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 |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
1 | INTRODUCTION | 1 | 5 | [
"b5",
"b7"
] | 16,840,530 | pmid-14572541|pmid-15102470|pmid-15193307|pmid-16530225|pmid-15070432 | The TRN comprises a significant proportion of the genome in each organism and it constitutes a major component of the genetic basis for the evolution of diverse aspects of bacterial phenotypes. | [
"5",
"7"
] | 193 | 6,000 | 0 | false | The TRN comprises a significant proportion of the genome in each organism and it constitutes a major component of the genetic basis for the evolution of diverse aspects of bacterial phenotypes. | [] | The TRN comprises a significant proportion of the genome in each organism and it constitutes a major component of the genetic basis for the evolution of diverse aspects of bacterial phenotypes. | true | true | true | true | true | 994 |
1 | INTRODUCTION | 1 | 5 | [
"b5",
"b7"
] | 16,840,530 | pmid-14572541|pmid-15102470|pmid-15193307|pmid-16530225|pmid-15070432 | It is important to learn how the TRN evolves as it would enable us to study the molecular evolutionary ecology of regulatory diversification by examining both the extent and pattern of regulatory gene diversity, the phenotypic effects of molecular variation and their ecological consequences. | [
"5",
"7"
] | 292 | 6,001 | 0 | false | It is important to learn how the TRN evolves as it would enable us to study the molecular evolutionary ecology of regulatory diversification by examining both the extent and pattern of regulatory gene diversity, the phenotypic effects of molecular variation and their ecological consequences. | [] | It is important to learn how the TRN evolves as it would enable us to study the molecular evolutionary ecology of regulatory diversification by examining both the extent and pattern of regulatory gene diversity, the phenotypic effects of molecular variation and their ecological consequences. | true | true | true | true | true | 994 |
2 | INTRODUCTION | 1 | 6 | [
"b6",
"b8",
"b9",
"b9",
"b10",
"b8",
"b11"
] | 16,840,530 | pmid-15604457|pmid-15833122|pmid-15173116|pmid-15173116|pmid-15193307|pmid-15833122|pmid-15079056 | It is also important to recognize that, although abundant sequence data and complete genomes are available, the experimental determination of TRNs has been limited to a few organisms even in prokaryotes. | [
"6",
"8",
"9",
"9",
"10",
"8",
"11"
] | 203 | 6,002 | 0 | false | It is also important to recognize that, although abundant sequence data and complete genomes are available, the experimental determination of TRNs has been limited to a few organisms even in prokaryotes. | [] | It is also important to recognize that, although abundant sequence data and complete genomes are available, the experimental determination of TRNs has been limited to a few organisms even in prokaryotes. | true | true | true | true | true | 995 |
2 | INTRODUCTION | 1 | 6 | [
"b6",
"b8",
"b9",
"b9",
"b10",
"b8",
"b11"
] | 16,840,530 | pmid-15604457|pmid-15833122|pmid-15173116|pmid-15173116|pmid-15193307|pmid-15833122|pmid-15079056 | Besides, there is no clear relationship between the presence of a TF, its TG and DNA-binding site(s), and their structural and biochemical characteristics that could have been transferred between genomes. | [
"6",
"8",
"9",
"9",
"10",
"8",
"11"
] | 204 | 6,003 | 0 | false | Besides, there is no clear relationship between the presence of a TF, its TG and DNA-binding site(s), and their structural and biochemical characteristics that could have been transferred between genomes. | [] | Besides, there is no clear relationship between the presence of a TF, its TG and DNA-binding site(s), and their structural and biochemical characteristics that could have been transferred between genomes. | true | true | true | true | true | 995 |
2 | INTRODUCTION | 1 | 6 | [
"b6",
"b8",
"b9",
"b9",
"b10",
"b8",
"b11"
] | 16,840,530 | pmid-15604457|pmid-15833122|pmid-15173116|pmid-15173116|pmid-15193307|pmid-15833122|pmid-15079056 | It is also difficult to evaluate a specific measure between sequence homology, function and interaction transfer for any two proteins involved in a regulatory interaction (6,8,9). | [
"6",
"8",
"9",
"9",
"10",
"8",
"11"
] | 179 | 6,004 | 0 | false | It is also difficult to evaluate a specific measure between sequence homology, function and interaction transfer for any two proteins involved in a regulatory interaction. | [
"6,8,9"
] | It is also difficult to evaluate a specific measure between sequence homology, function and interaction transfer for any two proteins involved in a regulatory interaction. | true | true | true | true | true | 995 |
2 | INTRODUCTION | 1 | 6 | [
"b6",
"b8",
"b9",
"b9",
"b10",
"b8",
"b11"
] | 16,840,530 | pmid-15604457|pmid-15833122|pmid-15173116|pmid-15173116|pmid-15193307|pmid-15833122|pmid-15079056 | However, several groups have recently examined the transfer of regulatory interaction annotations from one organism to another using comparative genomic approaches (9,10). | [
"6",
"8",
"9",
"9",
"10",
"8",
"11"
] | 171 | 6,005 | 0 | false | However, several groups have recently examined the transfer of regulatory interaction annotations from one organism to another using comparative genomic approaches. | [
"9,10"
] | However, several groups have recently examined the transfer of regulatory interaction annotations from one organism to another using comparative genomic approaches. | true | true | true | true | true | 995 |
2 | INTRODUCTION | 1 | 6 | [
"b6",
"b8",
"b9",
"b9",
"b10",
"b8",
"b11"
] | 16,840,530 | pmid-15604457|pmid-15833122|pmid-15173116|pmid-15173116|pmid-15193307|pmid-15833122|pmid-15079056 | The transfer of such interactions involves assigning functional roles to TFs and TGs, based on protein sequence similarity and on the conservation of topological patterns of the TRN, such as motifs and modules (8,11). | [
"6",
"8",
"9",
"9",
"10",
"8",
"11"
] | 217 | 6,006 | 0 | false | The transfer of such interactions involves assigning functional roles to TFs and TGs, based on protein sequence similarity and on the conservation of topological patterns of the TRN, such as motifs and modules. | [
"8,11"
] | The transfer of such interactions involves assigning functional roles to TFs and TGs, based on protein sequence similarity and on the conservation of topological patterns of the TRN, such as motifs and modules. | true | true | true | true | true | 995 |
3 | INTRODUCTION | 1 | 9 | [
"b9",
"b12",
"b12",
"b9",
"b13",
"b7",
"b9"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | The Regulog approach uses cross-species data to predict DNA–protein interactions across genomes. | [
"9",
"12",
"12",
"9",
"13",
"7",
"9"
] | 96 | 6,007 | 0 | false | The Regulog approach uses cross-species data to predict DNA–protein interactions across genomes. | [] | The Regulog approach uses cross-species data to predict DNA–protein interactions across genomes. | true | true | true | true | true | 996 |
3 | INTRODUCTION | 1 | 9 | [
"b9",
"b12",
"b12",
"b9",
"b13",
"b7",
"b9"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | A TF and TG interaction in one species is predicted to occur in another species if their best sequence matches have been determined in the target group of genomes. | [
"9",
"12",
"12",
"9",
"13",
"7",
"9"
] | 163 | 6,008 | 0 | false | A TF and TG interaction in one species is predicted to occur in another species if their best sequence matches have been determined in the target group of genomes. | [] | A TF and TG interaction in one species is predicted to occur in another species if their best sequence matches have been determined in the target group of genomes. | true | true | true | true | true | 996 |
3 | INTRODUCTION | 1 | 9 | [
"b9",
"b12",
"b12",
"b9",
"b13",
"b7",
"b9"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | The presence of just one of the components of the regulatory interaction is not enough to transfer the interaction annotation, it is necessary that both TF and its TG(s) are detected in another organism. | [
"9",
"12",
"12",
"9",
"13",
"7",
"9"
] | 203 | 6,009 | 0 | false | The presence of just one of the components of the regulatory interaction is not enough to transfer the interaction annotation, it is necessary that both TF and its TG(s) are detected in another organism. | [] | The presence of just one of the components of the regulatory interaction is not enough to transfer the interaction annotation, it is necessary that both TF and its TG(s) are detected in another organism. | true | true | true | true | true | 996 |
3 | INTRODUCTION | 1 | 9 | [
"b9",
"b12",
"b12",
"b9",
"b13",
"b7",
"b9"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | Using this approach, Yu et al. | [
"9",
"12",
"12",
"9",
"13",
"7",
"9"
] | 30 | 6,010 | 0 | false | Using this approach, Yu et al. | [] | Using this approach, Yu et al. | true | true | true | true | true | 996 |
3 | INTRODUCTION | 1 | 9 | [
"b9",
"b12",
"b12",
"b9",
"b13",
"b7",
