 40 | 42,334 | 0 | false | B, stereoviews in stick representation. | [] | B, stereoviews in stick representation. | true | true | true | true | true | 7,340 |
3 | DISCUSSION | 1 | 5 | [
"ref5",
"ref3",
"ref4"
] | 18,632,663 | pmid-14531691|pmid-1429464|pmid-10092860 | Locations of residues important for
production/maturation/export/stability of MccJ25 and for inhibition of RNAP by
MccJ25. | [
"5",
"3",
"4"
] | 124 | 42,335 | 0 | false | Locations of residues important for production/maturation/export/stability of MccJ25 and for inhibition of RNAP by MccJ25. | [] | Locations of residues important for production/maturation/export/stability of MccJ25 and for inhibition of RNAP by MccJ25. | true | true | true | true | true | 7,341 |
3 | DISCUSSION | 1 | 5 | [
"ref5",
"ref3",
"ref4"
] | 18,632,663 | pmid-14531691|pmid-1429464|pmid-10092860 | Shown are locations of residues shown here to be important for
production/maturation/export/stability of MccJ25 (residues 1, 2, 8, and 20;
black) and for inhibition of RNAP by MccJ25 (residues 4, 7, 9, 10,
17, and 19; red) on the three-dimensional structure of MccJ25 (see
Ref. | [
"5",
"3",
"4"
] | 281 | 42,336 | 0 | false | Shown are locations of residues shown here to be important for production/maturation/export/stability of MccJ25 (residues 1, 2, 8, and 20; black) and for inhibition of RNAP by MccJ25 on the three-dimensional structure of MccJ25 (see Ref. | [
"residues 4, 7, 9, 10,\n 17, and 19; red"
] | Shown are locations of residues shown here to be important for production/maturation/export/stability of MccJ25 (residues 1, 2, 8, and 20; black) and for inhibition of RNAP by MccJ25 on the three-dimensional structure of MccJ25 (see Ref. | true | true | true | true | true | 7,341 |
3 | DISCUSSION | 1 | 5 | [
"ref5",
"ref3",
"ref4"
] | 18,632,663 | pmid-14531691|pmid-1429464|pmid-10092860 | 5; see also Refs. | [
"5",
"3",
"4"
] | 17 | 42,337 | 0 | false | 5; see also Refs. | [] | 5; see also Refs. | false | false | true | true | false | 7,341 |
3 | DISCUSSION | 1 | 5 | [
"ref5",
"ref3",
"ref4"
] | 18,632,663 | pmid-14531691|pmid-1429464|pmid-10092860 | A, stereoviews in
solvent-accessible surface representation. | [
"5",
"3",
"4"
] | 61 | 42,338 | 0 | false | A, stereoviews in solvent-accessible surface representation. | [] | A, stereoviews in solvent-accessible surface representation. | true | true | true | true | true | 7,341 |
3 | DISCUSSION | 1 | 5 | [
"ref5",
"ref3",
"ref4"
] | 18,632,663 | pmid-14531691|pmid-1429464|pmid-10092860 | B, stereoviews in
stick representation. | [
"5",
"3",
"4"
] | 40 | 42,339 | 0 | false | B, stereoviews in stick representation. | [] | B, stereoviews in stick representation. | true | true | true | true | true | 7,341 |
4 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref13"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-15200952 | Of the 242 substituted MccJ25 derivatives competent for production of
MccJ25, 155 substituted MccJ25 derivatives also are competent for inhibition
of RNAP in vitro (Fig. | [
"5",
"7",
"13"
] | 171 | 42,340 | 0 | false | Of the 242 substituted MccJ25 derivatives competent for production of MccJ25, 155 substituted MccJ25 derivatives also are competent for inhibition of RNAP in vitro (Fig. | [] | Of the 242 substituted MccJ25 derivatives competent for production of MccJ25, 155 substituted MccJ25 derivatives also are competent for inhibition of RNAP in vitro (Fig. | true | true | true | true | true | 7,342 |
4 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref13"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-15200952 | The residue immediately following the MccJ25 cycle
(Tyr9) is the sole residue for which no non-wild-type side chain is
tolerated in inhibition of RNAP; two residues of the MccJ25 cycle
(Gly4 and Pro7), one residue nearly immediately
following the MccJ25 cycle (Phe10), and the proximal aromatic
residue of the pair ... | [
"5",
"7",
"13"
] | 501 | 42,341 | 0 | false | The residue immediately following the MccJ25 cycle (Tyr9) is the sole residue for which no non-wild-type side chain is tolerated in inhibition of RNAP; two residues of the MccJ25 cycle, one residue nearly immediately following the MccJ25 cycle (Phe10), and the proximal aromatic residue of the pair of aromatic residues ... | [
"Gly4 and Pro7"
] | The residue immediately following the MccJ25 cycle (Tyr9) is the sole residue for which no non-wild-type side chain is tolerated in inhibition of RNAP; two residues of the MccJ25 cycle, one residue nearly immediately following the MccJ25 cycle (Phe10), and the proximal aromatic residue of the pair of aromatic residues ... | true | true | true | true | true | 7,342 |
4 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref13"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-15200952 | In the
three-dimensional structure of MccJ25
(5-7),
these residues form a discrete, continuous surface determinant on one face of
MccJ25 (Fig. | [
"5",
"7",
"13"
] | 146 | 42,342 | 0 | false | In the three-dimensional structure of MccJ25, these residues form a discrete, continuous surface determinant on one face of MccJ25 (Fig. | [
"5-7"
] | In the three-dimensional structure of MccJ25, these residues form a discrete, continuous surface determinant on one face of MccJ25 (Fig. | true | true | true | true | true | 7,342 |
4 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref13"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-15200952 | 4, red
residues), the face opposite the face with the determinant for production
of MccJ25 (Fig. | [
"5",
"7",
"13"
] | 98 | 42,343 | 0 | false | 4, red residues), the face opposite the face with the determinant for production of MccJ25 (Fig. | [] | 4, red residues), the face opposite the face with the determinant for production of MccJ25 (Fig. | false | false | true | true | false | 7,342 |
4 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref13"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-15200952 | 4, red
residues and black residues). | [
"5",
"7",
"13"
] | 37 | 42,344 | 0 | false | 4, red residues and black residues). | [] | 4, red residues and black residues). | false | false | true | true | false | 7,342 |
4 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref13"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-15200952 | We propose that the surface
determinant comprising Gly4, Pro7, Tyr9,
Phe10, and Phe19 of MccJ25 makes direct interactions
with RNAP in the RNAP-MccJ25 complex (a proposal consistent with the
provisional model for the structure of the RNAP-MccJ25 complex in Ref. | [
"5",
"7",
"13"
] | 265 | 42,345 | 0 | false | We propose that the surface determinant comprising Gly4, Pro7, Tyr9, Phe10, and Phe19 of MccJ25 makes direct interactions with RNAP in the RNAP-MccJ25 complex (a proposal consistent with the provisional model for the structure of the RNAP-MccJ25 complex in Ref. | [] | We propose that the surface determinant comprising Gly4, Pro7, Tyr9, Phe10, and Phe19 of MccJ25 makes direct interactions with RNAP in the RNAP-MccJ25 complex (a proposal consistent with the provisional model for the structure of the RNAP-MccJ25 complex in Ref. | true | true | true | true | true | 7,342 |
4 | DISCUSSION | 1 | 5 | [
"ref5",
"ref7",
"ref13"
] | 18,632,663 | pmid-14531691|pmid-14531661|pmid-15200952 | We note that the
wild-type side chains of Gly4, Pro7, Tyr9,
Phe10, and Phe19 of MccJ25 all are hydrophobic and in
