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 |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
10 | DISCUSSION | 1 | 54 | [
"b54",
"b55"
] | 16,835,309 | pmid-8638105|pmid-12547794 | (54), an extended conformation of the Lac repressor has been proposed (55). | [
"54",
"55"
] | 75 | 3,700 | 1 | false | , an extended conformation of the Lac repressor has been proposed. | [
"54",
"55"
] | , an extended conformation of the Lac repressor has been proposed. | false | false | true | true | false | 617 |
10 | DISCUSSION | 1 | 54 | [
"b54",
"b55"
] | 16,835,309 | pmid-8638105|pmid-12547794 | The rigidity of these conformations and the possibility for the protein to switch between these multiple structural states are fundamental in determining Jm for loop formation. | [
"54",
"55"
] | 176 | 3,701 | 0 | false | The rigidity of these conformations and the possibility for the protein to switch between these multiple structural states are fundamental in determining Jm for loop formation. | [] | The rigidity of these conformations and the possibility for the protein to switch between these multiple structural states are fundamental in determining Jm for loop formation. | true | true | true | true | true | 617 |
10 | DISCUSSION | 1 | 54 | [
"b54",
"b55"
] | 16,835,309 | pmid-8638105|pmid-12547794 | Also, distance and phasing between the operators is a fundamental factor in determining the value of Jm, as already demonstrated for ligase-catalyzed circularization. | [
"54",
"55"
] | 166 | 3,702 | 0 | false | Also, distance and phasing between the operators is a fundamental factor in determining the value of Jm, as already demonstrated for ligase-catalyzed circularization. | [] | Also, distance and phasing between the operators is a fundamental factor in determining the value of Jm, as already demonstrated for ligase-catalyzed circularization. | true | true | true | true | true | 617 |
10 | DISCUSSION | 1 | 54 | [
"b54",
"b55"
] | 16,835,309 | pmid-8638105|pmid-12547794 | The TPM method holds promise to allow a systematic characterization of the dependence of LacI regulation of the Lac operon on each of these components, providing in the near future, a complete picture of the orientation effects and of the protein and DNA mechanics involved in the process. | [
"54",
"55"
] | 289 | 3,703 | 0 | false | The TPM method holds promise to allow a systematic characterization of the dependence of LacI regulation of the Lac operon on each of these components, providing in the near future, a complete picture of the orientation effects and of the protein and DNA mechanics involved in the process. | [] | The TPM method holds promise to allow a systematic characterization of the dependence of LacI regulation of the Lac operon on each of these components, providing in the near future, a complete picture of the orientation effects and of the protein and DNA mechanics involved in the process. | true | true | true | true | true | 617 |
11 | DISCUSSION | 0 | null | null | 16,835,309 | null | Our measurements on the mutants of the hinge region Q60G and Q60 + 1 indicate that alterations in the flexibility and geometry of the hinge lead to significant changes in the kinetics measurable with TPM. | null | 204 | 3,704 | 0 | false | null | null | Our measurements on the mutants of the hinge region Q60G and Q60 + 1 indicate that alterations in the flexibility and geometry of the hinge lead to significant changes in the kinetics measurable with TPM. | true | true | true | true | true | 618 |
11 | DISCUSSION | 0 | null | null | 16,835,309 | null | The association and dissociation rate constants for these mutants have not been measured in standard biochemical assays; however, the data shown in Figure 7b clearly demonstrate the large effects of these mutations on the looped lifetimes, with much smaller effects on the unlooped lifetimes. | null | 292 | 3,705 | 0 | false | null | null | The association and dissociation rate constants for these mutants have not been measured in standard biochemical assays; however, the data shown in Figure 7b clearly demonstrate the large effects of these mutations on the looped lifetimes, with much smaller effects on the unlooped lifetimes. | true | true | true | true | true | 618 |
11 | DISCUSSION | 0 | null | null | 16,835,309 | null | These results lead to the conclusion that the mutations studied cause changes predominantly in the value of the dissociation rate constant. | null | 139 | 3,706 | 0 | false | null | null | These results lead to the conclusion that the mutations studied cause changes predominantly in the value of the dissociation rate constant. | true | true | true | true | true | 618 |
11 | DISCUSSION | 0 | null | null | 16,835,309 | null | As expected, the mutant characterized by the lower equilibrium dissociation constant (Q60G) displays a longer looped average lifetime, whereas the mutant with the higher KD (Q60 + 1) displays a shorter looped average lifetime. | null | 226 | 3,707 | 0 | false | null | null | As expected, the mutant characterized by the lower equilibrium dissociation constant (Q60G) displays a longer looped average lifetime, whereas the mutant with the higher KD (Q60 + 1) displays a shorter looped average lifetime. | true | true | true | true | true | 618 |
11 | DISCUSSION | 0 | null | null | 16,835,309 | null | However, the sensitivity of the protein to DNA strain is not significantly affected by these mutations. | null | 103 | 3,708 | 0 | false | null | null | However, the sensitivity of the protein to DNA strain is not significantly affected by these mutations. | true | true | true | true | true | 618 |
11 | DISCUSSION | 0 | null | null | 16,835,309 | null | It is likely that a role of this kind may be more appropriate for the tetramerization domain, and for the regions of interaction between monomers in the tetramer, which affect the propensity of the protein to take a V-shape, an open shape or other possible conformations responsible for a different sensitivity to strain... | null | 339 | 3,709 | 0 | false | null | null | It is likely that a role of this kind may be more appropriate for the tetramerization domain, and for the regions of interaction between monomers in the tetramer, which affect the propensity of the protein to take a V-shape, an open shape or other possible conformations responsible for a different sensitivity to strain... | true | true | true | true | true | 618 |
12 | DISCUSSION | 0 | null | null | 16,835,309 | null | In conclusion, with regard to DNA bending, our work indicates that the rate of loop formation by Lac repressor depends more strongly than previously expected on the energetics of bending and twisting of DNA. | null | 207 | 3,710 | 0 | false | null | null | In conclusion, with regard to DNA bending, our work indicates that the rate of loop formation by Lac repressor depends more strongly than previously expected on the energetics of bending and twisting of DNA. | true | true | true | true | true | 619 |
12 | DISCUSSION | 0 | null | null | 16,835,309 | null | Therefore, the mechanical and biochemical factors that in vivo modulate these energetics can play a crucial role in the modulation of gene expression regulation at least in the paradigmatic example of the Lac operon. | null | 216 | 3,711 | 0 | false | null | null | Therefore, the mechanical and biochemical factors that in vivo modulate these energetics can play a crucial role in the modulation of gene expression regulation at least in the paradigmatic example of the Lac operon. | true | true | true | true | true | 619 |
12 | DISCUSSION | 0 | null | null | 16,835,309 | null | With regard to the protein flexibility, on the other hand, our results show that the hinge flexibility and geometry have a determinant effect especially on the lifetime of the looped state, demonstrating the interplay of the mechanical properties of partners in this classic example of protein–DNA interacting system. | null | 317 | 3,712 | 0 | false | null | null | With regard to the protein flexibility, on the other hand, our results show that the hinge flexibility and geometry have a determinant effect especially on the lifetime of the looped state, demonstrating the interplay of the mechanical properties of partners in this classic example of protein–DNA interacting system. | true | true | true | true | true | 619 |
13 | DISCUSSION | 0 | null | null | 16,835,309 | null | Future steps aimed at a further characterization of the TPM system will investigate the effect of microspheres of different sizes on TPM measurements. | null | 150 | 3,713 | 0 | false | null | null | Future steps aimed at a further characterization of the TPM system will investigate the effect of microspheres of different sizes on TPM measurements. | true | true | true | true | true | 620 |