"b9"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | (9) have shown that orthologous TFs and TGs of Saccharomyces cerevisiae and Drosophila melanogaster tend to share the same regulatory interaction if the eukaryotic TFs have minimal sequence identities of 30–60% depending on the protein family. | [
"9",
"12",
"12",
"9",
"13",
"7",
"9"
] | 243 | 6,011 | 1 | false | have shown that orthologous TFs and TGs of Saccharomyces cerevisiae and Drosophila melanogaster tend to share the same regulatory interaction if the eukaryotic TFs have minimal sequence identities of 30–60% depending on the protein family. | [
"9"
] | have shown that orthologous TFs and TGs of Saccharomyces cerevisiae and Drosophila melanogaster tend to share the same regulatory interaction if the eukaryotic TFs have minimal sequence identities of 30–60% depending on the protein family. | false | true | true | true | false | 996 |
3 | INTRODUCTION | 1 | 9 | [
"b9",
"b12",
"b12",
"b9",
"b13",
"b7",
"b9"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | More recently, Sharan et al. | [
"9",
"12",
"12",
"9",
"13",
"7",
"9"
] | 28 | 6,012 | 0 | false | More recently, Sharan et al. | [] | More recently, Sharan et al. | true | true | true | true | true | 996 |
3 | INTRODUCTION | 1 | 12 | [
"b9",
"b12",
"b12",
"b9",
"b13",
"b7",
"b9"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | (12) associated functions to proteins using network-level conservation of protein–protein interactions in eukaryotic genomes. | [
"9",
"12",
"12",
"9",
"13",
"7",
"9"
] | 125 | 6,013 | 1 | false | associated functions to proteins using network-level conservation of protein–protein interactions in eukaryotic genomes. | [
"12"
] | associated functions to proteins using network-level conservation of protein–protein interactions in eukaryotic genomes. | false | true | true | true | false | 996 |
3 | INTRODUCTION | 1 | 9 | [
"b9",
"b12",
"b12",
"b9",
"b13",
"b7",
"b9"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | This implies that high sequence similarity does not necessarily mean that the function is conserved; but conservation at the level of network modules allows more confident function determination from the context. | [
"9",
"12",
"12",
"9",
"13",
"7",
"9"
] | 212 | 6,014 | 0 | false | This implies that high sequence similarity does not necessarily mean that the function is conserved; but conservation at the level of network modules allows more confident function determination from the context. | [] | This implies that high sequence similarity does not necessarily mean that the function is conserved; but conservation at the level of network modules allows more confident function determination from the context. | true | true | true | true | true | 996 |
3 | INTRODUCTION | 1 | 9 | [
"b9",
"b12",
"b12",
"b9",
"b13",
"b7",
"b9"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | Therefore, the best matches are not always present within conserved protein clusters enforcing the notion that it is advantageous to increase the detection of conserved functions by including paralogous family expansion and contraction, and even gene loss. | [
"9",
"12",
"12",
"9",
"13",
"7",
"9"
] | 256 | 6,015 | 0 | false | Therefore, the best matches are not always present within conserved protein clusters enforcing the notion that it is advantageous to increase the detection of conserved functions by including paralogous family expansion and contraction, and even gene loss. | [] | Therefore, the best matches are not always present within conserved protein clusters enforcing the notion that it is advantageous to increase the detection of conserved functions by including paralogous family expansion and contraction, and even gene loss. | true | true | true | true | true | 996 |
3 | INTRODUCTION | 1 | 9 | [
"b9",
"b12",
"b12",
"b9",
"b13",
"b7",
"b9"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | The high specificity of the predictions attained by Sharan et al. | [
"9",
"12",
"12",
"9",
"13",
"7",
"9"
] | 65 | 6,016 | 0 | false | The high specificity of the predictions attained by Sharan et al. | [] | The high specificity of the predictions attained by Sharan et al. | true | true | true | true | true | 996 |
3 | INTRODUCTION | 1 | 12 | [
"b9",
"b12",
"b12",
"b9",
"b13",
"b7",
"b9"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | (12) can be maintained because conservation is evaluated in the context of a protein interaction subnetwork and not independently for each interaction. | [
"9",
"12",
"12",
"9",
"13",
"7",
"9"
] | 151 | 6,017 | 1 | false | can be maintained because conservation is evaluated in the context of a protein interaction subnetwork and not independently for each interaction. | [
"12"
] | can be maintained because conservation is evaluated in the context of a protein interaction subnetwork and not independently for each interaction. | false | true | true | true | false | 996 |
3 | INTRODUCTION | 1 | 9 | [
"b9",
"b12",
"b12",
"b9",
"b13",
"b7",
"b9"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | However, it has been shown that the patterns of conservation between protein–protein interactions versus protein–DNA interactions is different (9), and that the transcriptional regulatory logic differs radically between Eukaryotes and Prokaryotes (13). | [
"9",
"12",
"12",
"9",
"13",
"7",
"9"
] | 252 | 6,018 | 1 | false | However, it has been shown that the patterns of conservation between protein–protein interactions versus protein–DNA interactions is different, and that the transcriptional regulatory logic differs radically between Eukaryotes and Prokaryotes. | [
"9",
"13"
] | However, it has been shown that the patterns of conservation between protein–protein interactions versus protein–DNA interactions is different, and that the transcriptional regulatory logic differs radically between Eukaryotes and Prokaryotes. | true | true | true | true | true | 996 |
3 | INTRODUCTION | 1 | 9 | [
"b9",
"b12",
"b12",
"b9",
"b13",
"b7",
"b9"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | As a consequence, the performance of transcriptional interaction mapping methods cannot be currently assessed at a large scale (7,9). | [
"9",
"12",
"12",
"9",
"13",
"7",
"9"
] | 133 | 6,019 | 0 | false | As a consequence, the performance of transcriptional interaction mapping methods cannot be currently assessed at a large scale. | [
"7,9"
] | As a consequence, the performance of transcriptional interaction mapping methods cannot be currently assessed at a large scale. | true | true | true | true | true | 996 |
4 | INTRODUCTION | 0 | null | null | 16,840,530 | null | Given the increasing number of sequenced genomes, it is possible and quite important to have a broader perspective of the evolution of TRNs by mapping the changes in the components of the regulatory interactions, which might differ from the common reconstruction of the metabolic, structural and some transcriptional his... | null | 344 | 6,020 | 0 | false | null | null | Given the increasing number of sequenced genomes, it is possible and quite important to have a broader perspective of the evolution of TRNs by mapping the changes in the components of the regulatory interactions, which might differ from the common reconstruction of the metabolic, structural and some transcriptional his... | true | true | true | true | true | 997 |
4 | INTRODUCTION | 0 | null | null | 16,840,530 | null | Understanding the evolution of TRNs will not only improve our insight over the biological constraints different organisms have acquired over time but also enable us to decipher the basic design principles underlying them. | null | 221 | 6,021 | 0 | false | null | null | Understanding the evolution of TRNs will not only improve our insight over the biological constraints different organisms have acquired over time but also enable us to decipher the basic design principles underlying them. | true | true | true | true | true | 997 |
4 | INTRODUCTION | 0 | null | null | 16,840,530 | null | Besides, one can reconstruct a regulatory history from the core of the transcriptional regulatory interactions that have been shared in the cellular processes of bacteria. | null | 171 | 6,022 | 0 | false | null | null | Besides, one can reconstruct a regulatory history from the core of the transcriptional regulatory interactions that have been shared in the cellular processes of bacteria. | true | true | true | true | true | 997 |
5 | INTRODUCTION | 1 | 14 | [
"b14",
"b5",
"b15"
] | 16,840,530 | pmid-14681419|pmid-14572541|pmid-14681362 | We used the TRNs of two different model Bacteria. | [
"14",
"5",
"15"
] | 49 | 6,023 | 0 | false | We used the TRNs of two different model Bacteria. | [] | We used the TRNs of two different model Bacteria. | true | true | true | true | true | 998 |
5 | INTRODUCTION | 1 | 14 | [
"b14",
"b5",
"b15"
] | 16,840,530 | pmid-14681419|pmid-14572541|pmid-14681362 | One of these is the TRN of the Gram-negative bacterium Escherichia coli K12 contained in RegulonDB, which is probably the best known in bacteria (14). | [