three cases are aromatic, and we suggest that RNAP-MccJ25 interactions involve
predominantly hydrophobic interactions. | [
"5",
"7",
"13"
] | 236 | 42,346 | 0 | false | We note that the wild-type side chains of Gly4, Pro7, Tyr9, Phe10, and Phe19 of MccJ25 all are hydrophobic and in three cases are aromatic, and we suggest that RNAP-MccJ25 interactions involve predominantly hydrophobic interactions. | [] | We note that the wild-type side chains of Gly4, Pro7, Tyr9, Phe10, and Phe19 of MccJ25 all are hydrophobic and in three cases are aromatic, and we suggest that RNAP-MccJ25 interactions involve predominantly hydrophobic interactions. | true | true | true | true | true | 7,342 |
5 | DISCUSSION | 0 | null | null | 18,632,663 | null | Of the 155 substituted MccJ25 derivatives competent for production of
MccJ25 and competent for inhibition of RNAP by MccJ25 in vitro, 70
substituted MccJ25 derivatives also are competent for inhibition of bacterial
growth by MccJ25 in culture and thus apparently are competent to permeate
bacterial cells in order to... | null | 363 | 42,347 | 0 | false | null | null | Of the 155 substituted MccJ25 derivatives competent for production of
MccJ25 and competent for inhibition of RNAP by MccJ25 in vitro, 70
substituted MccJ25 derivatives also are competent for inhibition of bacterial
growth by MccJ25 in culture and thus apparently are competent to permeate
bacterial cells in order to... | true | true | true | true | true | 7,343 |
6 | DISCUSSION | 1 | 19 | [
"ref19",
"ref20"
] | 18,632,663 | pmid-8244949|NA | Two residues of the MccJ25 cycle (Gly4 and Pro7), one
residue nearly immediately following the MccJ25 cycle (Phe10), and
the pair of aromatic residues that lock the threaded MccJ25 tail within the
MccJ25 cycle (Phe19 and Tyr20) are the sole residues for
which no non-wild-type side chains are tolerated in permeation... | [
"19",
"20"
] | 343 | 42,348 | 0 | false | Two residues of the MccJ25 cycle (Gly4 and Pro7), one residue nearly immediately following the MccJ25 cycle (Phe10), and the pair of aromatic residues that lock the threaded MccJ25 tail within the MccJ25 cycle are the sole residues for which no non-wild-type side chains are tolerated in permeation into bacterial cells. | [
"Phe19 and Tyr20"
] | Two residues of the MccJ25 cycle (Gly4 and Pro7), one residue nearly immediately following the MccJ25 cycle, and the pair of aromatic residues that lock the threaded MccJ25 tail within the MccJ25 cycle are the sole residues for which no non-wild-type side chains are tolerated in permeation into bacterial cells. | true | true | true | true | true | 7,344 |
6 | DISCUSSION | 1 | 19 | [
"ref19",
"ref20"
] | 18,632,663 | pmid-8244949|NA | Three residues of the MccJ25 cycle (Ala3, His5,
and Val6), and three residues of the MccJ25 tail (Gly14,
Ser18, and Gly21) are the sole additional residues at
which <40% or fewer of tested substitutions are compatible with permeation
into bacterial cells (Fig. | [
"19",
"20"
] | 264 | 42,349 | 0 | false | Three residues of the MccJ25 cycle (Ala3, His5, and Val6), and three residues of the MccJ25 tail (Gly14, Ser18, and Gly21) are the sole additional residues at which <40% or fewer of tested substitutions are compatible with permeation into bacterial cells (Fig. | [] | Three residues of the MccJ25 cycle (Ala3, His5, and Val6), and three residues of the MccJ25 tail are the sole additional residues at which <40% or fewer of tested substitutions are compatible with permeation into bacterial cells (Fig. | true | true | true | true | true | 7,344 |
6 | DISCUSSION | 1 | 19 | [
"ref19",
"ref20"
] | 18,632,663 | pmid-8244949|NA | The residues at which substitutions affect the ability to permeate bacterial
cells do not form a single surface determinant (possibly reflecting the fact
that, during permeation of MccJ25 into bacterial cells, MccJ25 makes
successive interactions with import complexes in the cell outer membrane and
with import comp... | [
"19",
"20"
] | 363 | 42,350 | 0 | false | The residues at which substitutions affect the ability to permeate bacterial cells do not form a single surface determinant (possibly reflecting the fact that, during permeation of MccJ25 into bacterial cells, MccJ25 makes successive interactions with import complexes in the cell outer membrane and with import complexe... | [] | The residues at which substitutions affect the ability to permeate bacterial cells do not form a single surface determinant (possibly reflecting the fact that, during permeation of MccJ25 into bacterial cells, MccJ25 makes successive interactions with import complexes in the cell outer membrane and with import complexe... | true | true | true | true | true | 7,344 |
6 | DISCUSSION | 1 | 19 | [
"ref19",
"ref20"
] | 18,632,663 | pmid-8244949|NA | 19 and
20). | [
"19",
"20"
] | 12 | 42,351 | 0 | false | 19 and 20). | [] | 19 and 20). | false | false | true | true | false | 7,344 |
7 | DISCUSSION | 0 | null | null | 18,632,663 | null | In summary, our results show that only a small number of wild-type side
chains of MccJ25 are strictly essential for MccJ25 production and function. | null | 148 | 42,352 | 0 | false | null | null | In summary, our results show that only a small number of wild-type side
chains of MccJ25 are strictly essential for MccJ25 production and function. | true | true | true | true | true | 7,345 |
7 | DISCUSSION | 0 | null | null | 18,632,663 | null | Therefore, despite its small size and complex structure, MccJ25 can be
regarded as an attractive platform for engineering antibacterials with higher
potencies and/or broadened specificities by further rounds of mutagenesis. | null | 225 | 42,353 | 0 | false | null | null | Therefore, despite its small size and complex structure, MccJ25 can be
regarded as an attractive platform for engineering antibacterials with higher
potencies and/or broadened specificities by further rounds of mutagenesis. | true | true | true | true | true | 7,345 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3",
"B4",
"B5",
"B6",
"B7"
] | 20,007,154 | NA|pmid-10637355|pmid-11039937|pmid-18460344|pmid-12877387|pmid-17216036|pmid-10790375|pmid-1716784|pmid-8656424|pmid-8610123|pmid-10373587 | Sequence-specific DNA-binding agents have been regarded as a great promise toward the development of new therapeutic strategies based on gene regulation or modification. | [
"1",
"2",
"3",
"4",
"5",
"6",
"7"
] | 169 | 42,354 | 0 | false | Sequence-specific DNA-binding agents have been regarded as a great promise toward the development of new therapeutic strategies based on gene regulation or modification. | [] | Sequence-specific DNA-binding agents have been regarded as a great promise toward the development of new therapeutic strategies based on gene regulation or modification. | true | true | true | true | true | 7,346 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3",
"B4",
"B5",
"B6",
"B7"
] | 20,007,154 | NA|pmid-10637355|pmid-11039937|pmid-18460344|pmid-12877387|pmid-17216036|pmid-10790375|pmid-1716784|pmid-8656424|pmid-8610123|pmid-10373587 | Synthetic molecules that can recognize specific DNA sequences include triplex-forming oligonucleotides (TFOs), peptide nucleic acids and minor-groove binding agents. | [
"1",
"2",
"3",
"4",
"5",
"6",
"7"
] | 165 | 42,355 | 0 | false | Synthetic molecules that can recognize specific DNA sequences include triplex-forming oligonucleotides (TFOs), peptide nucleic acids and minor-groove binding agents. | [] | Synthetic molecules that can recognize specific DNA sequences include triplex-forming oligonucleotides (TFOs), peptide nucleic acids and minor-groove binding agents. | true | true | true | true | true | 7,346 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3",