13 | DISCUSSION | 0 | null | null | 16,835,309 | null | Also, the measurement of looping and unlooping kinetics of different constructs in which the distances and phasing between operators is varied will provide important additional information. | null | 189 | 3,714 | 0 | false | null | null | Also, the measurement of looping and unlooping kinetics of different constructs in which the distances and phasing between operators is varied will provide important additional information. | true | true | true | true | true | 620 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2 B3 B4",
"B5",
"B6",
"B7",
"B8",
"B9"
] | 17,567,615 | NA|NA|NA|NA|NA|NA|pmid-14575319|pmid-15520792|NA | Biological robustness, a fundamental and ubiquitous phenomenon observed in biological systems, is broadly understood as the ability to maintain stable functioning in the face of various perturbations. | [
"1",
"2–4",
"5",
"6",
"7",
"8",
"9"
] | 200 | 3,715 | 0 | false | Biological robustness, a fundamental and ubiquitous phenomenon observed in biological systems, is broadly understood as the ability to maintain stable functioning in the face of various perturbations. | [] | Biological robustness, a fundamental and ubiquitous phenomenon observed in biological systems, is broadly understood as the ability to maintain stable functioning in the face of various perturbations. | true | true | true | true | true | 621 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2 B3 B4",
"B5",
"B6",
"B7",
"B8",
"B9"
] | 17,567,615 | NA|NA|NA|NA|NA|NA|pmid-14575319|pmid-15520792|NA | Depending on whether the perturbations are inheritable or not, robustness is characterized as genetic (mutational) or environmental robustness (1). | [
"1",
"2–4",
"5",
"6",
"7",
"8",
"9"
] | 147 | 3,716 | 1 | false | Depending on whether the perturbations are inheritable or not, robustness is characterized as genetic (mutational) or environmental robustness. | [
"1"
] | Depending on whether the perturbations are inheritable or not, robustness is characterized as genetic (mutational) or environmental robustness. | true | true | true | true | true | 621 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2 B3 B4",
"B5",
"B6",
"B7",
"B8",
"B9"
] | 17,567,615 | NA|NA|NA|NA|NA|NA|pmid-14575319|pmid-15520792|NA | Genetic robustness describes insensitivity of a phenotype facing genetic mutations, and the insensitivity to environmental factors is called environmental robustness. | [
"1",
"2–4",
"5",
"6",
"7",
"8",
"9"
] | 166 | 3,717 | 0 | false | Genetic robustness describes insensitivity of a phenotype facing genetic mutations, and the insensitivity to environmental factors is called environmental robustness. | [] | Genetic robustness describes insensitivity of a phenotype facing genetic mutations, and the insensitivity to environmental factors is called environmental robustness. | true | true | true | true | true | 621 |
0 | INTRODUCTION | 1 | 2–4 | [
"B1",
"B2 B3 B4",
"B5",
"B6",
"B7",
"B8",
"B9"
] | 17,567,615 | NA|NA|NA|NA|NA|NA|pmid-14575319|pmid-15520792|NA | Biologists have a long-standing interest in biological robustness, going back to Fisher's work on dominance (2–4) and Waddington's developmental canalization research (5,6). | [
"1",
"2–4",
"5",
"6",
"7",
"8",
"9"
] | 173 | 3,718 | 1 | false | Biologists have a long-standing interest in biological robustness, going back to Fisher's work on dominance and Waddington's developmental canalization research. | [
"2–4",
"5,6"
] | Biologists have a long-standing interest in biological robustness, going back to Fisher's work on dominance and Waddington's developmental canalization research. | true | true | true | true | true | 621 |
0 | INTRODUCTION | 1 | 7 | [
"B1",
"B2 B3 B4",
"B5",
"B6",
"B7",
"B8",
"B9"
] | 17,567,615 | NA|NA|NA|NA|NA|NA|pmid-14575319|pmid-15520792|NA | Robustness has become a focus of numerous studies in recent years, and has been found at various levels of biological systems, including gene expression, protein folding, metabolic flux, physiological homeostasis, development and even organism fitness (7). | [
"1",
"2–4",
"5",
"6",
"7",
"8",
"9"
] | 256 | 3,719 | 1 | false | Robustness has become a focus of numerous studies in recent years, and has been found at various levels of biological systems, including gene expression, protein folding, metabolic flux, physiological homeostasis, development and even organism fitness. | [
"7"
] | Robustness has become a focus of numerous studies in recent years, and has been found at various levels of biological systems, including gene expression, protein folding, metabolic flux, physiological homeostasis, development and even organism fitness. | true | true | true | true | true | 621 |
0 | INTRODUCTION | 1 | 8 | [
"B1",
"B2 B3 B4",
"B5",
"B6",
"B7",
"B8",
"B9"
] | 17,567,615 | NA|NA|NA|NA|NA|NA|pmid-14575319|pmid-15520792|NA | Hiroaki Kitano argued that the requirements for robustness and evolvability are similar, since robustness facilitates evolution and evolution favors robust traits (8). | [
"1",
"2–4",
"5",
"6",
"7",
"8",
"9"
] | 167 | 3,720 | 1 | false | Hiroaki Kitano argued that the requirements for robustness and evolvability are similar, since robustness facilitates evolution and evolution favors robust traits. | [
"8"
] | Hiroaki Kitano argued that the requirements for robustness and evolvability are similar, since robustness facilitates evolution and evolution favors robust traits. | true | true | true | true | true | 621 |
0 | INTRODUCTION | 1 | 9 | [
"B1",
"B2 B3 B4",
"B5",
"B6",
"B7",
"B8",
"B9"
] | 17,567,615 | NA|NA|NA|NA|NA|NA|pmid-14575319|pmid-15520792|NA | A proper understanding of the origins of robustness in biological systems will catalyze our understanding of evolution (9). | [
"1",
"2–4",
"5",
"6",
"7",
"8",
"9"
] | 123 | 3,721 | 1 | false | A proper understanding of the origins of robustness in biological systems will catalyze our understanding of evolution. | [
"9"
] | A proper understanding of the origins of robustness in biological systems will catalyze our understanding of evolution. | true | true | true | true | true | 621 |
1 | INTRODUCTION | 1 | 10 | [
"B10",
"B11",
"B12",
"B13",
"B13"
] | 17,567,615 | pmid-10440723|pmid-16679345|pmid-16901984|pmid-16608911|pmid-16608911 | The secondary structure of RNA is a suitable test bed for studying biological robustness. | [
"10",
"11",
"12",
"13",
"13"
] | 89 | 3,722 | 0 | false | The secondary structure of RNA is a suitable test bed for studying biological robustness. | [] | The secondary structure of RNA is a suitable test bed for studying biological robustness. | true | true | true | true | true | 622 |
1 | INTRODUCTION | 1 | 10 | [
"B10",
"B11",
"B12",
"B13",
"B13"
] | 17,567,615 | pmid-10440723|pmid-16679345|pmid-16901984|pmid-16608911|pmid-16608911 | Wagner and Stadler provided evidence that robustness of RNA viruses to mutational changes in secondary structure has evolved (10). | [
"10",
"11",
"12",
"13",
"13"
] | 130 | 3,723 | 1 | false | Wagner and Stadler provided evidence that robustness of RNA viruses to mutational changes in secondary structure has evolved. | [
"10"
] | Wagner and Stadler provided evidence that robustness of RNA viruses to mutational changes in secondary structure has evolved. | true | true | true | true | true | 622 |
1 | INTRODUCTION | 1 | 10 | [
"B10",
"B11",
"B12",
"B13",
"B13"
] | 17,567,615 | pmid-10440723|pmid-16679345|pmid-16901984|pmid-16608911|pmid-16608911 | Mutational robustness has also been found in viroids (11,12). | [
"10",
"11",
"12",
"13",
"13"
] | 61 | 3,724 | 0 | false | Mutational robustness has also been found in viroids. | [
"11,12"
] | Mutational robustness has also been found in viroids. | true | true | true | true | true | 622 |
1 | INTRODUCTION | 1 | 13 | [
"B10",
"B11",
"B12",
"B13",
"B13"
] | 17,567,615 | pmid-10440723|pmid-16679345|pmid-16901984|pmid-16608911|pmid-16608911 | By examining microRNA genes of serveral species, Borenstein and Ruppin (13) recently showed that the structure of miRNA precursor stem-loops exhibits a significantly high level of genetic robustness, compared with random sequences with similar stem-loop structures as native miRNAs which were generated by inverse foldin... | [
"10",
"11",
"12",
"13",
"13"
] | 453 | 3,725 | 1 | false | By examining microRNA genes of serveral species, Borenstein and Ruppin recently showed that the structure of miRNA precursor stem-loops exhibits a significantly high level of genetic robustness, compared with random sequences with similar stem-loop structures as native miRNAs which were generated by inverse folding alg... | [
"13"
] | By examining microRNA genes of serveral species, Borenstein and Ruppin recently showed that the structure of miRNA precursor stem-loops exhibits a significantly high level of genetic robustness, compared with random sequences with similar stem-loop structures as native miRNAs which were generated by inverse folding alg... | true | true | true | true | true | 622 |