"14",
"5",
"15"
] | 150 | 6,024 | 1 | false | One of these is the TRN of the Gram-negative bacterium Escherichia coli K12 contained in RegulonDB, which is probably the best known in bacteria. | [
"14"
] | One of these is the TRN of the Gram-negative bacterium Escherichia coli K12 contained in RegulonDB, which is probably the best known in bacteria. | true | true | true | true | true | 998 |
5 | INTRODUCTION | 1 | 5 | [
"b14",
"b5",
"b15"
] | 16,840,530 | pmid-14681419|pmid-14572541|pmid-14681362 | This database contains experimental information corresponding to nearly 20% of the TRN of E.coli (5). | [
"14",
"5",
"15"
] | 101 | 6,025 | 1 | false | This database contains experimental information corresponding to nearly 20% of the TRN of E.coli. | [
"5"
] | This database contains experimental information corresponding to nearly 20% of the TRN of E.coli. | true | true | true | true | true | 998 |
5 | INTRODUCTION | 1 | 14 | [
"b14",
"b5",
"b15"
] | 16,840,530 | pmid-14681419|pmid-14572541|pmid-14681362 | The second best studied Prokaryote in terms of transcriptional regulation is the Gram-positive Bacillus subtilis. | [
"14",
"5",
"15"
] | 113 | 6,026 | 0 | false | The second best studied Prokaryote in terms of transcriptional regulation is the Gram-positive Bacillus subtilis. | [] | The second best studied Prokaryote in terms of transcriptional regulation is the Gram-positive Bacillus subtilis. | true | true | true | true | true | 998 |
5 | INTRODUCTION | 1 | 15 | [
"b14",
"b5",
"b15"
] | 16,840,530 | pmid-14681419|pmid-14572541|pmid-14681362 | We obtained the complete set of regulatory interactions in this bacterium documented in DataBase of Transcriptional regulation in Bacillus subtilis (DBTBS) (15). | [
"14",
"5",
"15"
] | 161 | 6,027 | 1 | false | We obtained the complete set of regulatory interactions in this bacterium documented in DataBase of Transcriptional regulation in Bacillus subtilis (DBTBS). | [
"15"
] | We obtained the complete set of regulatory interactions in this bacterium documented in DataBase of Transcriptional regulation in Bacillus subtilis (DBTBS). | true | true | true | true | true | 998 |
5 | INTRODUCTION | 1 | 14 | [
"b14",
"b5",
"b15"
] | 16,840,530 | pmid-14681419|pmid-14572541|pmid-14681362 | It is interesting to note that even though both are free-living bacteria and require similar concentrations of oxygen and temperature levels, E.coli has adapted to thrive inside its host while B.subtilis has adapted to soil environments. | [
"14",
"5",
"15"
] | 237 | 6,028 | 0 | false | It is interesting to note that even though both are free-living bacteria and require similar concentrations of oxygen and temperature levels, E.coli has adapted to thrive inside its host while B.subtilis has adapted to soil environments. | [] | It is interesting to note that even though both are free-living bacteria and require similar concentrations of oxygen and temperature levels, E.coli has adapted to thrive inside its host while B.subtilis has adapted to soil environments. | true | true | true | true | true | 998 |
5 | INTRODUCTION | 1 | 14 | [
"b14",
"b5",
"b15"
] | 16,840,530 | pmid-14681419|pmid-14572541|pmid-14681362 | In this work we used a modified version of the Regulog approach described above to identify the interaction pairs and regulons of these networks through a comparison against complete genomes of Bacteria, Archaea and Eukarya. | [
"14",
"5",
"15"
] | 224 | 6,029 | 0 | false | In this work we used a modified version of the Regulog approach described above to identify the interaction pairs and regulons of these networks through a comparison against complete genomes of Bacteria, Archaea and Eukarya. | [] | In this work we used a modified version of the Regulog approach described above to identify the interaction pairs and regulons of these networks through a comparison against complete genomes of Bacteria, Archaea and Eukarya. | true | true | true | true | true | 998 |
0 | DISCUSSION | 1 | 46 | [
"b46",
"b47",
"b49",
"b46",
"b50",
"b5"
] | 16,840,530 | pmid-11062388|pmid-11967538|pmid-12823939|pmid-8610134|pmid-9717214|pmid-12823939|pmid-12791133|pmid-14572541 | The complexity of the TRNs in bacterial organisms is largely affected by their adaptation to the dynamically changing environmental stresses that are characteristic of an organism's niche. | [
"46",
"47",
"49",
"46",
"50",
"5"
] | 188 | 6,030 | 0 | false | The complexity of the TRNs in bacterial organisms is largely affected by their adaptation to the dynamically changing environmental stresses that are characteristic of an organism's niche. | [] | The complexity of the TRNs in bacterial organisms is largely affected by their adaptation to the dynamically changing environmental stresses that are characteristic of an organism's niche. | true | true | true | true | true | 999 |
0 | DISCUSSION | 1 | 46 | [
"b46",
"b47",
"b49",
"b46",
"b50",
"b5"
] | 16,840,530 | pmid-11062388|pmid-11967538|pmid-12823939|pmid-8610134|pmid-9717214|pmid-12823939|pmid-12791133|pmid-14572541 | For example, enteric bacteria, soil bacteria and other free-living bacteria live in complex environments and have correspondingly complex sensor-response-control subsystems (46). | [
"46",
"47",
"49",
"46",
"50",
"5"
] | 178 | 6,031 | 1 | false | For example, enteric bacteria, soil bacteria and other free-living bacteria live in complex environments and have correspondingly complex sensor-response-control subsystems. | [
"46"
] | For example, enteric bacteria, soil bacteria and other free-living bacteria live in complex environments and have correspondingly complex sensor-response-control subsystems. | true | true | true | true | true | 999 |
0 | DISCUSSION | 1 | 46 | [
"b46",
"b47",
"b49",
"b46",
"b50",
"b5"
] | 16,840,530 | pmid-11062388|pmid-11967538|pmid-12823939|pmid-8610134|pmid-9717214|pmid-12823939|pmid-12791133|pmid-14572541 | In contrast, the narrow ecological ranges and frequent population bottlenecks of obligate pathogens and symbionts have resulted in increased rates of genetic drift and reduced selective constraint on gene function and number (47–49). | [
"46",
"47",
"49",
"46",
"50",
"5"
] | 233 | 6,032 | 0 | false | In contrast, the narrow ecological ranges and frequent population bottlenecks of obligate pathogens and symbionts have resulted in increased rates of genetic drift and reduced selective constraint on gene function and number. | [
"47–49"
] | In contrast, the narrow ecological ranges and frequent population bottlenecks of obligate pathogens and symbionts have resulted in increased rates of genetic drift and reduced selective constraint on gene function and number. | true | true | true | true | true | 999 |
0 | DISCUSSION | 1 | 46 | [
"b46",
"b47",
"b49",
"b46",
"b50",
"b5"
] | 16,840,530 | pmid-11062388|pmid-11967538|pmid-12823939|pmid-8610134|pmid-9717214|pmid-12823939|pmid-12791133|pmid-14572541 | Our results indicate that obligate symbiotic as well as parasitic life styles share only ∼10% of the orthologous components of the TRNs of E.coli and B.subtilis. | [
"46",
"47",
"49",
"46",
"50",
"5"
] | 161 | 6,033 | 0 | false | Our results indicate that obligate symbiotic as well as parasitic life styles share only ∼10% of the orthologous components of the TRNs of E.coli and B.subtilis. | [] | Our results indicate that obligate symbiotic as well as parasitic life styles share only ∼10% of the orthologous components of the TRNs of E.coli and B.subtilis. | true | true | true | true | true | 999 |
0 | DISCUSSION | 1 | 46 | [
"b46",
"b47",
"b49",
"b46",
"b50",
"b5"
] | 16,840,530 | pmid-11062388|pmid-11967538|pmid-12823939|pmid-8610134|pmid-9717214|pmid-12823939|pmid-12791133|pmid-14572541 | The loss of regulatory elements may reflect a relative constancy in the host environment, allowing these organisms to have a simplified regulatory structure (46,50). | [
"46",
"47",
"49",
"46",
"50",
"5"
] | 165 | 6,034 | 0 | false | The loss of regulatory elements may reflect a relative constancy in the host environment, allowing these organisms to have a simplified regulatory structure. | [
"46,50"
] | The loss of regulatory elements may reflect a relative constancy in the host environment, allowing these organisms to have a simplified regulatory structure. | true | true | true | true | true | 999 |
0 | DISCUSSION | 1 | 46 | [
"b46",
"b47",
"b49",
"b46",
"b50",
"b5"
] | 16,840,530 | pmid-11062388|pmid-11967538|pmid-12823939|pmid-8610134|pmid-9717214|pmid-12823939|pmid-12791133|pmid-14572541 | According to our results, the loss of TFs more than TGs could be the main cause of these dramatic changes in the TRN. | [
"46",
"47",
"49",
"46",
"50",
"5"
] | 117 | 6,035 | 0 | false | According to our results, the loss of TFs more than TGs could be the main cause of these dramatic changes in the TRN. | [] | According to our results, the loss of TFs more than TGs could be the main cause of these dramatic changes in the TRN. | true | true | true | true | true | 999 |
0 | DISCUSSION | 1 | 5 | [