"B4",
"B5",
"B6",
"B7"
] | 20,007,154 | NA|pmid-10637355|pmid-11039937|pmid-18460344|pmid-12877387|pmid-17216036|pmid-10790375|pmid-1716784|pmid-8656424|pmid-8610123|pmid-10373587 | TFOs were developed in order to modulate the transcription of specific genes, in the so-called antigene strategy, but their affinity and specificity have been exploited for many other purposes, for example to target cleaving or cross-linking agents, transcription factors, or nucleases to a specific site [see refs (1,2)... | [
"1",
"2",
"3",
"4",
"5",
"6",
"7"
] | 333 | 42,356 | 0 | false | TFOs were developed in order to modulate the transcription of specific genes, in the so-called antigene strategy, but their affinity and specificity have been exploited for many other purposes, for example to target cleaving or cross-linking agents, transcription factors, or nucleases to a specific site. | [
"see refs (1,2) for review"
] | TFOs were developed in order to modulate the transcription of specific genes, in the so-called antigene strategy, but their affinity and specificity have been exploited for many other purposes, for example to target cleaving or cross-linking agents, transcription factors, or nucleases to a specific site. | true | true | true | true | true | 7,346 |
0 | INTRODUCTION | 1 | 7 | [
"B1",
"B2",
"B3",
"B4",
"B5",
"B6",
"B7"
] | 20,007,154 | NA|pmid-10637355|pmid-11039937|pmid-18460344|pmid-12877387|pmid-17216036|pmid-10790375|pmid-1716784|pmid-8656424|pmid-8610123|pmid-10373587 | Moreover, they have been used as tools to induce DNA sequence modifications in live cells (3,4), as well as in various assays aimed at purifying or labelling DNA (5,6) or at investigating DNA–protein interactions (7). | [
"1",
"2",
"3",
"4",
"5",
"6",
"7"
] | 217 | 42,357 | 1 | false | Moreover, they have been used as tools to induce DNA sequence modifications in live cells, as well as in various assays aimed at purifying or labelling DNA or at investigating DNA–protein interactions. | [
"3,4",
"5,6",
"7"
] | Moreover, they have been used as tools to induce DNA sequence modifications in live cells, as well as in various assays aimed at purifying or labelling DNA or at investigating DNA–protein interactions. | true | true | true | true | true | 7,346 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | Triple-helix formation is based on sequence-specific recognition of oligopyrimidine–oligopurine sequence by a third nucleic-acid strand. | [
"8",
"9",
"10",
"11",
"12"
] | 136 | 42,358 | 0 | false | Triple-helix formation is based on sequence-specific recognition of oligopyrimidine–oligopurine sequence by a third nucleic-acid strand. | [] | Triple-helix formation is based on sequence-specific recognition of oligopyrimidine–oligopurine sequence by a third nucleic-acid strand. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | This third-strand binds in the major groove and recognizes the oligopurine strand by establishing a pair of hydrogen bonds with purine bases that remain involved in Watson–Crick base pairing. | [
"8",
"9",
"10",
"11",
"12"
] | 191 | 42,359 | 0 | false | This third-strand binds in the major groove and recognizes the oligopurine strand by establishing a pair of hydrogen bonds with purine bases that remain involved in Watson–Crick base pairing. | [] | This third-strand binds in the major groove and recognizes the oligopurine strand by establishing a pair of hydrogen bonds with purine bases that remain involved in Watson–Crick base pairing. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | Different types of triple helices, which contain different types of base triplets, can be formed. | [
"8",
"9",
"10",
"11",
"12"
] | 97 | 42,360 | 0 | false | Different types of triple helices, which contain different types of base triplets, can be formed. | [] | Different types of triple helices, which contain different types of base triplets, can be formed. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | The first discovered triple helices, which were formed with third strands containing only pyrimidines, relied on the formation of T.AxT and C.GxC+ base triplets. | [
"8",
"9",
"10",
"11",
"12"
] | 161 | 42,361 | 0 | false | The first discovered triple helices, which were formed with third strands containing only pyrimidines, relied on the formation of T.AxT and C.GxC+ base triplets. | [] | The first discovered triple helices, which were formed with third strands containing only pyrimidines, relied on the formation of T.AxT and C.GxC+ base triplets. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | In this so-called pyrimidine or parallel motif, the third-strand binds in a parallel orientation with respect to the oligopurine strand. | [
"8",
"9",
"10",
"11",
"12"
] | 136 | 42,362 | 0 | false | In this so-called pyrimidine or parallel motif, the third-strand binds in a parallel orientation with respect to the oligopurine strand. | [] | In this so-called pyrimidine or parallel motif, the third-strand binds in a parallel orientation with respect to the oligopurine strand. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | Purine-containing oligonucleotides can also bind double-helical DNA, thanks to the formation of C.GxG and T.AxA base triplets. | [
"8",
"9",
"10",
"11",
"12"
] | 126 | 42,363 | 0 | false | Purine-containing oligonucleotides can also bind double-helical DNA, thanks to the formation of C.GxG and T.AxA base triplets. | [] | Purine-containing oligonucleotides can also bind double-helical DNA, thanks to the formation of C.GxG and T.AxA base triplets. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | In this case, the third-strand binds in an antiparallel orientation. | [
"8",
"9",
"10",
"11",
"12"
] | 68 | 42,364 | 0 | false | In this case, the third-strand binds in an antiparallel orientation. | [] | In this case, the third-strand binds in an antiparallel orientation. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | Recognition of T.A base pairs can be achieved by adenines, but also by thymines. | [
"8",
"9",
"10",
"11",
"12"
] | 80 | 42,365 | 0 | false | Recognition of T.A base pairs can be achieved by adenines, but also by thymines. | [] | Recognition of T.A base pairs can be achieved by adenines, but also by thymines. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | Therefore this recognition scheme has been named the ‘antiparallel’ motif. | [
"8",
"9",
"10",
"11",
"12"
] | 74 | 42,366 | 0 | false | Therefore this recognition scheme has been named the ‘antiparallel’ motif. | [] | Therefore this recognition scheme has been named the ‘antiparallel’ motif. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | The stability of triple helices depends on the recognition scheme, on the sequences and on experimental conditions. | [
"8",
"9",
"10",
"11",
"12"
] | 115 | 42,367 | 0 | false | The stability of triple helices depends on the recognition scheme, on the sequences and on experimental conditions. | [] | The stability of triple helices depends on the recognition scheme, on the sequences and on experimental conditions. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | Whereas the parallel motif is favoured by an acidic pH and a low GC content within the target sequence, the antiparallel motif can be formed at neutral pH but preferentially in the presence of divalent cations and on target sequences with a very high GC content. | [