1 | INTRODUCTION | 1 | 10 | [
"B10",
"B11",
"B12",
"B13",
"B13"
] | 17,567,615 | pmid-10440723|pmid-16679345|pmid-16901984|pmid-16608911|pmid-16608911 | Furthermore, they demonstrated it was not the by-product of a base composition bias. | [
"10",
"11",
"12",
"13",
"13"
] | 84 | 3,726 | 0 | false | Furthermore, they demonstrated it was not the by-product of a base composition bias. | [] | Furthermore, they demonstrated it was not the by-product of a base composition bias. | true | true | true | true | true | 622 |
1 | INTRODUCTION | 1 | 13 | [
"B10",
"B11",
"B12",
"B13",
"B13"
] | 17,567,615 | pmid-10440723|pmid-16679345|pmid-16901984|pmid-16608911|pmid-16608911 | Their findings suggest that the excess robustness of miRNA stem-loops is the result of direct evolutionary pressure toward increased robustness (13). | [
"10",
"11",
"12",
"13",
"13"
] | 149 | 3,727 | 1 | false | Their findings suggest that the excess robustness of miRNA stem-loops is the result of direct evolutionary pressure toward increased robustness. | [
"13"
] | Their findings suggest that the excess robustness of miRNA stem-loops is the result of direct evolutionary pressure toward increased robustness. | true | true | true | true | true | 622 |
2 | INTRODUCTION | 1 | 13–15 | [
"B13 B14 B15",
"B16"
] | 17,567,615 | pmid-16608911|pmid-16452927|pmid-16248678|pmid-10723034 | Although the mechanisms of robustness have been widely explored (13–15), to date, the evolutionary origins of robustness are still controversial, which is partly due to the difficulty in providing evidence for robustness in natural biological systems (16). | [
"13–15",
"16"
] | 256 | 3,728 | 1 | false | Although the mechanisms of robustness have been widely explored, to date, the evolutionary origins of robustness are still controversial, which is partly due to the difficulty in providing evidence for robustness in natural biological systems. | [
"13–15",
"16"
] | Although the mechanisms of robustness have been widely explored, to date, the evolutionary origins of robustness are still controversial, which is partly due to the difficulty in providing evidence for robustness in natural biological systems. | true | true | true | true | true | 623 |
2 | INTRODUCTION | 1 | 13–15 | [
"B13 B14 B15",
"B16"
] | 17,567,615 | pmid-16608911|pmid-16452927|pmid-16248678|pmid-10723034 | Addressing this challenge, a convenient computational tool for the structural robustness evaluation is strongly needed. | [
"13–15",
"16"
] | 119 | 3,729 | 0 | false | Addressing this challenge, a convenient computational tool for the structural robustness evaluation is strongly needed. | [] | Addressing this challenge, a convenient computational tool for the structural robustness evaluation is strongly needed. | true | true | true | true | true | 623 |
3 | INTRODUCTION | 0 | null | null | 17,567,615 | null | The RNA structural robustness evaluator (RSRE) presented here is a web tool developed for RNA structural robustness evaluation, both for genetic robustness and environmental robustness. | null | 185 | 3,730 | 0 | false | null | null | The RNA structural robustness evaluator (RSRE) presented here is a web tool developed for RNA structural robustness evaluation, both for genetic robustness and environmental robustness. | true | true | true | true | true | 624 |
3 | INTRODUCTION | 0 | null | null | 17,567,615 | null | By using classical RNA structural distance measurement methods, the robustness of a given RNA and its control sequences can be evaluated quantitatively based on a generalized definition of neutrality. | null | 200 | 3,731 | 0 | false | null | null | By using classical RNA structural distance measurement methods, the robustness of a given RNA and its control sequences can be evaluated quantitatively based on a generalized definition of neutrality. | true | true | true | true | true | 624 |
3 | INTRODUCTION | 0 | null | null | 17,567,615 | null | The RSRE web server will finally give statistical significances of the robustness differences between the given RNA and its control sequences. | null | 142 | 3,732 | 0 | false | null | null | The RSRE web server will finally give statistical significances of the robustness differences between the given RNA and its control sequences. | true | true | true | true | true | 624 |
3 | INTRODUCTION | 0 | null | null | 17,567,615 | null | The RSRE will facilitate wide exploration on the origins of robustness and catalyze our understanding of RNA evolution. | null | 119 | 3,733 | 0 | false | null | null | The RSRE will facilitate wide exploration on the origins of robustness and catalyze our understanding of RNA evolution. | true | true | true | true | true | 624 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3"
] | 17,537,815 | NA|pmid-12195017|pmid-14729921 | DNA and RNA oligomers that contain consecutive guanine (G) nucleotides are capable of folding into stable secondary structures such as G-quadruplexes, wherein four Gs are hydrogen bonded together into a roughly square planar array (1). | [
"1",
"2",
"3"
] | 235 | 3,734 | 1 | false | DNA and RNA oligomers that contain consecutive guanine (G) nucleotides are capable of folding into stable secondary structures such as G-quadruplexes, wherein four Gs are hydrogen bonded together into a roughly square planar array. | [
"1"
] | DNA and RNA oligomers that contain consecutive guanine (G) nucleotides are capable of folding into stable secondary structures such as G-quadruplexes, wherein four Gs are hydrogen bonded together into a roughly square planar array. | true | true | true | true | true | 625 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3"
] | 17,537,815 | NA|pmid-12195017|pmid-14729921 | G-quadruplexes are of remarkable stability and have been proposed to be involved in regulation of gene expression. | [
"1",
"2",
"3"
] | 114 | 3,735 | 0 | false | G-quadruplexes are of remarkable stability and have been proposed to be involved in regulation of gene expression. | [] | G-quadruplexes are of remarkable stability and have been proposed to be involved in regulation of gene expression. | true | true | true | true | true | 625 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3"
] | 17,537,815 | NA|pmid-12195017|pmid-14729921 | For example, a DNA G-quadruplex structure formed in the c-myc promoter region functions as a transcriptional repressor element and an RNA G-quadruplex is believed to regulate alternative splicing of the pre-mRNA coding for hTERT, the reverse transcriptase component of the enzyme telomerase (2,3). | [
"1",
"2",
"3"
] | 297 | 3,736 | 0 | false | For example, a DNA G-quadruplex structure formed in the c-myc promoter region functions as a transcriptional repressor element and an RNA G-quadruplex is believed to regulate alternative splicing of the pre-mRNA coding for hTERT, the reverse transcriptase component of the enzyme telomerase. | [
"2,3"
] | For example, a DNA G-quadruplex structure formed in the c-myc promoter region functions as a transcriptional repressor element and an RNA G-quadruplex is believed to regulate alternative splicing of the pre-mRNA coding for hTERT, the reverse transcriptase component of the enzyme telomerase. | true | true | true | true | true | 625 |
1 | INTRODUCTION | 1 | 4 | [
"B4",
"B5",
"B6",
"B7",
"B8"
] | 17,537,815 | pmid-8475087|pmid-12466553|pmid-14500839|pmid-7906414|pmid-15642696 | Human immunodeficiency virus type-1 (HIV-1) contains the 5′A4GA4G6A polypurine tract sequence (PPT) that is conserved in all HIV-1 strains and is present in the coding region of integrase (IN) and nef messenger RNAs. | [
"4",
"5",
"6",
"7",
"8"
] | 216 | 3,737 | 0 | false | Human immunodeficiency virus type-1 (HIV-1) contains the 5′A4GA4G6A polypurine tract sequence (PPT) that is conserved in all HIV-1 strains and is present in the coding region of integrase (IN) and nef messenger RNAs. | [] | Human immunodeficiency virus type-1 (HIV-1) contains the 5′A4GA4G6A polypurine tract sequence (PPT) that is conserved in all HIV-1 strains and is present in the coding region of integrase (IN) and nef messenger RNAs. | true | true | true | true | true | 626 |
1 | INTRODUCTION | 1 | 4 | [
"B4",
"B5",
"B6",
"B7",
"B8"
] | 17,537,815 | pmid-8475087|pmid-12466553|pmid-14500839|pmid-7906414|pmid-15642696 | G-quadruplexes have been implicated in HIV-1 RNA dimerization (4) and recently were shown to occur in a reverse transcription intermediate, namely between the overlapping strands of the HIV-1 central DNA flap (5). | [
"4",
"5",
"6",
"7",
"8"
] | 213 | 3,738 | 1 | false | G-quadruplexes have been implicated in HIV-1 RNA dimerization and recently were shown to occur in a reverse transcription intermediate, namely between the overlapping strands of the HIV-1 central DNA flap. | [
"4",
"5"