"b46",
"b47",
"b49",
"b46",
"b50",
"b5"
] | 16,840,530 | pmid-11062388|pmid-11967538|pmid-12823939|pmid-8610134|pmid-9717214|pmid-12823939|pmid-12791133|pmid-14572541 | This can also be seen from the specific scenario of the conservation of GRs of E.coli which have a limited biological distribution although they directly modulate the expression of ∼51% of its genes (5). | [
"46",
"47",
"49",
"46",
"50",
"5"
] | 203 | 6,036 | 1 | false | This can also be seen from the specific scenario of the conservation of GRs of E.coli which have a limited biological distribution although they directly modulate the expression of ∼51% of its genes. | [
"5"
] | This can also be seen from the specific scenario of the conservation of GRs of E.coli which have a limited biological distribution although they directly modulate the expression of ∼51% of its genes. | true | true | true | true | true | 999 |
1 | DISCUSSION | 1 | 10 | [
"b10",
"b38",
"b51"
] | 16,840,530 | pmid-14572541|pmid-15102470|pmid-15193307|pmid-16530225|pmid-15070432 | As reported previously, the conservation of genes and regulatory interactions is related to the phylogenetic distance and to the life style of the organisms (10,38). | [
"10",
"38",
"51"
] | 165 | 6,037 | 0 | false | As reported previously, the conservation of genes and regulatory interactions is related to the phylogenetic distance and to the life style of the organisms. | [
"10,38"
] | As reported previously, the conservation of genes and regulatory interactions is related to the phylogenetic distance and to the life style of the organisms. | true | true | true | true | true | 1,000 |
1 | DISCUSSION | 1 | 10 | [
"b10",
"b38",
"b51"
] | 16,840,530 | pmid-14572541|pmid-15102470|pmid-15193307|pmid-16530225|pmid-15070432 | Based on our results, we can see that quantitatively the TFs are less conserved than the TGs as phylogenetic distance increases, which could suggest that transcriptional regulation of genes changes faster through evolution than the genes themselves. | [
"10",
"38",
"51"
] | 249 | 6,038 | 0 | false | Based on our results, we can see that quantitatively the TFs are less conserved than the TGs as phylogenetic distance increases, which could suggest that transcriptional regulation of genes changes faster through evolution than the genes themselves. | [] | Based on our results, we can see that quantitatively the TFs are less conserved than the TGs as phylogenetic distance increases, which could suggest that transcriptional regulation of genes changes faster through evolution than the genes themselves. | true | true | true | true | true | 1,000 |
1 | DISCUSSION | 1 | 10 | [
"b10",
"b38",
"b51"
] | 16,840,530 | pmid-14572541|pmid-15102470|pmid-15193307|pmid-16530225|pmid-15070432 | Related to this, Maslov et al. | [
"10",
"38",
"51"
] | 30 | 6,039 | 0 | false | Related to this, Maslov et al. | [] | Related to this, Maslov et al. | true | true | true | true | true | 1,000 |
1 | DISCUSSION | 1 | 51 | [
"b10",
"b38",
"b51"
] | 16,840,530 | pmid-14572541|pmid-15102470|pmid-15193307|pmid-16530225|pmid-15070432 | (51) found that the rate of evolutionary differentiation of transcriptional regulatory interactions proceeds faster than that of TGs and their protein interactions. | [
"10",
"38",
"51"
] | 164 | 6,040 | 1 | false | found that the rate of evolutionary differentiation of transcriptional regulatory interactions proceeds faster than that of TGs and their protein interactions. | [
"51"
] | found that the rate of evolutionary differentiation of transcriptional regulatory interactions proceeds faster than that of TGs and their protein interactions. | false | true | true | true | false | 1,000 |
1 | DISCUSSION | 1 | 10 | [
"b10",
"b38",
"b51"
] | 16,840,530 | pmid-14572541|pmid-15102470|pmid-15193307|pmid-16530225|pmid-15070432 | However, an analysis of the conservation of pairs of regulatory interactions across genomes indicated different tendencies in the conservation of TF–TG pairs, suggesting that TF–TG pairs often do not co-evolve in the evolution of TRNs. | [
"10",
"38",
"51"
] | 235 | 6,041 | 0 | false | However, an analysis of the conservation of pairs of regulatory interactions across genomes indicated different tendencies in the conservation of TF–TG pairs, suggesting that TF–TG pairs often do not co-evolve in the evolution of TRNs. | [] | However, an analysis of the conservation of pairs of regulatory interactions across genomes indicated different tendencies in the conservation of TF–TG pairs, suggesting that TF–TG pairs often do not co-evolve in the evolution of TRNs. | true | true | true | true | true | 1,000 |
1 | DISCUSSION | 1 | 10 | [
"b10",
"b38",
"b51"
] | 16,840,530 | pmid-14572541|pmid-15102470|pmid-15193307|pmid-16530225|pmid-15070432 | Nevertheless it should be clear that in the first case, when a TF is conserved in different species without its corresponding TG, it would imply that the TF is indeed involved in the regulation of a different set of TGs than those in the genome under consideration and in the second case, when a TG is conserved and its ... | [
"10",
"38",
"51"
] | 409 | 6,042 | 0 | false | Nevertheless it should be clear that in the first case, when a TF is conserved in different species without its corresponding TG, it would imply that the TF is indeed involved in the regulation of a different set of TGs than those in the genome under consideration and in the second case, when a TG is conserved and its ... | [] | Nevertheless it should be clear that in the first case, when a TF is conserved in different species without its corresponding TG, it would imply that the TF is indeed involved in the regulation of a different set of TGs than those in the genome under consideration and in the second case, when a TG is conserved and its ... | true | true | true | true | true | 1,000 |
1 | DISCUSSION | 1 | 10 | [
"b10",
"b38",
"b51"
] | 16,840,530 | pmid-14572541|pmid-15102470|pmid-15193307|pmid-16530225|pmid-15070432 | Both cases suggest a level of plasticity that TRNs can impose on the evolution of genomes to different environments. | [
"10",
"38",
"51"
] | 116 | 6,043 | 0 | false | Both cases suggest a level of plasticity that TRNs can impose on the evolution of genomes to different environments. | [] | Both cases suggest a level of plasticity that TRNs can impose on the evolution of genomes to different environments. | true | true | true | true | true | 1,000 |
1 | DISCUSSION | 1 | 10 | [
"b10",
"b38",
"b51"
] | 16,840,530 | pmid-14572541|pmid-15102470|pmid-15193307|pmid-16530225|pmid-15070432 | The evolutionary reasons for the observed tendencies in the conservation of TF–TG pairs need to be analyzed more specifically. | [
"10",
"38",
"51"
] | 126 | 6,044 | 0 | false | The evolutionary reasons for the observed tendencies in the conservation of TF–TG pairs need to be analyzed more specifically. | [] | The evolutionary reasons for the observed tendencies in the conservation of TF–TG pairs need to be analyzed more specifically. | true | true | true | true | true | 1,000 |
2 | DISCUSSION | 0 | null | null | 16,840,530 | pmid-15604457|pmid-15833122|pmid-15173116|pmid-15173116|pmid-15193307|pmid-15833122|pmid-15079056 | Despite poor conservation of the regulatory interactions across genomes, certain individual interactions have been well conserved across different eubacterial phyla, which could regulate essential transcriptional processes in Bacteria. | null | 235 | 6,045 | 0 | false | null | null | Despite poor conservation of the regulatory interactions across genomes, certain individual interactions have been well conserved across different eubacterial phyla, which could regulate essential transcriptional processes in Bacteria. | true | true | true | true | true | 1,001 |
2 | DISCUSSION | 0 | null | null | 16,840,530 | pmid-15604457|pmid-15833122|pmid-15173116|pmid-15173116|pmid-15193307|pmid-15833122|pmid-15079056 | Most of these processes are well characterized and are related directly or indirectly to the translational, structural and transcriptional machinery of the cell, suggesting a cause for their conserved nature across wide phylogenetic distances. | null | 243 | 6,046 | 0 | false | null | null | Most of these processes are well characterized and are related directly or indirectly to the translational, structural and transcriptional machinery of the cell, suggesting a cause for their conserved nature across wide phylogenetic distances. | true | true | true | true | true | 1,001 |
2 | DISCUSSION | 0 | null | null | 16,840,530 | pmid-15604457|pmid-15833122|pmid-15173116|pmid-15173116|pmid-15193307|pmid-15833122|pmid-15079056 | Despite the type of regulation (repressor or activator) and that DNA-binding site(s) can change across genomes, it is reasonable to think that it is important to maintain the regulation of these core processes through the same elements, as in the case of BirA and DnaA regulators which seem to be a result of common ance... | null | 341 | 6,047 | 0 | false | null | null | Despite the type of regulation (repressor or activator) and that DNA-binding site(s) can change across genomes, it is reasonable to think that it is important to maintain the regulation of these core processes through the same elements, as in the case of BirA and DnaA regulators which seem to be a result of common ance... | true | true | true | true | true | 1,001 |