"8",
"9",
"10",
"11",
"12"
] | 262 | 42,368 | 0 | false | Whereas the parallel motif is favoured by an acidic pH and a low GC content within the target sequence, the antiparallel motif can be formed at neutral pH but preferentially in the presence of divalent cations and on target sequences with a very high GC content. | [] | Whereas the parallel motif is favoured by an acidic pH and a low GC content within the target sequence, the antiparallel motif can be formed at neutral pH but preferentially in the presence of divalent cations and on target sequences with a very high GC content. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | The design and experimental study of TFOs binding in the antiparallel motif can be complicated by the fact that purine-rich oligonucleotides can self-associate into G-quadruplex containing structures or GA duplexes that can compete with triple-helix formation (8,9). | [
"8",
"9",
"10",
"11",
"12"
] | 266 | 42,369 | 0 | false | The design and experimental study of TFOs binding in the antiparallel motif can be complicated by the fact that purine-rich oligonucleotides can self-associate into G-quadruplex containing structures or GA duplexes that can compete with triple-helix formation. | [
"8,9"
] | The design and experimental study of TFOs binding in the antiparallel motif can be complicated by the fact that purine-rich oligonucleotides can self-associate into G-quadruplex containing structures or GA duplexes that can compete with triple-helix formation. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | A systematic comparison of the use of A or T to recognize AT base pairs in the antiparallel motif has never been undertaken. | [
"8",
"9",
"10",
"11",
"12"
] | 124 | 42,370 | 0 | false | A systematic comparison of the use of A or T to recognize AT base pairs in the antiparallel motif has never been undertaken. | [] | A systematic comparison of the use of A or T to recognize AT base pairs in the antiparallel motif has never been undertaken. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | Alternative binding patterns have been observed in some instances. | [
"8",
"9",
"10",
"11",
"12"
] | 66 | 42,371 | 0 | false | Alternative binding patterns have been observed in some instances. | [] | Alternative binding patterns have been observed in some instances. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 10 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | For example, GT oligonucleotides have been reported to bind in a parallel orientation when the target sequence contains long runs of AT base pairs (10). | [
"8",
"9",
"10",
"11",
"12"
] | 152 | 42,372 | 1 | false | For example, GT oligonucleotides have been reported to bind in a parallel orientation when the target sequence contains long runs of AT base pairs. | [
"10"
] | For example, GT oligonucleotides have been reported to bind in a parallel orientation when the target sequence contains long runs of AT base pairs. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 11 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | The use of TFOs is also mostly limited to oligopyrimidine–oligopurine target sequences, although strategies have been proposed for the recognition of single or double inversions within the target or for recognizing alternated stretches of purines and pyrimidines (11). | [
"8",
"9",
"10",
"11",
"12"
] | 268 | 42,373 | 1 | false | The use of TFOs is also mostly limited to oligopyrimidine–oligopurine target sequences, although strategies have been proposed for the recognition of single or double inversions within the target or for recognizing alternated stretches of purines and pyrimidines. | [
"11"
] | The use of TFOs is also mostly limited to oligopyrimidine–oligopurine target sequences, although strategies have been proposed for the recognition of single or double inversions within the target or for recognizing alternated stretches of purines and pyrimidines. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | There is no convenient method for finding the best TFO for a given sequence. | [
"8",
"9",
"10",
"11",
"12"
] | 76 | 42,374 | 0 | false | There is no convenient method for finding the best TFO for a given sequence. | [] | There is no convenient method for finding the best TFO for a given sequence. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 8 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | There are some instances where both types of TFO can bind the same DNA target, but this is not typical. | [
"8",
"9",
"10",
"11",
"12"
] | 103 | 42,375 | 0 | false | There are some instances where both types of TFO can bind the same DNA target, but this is not typical. | [] | There are some instances where both types of TFO can bind the same DNA target, but this is not typical. | true | true | true | true | true | 7,347 |
1 | INTRODUCTION | 1 | 12 | [
"B8",
"B9",
"B10",
"B11",
"B12"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | TFO are generally chosen mostly on an empirical basis, using known rules for various triple helix motifs for the design followed by in vitro binding assays for validation (12). | [
"8",
"9",
"10",
"11",
"12"
] | 176 | 42,376 | 1 | false | TFO are generally chosen mostly on an empirical basis, using known rules for various triple helix motifs for the design followed by in vitro binding assays for validation. | [
"12"
] | TFO are generally chosen mostly on an empirical basis, using known rules for various triple helix motifs for the design followed by in vitro binding assays for validation. | true | true | true | true | true | 7,347 |
2 | INTRODUCTION | 1 | 2 | [
"B2",
"B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B19"
] | 20,007,154 | pmid-10637355|pmid-1609278|NA|pmid-9520410|NA|pmid-8639533|pmid-8604349|pmid-9547278|pmid-10657289|pmid-16289104 | Stability of triple helices formed by non-modified DNA oligonucleotides can be low at physiological pH and temperature. | [
"2",
"13",
"14",
"15",
"16",
"17",
"18",
"19"
] | 119 | 42,377 | 0 | false | Stability of triple helices formed by non-modified DNA oligonucleotides can be low at physiological pH and temperature. | [] | Stability of triple helices formed by non-modified DNA oligonucleotides can be low at physiological pH and temperature. | true | true | true | true | true | 7,348 |
2 | INTRODUCTION | 1 | 2 | [
"B2",
"B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B19"
] | 20,007,154 | pmid-10637355|pmid-1609278|NA|pmid-9520410|NA|pmid-8639533|pmid-8604349|pmid-9547278|pmid-10657289|pmid-16289104 | This stability can be enhanced by using chemically modified oligonucleotides [see ref. | [
"2",
"13",
"14",
"15",
"16",
"17",
"18",
"19"
] | 86 | 42,378 | 0 | false | This stability can be enhanced by using chemically modified oligonucleotides [see ref. | [] | This stability can be enhanced by using chemically modified oligonucleotides [see ref. | true | true | true | true | true | 7,348 |
2 | INTRODUCTION | 1 | 2 | [
"B2",
"B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B19"
] | 20,007,154 | pmid-10637355|pmid-1609278|NA|pmid-9520410|NA|pmid-8639533|pmid-8604349|pmid-9547278|pmid-10657289|pmid-16289104 | (2) for review]. | [
"2",
"13",
"14",
"15",
"16",
"17",
"18",
"19"
] | 16 | 42,379 | 1 | false | for review]. | [
"2"
] | for review]. | false | true | true | true | false | 7,348 |