] | G-quadruplexes have been implicated in HIV-1 RNA dimerization and recently were shown to occur in a reverse transcription intermediate, namely between the overlapping strands of the HIV-1 central DNA flap. | true | true | true | true | true | 626 |
1 | INTRODUCTION | 1 | 4 | [
"B4",
"B5",
"B6",
"B7",
"B8"
] | 17,537,815 | pmid-8475087|pmid-12466553|pmid-14500839|pmid-7906414|pmid-15642696 | It has been shown that HIV-1 nucleocapsid (NCp) and gp 120 envelope protein exhibit a high affinity for several tetramolecular quadruplexes (6,7). | [
"4",
"5",
"6",
"7",
"8"
] | 146 | 3,739 | 0 | false | It has been shown that HIV-1 nucleocapsid (NCp) and gp 120 envelope protein exhibit a high affinity for several tetramolecular quadruplexes. | [
"6,7"
] | It has been shown that HIV-1 nucleocapsid (NCp) and gp 120 envelope protein exhibit a high affinity for several tetramolecular quadruplexes. | true | true | true | true | true | 626 |
1 | INTRODUCTION | 1 | 4 | [
"B4",
"B5",
"B6",
"B7",
"B8"
] | 17,537,815 | pmid-8475087|pmid-12466553|pmid-14500839|pmid-7906414|pmid-15642696 | RNA quadruplexes are more stable than their DNA counterparts and in most cases no dissociation is experimentally observed for G tracts involving five guanine quartets ( | [
"4",
"5",
"6",
"7",
"8"
] | 168 | 3,740 | 0 | false | RNA quadruplexes are more stable than their DNA counterparts and in most cases no dissociation is experimentally observed for G tracts involving five guanine quartets ( | [] | RNA quadruplexes are more stable than their DNA counterparts and in most cases no dissociation is experimentally observed for G tracts involving five guanine quartets ( | true | true | false | true | false | 626 |
2 | INTRODUCTION | 1 | 9–11 | [
"B9 B10 B11",
"B9 B10 B11",
"B11 B12 B13 B14",
"B15"
] | 17,537,815 | pmid-1962210|pmid-10807005|pmid-7692304|pmid-1962210|pmid-10807005|pmid-7692304|pmid-7692304|pmid-11926811|pmid-11425312|pmid-12426578|pmid-15926825 | In the present study, we have used peptide nucleic acid (PNA) targeted to the folded PPT sequence of HIV-1 messenger RNA. | [
"9–11",
"9–11",
"11–14",
"15"
] | 121 | 3,741 | 0 | false | In the present study, we have used peptide nucleic acid (PNA) targeted to the folded PPT sequence of HIV-1 messenger RNA. | [] | In the present study, we have used peptide nucleic acid (PNA) targeted to the folded PPT sequence of HIV-1 messenger RNA. | true | true | true | true | true | 627 |
2 | INTRODUCTION | 1 | 9–11 | [
"B9 B10 B11",
"B9 B10 B11",
"B11 B12 B13 B14",
"B15"
] | 17,537,815 | pmid-1962210|pmid-10807005|pmid-7692304|pmid-1962210|pmid-10807005|pmid-7692304|pmid-7692304|pmid-11926811|pmid-11425312|pmid-12426578|pmid-15926825 | PNAs are DNA analogues in which the N-(2-aminoethyl) glycine units replace the deoxyribose phosphate backbone (9–11). | [
"9–11",
"9–11",
"11–14",
"15"
] | 117 | 3,742 | 1 | false | PNAs are DNA analogues in which the N-(2-aminoethyl) glycine units replace the deoxyribose phosphate backbone. | [
"9–11"
] | PNAs are DNA analogues in which the N-(2-aminoethyl) glycine units replace the deoxyribose phosphate backbone. | true | true | true | true | true | 627 |
2 | INTRODUCTION | 1 | 9–11 | [
"B9 B10 B11",
"B9 B10 B11",
"B11 B12 B13 B14",
"B15"
] | 17,537,815 | pmid-1962210|pmid-10807005|pmid-7692304|pmid-1962210|pmid-10807005|pmid-7692304|pmid-7692304|pmid-11926811|pmid-11425312|pmid-12426578|pmid-15926825 | PNAs are capable of sequence specific recognition of DNA and RNA, obeying the Watson–Crick hydrogen-bonding or/and Hoogsteen schemes (9–11). | [
"9–11",
"9–11",
"11–14",
"15"
] | 140 | 3,743 | 1 | false | PNAs are capable of sequence specific recognition of DNA and RNA, obeying the Watson–Crick hydrogen-bonding or/and Hoogsteen schemes. | [
"9–11"
] | PNAs are capable of sequence specific recognition of DNA and RNA, obeying the Watson–Crick hydrogen-bonding or/and Hoogsteen schemes. | true | true | true | true | true | 627 |
2 | INTRODUCTION | 1 | 11–14 | [
"B9 B10 B11",
"B9 B10 B11",
"B11 B12 B13 B14",
"B15"
] | 17,537,815 | pmid-1962210|pmid-10807005|pmid-7692304|pmid-1962210|pmid-10807005|pmid-7692304|pmid-7692304|pmid-11926811|pmid-11425312|pmid-12426578|pmid-15926825 | The neutral amide backbone of PNAs increases their binding affinity to DNA and RNA and the hybrid complexes exhibit high thermal stability (11–14). | [
"9–11",
"9–11",
"11–14",
"15"
] | 147 | 3,744 | 1 | false | The neutral amide backbone of PNAs increases their binding affinity to DNA and RNA and the hybrid complexes exhibit high thermal stability. | [
"11–14"
] | The neutral amide backbone of PNAs increases their binding affinity to DNA and RNA and the hybrid complexes exhibit high thermal stability. | true | true | true | true | true | 627 |
2 | INTRODUCTION | 1 | 15 | [
"B9 B10 B11",
"B9 B10 B11",
"B11 B12 B13 B14",
"B15"
] | 17,537,815 | pmid-1962210|pmid-10807005|pmid-7692304|pmid-1962210|pmid-10807005|pmid-7692304|pmid-7692304|pmid-11926811|pmid-11425312|pmid-12426578|pmid-15926825 | Short PNA probes were shown to be able to disturb and finally to bind folded RNA structures used as target sequences (15). | [
"9–11",
"9–11",
"11–14",
"15"
] | 122 | 3,745 | 1 | false | Short PNA probes were shown to be able to disturb and finally to bind folded RNA structures used as target sequences. | [
"15"
] | Short PNA probes were shown to be able to disturb and finally to bind folded RNA structures used as target sequences. | true | true | true | true | true | 627 |
2 | INTRODUCTION | 1 | 9–11 | [
"B9 B10 B11",
"B9 B10 B11",
"B11 B12 B13 B14",
"B15"
] | 17,537,815 | pmid-1962210|pmid-10807005|pmid-7692304|pmid-1962210|pmid-10807005|pmid-7692304|pmid-7692304|pmid-11926811|pmid-11425312|pmid-12426578|pmid-15926825 | Here, we show that pyrimidine PNAs overcome kinetic and thermodynamic obstacles and succeed to hybridize to folded PPT sequence and finally to unfold it. | [
"9–11",
"9–11",
"11–14",
"15"
] | 153 | 3,746 | 0 | false | Here, we show that pyrimidine PNAs overcome kinetic and thermodynamic obstacles and succeed to hybridize to folded PPT sequence and finally to unfold it. | [] | Here, we show that pyrimidine PNAs overcome kinetic and thermodynamic obstacles and succeed to hybridize to folded PPT sequence and finally to unfold it. | true | true | true | true | true | 627 |
2 | INTRODUCTION | 1 | 9–11 | [
"B9 B10 B11",
"B9 B10 B11",
"B11 B12 B13 B14",
"B15"
] | 17,537,815 | pmid-1962210|pmid-10807005|pmid-7692304|pmid-1962210|pmid-10807005|pmid-7692304|pmid-7692304|pmid-11926811|pmid-11425312|pmid-12426578|pmid-15926825 | We have examined whether complexes formed with PNAs on the PPT sequence, likely triplex and duplex structures, affect RNA translation elongation in vitro. | [
"9–11",
"9–11",
"11–14",
"15"
] | 154 | 3,747 | 0 | false | We have examined whether complexes formed with PNAs on the PPT sequence, likely triplex and duplex structures, affect RNA translation elongation in vitro. | [] | We have examined whether complexes formed with PNAs on the PPT sequence, likely triplex and duplex structures, affect RNA translation elongation in vitro. | true | true | true | true | true | 627 |
2 | INTRODUCTION | 1 | 9–11 | [
"B9 B10 B11",
"B9 B10 B11",
"B11 B12 B13 B14",
"B15"
] | 17,537,815 | pmid-1962210|pmid-10807005|pmid-7692304|pmid-1962210|pmid-10807005|pmid-7692304|pmid-7692304|pmid-11926811|pmid-11425312|pmid-12426578|pmid-15926825 | The cellular antisense activity of the best inhibitors in vitro was tested in streptolysin-O (SLO) permeabilized cells stably transformed with two reporter genes, the firefly luciferase (luc) and GFP that contain upstream of the reporter genes either the wild-type HIV-1 PPT target sequence, or a mutated HIV-2 PPT seque... | [
"9–11",
"9–11",
"11–14",
"15"
] | 338 | 3,748 | 0 | false | The cellular antisense activity of the best inhibitors in vitro was tested in streptolysin-O (SLO) permeabilized cells stably transformed with two reporter genes, the firefly luciferase (luc) and GFP that contain upstream of the reporter genes either the wild-type HIV-1 PPT target sequence, or a mutated HIV-2 PPT seque... | [] | The cellular antisense activity of the best inhibitors in vitro was tested in streptolysin-O (SLO) permeabilized cells stably transformed with two reporter genes, the firefly luciferase (luc) and GFP that contain upstream of the reporter genes either the wild-type HIV-1 PPT target sequence, or a mutated HIV-2 PPT seque... | true | true | true | true | true | 627 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2"
] | 17,517,783 | pmid-15601259|NA | Bilipid membranes divide eukaryotic cells into various types of organelles containing characteristic proteins and performing specialized functions. | [
"1",
"2"