3 | DISCUSSION | 1 | 52 | [
"b52"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | The TRN appears to evolve in a step-wise manner, with loss and gain of individual interactions probably playing a greater role than loss and gain of whole motifs or modules of interactions. | [
"52"
] | 189 | 6,048 | 0 | false | The TRN appears to evolve in a step-wise manner, with loss and gain of individual interactions probably playing a greater role than loss and gain of whole motifs or modules of interactions. | [] | The TRN appears to evolve in a step-wise manner, with loss and gain of individual interactions probably playing a greater role than loss and gain of whole motifs or modules of interactions. | true | true | true | true | true | 1,002 |
3 | DISCUSSION | 1 | 52 | [
"b52"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | As Teichmann and Babu (52) reported previously, most network motifs have risen by convergent evolution and not by genetic duplication of ancestral circuits. | [
"52"
] | 156 | 6,049 | 1 | false | As Teichmann and Babu reported previously, most network motifs have risen by convergent evolution and not by genetic duplication of ancestral circuits. | [
"52"
] | As Teichmann and Babu reported previously, most network motifs have risen by convergent evolution and not by genetic duplication of ancestral circuits. | true | true | true | true | true | 1,002 |
3 | DISCUSSION | 1 | 52 | [
"b52"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | Thus, with the exception of a small fraction of the TRN, it could be possible that large portions of the TRNs might have evolved through extensive changes and re-connections among the components of the network in the evolution of the species. | [
"52"
] | 242 | 6,050 | 0 | false | Thus, with the exception of a small fraction of the TRN, it could be possible that large portions of the TRNs might have evolved through extensive changes and re-connections among the components of the network in the evolution of the species. | [] | Thus, with the exception of a small fraction of the TRN, it could be possible that large portions of the TRNs might have evolved through extensive changes and re-connections among the components of the network in the evolution of the species. | true | true | true | true | true | 1,002 |
3 | DISCUSSION | 1 | 52 | [
"b52"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | Here we demonstrate that individual elements, interacting pairs and groups of interactions are not conserved, in fact even in closely related species. | [
"52"
] | 150 | 6,051 | 0 | false | Here we demonstrate that individual elements, interacting pairs and groups of interactions are not conserved, in fact even in closely related species. | [] | Here we demonstrate that individual elements, interacting pairs and groups of interactions are not conserved, in fact even in closely related species. | true | true | true | true | true | 1,002 |
3 | DISCUSSION | 1 | 52 | [
"b52"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | This reflects that in each speciation event to adapt to environmental changes, transcriptional regulation is more flexible than the genetic component of the organisms for phenotypic adaptation. | [
"52"
] | 193 | 6,052 | 0 | false | This reflects that in each speciation event to adapt to environmental changes, transcriptional regulation is more flexible than the genetic component of the organisms for phenotypic adaptation. | [] | This reflects that in each speciation event to adapt to environmental changes, transcriptional regulation is more flexible than the genetic component of the organisms for phenotypic adaptation. | true | true | true | true | true | 1,002 |
3 | DISCUSSION | 1 | 52 | [
"b52"
] | 16,840,530 | pmid-15173116|pmid-15687504|pmid-15687504|pmid-15173116|pmid-10412974|pmid-15102470|pmid-15173116|pmid-15107850 | This work should provide a perspective of the plasticity of the TRN in bacteria, which could contribute to understand the transcriptional basis of natural variation. | [
"52"
] | 165 | 6,053 | 0 | false | This work should provide a perspective of the plasticity of the TRN in bacteria, which could contribute to understand the transcriptional basis of natural variation. | [] | This work should provide a perspective of the plasticity of the TRN in bacteria, which could contribute to understand the transcriptional basis of natural variation. | true | true | true | true | true | 1,002 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3",
"B4",
"B5"
] | 17,289,752 | pmid-15941573|pmid-12086677|pmid-16464017|pmid-12848584|pmid-14527324|pmid-9778350 | All nonobligate organisms possess repair systems responsible for the maintenance of genomic DNA in the presence of cellular reactive oxygen species (ROS). | [
"1",
"2",
"3",
"4",
"5"
] | 154 | 6,054 | 0 | false | All nonobligate organisms possess repair systems responsible for the maintenance of genomic DNA in the presence of cellular reactive oxygen species (ROS). | [] | All nonobligate organisms possess repair systems responsible for the maintenance of genomic DNA in the presence of cellular reactive oxygen species (ROS). | true | true | true | true | true | 1,003 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3",
"B4",
"B5"
] | 17,289,752 | pmid-15941573|pmid-12086677|pmid-16464017|pmid-12848584|pmid-14527324|pmid-9778350 | The majority of single base lesions generated by ROS are abstracted by DNA glycosylases as the initial step in the base excision repair pathway [for reviews, see (1,2)]. | [
"1",
"2",
"3",
"4",
"5"
] | 169 | 6,055 | 0 | false | The majority of single base lesions generated by ROS are abstracted by DNA glycosylases as the initial step in the base excision repair pathway. | [
"for reviews, see (1,2)"
] | The majority of single base lesions generated by ROS are abstracted by DNA glycosylases as the initial step in the base excision repair pathway. | true | true | true | true | true | 1,003 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3",
"B4",
"B5"
] | 17,289,752 | pmid-15941573|pmid-12086677|pmid-16464017|pmid-12848584|pmid-14527324|pmid-9778350 | Mechanistically, these enzymes are classified by either the presence of an associated AP lyase activity (bifunctional), or the lack of this activity (monofunctional). | [
"1",
"2",
"3",
"4",
"5"
] | 166 | 6,056 | 0 | false | Mechanistically, these enzymes are classified by either the presence of an associated AP lyase activity (bifunctional), or the lack of this activity (monofunctional). | [] | Mechanistically, these enzymes are classified by either the presence of an associated AP lyase activity (bifunctional), or the lack of this activity (monofunctional). | true | true | true | true | true | 1,003 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3",
"B4",
"B5"
] | 17,289,752 | pmid-15941573|pmid-12086677|pmid-16464017|pmid-12848584|pmid-14527324|pmid-9778350 | Monofunctional glycosylases cleave the glycosyl bond via either an associative SN2 reaction utilizing an activated water molecule or a dissociative SN1-like mechanism. | [
"1",
"2",
"3",
"4",
"5"
] | 167 | 6,057 | 0 | false | Monofunctional glycosylases cleave the glycosyl bond via either an associative SN2 reaction utilizing an activated water molecule or a dissociative SN1-like mechanism. | [] | Monofunctional glycosylases cleave the glycosyl bond via either an associative SN2 reaction utilizing an activated water molecule or a dissociative SN1-like mechanism. | true | true | true | true | true | 1,003 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3",
"B4",
"B5"
] | 17,289,752 | pmid-15941573|pmid-12086677|pmid-16464017|pmid-12848584|pmid-14527324|pmid-9778350 | Bifunctional glycosylases employ an amine for nucleophilic (SN2) attack of the sugar backbone, proceeding through a Schiff base intermediate which can undergo a β-elimination that leads to cleavage of the lesion-containing strand [for reviews, see (3,4)]. | [
"1",
"2",
"3",
"4",
"5"
] | 255 | 6,058 | 0 | false | Bifunctional glycosylases employ an amine for nucleophilic attack of the sugar backbone, proceeding through a Schiff base intermediate which can undergo a β-elimination that leads to cleavage of the lesion-containing strand. | [
"SN2",
"for reviews, see (3,4)"
] | Bifunctional glycosylases employ an amine for nucleophilic attack of the sugar backbone, proceeding through a Schiff base intermediate which can undergo a β-elimination that leads to cleavage of the lesion-containing strand. | true | true | true | true | true | 1,003 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3",
"B4",
"B5"