2 | INTRODUCTION | 1 | 13 | [
"B2",
"B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B19"
] | 20,007,154 | pmid-10637355|pmid-1609278|NA|pmid-9520410|NA|pmid-8639533|pmid-8604349|pmid-9547278|pmid-10657289|pmid-16289104 | Another very efficient way of stabilizing triple helices is by using triplex-specific ligands (13). | [
"2",
"13",
"14",
"15",
"16",
"17",
"18",
"19"
] | 99 | 42,380 | 1 | false | Another very efficient way of stabilizing triple helices is by using triplex-specific ligands. | [
"13"
] | Another very efficient way of stabilizing triple helices is by using triplex-specific ligands. | true | true | true | true | true | 7,348 |
2 | INTRODUCTION | 1 | 2 | [
"B2",
"B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B19"
] | 20,007,154 | pmid-10637355|pmid-1609278|NA|pmid-9520410|NA|pmid-8639533|pmid-8604349|pmid-9547278|pmid-10657289|pmid-16289104 | The most efficient triplex-stabilizing agents are polyaromatic compounds which bind duplex and triplex DNA by intercalation [see ref. | [
"2",
"13",
"14",
"15",
"16",
"17",
"18",
"19"
] | 133 | 42,381 | 0 | false | The most efficient triplex-stabilizing agents are polyaromatic compounds which bind duplex and triplex DNA by intercalation [see ref. | [] | The most efficient triplex-stabilizing agents are polyaromatic compounds which bind duplex and triplex DNA by intercalation [see ref. | true | true | true | true | true | 7,348 |
2 | INTRODUCTION | 1 | 14 | [
"B2",
"B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B19"
] | 20,007,154 | pmid-10637355|pmid-1609278|NA|pmid-9520410|NA|pmid-8639533|pmid-8604349|pmid-9547278|pmid-10657289|pmid-16289104 | (14) for review]. | [
"2",
"13",
"14",
"15",
"16",
"17",
"18",
"19"
] | 17 | 42,382 | 1 | false | for review]. | [
"14"
] | for review]. | false | true | true | true | false | 7,348 |
2 | INTRODUCTION | 1 | 2 | [
"B2",
"B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B19"
] | 20,007,154 | pmid-10637355|pmid-1609278|NA|pmid-9520410|NA|pmid-8639533|pmid-8604349|pmid-9547278|pmid-10657289|pmid-16289104 | Although there is no structural data regarding triplex-intercalator complexes, it has been demonstrated that increased stacking interactions obtained by additional cycles lead to more efficient triplex stabilizers (15,16). | [
"2",
"13",
"14",
"15",
"16",
"17",
"18",
"19"
] | 222 | 42,383 | 0 | false | Although there is no structural data regarding triplex-intercalator complexes, it has been demonstrated that increased stacking interactions obtained by additional cycles lead to more efficient triplex stabilizers. | [
"15,16"
] | Although there is no structural data regarding triplex-intercalator complexes, it has been demonstrated that increased stacking interactions obtained by additional cycles lead to more efficient triplex stabilizers. | true | true | true | true | true | 7,348 |
2 | INTRODUCTION | 1 | 2 | [
"B2",
"B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B19"
] | 20,007,154 | pmid-10637355|pmid-1609278|NA|pmid-9520410|NA|pmid-8639533|pmid-8604349|pmid-9547278|pmid-10657289|pmid-16289104 | Most studies performed with such compounds have regarded the stabilization of triple helices with ‘canonical’ base triplets. | [
"2",
"13",
"14",
"15",
"16",
"17",
"18",
"19"
] | 124 | 42,384 | 0 | false | Most studies performed with such compounds have regarded the stabilization of triple helices with ‘canonical’ base triplets. | [] | Most studies performed with such compounds have regarded the stabilization of triple helices with ‘canonical’ base triplets. | true | true | true | true | true | 7,348 |
2 | INTRODUCTION | 1 | 17 | [
"B2",
"B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B19"
] | 20,007,154 | pmid-10637355|pmid-1609278|NA|pmid-9520410|NA|pmid-8639533|pmid-8604349|pmid-9547278|pmid-10657289|pmid-16289104 | Some of these intercalators have been shown to bind to both parallel (with TC TFOs) and antiparallel (with GT TFOs) triple helices (17). | [
"2",
"13",
"14",
"15",
"16",
"17",
"18",
"19"
] | 136 | 42,385 | 1 | false | Some of these intercalators have been shown to bind to both parallel (with TC TFOs) and antiparallel (with GT TFOs) triple helices. | [
"17"
] | Some of these intercalators have been shown to bind to both parallel (with TC TFOs) and antiparallel (with GT TFOs) triple helices. | true | true | true | true | true | 7,348 |
2 | INTRODUCTION | 1 | 2 | [
"B2",
"B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B19"
] | 20,007,154 | pmid-10637355|pmid-1609278|NA|pmid-9520410|NA|pmid-8639533|pmid-8604349|pmid-9547278|pmid-10657289|pmid-16289104 | However, there is no reason to exclude that the presence of some of these compounds intercalated between DNA bases may alter the recognition code and enhance the formation of structures that do not involve canonical base triplets. | [
"2",
"13",
"14",
"15",
"16",
"17",
"18",
"19"
] | 230 | 42,386 | 0 | false | However, there is no reason to exclude that the presence of some of these compounds intercalated between DNA bases may alter the recognition code and enhance the formation of structures that do not involve canonical base triplets. | [] | However, there is no reason to exclude that the presence of some of these compounds intercalated between DNA bases may alter the recognition code and enhance the formation of structures that do not involve canonical base triplets. | true | true | true | true | true | 7,348 |
2 | INTRODUCTION | 1 | 2 | [
"B2",
"B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B19"
] | 20,007,154 | pmid-10637355|pmid-1609278|NA|pmid-9520410|NA|pmid-8639533|pmid-8604349|pmid-9547278|pmid-10657289|pmid-16289104 | In addition, it has been shown that triplex-specific intercalators can promote the formation of triple helices on target sequences that were not perfect oligopurine–oligopyrimidine stretches (18,19). | [
"2",
"13",
"14",
"15",
"16",
"17",
"18",
"19"
] | 199 | 42,387 | 0 | false | In addition, it has been shown that triplex-specific intercalators can promote the formation of triple helices on target sequences that were not perfect oligopurine–oligopyrimidine stretches. | [
"18,19"
] | In addition, it has been shown that triplex-specific intercalators can promote the formation of triple helices on target sequences that were not perfect oligopurine–oligopyrimidine stretches. | true | true | true | true | true | 7,348 |
3 | INTRODUCTION | 1 | 20 | [
"B20",
"B21",
"B22 B23 B24 B25",
"B26",
"B27 B28 B29"
] | 20,007,154 | pmid-2200121|pmid-1697402|pmid-10995196|pmid-10960261|pmid-17634987|pmid-17627883|pmid-8855239|pmid-10449422|pmid-12867086|pmid-15681618|pmid-7506827|pmid-7529405 | SELEX is an in vitro selection method for oligonucleotides (DNA or RNA) that bind very tightly to a chosen target. | [
"20",
"21",
"22–25",
"26",
"27–29"
] | 114 | 42,388 | 0 | false | SELEX is an in vitro selection method for oligonucleotides (DNA or RNA) that bind very tightly to a chosen target. | [] | SELEX is an in vitro selection method for oligonucleotides (DNA or RNA) that bind very tightly to a chosen target. | true | true | true | true | true | 7,349 |
3 | INTRODUCTION | 1 | 20 | [
"B20",
"B21",
"B22 B23 B24 B25",
"B26",
"B27 B28 B29"
] | 20,007,154 | pmid-2200121|pmid-1697402|pmid-10995196|pmid-10960261|pmid-17634987|pmid-17627883|pmid-8855239|pmid-10449422|pmid-12867086|pmid-15681618|pmid-7506827|pmid-7529405 | It is based on the iterative repetition of cycles that include a binding step, an elution step and an amplification by PCR. | [