] | 147 | 3,749 | 0 | false | Bilipid membranes divide eukaryotic cells into various types of organelles containing characteristic proteins and performing specialized functions. | [] | Bilipid membranes divide eukaryotic cells into various types of organelles containing characteristic proteins and performing specialized functions. | true | true | true | true | true | 628 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2"
] | 17,517,783 | pmid-15601259|NA | Thus, subcellular localization information gives an important clue to a protein's function. | [
"1",
"2"
] | 91 | 3,750 | 0 | false | Thus, subcellular localization information gives an important clue to a protein's function. | [] | Thus, subcellular localization information gives an important clue to a protein's function. | true | true | true | true | true | 628 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2"
] | 17,517,783 | pmid-15601259|NA | Although localization signals in mRNA appear to play some role (1), the main determinant of a protein's localization residues in the protein's amino acid sequence. | [
"1",
"2"
] | 163 | 3,751 | 1 | false | Although localization signals in mRNA appear to play some role, the main determinant of a protein's localization residues in the protein's amino acid sequence. | [
"1"
] | Although localization signals in mRNA appear to play some role, the main determinant of a protein's localization residues in the protein's amino acid sequence. | true | true | true | true | true | 628 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2"
] | 17,517,783 | pmid-15601259|NA | (We recommend wikipedia.org/wiki/Protein_targeting for a brief overview and Alberts et al. | [
"1",
"2"
] | 90 | 3,752 | 0 | false | (We recommend wikipedia.org/wiki/Protein_targeting for a brief overview and Alberts et al. | [] | (We recommend wikipedia.org/wiki/Protein_targeting for a brief overview and Alberts et al. | false | false | true | true | false | 628 |
0 | INTRODUCTION | 1 | 2 | [
"B1",
"B2"
] | 17,517,783 | pmid-15601259|NA | (2) for a textbook description.) | [
"1",
"2"
] | 32 | 3,753 | 1 | false | for a textbook description.) | [
"2"
] | for a textbook description.) | false | true | false | true | false | 628 |
1 | INTRODUCTION | 1 | 3 | [
"B3",
"B4",
"B5",
"B6",
"B7",
"B8"
] | 17,517,783 | pmid-15608167|pmid-10802651|pmid-11914276|pmid-14562095|pmid-15208715|pmid-16615899 | Numerous experiments to determine protein localization have been performed to date. | [
"3",
"4",
"5",
"6",
"7",
"8"
] | 83 | 3,754 | 0 | false | Numerous experiments to determine protein localization have been performed to date. | [] | Numerous experiments to determine protein localization have been performed to date. | true | true | true | true | true | 629 |
1 | INTRODUCTION | 1 | 3 | [
"B3",
"B4",
"B5",
"B6",
"B7",
"B8"
] | 17,517,783 | pmid-15608167|pmid-10802651|pmid-11914276|pmid-14562095|pmid-15208715|pmid-16615899 | These can broadly be classified as: small-scale experiments—the results of which continue to accumulate in public databases, such as UniProt (3) and Gene Ontology (4); and large-scale experiments using epitope (5) or green fluorescent protein (GFP) (6) tagging, or by separation of organelles by centrifugation combined ... | [
"3",
"4",
"5",
"6",
"7",
"8"
] | 375 | 3,755 | 1 | false | These can broadly be classified as: small-scale experiments—the results of which continue to accumulate in public databases, such as UniProt and Gene Ontology ; and large-scale experiments using epitope or green fluorescent protein (GFP) tagging, or by separation of organelles by centrifugation combined with protein id... | [
"3",
"4",
"5",
"6",
"7,8"
] | These can broadly be classified as: small-scale experiments—the results of which continue to accumulate in public databases, such as UniProt and Gene Ontology ; and large-scale experiments using epitope or green fluorescent protein (GFP) tagging, or by separation of organelles by centrifugation combined with protein id... | true | true | true | true | true | 629 |
2 | INTRODUCTION | 1 | 6–9 | [
"B6 B7 B8 B9"
] | 17,517,783 | pmid-14562095|pmid-15208715|pmid-16615899|NA | Although they provide invaluable information, the coverage of experimental data is only high for model organisms, particularly yeast. | [
"6–9"
] | 133 | 3,756 | 0 | false | Although they provide invaluable information, the coverage of experimental data is only high for model organisms, particularly yeast. | [] | Although they provide invaluable information, the coverage of experimental data is only high for model organisms, particularly yeast. | true | true | true | true | true | 630 |
2 | INTRODUCTION | 1 | 6–9 | [
"B6 B7 B8 B9"
] | 17,517,783 | pmid-14562095|pmid-15208715|pmid-16615899|NA | Moreover, the agreement amongst large-scale experimental data is only 75–80% (6–9). | [
"6–9"
] | 83 | 3,757 | 1 | false | Moreover, the agreement amongst large-scale experimental data is only 75–80%. | [
"6–9"
] | Moreover, the agreement amongst large-scale experimental data is only 75–80%. | true | true | true | true | true | 630 |
2 | INTRODUCTION | 1 | 6–9 | [
"B6 B7 B8 B9"
] | 17,517,783 | pmid-14562095|pmid-15208715|pmid-16615899|NA | Thus, computational prediction of localization from amino acid remains an important topic. | [
"6–9"
] | 90 | 3,758 | 0 | false | Thus, computational prediction of localization from amino acid remains an important topic. | [] | Thus, computational prediction of localization from amino acid remains an important topic. | true | true | true | true | true | 630 |
3 | INTRODUCTION | 1 | 10 | [
"B10",
"B11",
"B12"
] | 17,517,783 | pmid-12511065|NA|pmid-17254308 | Numerous computational methods are available | [
"10",
"11",
"12"
] | 44 | 3,759 | 0 | false | Numerous computational methods are available | [] | Numerous computational methods are available | true | true | false | true | false | 631 |
3 | INTRODUCTION | 1 | 10 | [
"B10",
"B11",
"B12"
] | 17,517,783 | pmid-12511065|NA|pmid-17254308 | [reviewed in (10,11)]. | [
"10",
"11",
"12"
] | 22 | 3,760 | 0 | false | . | [
"reviewed in (10,11)"
] | . | false | false | true | true | false | 631 |
3 | INTRODUCTION | 1 | 10 | [
"B10",
"B11",
"B12"
] | 17,517,783 | pmid-12511065|NA|pmid-17254308 | Some (including WoLF PSORT) have recently been benchmarked by Sprenger et al. | [
"10",
"11",
"12"
] | 77 | 3,761 | 0 | false | Some (including WoLF PSORT) have recently been benchmarked by Sprenger et al. | [] | Some (including WoLF PSORT) have recently been benchmarked by Sprenger et al. | true | true | true | true | true | 631 |
3 | INTRODUCTION | 1 | 12 | [
"B10",
"B11",
"B12"
] | 17,517,783 | pmid-12511065|NA|pmid-17254308 | (12), who found the computational methods to be useful for sites, such as the nucleus, for which many training examples can be easily obtained from UniProt (which is the source of most or all of the training data for most prediction methods—including WoLF PSORT). | [
"10",
"11",
"12"
] | 263 | 3,762 | 1 | false | , who found the computational methods to be useful for sites, such as the nucleus, for which many training examples can be easily obtained from UniProt (which is the source of most or all of the training data for most prediction methods—including WoLF PSORT). | [
"12"
] | , who found the computational methods to be useful for sites, such as the nucleus, for which many training examples can be easily obtained from UniProt (which is the source of most or all of the training data for most prediction methods—including WoLF PSORT). | false | false | true | true | false | 631 |
3 | INTRODUCTION | 1 | 10 | [
"B10",
"B11",
"B12"
] | 17,517,783 | pmid-12511065|NA|pmid-17254308 | The different methods they benchmarked were found to have different strengths. | [
"10",
"11",
"12"
] | 78 | 3,763 | 0 | false | The different methods they benchmarked were found to have different strengths. | [] | The different methods they benchmarked were found to have different strengths. | true | true | true | true | true | 631 |
3 | INTRODUCTION | 1 | 10 | [
"B10",
"B11",
"B12"
] | 17,517,783 | pmid-12511065|NA|pmid-17254308 | Here, we describe the public server for our WoLF PSORT method. | [
"10",
"11",
"12"
] | 62 | 3,764 | 0 | false | Here, we describe the public server for our WoLF PSORT method. | [] | Here, we describe the public server for our WoLF PSORT method. | true | true | true | true | true | 631 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b3",
"b4",
"b5",
"b6"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-4927945|pmid-2843517|pmid-186775|pmid-2170028|pmid-15535862|pmid-17009874 | In prokaryotes, DNA is maintained in negatively supercoiled state, which is essential for various cellular processes. | [
"1",
"2",
"3",
"4",
"5",
"6"
] | 117 | 3,765 | 0 | false | In prokaryotes, DNA is maintained in negatively supercoiled state, which is essential for various cellular processes. | [] | In prokaryotes, DNA is maintained in negatively supercoiled state, which is essential for various cellular processes. | true | true | true | true | true | 632 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b3",