] | 17,289,752 | pmid-15941573|pmid-12086677|pmid-16464017|pmid-12848584|pmid-14527324|pmid-9778350 | Enzymes whose mechanism proceed through a transient Schiff base intermediate can be trapped by the addition of a reducing agent such as NaBH4 or NaCNBH3 | [
"1",
"2",
"3",
"4",
"5"
] | 152 | 6,059 | 0 | false | Enzymes whose mechanism proceed through a transient Schiff base intermediate can be trapped by the addition of a reducing agent such as NaBH4 or NaCNBH3 | [] | Enzymes whose mechanism proceed through a transient Schiff base intermediate can be trapped by the addition of a reducing agent such as NaBH4 or NaCNBH3 | true | true | false | true | false | 1,003 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3",
"B4",
"B5"
] | 17,289,752 | pmid-15941573|pmid-12086677|pmid-16464017|pmid-12848584|pmid-14527324|pmid-9778350 | [for reviews, see (5)]. | [
"1",
"2",
"3",
"4",
"5"
] | 23 | 6,060 | 0 | false | . | [
"for reviews, see (5)"
] | . | false | false | true | true | false | 1,003 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3",
"B4",
"B5"
] | 17,289,752 | pmid-15941573|pmid-12086677|pmid-16464017|pmid-12848584|pmid-14527324|pmid-9778350 | Once covalently bound, trapped molecules no longer participate in the overall reaction resulting in stable protein–DNA complexes. | [
"1",
"2",
"3",
"4",
"5"
] | 129 | 6,061 | 0 | false | Once covalently bound, trapped molecules no longer participate in the overall reaction resulting in stable protein–DNA complexes. | [] | Once covalently bound, trapped molecules no longer participate in the overall reaction resulting in stable protein–DNA complexes. | true | true | true | true | true | 1,003 |
1 | INTRODUCTION | 1 | 6–8 | [
"B6 B7 B8",
"B9",
"B10",
"B11",
"B12",
"B13 B14 B15",
"B16",
"B10",
"B17 B18 B19 B20 B21",
"B20",
"B21",
"B10",
"B17 B18 B19",
"B22"
] | 17,289,752 | pmid-16336782|pmid-12509226|pmid-11361340|pmid-9705289|pmid-11711552|pmid-10884383|pmid-11287425|pmid-12718542|pmid-16547199|pmid-16781198|pmid-12667065|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|pmid-10833024|pmid-9030608|pmid-10833024|pmid-9030608|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|p... | The ability to efficiently generate stable, covalently bound glycosylase–DNA complexes has broad-reaching applications and has been used extensively in the literature. | [
"6–8",
"9",
"10",
"11",
"12",
"13–15",
"16",
"10",
"17–21",
"20",
"21",
"10",
"17–19",
"22"
] | 167 | 6,062 | 0 | false | The ability to efficiently generate stable, covalently bound glycosylase–DNA complexes has broad-reaching applications and has been used extensively in the literature. | [] | The ability to efficiently generate stable, covalently bound glycosylase–DNA complexes has broad-reaching applications and has been used extensively in the literature. | true | true | true | true | true | 1,004 |
1 | INTRODUCTION | 1 | 6–8 | [
"B6 B7 B8",
"B9",
"B10",
"B11",
"B12",
"B13 B14 B15",
"B16",
"B10",
"B17 B18 B19 B20 B21",
"B20",
"B21",
"B10",
"B17 B18 B19",
"B22"
] | 17,289,752 | pmid-16336782|pmid-12509226|pmid-11361340|pmid-9705289|pmid-11711552|pmid-10884383|pmid-11287425|pmid-12718542|pmid-16547199|pmid-16781198|pmid-12667065|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|pmid-10833024|pmid-9030608|pmid-10833024|pmid-9030608|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|p... | Studies utilizing this procedure include, but are not limited to, bifunctional versus monofunctional classification (6–8), determination of the fraction of active molecules in enzyme preparations (9,10), reaction rate analyses (11,12), glycosylase activity comparisons (13–15), iron–sulfur cluster domain analysis (16), ... | [
"6–8",
"9",
"10",
"11",
"12",
"13–15",
"16",
"10",
"17–21",
"20",
"21",
"10",
"17–19",
"22"
] | 387 | 6,063 | 1 | false | Studies utilizing this procedure include, but are not limited to, bifunctional versus monofunctional classification, determination of the fraction of active molecules in enzyme preparations, reaction rate analyses, glycosylase activity comparisons, iron–sulfur cluster domain analysis, and the characterization of enzyme... | [
"6–8",
"9,10",
"11,12",
"13–15",
"16",
"10,17–21"
] | Studies utilizing this procedure include, but are not limited to, bifunctional versus monofunctional classification, determination of the fraction of active molecules in enzyme preparations, reaction rate analyses, glycosylase activity comparisons, iron–sulfur cluster domain analysis, and the characterization of enzyme... | true | true | true | true | true | 1,004 |
1 | INTRODUCTION | 1 | 6–8 | [
"B6 B7 B8",
"B9",
"B10",
"B11",
"B12",
"B13 B14 B15",
"B16",
"B10",
"B17 B18 B19 B20 B21",
"B20",
"B21",
"B10",
"B17 B18 B19",
"B22"
] | 17,289,752 | pmid-16336782|pmid-12509226|pmid-11361340|pmid-9705289|pmid-11711552|pmid-10884383|pmid-11287425|pmid-12718542|pmid-16547199|pmid-16781198|pmid-12667065|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|pmid-10833024|pmid-9030608|pmid-10833024|pmid-9030608|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|p... | A commonality among these techniques is the almost universal requirement for separation of the trapped complex from unbound DNA via polyacrylamide gel electrophoresis (PAGE) prior to phosphorimager analysis. | [
"6–8",
"9",
"10",
"11",
"12",
"13–15",
"16",
"10",
"17–21",
"20",
"21",
"10",
"17–19",
"22"
] | 207 | 6,064 | 0 | false | A commonality among these techniques is the almost universal requirement for separation of the trapped complex from unbound DNA via polyacrylamide gel electrophoresis (PAGE) prior to phosphorimager analysis. | [] | A commonality among these techniques is the almost universal requirement for separation of the trapped complex from unbound DNA via polyacrylamide gel electrophoresis (PAGE) prior to phosphorimager analysis. | true | true | true | true | true | 1,004 |
1 | INTRODUCTION | 1 | 6–8 | [
"B6 B7 B8",
"B9",
"B10",
"B11",
"B12",
"B13 B14 B15",
"B16",
"B10",
"B17 B18 B19 B20 B21",
"B20",
"B21",
"B10",
"B17 B18 B19",
"B22"
] | 17,289,752 | pmid-16336782|pmid-12509226|pmid-11361340|pmid-9705289|pmid-11711552|pmid-10884383|pmid-11287425|pmid-12718542|pmid-16547199|pmid-16781198|pmid-12667065|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|pmid-10833024|pmid-9030608|pmid-10833024|pmid-9030608|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|p... | It should be noted that while the characterization of active-site residues may alternatively employ tryptic digestion of the trapped complex in order to identify the bound peptide (20,21), targeted mutagenesis experiments require a gel-based approach (10,17–19). | [
"6–8",
"9",
"10",
"11",
"12",
"13–15",
"16",
"10",
"17–21",
"20",
"21",
"10",
"17–19",
"22"
] | 262 | 6,065 | 0 | false | It should be noted that while the characterization of active-site residues may alternatively employ tryptic digestion of the trapped complex in order to identify the bound peptide, targeted mutagenesis experiments require a gel-based approach. | [
"20,21",
"10,17–19"
] | It should be noted that while the characterization of active-site residues may alternatively employ tryptic digestion of the trapped complex in order to identify the bound peptide, targeted mutagenesis experiments require a gel-based approach. | true | true | true | true | true | 1,004 |
1 | INTRODUCTION | 1 | 22 | [
"B6 B7 B8",
"B9",
"B10",
"B11",
"B12",
"B13 B14 B15",
"B16",
"B10",
"B17 B18 B19 B20 B21",
"B20",
"B21",
"B10",
"B17 B18 B19",
"B22"
] | 17,289,752 | pmid-16336782|pmid-12509226|pmid-11361340|pmid-9705289|pmid-11711552|pmid-10884383|pmid-11287425|pmid-12718542|pmid-16547199|pmid-16781198|pmid-12667065|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|pmid-10833024|pmid-9030608|pmid-10833024|pmid-9030608|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|p... | A gel-based approach may be necessary in some circumstances; for example, the determination of specific reaction intermediates (22). | [
"6–8",
"9",
"10",
"11",
"12",
"13–15",
"16",
"10",
"17–21",
"20",
"21",
"10",
"17–19",
"22"
] | 132 | 6,066 | 1 | false | A gel-based approach may be necessary in some circumstances; for example, the determination of specific reaction intermediates. | [
"22"
] | A gel-based approach may be necessary in some circumstances; for example, the determination of specific reaction intermediates. | true | true | true | true | true | 1,004 |
1 | INTRODUCTION | 1 | 6–8 | [
"B6 B7 B8",
"B9",
"B10",
"B11",
"B12",
"B13 B14 B15",
"B16",
"B10",
"B17 B18 B19 B20 B21",
"B20",
"B21",
"B10",
"B17 B18 B19",
"B22"
] | 17,289,752 | pmid-16336782|pmid-12509226|pmid-11361340|pmid-9705289|pmid-11711552|pmid-10884383|pmid-11287425|pmid-12718542|pmid-16547199|pmid-16781198|pmid-12667065|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|pmid-10833024|pmid-9030608|pmid-10833024|pmid-9030608|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|p... | However, a faster, less cumbersome technique would be useful for the majority of situations. | [
"6–8",
"9",
"10",
"11",
"12",
"13–15",
"16",
"10",
"17–21",
"20",
"21",
"10",
"17–19",
"22"