"20",
"21",
"22–25",
"26",
"27–29"
] | 123 | 42,389 | 0 | false | It is based on the iterative repetition of cycles that include a binding step, an elution step and an amplification by PCR. | [] | It is based on the iterative repetition of cycles that include a binding step, an elution step and an amplification by PCR. | true | true | true | true | true | 7,349 |
3 | INTRODUCTION | 1 | 20 | [
"B20",
"B21",
"B22 B23 B24 B25",
"B26",
"B27 B28 B29"
] | 20,007,154 | pmid-2200121|pmid-1697402|pmid-10995196|pmid-10960261|pmid-17634987|pmid-17627883|pmid-8855239|pmid-10449422|pmid-12867086|pmid-15681618|pmid-7506827|pmid-7529405 | Selected oligonucleotide sequences are called aptamers. | [
"20",
"21",
"22–25",
"26",
"27–29"
] | 55 | 42,390 | 0 | false | Selected oligonucleotide sequences are called aptamers. | [] | Selected oligonucleotide sequences are called aptamers. | true | true | true | true | true | 7,349 |
3 | INTRODUCTION | 1 | 20 | [
"B20",
"B21",
"B22 B23 B24 B25",
"B26",
"B27 B28 B29"
] | 20,007,154 | pmid-2200121|pmid-1697402|pmid-10995196|pmid-10960261|pmid-17634987|pmid-17627883|pmid-8855239|pmid-10449422|pmid-12867086|pmid-15681618|pmid-7506827|pmid-7529405 | The process was first described in 1990 using proteins (20) and small molecules (21) as targets. | [
"20",
"21",
"22–25",
"26",
"27–29"
] | 96 | 42,391 | 1 | false | The process was first described in 1990 using proteins and small molecules as targets. | [
"20",
"21"
] | The process was first described in 1990 using proteins and small molecules as targets. | true | true | true | true | true | 7,349 |
3 | INTRODUCTION | 1 | 22–25 | [
"B20",
"B21",
"B22 B23 B24 B25",
"B26",
"B27 B28 B29"
] | 20,007,154 | pmid-2200121|pmid-1697402|pmid-10995196|pmid-10960261|pmid-17634987|pmid-17627883|pmid-8855239|pmid-10449422|pmid-12867086|pmid-15681618|pmid-7506827|pmid-7529405 | Since then, numerous variants of the original process have been described, and the SELEX technology has been successfully applied for numerous applications on a large variety of targets (22–25), including whole cells and nucleic acids. | [
"20",
"21",
"22–25",
"26",
"27–29"
] | 235 | 42,392 | 1 | false | Since then, numerous variants of the original process have been described, and the SELEX technology has been successfully applied for numerous applications on a large variety of targets, including whole cells and nucleic acids. | [
"22–25"
] | Since then, numerous variants of the original process have been described, and the SELEX technology has been successfully applied for numerous applications on a large variety of targets, including whole cells and nucleic acids. | true | true | true | true | true | 7,349 |
3 | INTRODUCTION | 1 | 26 | [
"B20",
"B21",
"B22 B23 B24 B25",
"B26",
"B27 B28 B29"
] | 20,007,154 | pmid-2200121|pmid-1697402|pmid-10995196|pmid-10960261|pmid-17634987|pmid-17627883|pmid-8855239|pmid-10449422|pmid-12867086|pmid-15681618|pmid-7506827|pmid-7529405 | For example, it has been demonstrated that DNA oligonucleotides selected against DNA secondary structures were able to recognize their target through base pair formation and additional interactions (26). | [
"20",
"21",
"22–25",
"26",
"27–29"
] | 203 | 42,393 | 1 | false | For example, it has been demonstrated that DNA oligonucleotides selected against DNA secondary structures were able to recognize their target through base pair formation and additional interactions. | [
"26"
] | For example, it has been demonstrated that DNA oligonucleotides selected against DNA secondary structures were able to recognize their target through base pair formation and additional interactions. | true | true | true | true | true | 7,349 |
3 | INTRODUCTION | 1 | 27–29 | [
"B20",
"B21",
"B22 B23 B24 B25",
"B26",
"B27 B28 B29"
] | 20,007,154 | pmid-2200121|pmid-1697402|pmid-10995196|pmid-10960261|pmid-17634987|pmid-17627883|pmid-8855239|pmid-10449422|pmid-12867086|pmid-15681618|pmid-7506827|pmid-7529405 | SELEX experiments have also helped in the design of antisense oligonucleotides with the ability to bind specific structures (27–29). | [
"20",
"21",
"22–25",
"26",
"27–29"
] | 132 | 42,394 | 1 | false | SELEX experiments have also helped in the design of antisense oligonucleotides with the ability to bind specific structures. | [
"27–29"
] | SELEX experiments have also helped in the design of antisense oligonucleotides with the ability to bind specific structures. | true | true | true | true | true | 7,349 |
4 | INTRODUCTION | 1 | 30 | [
"B30",
"B31"
] | 20,007,154 | pmid-1716784|pmid-8656424|pmid-19153138 | Because of the limitations regarding the potential target sequences and as there is no systematic rule for designing the best TFO for a defined target sequence, the SELEX method represents an interesting tool for identifying nucleic acids sequences that bind double-stranded DNA. | [
"30",
"31"
] | 279 | 42,395 | 0 | false | Because of the limitations regarding the potential target sequences and as there is no systematic rule for designing the best TFO for a defined target sequence, the SELEX method represents an interesting tool for identifying nucleic acids sequences that bind double-stranded DNA. | [] | Because of the limitations regarding the potential target sequences and as there is no systematic rule for designing the best TFO for a defined target sequence, the SELEX method represents an interesting tool for identifying nucleic acids sequences that bind double-stranded DNA. | true | true | true | true | true | 7,350 |
4 | INTRODUCTION | 1 | 30 | [
"B30",
"B31"
] | 20,007,154 | pmid-1716784|pmid-8656424|pmid-19153138 | Two studies have tried to identify RNA molecules binding to double-stranded DNA using a SELEX approach (30,31). | [
"30",
"31"
] | 111 | 42,396 | 0 | false | Two studies have tried to identify RNA molecules binding to double-stranded DNA using a SELEX approach. | [
"30,31"
] | Two studies have tried to identify RNA molecules binding to double-stranded DNA using a SELEX approach. | true | true | true | true | true | 7,350 |
4 | INTRODUCTION | 1 | 30 | [
"B30",
"B31"
] | 20,007,154 | pmid-1716784|pmid-8656424|pmid-19153138 | The selection process was carried out at acidic pH in the first study and at different pH values from 5.5 to 7 in the second one, using a target containing an oligopurine–oligopyrimidine sequence. | [
"30",
"31"
] | 196 | 42,397 | 0 | false | The selection process was carried out at acidic pH in the first study and at different pH values from 5.5 to 7 in the second one, using a target containing an oligopurine–oligopyrimidine sequence. | [] | The selection process was carried out at acidic pH in the first study and at different pH values from 5.5 to 7 in the second one, using a target containing an oligopurine–oligopyrimidine sequence. | true | true | true | true | true | 7,350 |
4 | INTRODUCTION | 1 | 30 | [
"B30",
"B31"
] | 20,007,154 | pmid-1716784|pmid-8656424|pmid-19153138 | The selected RNAs consisted mostly in uraciles and cytosines that were able to form canonical T.AxU and C.GxC+ base triplets. | [
"30",
"31"
] | 125 | 42,398 | 0 | false | The selected RNAs consisted mostly in uraciles and cytosines that were able to form canonical T.AxU and C.GxC+ base triplets. | [] | The selected RNAs consisted mostly in uraciles and cytosines that were able to form canonical T.AxU and C.GxC+ base triplets. | true | true | true | true | true | 7,350 |