"b4",
"b5",
"b6"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-4927945|pmid-2843517|pmid-186775|pmid-2170028|pmid-15535862|pmid-17009874 | DNA topoisomerases are responsible for controlling the superhelicity of DNA (1,2). | [
"1",
"2",
"3",
"4",
"5",
"6"
] | 82 | 3,766 | 0 | false | DNA topoisomerases are responsible for controlling the superhelicity of DNA. | [
"1,2"
] | DNA topoisomerases are responsible for controlling the superhelicity of DNA. | true | true | true | true | true | 632 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b3",
"b4",
"b5",
"b6"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-4927945|pmid-2843517|pmid-186775|pmid-2170028|pmid-15535862|pmid-17009874 | Thus, topoisomerases play critical roles in many aspects of DNA transaction, as well as in the maintenance of chromosome structure. | [
"1",
"2",
"3",
"4",
"5",
"6"
] | 131 | 3,767 | 0 | false | Thus, topoisomerases play critical roles in many aspects of DNA transaction, as well as in the maintenance of chromosome structure. | [] | Thus, topoisomerases play critical roles in many aspects of DNA transaction, as well as in the maintenance of chromosome structure. | true | true | true | true | true | 632 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b3",
"b4",
"b5",
"b6"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-4927945|pmid-2843517|pmid-186775|pmid-2170028|pmid-15535862|pmid-17009874 | There are four topoisomerases in Escherichia coli. | [
"1",
"2",
"3",
"4",
"5",
"6"
] | 50 | 3,768 | 0 | false | There are four topoisomerases in Escherichia coli. | [] | There are four topoisomerases in Escherichia coli. | true | true | true | true | true | 632 |
0 | INTRODUCTION | 1 | 3 | [
"b1",
"b2",
"b3",
"b4",
"b5",
"b6"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-4927945|pmid-2843517|pmid-186775|pmid-2170028|pmid-15535862|pmid-17009874 | Topoisomerase I (Topo I) (3) and topoisomerase III (Topo III) (4) are type IA enzymes; DNA gyrase (5) and topoisomerase IV (Topo IV) (6) are type IIA enzymes. | [
"1",
"2",
"3",
"4",
"5",
"6"
] | 158 | 3,769 | 1 | false | Topoisomerase I (Topo I) and topoisomerase III (Topo III) are type IA enzymes; DNA gyrase and topoisomerase IV (Topo IV) are type IIA enzymes. | [
"3",
"4",
"5",
"6"
] | Topoisomerase I (Topo I) and topoisomerase III (Topo III) are type IA enzymes; DNA gyrase and topoisomerase IV (Topo IV) are type IIA enzymes. | true | true | true | true | true | 632 |
1 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b1",
"b2",
"b7",
"b8"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-8811192|pmid-11395412|pmid-7510701|pmid-8621552|pmid-15535862|pmid-8980760|pmid-15535862|pmid-7968526 | Type IA enzymes are monomeric proteins that can relax negative supercoils, and catenate and decatenate nicked or gapped, double-stranded circular DNA molecules (1,2). | [
"1",
"2",
"1",
"2",
"7",
"8"
] | 166 | 3,770 | 0 | false | Type IA enzymes are monomeric proteins that can relax negative supercoils, and catenate and decatenate nicked or gapped, double-stranded circular DNA molecules. | [
"1,2"
] | Type IA enzymes are monomeric proteins that can relax negative supercoils, and catenate and decatenate nicked or gapped, double-stranded circular DNA molecules. | true | true | true | true | true | 633 |
1 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b1",
"b2",
"b7",
"b8"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-8811192|pmid-11395412|pmid-7510701|pmid-8621552|pmid-15535862|pmid-8980760|pmid-15535862|pmid-7968526 | These enzymes require a single-stranded region to bind to DNA. | [
"1",
"2",
"1",
"2",
"7",
"8"
] | 62 | 3,771 | 0 | false | These enzymes require a single-stranded region to bind to DNA. | [] | These enzymes require a single-stranded region to bind to DNA. | true | true | true | true | true | 633 |
1 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b1",
"b2",
"b7",
"b8"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-8811192|pmid-11395412|pmid-7510701|pmid-8621552|pmid-15535862|pmid-8980760|pmid-15535862|pmid-7968526 | Topo I is the prototype of type IA protein family (1,2). | [
"1",
"2",
"1",
"2",
"7",
"8"
] | 56 | 3,772 | 0 | false | Topo I is the prototype of type IA protein family. | [
"1,2"
] | Topo I is the prototype of type IA protein family. | true | true | true | true | true | 633 |
1 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b1",
"b2",
"b7",
"b8"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-8811192|pmid-11395412|pmid-7510701|pmid-8621552|pmid-15535862|pmid-8980760|pmid-15535862|pmid-7968526 | The N-terminal 582 amino acid residues correspond to the catalytic domain containing the active site Tyr at position 319. | [
"1",
"2",
"1",
"2",
"7",
"8"
] | 121 | 3,773 | 0 | false | The N-terminal 582 amino acid residues correspond to the catalytic domain containing the active site Tyr at position 319. | [] | The N-terminal 582 amino acid residues correspond to the catalytic domain containing the active site Tyr at position 319. | true | true | true | true | true | 633 |
1 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b1",
"b2",
"b7",
"b8"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-8811192|pmid-11395412|pmid-7510701|pmid-8621552|pmid-15535862|pmid-8980760|pmid-15535862|pmid-7968526 | The catalytic domain is followed by a non-homologous carboxyl-terminal domain. | [
"1",
"2",
"1",
"2",
"7",
"8"
] | 78 | 3,774 | 0 | false | The catalytic domain is followed by a non-homologous carboxyl-terminal domain. | [] | The catalytic domain is followed by a non-homologous carboxyl-terminal domain. | true | true | true | true | true | 633 |
1 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b1",
"b2",
"b7",
"b8"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-8811192|pmid-11395412|pmid-7510701|pmid-8621552|pmid-15535862|pmid-8980760|pmid-15535862|pmid-7968526 | The non-homologous carboxyl-terminal domains are involved in determining the distinct substrate specificities and catalytic properties of these enzymes (7,8). | [
"1",
"2",
"1",
"2",
"7",
"8"
] | 158 | 3,775 | 0 | false | The non-homologous carboxyl-terminal domains are involved in determining the distinct substrate specificities and catalytic properties of these enzymes. | [
"7,8"
] | The non-homologous carboxyl-terminal domains are involved in determining the distinct substrate specificities and catalytic properties of these enzymes. | true | true | true | true | true | 633 |
2 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b1",
"b2",
"b9"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-8811192|pmid-11395412|pmid-1330320|pmid-17009874 | Type IIA topoisomerases alter the linking number in steps of two by breaking both strands, passing another segment of the helix through the break and then resealing the broken strands (1,2). | [
"1",
"2",
"1",
"2",
"9"
] | 190 | 3,776 | 0 | false | Type IIA topoisomerases alter the linking number in steps of two by breaking both strands, passing another segment of the helix through the break and then resealing the broken strands. | [
"1,2"
] | Type IIA topoisomerases alter the linking number in steps of two by breaking both strands, passing another segment of the helix through the break and then resealing the broken strands. | true | true | true | true | true | 634 |
2 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b1",
"b2",
"b9"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-8811192|pmid-11395412|pmid-1330320|pmid-17009874 | DNA gyrase and Topo IV consist of GyrA and GyrB subunits and ParC and ParE subunits, respectively. | [
"1",
"2",
"1",
"2",
"9"
] | 98 | 3,777 | 0 | false | DNA gyrase and Topo IV consist of GyrA and GyrB subunits and ParC and ParE subunits, respectively. | [] | DNA gyrase and Topo IV consist of GyrA and GyrB subunits and ParC and ParE subunits, respectively. | true | true | true | true | true | 634 |
2 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b1",
"b2",
"b9"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-8811192|pmid-11395412|pmid-1330320|pmid-17009874 | GyrA and ParC subunits catalyze strand-breakage and reunion reactions, whereas GyrB and ParE subunits hydrolyze ATP. | [
"1",
"2",
"1",
"2",
"9"
] | 116 | 3,778 | 0 | false | GyrA and ParC subunits catalyze strand-breakage and reunion reactions, whereas GyrB and ParE subunits hydrolyze ATP. | [] | GyrA and ParC subunits catalyze strand-breakage and reunion reactions, whereas GyrB and ParE subunits hydrolyze ATP. | true | true | true | true | true | 634 |
2 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b1",
"b2",
"b9"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-8811192|pmid-11395412|pmid-1330320|pmid-17009874 | The active forms of gyrase and Topo IV are an α2β2 tetramer; these topoisomerases bind double-stranded DNA. | [
"1",
"2",
"1",
"2",
"9"