] | 92 | 6,067 | 0 | false | However, a faster, less cumbersome technique would be useful for the majority of situations. | [] | However, a faster, less cumbersome technique would be useful for the majority of situations. | true | true | true | true | true | 1,004 |
2 | INTRODUCTION | 1 | 23 | [
"B23",
"B24",
"B25",
"B26",
"B24",
"B27 B28 B29 B30 B31",
"B31",
"B32",
"B33"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | The properties of 4′,6-diamidino-2-phenylindole (DAPI) have been well studied for more than 30 years, from pH and ionic strength influences (23,24) to the solved crystal structure of DAPI-DNA complexes (25,26). | [
"23",
"24",
"25",
"26",
"24",
"27–31",
"31",
"32",
"33"
] | 210 | 6,068 | 0 | false | The properties of 4′,6-diamidino-2-phenylindole (DAPI) have been well studied for more than 30 years, from pH and ionic strength influences to the solved crystal structure of DAPI-DNA complexes. | [
"23,24",
"25,26"
] | The properties of 4′,6-diamidino-2-phenylindole (DAPI) have been well studied for more than 30 years, from pH and ionic strength influences to the solved crystal structure of DAPI-DNA complexes. | true | true | true | true | true | 1,005 |
2 | INTRODUCTION | 1 | 23 | [
"B23",
"B24",
"B25",
"B26",
"B24",
"B27 B28 B29 B30 B31",
"B31",
"B32",
"B33"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | Similar to distamycin and its analogs, DAPI preferentially binds to the minor groove of AT-rich regions of double-stranded DNA (24,27–31). | [
"23",
"24",
"25",
"26",
"24",
"27–31",
"31",
"32",
"33"
] | 138 | 6,069 | 0 | false | Similar to distamycin and its analogs, DAPI preferentially binds to the minor groove of AT-rich regions of double-stranded DNA. | [
"24,27–31"
] | Similar to distamycin and its analogs, DAPI preferentially binds to the minor groove of AT-rich regions of double-stranded DNA. | true | true | true | true | true | 1,005 |
2 | INTRODUCTION | 1 | 31 | [
"B23",
"B24",
"B25",
"B26",
"B24",
"B27 B28 B29 B30 B31",
"B31",
"B32",
"B33"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | Due to its unique fluorescent characteristics (31) it has been employed successfully in various dye displacement assays (32,33). | [
"23",
"24",
"25",
"26",
"24",
"27–31",
"31",
"32",
"33"
] | 128 | 6,070 | 1 | false | Due to its unique fluorescent characteristics it has been employed successfully in various dye displacement assays. | [
"31",
"32,33"
] | Due to its unique fluorescent characteristics it has been employed successfully in various dye displacement assays. | true | true | true | true | true | 1,005 |
2 | INTRODUCTION | 1 | 23 | [
"B23",
"B24",
"B25",
"B26",
"B24",
"B27 B28 B29 B30 B31",
"B31",
"B32",
"B33"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | In this article, we describe a novel approach for using DAPI as a fluorescent reporter molecule to rapidly differentiate the number of bound versus unbound enzymes to damaged oligonucleotides following protein–DNA cross-linking. | [
"23",
"24",
"25",
"26",
"24",
"27–31",
"31",
"32",
"33"
] | 228 | 6,071 | 0 | false | In this article, we describe a novel approach for using DAPI as a fluorescent reporter molecule to rapidly differentiate the number of bound versus unbound enzymes to damaged oligonucleotides following protein–DNA cross-linking. | [] | In this article, we describe a novel approach for using DAPI as a fluorescent reporter molecule to rapidly differentiate the number of bound versus unbound enzymes to damaged oligonucleotides following protein–DNA cross-linking. | true | true | true | true | true | 1,005 |
2 | INTRODUCTION | 1 | 23 | [
"B23",
"B24",
"B25",
"B26",
"B24",
"B27 B28 B29 B30 B31",
"B31",
"B32",
"B33"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | Although the focus of this work is on determining the fraction of active molecules in enzyme preparations, the technique is equally applicable to the studies listed above. | [
"23",
"24",
"25",
"26",
"24",
"27–31",
"31",
"32",
"33"
] | 171 | 6,072 | 0 | false | Although the focus of this work is on determining the fraction of active molecules in enzyme preparations, the technique is equally applicable to the studies listed above. | [] | Although the focus of this work is on determining the fraction of active molecules in enzyme preparations, the technique is equally applicable to the studies listed above. | true | true | true | true | true | 1,005 |
2 | INTRODUCTION | 1 | 23 | [
"B23",
"B24",
"B25",
"B26",
"B24",
"B27 B28 B29 B30 B31",
"B31",
"B32",
"B33"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | Any study which necessitates analyzing the total number of trapped enzyme–DNA moieties, and does not require discrimination of the trapped intermediates themselves, may benefit from this approach. | [
"23",
"24",
"25",
"26",
"24",
"27–31",
"31",
"32",
"33"
] | 196 | 6,073 | 0 | false | Any study which necessitates analyzing the total number of trapped enzyme–DNA moieties, and does not require discrimination of the trapped intermediates themselves, may benefit from this approach. | [] | Any study which necessitates analyzing the total number of trapped enzyme–DNA moieties, and does not require discrimination of the trapped intermediates themselves, may benefit from this approach. | true | true | true | true | true | 1,005 |
2 | INTRODUCTION | 1 | 23 | [
"B23",
"B24",
"B25",
"B26",
"B24",
"B27 B28 B29 B30 B31",
"B31",
"B32",
"B33"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | We foresee this molecular accessibility assay being useful in the study of numerous DNA-binding proteins. | [
"23",
"24",
"25",
"26",
"24",
"27–31",
"31",
"32",
"33"
] | 105 | 6,074 | 0 | false | We foresee this molecular accessibility assay being useful in the study of numerous DNA-binding proteins. | [] | We foresee this molecular accessibility assay being useful in the study of numerous DNA-binding proteins. | true | true | true | true | true | 1,005 |
0 | DISCUSSION | 1 | 39 | [
"B39"
] | 17,289,752 | pmid-15941573|pmid-12086677|pmid-16464017|pmid-12848584|pmid-14527324|pmid-9778350 | In this article, we have described a novel approach to rapidly differentiate the number of bound versus unbound enzymes to damaged oligonucleotides following Schiff base trapping. | [
"39"
] | 179 | 6,075 | 0 | false | In this article, we have described a novel approach to rapidly differentiate the number of bound versus unbound enzymes to damaged oligonucleotides following Schiff base trapping. | [] | In this article, we have described a novel approach to rapidly differentiate the number of bound versus unbound enzymes to damaged oligonucleotides following Schiff base trapping. | true | true | true | true | true | 1,006 |
0 | DISCUSSION | 1 | 39 | [
"B39"
] | 17,289,752 | pmid-15941573|pmid-12086677|pmid-16464017|pmid-12848584|pmid-14527324|pmid-9778350 | Though the assay described focused on determining the fraction of active molecules in enzyme preparations, the technique itself should be applicable to any study which necessitates quantifying the total number of bound enzyme–DNA moieties. | [
"39"
] | 239 | 6,076 | 0 | false | Though the assay described focused on determining the fraction of active molecules in enzyme preparations, the technique itself should be applicable to any study which necessitates quantifying the total number of bound enzyme–DNA moieties. | [] | Though the assay described focused on determining the fraction of active molecules in enzyme preparations, the technique itself should be applicable to any study which necessitates quantifying the total number of bound enzyme–DNA moieties. | true | true | true | true | true | 1,006 |
0 | DISCUSSION | 1 | 39 | [
"B39"
] | 17,289,752 | pmid-15941573|pmid-12086677|pmid-16464017|pmid-12848584|pmid-14527324|pmid-9778350 | Previous approaches have been limited to either a traditional PAGE analysis or to the analysis of specific enzymes; for example, activity determination via the burst phase for glycosylases with slow product release (39). | [
"39"
] | 220 | 6,077 | 1 | false | Previous approaches have been limited to either a traditional PAGE analysis or to the analysis of specific enzymes; for example, activity determination via the burst phase for glycosylases with slow product release. | [
"39"
] | Previous approaches have been limited to either a traditional PAGE analysis or to the analysis of specific enzymes; for example, activity determination via the burst phase for glycosylases with slow product release. | true | true | true | true | true | 1,006 |
1 | DISCUSSION | 1 | 40 | [
"B40",
"B41",
"B42 B43 B44 B45"
] | 17,289,752 | pmid-16336782|pmid-12509226|pmid-11361340|pmid-9705289|pmid-11711552|pmid-10884383|pmid-11287425|pmid-12718542|pmid-16547199|pmid-16781198|pmid-12667065|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|pmid-10833024|pmid-9030608|pmid-10833024|pmid-9030608|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|p... | For either the gel-based or DAPI-based approach, the crucial step is the ability to form trapped enzyme–DNA complexes. | [
"40",
"41",