5 | INTRODUCTION | 0 | null | null | 20,007,154 | pmid-15274215|pmid-15911633|pmid-9547278|pmid-9380499|pmid-9685475|pmid-9862797|NA|pmid-9862797|pmid-10454596 | In the present study, we have selected DNA oligonucleotides for binding to a DNA target containing an oligopurine.oligopyrimidine sequence with a low GC content (35%) under neutral pH in the presence of a triplex-stabilizing agent. | null | 231 | 42,399 | 0 | false | null | null | In the present study, we have selected DNA oligonucleotides for binding to a DNA target containing an oligopurine.oligopyrimidine sequence with a low GC content (35%) under neutral pH in the presence of a triplex-stabilizing agent. | true | true | true | true | true | 7,351 |
5 | INTRODUCTION | 0 | null | null | 20,007,154 | pmid-15274215|pmid-15911633|pmid-9547278|pmid-9380499|pmid-9685475|pmid-9862797|NA|pmid-9862797|pmid-10454596 | These selections were performed in order to determine what would be the best TFO for such a sequence in the presence of a triplex-binding agent and to investigate if the presence of intercalators may modify the ‘code’ for triple-helix formation by enhancing the formation of non-canonical base triplets. | null | 303 | 42,400 | 0 | false | null | null | These selections were performed in order to determine what would be the best TFO for such a sequence in the presence of a triplex-binding agent and to investigate if the presence of intercalators may modify the ‘code’ for triple-helix formation by enhancing the formation of non-canonical base triplets. | true | true | true | true | true | 7,351 |
5 | INTRODUCTION | 0 | null | null | 20,007,154 | pmid-15274215|pmid-15911633|pmid-9547278|pmid-9380499|pmid-9685475|pmid-9862797|NA|pmid-9862797|pmid-10454596 | Our idea was also to implement a new approach for identifying new recognition schemes and maybe extend the range of sequences that can be recognized by oligonucleotides in a sequence-specific manner. | null | 199 | 42,401 | 0 | false | null | null | Our idea was also to implement a new approach for identifying new recognition schemes and maybe extend the range of sequences that can be recognized by oligonucleotides in a sequence-specific manner. | true | true | true | true | true | 7,351 |
0 | DISCUSSION | 1 | 30 | [
"B30",
"B31",
"B36",
"B37"
] | 20,007,154 | NA|pmid-10637355|pmid-11039937|pmid-18460344|pmid-12877387|pmid-17216036|pmid-10790375|pmid-1716784|pmid-8656424|pmid-8610123|pmid-10373587 | In vitro selection experiments have been applied to the recognition of double-stranded nucleic acid targets by only two different groups (30,31). | [
"30",
"31",
"36",
"37"
] | 145 | 42,402 | 0 | false | In vitro selection experiments have been applied to the recognition of double-stranded nucleic acid targets by only two different groups. | [
"30,31"
] | In vitro selection experiments have been applied to the recognition of double-stranded nucleic acid targets by only two different groups. | true | true | true | true | true | 7,352 |
0 | DISCUSSION | 1 | 30 | [
"B30",
"B31",
"B36",
"B37"
] | 20,007,154 | NA|pmid-10637355|pmid-11039937|pmid-18460344|pmid-12877387|pmid-17216036|pmid-10790375|pmid-1716784|pmid-8656424|pmid-8610123|pmid-10373587 | These studies did not result in the discovery of new binding motifs, but identified pyrimidine-rich RNA oligonucleotides that were able to bind their target upon formation of canonical base-triplets within the parallel motif. | [
"30",
"31",
"36",
"37"
] | 225 | 42,403 | 0 | false | These studies did not result in the discovery of new binding motifs, but identified pyrimidine-rich RNA oligonucleotides that were able to bind their target upon formation of canonical base-triplets within the parallel motif. | [] | These studies did not result in the discovery of new binding motifs, but identified pyrimidine-rich RNA oligonucleotides that were able to bind their target upon formation of canonical base-triplets within the parallel motif. | true | true | true | true | true | 7,352 |
0 | DISCUSSION | 1 | 30 | [
"B30",
"B31",
"B36",
"B37"
] | 20,007,154 | NA|pmid-10637355|pmid-11039937|pmid-18460344|pmid-12877387|pmid-17216036|pmid-10790375|pmid-1716784|pmid-8656424|pmid-8610123|pmid-10373587 | Two additional studies used a combinatorial approach in order to investigate the specificity of triple-helix formation. | [
"30",
"31",
"36",
"37"
] | 119 | 42,404 | 0 | false | Two additional studies used a combinatorial approach in order to investigate the specificity of triple-helix formation. | [] | Two additional studies used a combinatorial approach in order to investigate the specificity of triple-helix formation. | true | true | true | true | true | 7,352 |
0 | DISCUSSION | 1 | 36 | [
"B30",
"B31",
"B36",
"B37"
] | 20,007,154 | NA|pmid-10637355|pmid-11039937|pmid-18460344|pmid-12877387|pmid-17216036|pmid-10790375|pmid-1716784|pmid-8656424|pmid-8610123|pmid-10373587 | In the first one (36), van Dyke and coworkers have selected the best double-stranded DNA substrate for a GT-rich TFO. | [
"30",
"31",
"36",
"37"
] | 117 | 42,405 | 1 | false | In the first one, van Dyke and coworkers have selected the best double-stranded DNA substrate for a GT-rich TFO. | [
"36"
] | In the first one, van Dyke and coworkers have selected the best double-stranded DNA substrate for a GT-rich TFO. | true | true | true | true | true | 7,352 |
0 | DISCUSSION | 1 | 37 | [
"B30",
"B31",
"B36",
"B37"
] | 20,007,154 | NA|pmid-10637355|pmid-11039937|pmid-18460344|pmid-12877387|pmid-17216036|pmid-10790375|pmid-1716784|pmid-8656424|pmid-8610123|pmid-10373587 | In the second one (37), both the third strand and the target were randomized, which led to the selection of triple helices containing mostly C.GxG base triplets. | [
"30",
"31",
"36",
"37"
] | 161 | 42,406 | 1 | false | In the second one, both the third strand and the target were randomized, which led to the selection of triple helices containing mostly C.GxG base triplets. | [
"37"
] | In the second one, both the third strand and the target were randomized, which led to the selection of triple helices containing mostly C.GxG base triplets. | true | true | true | true | true | 7,352 |
0 | DISCUSSION | 1 | 30 | [
"B30",
"B31",
"B36",
"B37"
] | 20,007,154 | NA|pmid-10637355|pmid-11039937|pmid-18460344|pmid-12877387|pmid-17216036|pmid-10790375|pmid-1716784|pmid-8656424|pmid-8610123|pmid-10373587 | None of these studies were able to identify TFOs that could bind a given target double-stranded DNA with an antiparallel configuration. | [
"30",
"31",
"36",
"37"
] | 135 | 42,407 | 0 | false | None of these studies were able to identify TFOs that could bind a given target double-stranded DNA with an antiparallel configuration. | [] | None of these studies were able to identify TFOs that could bind a given target double-stranded DNA with an antiparallel configuration. | true | true | true | true | true | 7,352 |
0 | DISCUSSION | 1 | 30 | [
"B30",
"B31",
"B36",
"B37"
] | 20,007,154 | NA|pmid-10637355|pmid-11039937|pmid-18460344|pmid-12877387|pmid-17216036|pmid-10790375|pmid-1716784|pmid-8656424|pmid-8610123|pmid-10373587 | The absence of further combinatorial investigations for the recognition of double-stranded DNA is likely due to the experimental challenge of forming stable triple helical structures at neutral pH, except for sequences that are rich in GC base pairs. | [
"30",
"31",
"36",
"37"