] | 107 | 3,779 | 0 | false | The active forms of gyrase and Topo IV are an α2β2 tetramer; these topoisomerases bind double-stranded DNA. | [] | The active forms of gyrase and Topo IV are an α2β2 tetramer; these topoisomerases bind double-stranded DNA. | true | true | true | true | true | 634 |
2 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b1",
"b2",
"b9"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-8811192|pmid-11395412|pmid-1330320|pmid-17009874 | Despite the high degree of similarity between gyrase and Topo IV, these two enzymes display distinct cellular functions. | [
"1",
"2",
"1",
"2",
"9"
] | 120 | 3,780 | 0 | false | Despite the high degree of similarity between gyrase and Topo IV, these two enzymes display distinct cellular functions. | [] | Despite the high degree of similarity between gyrase and Topo IV, these two enzymes display distinct cellular functions. | true | true | true | true | true | 634 |
2 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b1",
"b2",
"b9"
] | 17,151,069 | pmid-8811192|pmid-11395412|pmid-8811192|pmid-11395412|pmid-1330320|pmid-17009874 | Gyrase is the only topoisomerase that introduces negative supercoils into DNA, whereas Topo IV is responsible for decatenation of replicating DNA molecules (1,2,9). | [
"1",
"2",
"1",
"2",
"9"
] | 164 | 3,781 | 0 | false | Gyrase is the only topoisomerase that introduces negative supercoils into DNA, whereas Topo IV is responsible for decatenation of replicating DNA molecules. | [
"1,2,9"
] | Gyrase is the only topoisomerase that introduces negative supercoils into DNA, whereas Topo IV is responsible for decatenation of replicating DNA molecules. | true | true | true | true | true | 634 |
3 | INTRODUCTION | 1 | 10 | [
"b10",
"b11",
"b11",
"b11",
"b11",
"b12",
"b13",
"b17",
"b14",
"b15",
"b18",
"b19",
"b21",
"b22",
"b23",
"b21",
"b24"
] | 17,151,069 | pmid-9187054|NA|NA|NA|NA|pmid-10716434|pmid-3900072|pmid-3058986|pmid-2188972|pmid-9048946|pmid-11574550|pmid-7050394|pmid-1522597|pmid-7050731|pmid-2538631|pmid-1522597|pmid-2693735|pmid-17009874 | E.coli RecA has DNA-dependent ATPase activity and ATP-dependent DNA binding activity (10,11). | [
"10",
"11",
"11",
"11",
"11",
"12",
"13",
"17",
"14",
"15",
"18",
"19",
"21",
"22",
"23",
"21",
"24"
] | 93 | 3,782 | 0 | false | E.coli RecA has DNA-dependent ATPase activity and ATP-dependent DNA binding activity. | [
"10,11"
] | E.coli RecA has DNA-dependent ATPase activity and ATP-dependent DNA binding activity. | true | true | true | true | true | 635 |
3 | INTRODUCTION | 1 | 10 | [
"b10",
"b11",
"b11",
"b11",
"b11",
"b12",
"b13",
"b17",
"b14",
"b15",
"b18",
"b19",
"b21",
"b22",
"b23",
"b21",
"b24"
] | 17,151,069 | pmid-9187054|NA|NA|NA|NA|pmid-10716434|pmid-3900072|pmid-3058986|pmid-2188972|pmid-9048946|pmid-11574550|pmid-7050394|pmid-1522597|pmid-7050731|pmid-2538631|pmid-1522597|pmid-2693735|pmid-17009874 | RecA proteins from various bacteria are highly conserved and homologues have been identified in eukaryotes as well. | [
"10",
"11",
"11",
"11",
"11",
"12",
"13",
"17",
"14",
"15",
"18",
"19",
"21",
"22",
"23",
"21",
"24"
] | 115 | 3,783 | 0 | false | RecA proteins from various bacteria are highly conserved and homologues have been identified in eukaryotes as well. | [] | RecA proteins from various bacteria are highly conserved and homologues have been identified in eukaryotes as well. | true | true | true | true | true | 635 |
3 | INTRODUCTION | 1 | 11 | [
"b10",
"b11",
"b11",
"b11",
"b11",
"b12",
"b13",
"b17",
"b14",
"b15",
"b18",
"b19",
"b21",
"b22",
"b23",
"b21",
"b24"
] | 17,151,069 | pmid-9187054|NA|NA|NA|NA|pmid-10716434|pmid-3900072|pmid-3058986|pmid-2188972|pmid-9048946|pmid-11574550|pmid-7050394|pmid-1522597|pmid-7050731|pmid-2538631|pmid-1522597|pmid-2693735|pmid-17009874 | RecA catalyzes strand-exchange reactions and thus plays a central role in the homologous recombination process (11). | [
"10",
"11",
"11",
"11",
"11",
"12",
"13",
"17",
"14",
"15",
"18",
"19",
"21",
"22",
"23",
"21",
"24"
] | 116 | 3,784 | 1 | false | RecA catalyzes strand-exchange reactions and thus plays a central role in the homologous recombination process. | [
"11"
] | RecA catalyzes strand-exchange reactions and thus plays a central role in the homologous recombination process. | true | true | true | true | true | 635 |
3 | INTRODUCTION | 1 | 11 | [
"b10",
"b11",
"b11",
"b11",
"b11",
"b12",
"b13",
"b17",
"b14",
"b15",
"b18",
"b19",
"b21",
"b22",
"b23",
"b21",
"b24"
] | 17,151,069 | pmid-9187054|NA|NA|NA|NA|pmid-10716434|pmid-3900072|pmid-3058986|pmid-2188972|pmid-9048946|pmid-11574550|pmid-7050394|pmid-1522597|pmid-7050731|pmid-2538631|pmid-1522597|pmid-2693735|pmid-17009874 | In addition, RecA, when activated, causes proteolytic cleavage of the LexA repressor to trigger the induction of the SOS response (11). | [
"10",
"11",
"11",
"11",
"11",
"12",
"13",
"17",
"14",
"15",
"18",
"19",
"21",
"22",
"23",
"21",
"24"
] | 135 | 3,785 | 1 | false | In addition, RecA, when activated, causes proteolytic cleavage of the LexA repressor to trigger the induction of the SOS response. | [
"11"
] | In addition, RecA, when activated, causes proteolytic cleavage of the LexA repressor to trigger the induction of the SOS response. | true | true | true | true | true | 635 |
3 | INTRODUCTION | 1 | 10 | [
"b10",
"b11",
"b11",
"b11",
"b11",
"b12",
"b13",
"b17",
"b14",
"b15",
"b18",
"b19",
"b21",
"b22",
"b23",
"b21",
"b24"
] | 17,151,069 | pmid-9187054|NA|NA|NA|NA|pmid-10716434|pmid-3900072|pmid-3058986|pmid-2188972|pmid-9048946|pmid-11574550|pmid-7050394|pmid-1522597|pmid-7050731|pmid-2538631|pmid-1522597|pmid-2693735|pmid-17009874 | RecA is also required for mutagenic lesion bypass synthesis during the SOS response and is involved in replication restart (11,12). | [
"10",
"11",
"11",
"11",
"11",
"12",
"13",
"17",
"14",
"15",
"18",
"19",
"21",
"22",
"23",
"21",
"24"
] | 131 | 3,786 | 0 | false | RecA is also required for mutagenic lesion bypass synthesis during the SOS response and is involved in replication restart. | [
"11,12"
] | RecA is also required for mutagenic lesion bypass synthesis during the SOS response and is involved in replication restart. | true | true | true | true | true | 635 |
3 | INTRODUCTION | 1 | 10 | [
"b10",
"b11",
"b11",
"b11",
"b11",
"b12",
"b13",
"b17",
"b14",
"b15",
"b18",
"b19",
"b21",
"b22",
"b23",
"b21",
"b24"
] | 17,151,069 | pmid-9187054|NA|NA|NA|NA|pmid-10716434|pmid-3900072|pmid-3058986|pmid-2188972|pmid-9048946|pmid-11574550|pmid-7050394|pmid-1522597|pmid-7050731|pmid-2538631|pmid-1522597|pmid-2693735|pmid-17009874 | RecA monomers polymerize on DNA to form a nucleoprotein filament. | [
"10",
"11",
"11",
"11",
"11",
"12",
"13",
"17",
"14",
"15",
"18",
"19",
"21",
"22",
"23",
"21",
"24"
] | 65 | 3,787 | 0 | false | RecA monomers polymerize on DNA to form a nucleoprotein filament. | [] | RecA monomers polymerize on DNA to form a nucleoprotein filament. | true | true | true | true | true | 635 |
3 | INTRODUCTION | 1 | 10 | [
"b10",
"b11",
"b11",
"b11",
"b11",
"b12",
"b13",
"b17",
"b14",
"b15",
"b18",
"b19",
"b21",
"b22",
"b23",
"b21",
"b24"
] | 17,151,069 | pmid-9187054|NA|NA|NA|NA|pmid-10716434|pmid-3900072|pmid-3058986|pmid-2188972|pmid-9048946|pmid-11574550|pmid-7050394|pmid-1522597|pmid-7050731|pmid-2538631|pmid-1522597|pmid-2693735|pmid-17009874 | RecA can bind to and form a nucleoprotein filament on either single- or double-stranded DNA, although nucleation on single-stranded DNA is much faster than that on double-stranded DNA (13–17). | [
"10",
"11",
"11",
"11",
"11",
"12",
"13",
"17",
"14",
"15",
"18",
"19",
"21",
"22",
"23",
"21",
"24"
] | 192 | 3,788 | 0 | false | RecA can bind to and form a nucleoprotein filament on either single- or double-stranded DNA, although nucleation on single-stranded DNA is much faster than that on double-stranded DNA. | [
"13–17"
] | RecA can bind to and form a nucleoprotein filament on either single- or double-stranded DNA, although nucleation on single-stranded DNA is much faster than that on double-stranded DNA. | true | true | true | true | true | 635 |
3 | INTRODUCTION | 1 | 10 | [
"b10",
"b11",
"b11",
"b11",
"b11",
"b12",
"b13",
"b17",
"b14",
"b15",
"b18",
"b19",
"b21",
"b22",
"b23",
"b21",
"b24"
] | 17,151,069 | pmid-9187054|NA|NA|NA|NA|pmid-10716434|pmid-3900072|pmid-3058986|pmid-2188972|pmid-9048946|pmid-11574550|pmid-7050394|pmid-1522597|pmid-7050731|pmid-2538631|pmid-1522597|pmid-2693735|pmid-17009874 | Both assembly and disassembly of RecA filaments take place in the 5′ to 3′ direction (14,15,18). | [
"10",
"11",
"11",
"11",
"11",
"12",
"13",
"17",
"14",
"15",
"18",
"19",
"21",
"22",
"23",
"21",
"24"
] | 96 | 3,789 | 0 | false | Both assembly and disassembly of RecA filaments take place in the 5′ to 3′ direction. | [
"14,15,18"
] | Both assembly and disassembly of RecA filaments take place in the 5′ to 3′ direction. | true | true | true | true | true | 635 |