] | 250 | 42,408 | 0 | false | The absence of further combinatorial investigations for the recognition of double-stranded DNA is likely due to the experimental challenge of forming stable triple helical structures at neutral pH, except for sequences that are rich in GC base pairs. | [] | The absence of further combinatorial investigations for the recognition of double-stranded DNA is likely due to the experimental challenge of forming stable triple helical structures at neutral pH, except for sequences that are rich in GC base pairs. | true | true | true | true | true | 7,352 |
1 | DISCUSSION | 1 | 16 | [
"B16",
"B11"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | In the present study, we have implemented an in vitro selection scheme for the identification of oligonucleotides that bind duplex DNA in the presence of a triplex intercalator. | [
"16",
"11"
] | 177 | 42,409 | 0 | false | In the present study, we have implemented an in vitro selection scheme for the identification of oligonucleotides that bind duplex DNA in the presence of a triplex intercalator. | [] | In the present study, we have implemented an in vitro selection scheme for the identification of oligonucleotides that bind duplex DNA in the presence of a triplex intercalator. | true | true | true | true | true | 7,353 |
1 | DISCUSSION | 1 | 16 | [
"B16",
"B11"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | We chose as triplex intercalator the BIQ compound, which has been shown to increase the melting temperature of a pyrimidine triple-helix by up to 40°C (16), and had also been shown to stabilize triple helices with purine containing third strands in our laboratory. | [
"16",
"11"
] | 264 | 42,410 | 1 | false | We chose as triplex intercalator the BIQ compound, which has been shown to increase the melting temperature of a pyrimidine triple-helix by up to 40°C, and had also been shown to stabilize triple helices with purine containing third strands in our laboratory. | [
"16"
] | We chose as triplex intercalator the BIQ compound, which has been shown to increase the melting temperature of a pyrimidine triple-helix by up to 40°C, and had also been shown to stabilize triple helices with purine containing third strands in our laboratory. | true | true | true | true | true | 7,353 |
1 | DISCUSSION | 1 | 16 | [
"B16",
"B11"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | Selection rounds were performed at neutral pH using as a target sequence a DNA fragment containing a 20 bp oligopurine–oligopyrimidine stretch, with 65% AT and 35% GC. | [
"16",
"11"
] | 167 | 42,411 | 0 | false | Selection rounds were performed at neutral pH using as a target sequence a DNA fragment containing a 20 bp oligopurine–oligopyrimidine stretch, with 65% AT and 35% GC. | [] | Selection rounds were performed at neutral pH using as a target sequence a DNA fragment containing a 20 bp oligopurine–oligopyrimidine stretch, with 65% AT and 35% GC. | true | true | true | true | true | 7,353 |
1 | DISCUSSION | 1 | 16 | [
"B16",
"B11"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | The selection process was very convenient as each selection round could be performed in less than a day, and introduction of a fluorescent moiety at the end of a primer enabled the quantification of recovered DNA at each step in a convenient way. | [
"16",
"11"
] | 246 | 42,412 | 0 | false | The selection process was very convenient as each selection round could be performed in less than a day, and introduction of a fluorescent moiety at the end of a primer enabled the quantification of recovered DNA at each step in a convenient way. | [] | The selection process was very convenient as each selection round could be performed in less than a day, and introduction of a fluorescent moiety at the end of a primer enabled the quantification of recovered DNA at each step in a convenient way. | true | true | true | true | true | 7,353 |
1 | DISCUSSION | 1 | 16 | [
"B16",
"B11"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | After only seven rounds of selection, a strong affinity of the oligonucleotide pool for the target sequence was evident from the amount of oligonucleotide recovered after elution. | [
"16",
"11"
] | 179 | 42,413 | 0 | false | After only seven rounds of selection, a strong affinity of the oligonucleotide pool for the target sequence was evident from the amount of oligonucleotide recovered after elution. | [] | After only seven rounds of selection, a strong affinity of the oligonucleotide pool for the target sequence was evident from the amount of oligonucleotide recovered after elution. | true | true | true | true | true | 7,353 |
1 | DISCUSSION | 1 | 16 | [
"B16",
"B11"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | Sequencing of the oligonucleotides revealed that most selected sequences were able to form antiparallel triple helices with the DNA target sequence through recognition of the oligopurine–oligopyrimidine stretch. | [
"16",
"11"
] | 211 | 42,414 | 0 | false | Sequencing of the oligonucleotides revealed that most selected sequences were able to form antiparallel triple helices with the DNA target sequence through recognition of the oligopurine–oligopyrimidine stretch. | [] | Sequencing of the oligonucleotides revealed that most selected sequences were able to form antiparallel triple helices with the DNA target sequence through recognition of the oligopurine–oligopyrimidine stretch. | true | true | true | true | true | 7,353 |
1 | DISCUSSION | 1 | 16 | [
"B16",
"B11"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | Importantly, GC base pairs were always recognized by guanines, whereas recognition of AT base pairs seemed to depend on the sequence context. | [
"16",
"11"
] | 141 | 42,415 | 0 | false | Importantly, GC base pairs were always recognized by guanines, whereas recognition of AT base pairs seemed to depend on the sequence context. | [] | Importantly, GC base pairs were always recognized by guanines, whereas recognition of AT base pairs seemed to depend on the sequence context. | true | true | true | true | true | 7,353 |
1 | DISCUSSION | 1 | 16 | [
"B16",
"B11"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | For four positions, thymines were found exclusively, while others seemed to accommodate both adenine and thymine. | [
"16",
"11"
] | 113 | 42,416 | 0 | false | For four positions, thymines were found exclusively, while others seemed to accommodate both adenine and thymine. | [] | For four positions, thymines were found exclusively, while others seemed to accommodate both adenine and thymine. | true | true | true | true | true | 7,353 |
1 | DISCUSSION | 1 | 16 | [
"B16",
"B11"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | Depending on the sequence context, adenine or thymine were found more or less frequently. | [
"16",
"11"
] | 89 | 42,417 | 0 | false | Depending on the sequence context, adenine or thymine were found more or less frequently. | [] | Depending on the sequence context, adenine or thymine were found more or less frequently. | true | true | true | true | true | 7,353 |
1 | DISCUSSION | 1 | 16 | [
"B16",
"B11"
] | 20,007,154 | pmid-7596824|pmid-7819208|pmid-9862797|NA|pmid-18954091|NA|NA | No clear rule can be established from the observation of this single target sequence. | [
"16",
"11"
] | 85 | 42,418 | 0 | false | No clear rule can be established from the observation of this single target sequence. | [] | No clear rule can be established from the observation of this single target sequence. | true | true | true | true | true | 7,353 |
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