3 | INTRODUCTION | 1 | 10 | [
"b10",
"b11",
"b11",
"b11",
"b11",
"b12",
"b13",
"b17",
"b14",
"b15",
"b18",
"b19",
"b21",
"b22",
"b23",
"b21",
"b24"
] | 17,151,069 | pmid-9187054|NA|NA|NA|NA|pmid-10716434|pmid-3900072|pmid-3058986|pmid-2188972|pmid-9048946|pmid-11574550|pmid-7050394|pmid-1522597|pmid-7050731|pmid-2538631|pmid-1522597|pmid-2693735|pmid-17009874 | In the presence of ATP, dATP or an ATP analogue, such as ATPγS, RecA forms an ‘active’ filament (19–21). | [
"10",
"11",
"11",
"11",
"11",
"12",
"13",
"17",
"14",
"15",
"18",
"19",
"21",
"22",
"23",
"21",
"24"
] | 104 | 3,790 | 0 | false | In the presence of ATP, dATP or an ATP analogue, such as ATPγS, RecA forms an ‘active’ filament. | [
"19–21"
] | In the presence of ATP, dATP or an ATP analogue, such as ATPγS, RecA forms an ‘active’ filament. | true | true | true | true | true | 635 |
3 | INTRODUCTION | 1 | 10 | [
"b10",
"b11",
"b11",
"b11",
"b11",
"b12",
"b13",
"b17",
"b14",
"b15",
"b18",
"b19",
"b21",
"b22",
"b23",
"b21",
"b24"
] | 17,151,069 | pmid-9187054|NA|NA|NA|NA|pmid-10716434|pmid-3900072|pmid-3058986|pmid-2188972|pmid-9048946|pmid-11574550|pmid-7050394|pmid-1522597|pmid-7050731|pmid-2538631|pmid-1522597|pmid-2693735|pmid-17009874 | The active RecA filament is a right-handed helical filament with six RecA monomers per turn and 3 nt per RecA monomer. | [
"10",
"11",
"11",
"11",
"11",
"12",
"13",
"17",
"14",
"15",
"18",
"19",
"21",
"22",
"23",
"21",
"24"
] | 118 | 3,791 | 0 | false | The active RecA filament is a right-handed helical filament with six RecA monomers per turn and 3 nt per RecA monomer. | [] | The active RecA filament is a right-handed helical filament with six RecA monomers per turn and 3 nt per RecA monomer. | true | true | true | true | true | 635 |
3 | INTRODUCTION | 1 | 10 | [
"b10",
"b11",
"b11",
"b11",
"b11",
"b12",
"b13",
"b17",
"b14",
"b15",
"b18",
"b19",
"b21",
"b22",
"b23",
"b21",
"b24"
] | 17,151,069 | pmid-9187054|NA|NA|NA|NA|pmid-10716434|pmid-3900072|pmid-3058986|pmid-2188972|pmid-9048946|pmid-11574550|pmid-7050394|pmid-1522597|pmid-7050731|pmid-2538631|pmid-1522597|pmid-2693735|pmid-17009874 | When it is formed on double-stranded DNA, the DNA is underwound relative to the B-form helix (22,23). | [
"10",
"11",
"11",
"11",
"11",
"12",
"13",
"17",
"14",
"15",
"18",
"19",
"21",
"22",
"23",
"21",
"24"
] | 101 | 3,792 | 0 | false | When it is formed on double-stranded DNA, the DNA is underwound relative to the B-form helix. | [
"22,23"
] | When it is formed on double-stranded DNA, the DNA is underwound relative to the B-form helix. | true | true | true | true | true | 635 |
3 | INTRODUCTION | 1 | 10 | [
"b10",
"b11",
"b11",
"b11",
"b11",
"b12",
"b13",
"b17",
"b14",
"b15",
"b18",
"b19",
"b21",
"b22",
"b23",
"b21",
"b24"
] | 17,151,069 | pmid-9187054|NA|NA|NA|NA|pmid-10716434|pmid-3900072|pmid-3058986|pmid-2188972|pmid-9048946|pmid-11574550|pmid-7050394|pmid-1522597|pmid-7050731|pmid-2538631|pmid-1522597|pmid-2693735|pmid-17009874 | In contrast, RecA forms an ‘inactive’ filament in the absence of cofactor or presence of ADP (21,24). | [
"10",
"11",
"11",
"11",
"11",
"12",
"13",
"17",
"14",
"15",
"18",
"19",
"21",
"22",
"23",
"21",
"24"
] | 101 | 3,793 | 0 | false | In contrast, RecA forms an ‘inactive’ filament in the absence of cofactor or presence of ADP. | [
"21,24"
] | In contrast, RecA forms an ‘inactive’ filament in the absence of cofactor or presence of ADP. | true | true | true | true | true | 635 |
4 | INTRODUCTION | 1 | 25 | [
"b25",
"b27",
"b28",
"b30",
"b26",
"b31",
"b33",
"b34"
] | 17,151,069 | pmid-15535863|pmid-12566398|pmid-5327367|pmid-15916595|pmid-10944214|pmid-8824300|pmid-16377712|pmid-17009874|pmid-8811192|pmid-11395412 | The ability of DNA microarrays to monitor transcriptional activity of entire genomes has allowed an assessment of transcriptional and replication states of the E.coli chromosome following inhibition of DNA gyrase (25–27). | [
"25",
"27",
"28",
"30",
"26",
"31",
"33",
"34"
] | 221 | 3,794 | 0 | false | The ability of DNA microarrays to monitor transcriptional activity of entire genomes has allowed an assessment of transcriptional and replication states of the E.coli chromosome following inhibition of DNA gyrase. | [
"25–27"
] | The ability of DNA microarrays to monitor transcriptional activity of entire genomes has allowed an assessment of transcriptional and replication states of the E.coli chromosome following inhibition of DNA gyrase. | true | true | true | true | true | 636 |
4 | INTRODUCTION | 1 | 25 | [
"b25",
"b27",
"b28",
"b30",
"b26",
"b31",
"b33",
"b34"
] | 17,151,069 | pmid-15535863|pmid-12566398|pmid-5327367|pmid-15916595|pmid-10944214|pmid-8824300|pmid-16377712|pmid-17009874|pmid-8811192|pmid-11395412 | These studies confirmed that treating cells with norfloxacin, a fluoroquinolone inhibitor of gyrase, affects transcription of a largenumber of genes in the genome. | [
"25",
"27",
"28",
"30",
"26",
"31",
"33",
"34"
] | 163 | 3,795 | 0 | false | These studies confirmed that treating cells with norfloxacin, a fluoroquinolone inhibitor of gyrase, affects transcription of a largenumber of genes in the genome. | [] | These studies confirmed that treating cells with norfloxacin, a fluoroquinolone inhibitor of gyrase, affects transcription of a largenumber of genes in the genome. | true | true | true | true | true | 636 |
4 | INTRODUCTION | 1 | 25 | [
"b25",
"b27",
"b28",
"b30",
"b26",
"b31",
"b33",
"b34"
] | 17,151,069 | pmid-15535863|pmid-12566398|pmid-5327367|pmid-15916595|pmid-10944214|pmid-8824300|pmid-16377712|pmid-17009874|pmid-8811192|pmid-11395412 | Quinolone treatment also causes the replication fork arrest and generation of double-strand breaks (28–30). | [
"25",
"27",
"28",
"30",
"26",
"31",
"33",
"34"
] | 107 | 3,796 | 0 | false | Quinolone treatment also causes the replication fork arrest and generation of double-strand breaks. | [
"28–30"
] | Quinolone treatment also causes the replication fork arrest and generation of double-strand breaks. | true | true | true | true | true | 636 |
4 | INTRODUCTION | 1 | 25 | [
"b25",
"b27",
"b28",
"b30",
"b26",
"b31",
"b33",
"b34"
] | 17,151,069 | pmid-15535863|pmid-12566398|pmid-5327367|pmid-15916595|pmid-10944214|pmid-8824300|pmid-16377712|pmid-17009874|pmid-8811192|pmid-11395412 | A systematic analysis of transcriptional effects would not be possible, however, without accounting for a various cellular responses, such as the SOS response, DNA relaxation and replication inhibition (26,31–33). | [
"25",
"27",
"28",
"30",
"26",
"31",
"33",
"34"
] | 213 | 3,797 | 0 | false | A systematic analysis of transcriptional effects would not be possible, however, without accounting for a various cellular responses, such as the SOS response, DNA relaxation and replication inhibition. | [
"26,31–33"
] | A systematic analysis of transcriptional effects would not be possible, however, without accounting for a various cellular responses, such as the SOS response, DNA relaxation and replication inhibition. | true | true | true | true | true | 636 |
4 | INTRODUCTION | 1 | 34 | [
"b25",
"b27",
"b28",
"b30",
"b26",
"b31",
"b33",
"b34"
] | 17,151,069 | pmid-15535863|pmid-12566398|pmid-5327367|pmid-15916595|pmid-10944214|pmid-8824300|pmid-16377712|pmid-17009874|pmid-8811192|pmid-11395412 | We modeled transcriptional responses to the quinolone-induced inhibition of gyrase in E.coli as a function of the downstream processes, including DNA repair, supercoiling and DNA replication (34). | [
"25",
"27",
"28",
"30",
"26",
"31",
"33",
"34"
] | 196 | 3,798 | 1 | false | We modeled transcriptional responses to the quinolone-induced inhibition of gyrase in E.coli as a function of the downstream processes, including DNA repair, supercoiling and DNA replication. | [
"34"
] | We modeled transcriptional responses to the quinolone-induced inhibition of gyrase in E.coli as a function of the downstream processes, including DNA repair, supercoiling and DNA replication. | true | true | true | true | true | 636 |
4 | INTRODUCTION | 1 | 25 | [
"b25",
"b27",
"b28",
"b30",
"b26",
"b31",
"b33",
"b34"
] | 17,151,069 | pmid-15535863|pmid-12566398|pmid-5327367|pmid-15916595|pmid-10944214|pmid-8824300|pmid-16377712|pmid-17009874|pmid-8811192|pmid-11395412 | We found that relaxation by Topo I was the dominant factor behind the transcriptional response followed by the effects of DNA replication and RecA. | [
"25",
"27",
"28",
"30",
"26",
"31",
"33",
"34"
] | 147 | 3,799 | 0 | false | We found that relaxation by Topo I was the dominant factor behind the transcriptional response followed by the effects of DNA replication and RecA. | [] | We found that relaxation by Topo I was the dominant factor behind the transcriptional response followed by the effects of DNA replication and RecA. | true | true | true | true | true | 636 |
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