"42–45"
] | 118 | 6,078 | 0 | false | For either the gel-based or DAPI-based approach, the crucial step is the ability to form trapped enzyme–DNA complexes. | [] | For either the gel-based or DAPI-based approach, the crucial step is the ability to form trapped enzyme–DNA complexes. | true | true | true | true | true | 1,007 |
1 | DISCUSSION | 1 | 40 | [
"B40",
"B41",
"B42 B43 B44 B45"
] | 17,289,752 | pmid-16336782|pmid-12509226|pmid-11361340|pmid-9705289|pmid-11711552|pmid-10884383|pmid-11287425|pmid-12718542|pmid-16547199|pmid-16781198|pmid-12667065|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|pmid-10833024|pmid-9030608|pmid-10833024|pmid-9030608|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|p... | Though Schiff base formation is typically limited to bifunctional glycosylases, some monofunctional glycosylases may also be trapped by borohydride reduction (40,41). | [
"40",
"41",
"42–45"
] | 166 | 6,079 | 0 | false | Though Schiff base formation is typically limited to bifunctional glycosylases, some monofunctional glycosylases may also be trapped by borohydride reduction. | [
"40,41"
] | Though Schiff base formation is typically limited to bifunctional glycosylases, some monofunctional glycosylases may also be trapped by borohydride reduction. | true | true | true | true | true | 1,007 |
1 | DISCUSSION | 1 | 40 | [
"B40",
"B41",
"B42 B43 B44 B45"
] | 17,289,752 | pmid-16336782|pmid-12509226|pmid-11361340|pmid-9705289|pmid-11711552|pmid-10884383|pmid-11287425|pmid-12718542|pmid-16547199|pmid-16781198|pmid-12667065|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|pmid-10833024|pmid-9030608|pmid-10833024|pmid-9030608|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|p... | For monofunctional glycosylases which cannot be trapped via borohydride reduction, alternative trapping agents might prove useful. | [
"40",
"41",
"42–45"
] | 130 | 6,080 | 0 | false | For monofunctional glycosylases which cannot be trapped via borohydride reduction, alternative trapping agents might prove useful. | [] | For monofunctional glycosylases which cannot be trapped via borohydride reduction, alternative trapping agents might prove useful. | true | true | true | true | true | 1,007 |
1 | DISCUSSION | 1 | 42–45 | [
"B40",
"B41",
"B42 B43 B44 B45"
] | 17,289,752 | pmid-16336782|pmid-12509226|pmid-11361340|pmid-9705289|pmid-11711552|pmid-10884383|pmid-11287425|pmid-12718542|pmid-16547199|pmid-16781198|pmid-12667065|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|pmid-10833024|pmid-9030608|pmid-10833024|pmid-9030608|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|p... | The use of 2-deoxyribonolactone and oxanine are both promising covalent trapping agents for various bifunctional and monofunctional glycosylases (42–45). | [
"40",
"41",
"42–45"
] | 153 | 6,081 | 1 | false | The use of 2-deoxyribonolactone and oxanine are both promising covalent trapping agents for various bifunctional and monofunctional glycosylases. | [
"42–45"
] | The use of 2-deoxyribonolactone and oxanine are both promising covalent trapping agents for various bifunctional and monofunctional glycosylases. | true | true | true | true | true | 1,007 |
1 | DISCUSSION | 1 | 40 | [
"B40",
"B41",
"B42 B43 B44 B45"
] | 17,289,752 | pmid-16336782|pmid-12509226|pmid-11361340|pmid-9705289|pmid-11711552|pmid-10884383|pmid-11287425|pmid-12718542|pmid-16547199|pmid-16781198|pmid-12667065|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|pmid-10833024|pmid-9030608|pmid-10833024|pmid-9030608|pmid-11711552|pmid-10744666|pmid-11813291|pmid-11101292|p... | The use of these compounds for active fraction analysis is currently being investigated. | [
"40",
"41",
"42–45"
] | 88 | 6,082 | 0 | false | The use of these compounds for active fraction analysis is currently being investigated. | [] | The use of these compounds for active fraction analysis is currently being investigated. | true | true | true | true | true | 1,007 |
2 | DISCUSSION | 1 | 13 | [
"B13",
"B22"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | Throughout this study a single damaged nucleotide, DHU, was used for all substrates. | [
"13",
"22"
] | 84 | 6,083 | 0 | false | Throughout this study a single damaged nucleotide, DHU, was used for all substrates. | [] | Throughout this study a single damaged nucleotide, DHU, was used for all substrates. | true | true | true | true | true | 1,008 |
2 | DISCUSSION | 1 | 13 | [
"B13",
"B22"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | While this is adequate for comparisons made as a proof of concept, accurate determination of the active fraction of numerous enzymes requires additional substrates. | [
"13",
"22"
] | 164 | 6,084 | 0 | false | While this is adequate for comparisons made as a proof of concept, accurate determination of the active fraction of numerous enzymes requires additional substrates. | [] | While this is adequate for comparisons made as a proof of concept, accurate determination of the active fraction of numerous enzymes requires additional substrates. | true | true | true | true | true | 1,008 |
2 | DISCUSSION | 1 | 13 | [
"B13",
"B22"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | For example, for accurate determination of the active fraction of EcoFpg, 7,8-dihydro-8-oxoguanine (8-oxoG) should be used based on the greater affinity for that damage. | [
"13",
"22"
] | 169 | 6,085 | 0 | false | For example, for accurate determination of the active fraction of EcoFpg, 7,8-dihydro-8-oxoguanine (8-oxoG) should be used based on the greater affinity for that damage. | [] | For example, for accurate determination of the active fraction of EcoFpg, 7,8-dihydro-8-oxoguanine (8-oxoG) should be used based on the greater affinity for that damage. | true | true | true | true | true | 1,008 |
2 | DISCUSSION | 1 | 13 | [
"B13",
"B22"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | Some damaged nucleotides, such as 5-formyluracil, would be inappropriate for the activity determination of certain enzymes, due to their low affinity for the damage (13). | [
"13",
"22"
] | 170 | 6,086 | 1 | false | Some damaged nucleotides, such as 5-formyluracil, would be inappropriate for the activity determination of certain enzymes, due to their low affinity for the damage. | [
"13"
] | Some damaged nucleotides, such as 5-formyluracil, would be inappropriate for the activity determination of certain enzymes, due to their low affinity for the damage. | true | true | true | true | true | 1,008 |
2 | DISCUSSION | 1 | 13 | [
"B13",
"B22"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | The ‘best’ substrate for a given enzyme, based on prior knowledge, should always be used for accurate activity calculations. | [
"13",
"22"
] | 124 | 6,087 | 0 | false | The ‘best’ substrate for a given enzyme, based on prior knowledge, should always be used for accurate activity calculations. | [] | The ‘best’ substrate for a given enzyme, based on prior knowledge, should always be used for accurate activity calculations. | true | true | true | true | true | 1,008 |
2 | DISCUSSION | 1 | 13 | [
"B13",
"B22"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | For previously uncharacterized enzymes, analysis of numerous substrates is required. | [
"13",
"22"
] | 84 | 6,088 | 0 | false | For previously uncharacterized enzymes, analysis of numerous substrates is required. | [] | For previously uncharacterized enzymes, analysis of numerous substrates is required. | true | true | true | true | true | 1,008 |
2 | DISCUSSION | 1 | 13 | [
"B13",
"B22"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | Strong reducing agents, such as NaBH4, should not be used in combination with damages which are extremely prone to reduction such as AP sites. | [
"13",
"22"
] | 142 | 6,089 | 0 | false | Strong reducing agents, such as NaBH4, should not be used in combination with damages which are extremely prone to reduction such as AP sites. | [] | Strong reducing agents, such as NaBH4, should not be used in combination with damages which are extremely prone to reduction such as AP sites. | true | true | true | true | true | 1,008 |
2 | DISCUSSION | 1 | 22 | [
"B13",
"B22"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | In these cases, the use of NaCNBH3, where the half-life of an AP site has been reported to be about 6 h, is required (22). | [
"13",
"22"
] | 122 | 6,090 | 1 | false | In these cases, the use of NaCNBH3, where the half-life of an AP site has been reported to be about 6 h, is required. | [
"22"
] | In these cases, the use of NaCNBH3, where the half-life of an AP site has been reported to be about 6 h, is required. | true | true | true | true | true | 1,008 |
2 | DISCUSSION | 1 | 13 | [
"B13",
"B22"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | Regardless, it should also be noted that partial destruction of the substrate via reduction will not affect calculation of the α value, only the β value will be affected. | [
"13",
"22"
] | 170 | 6,091 | 0 | false | Regardless, it should also be noted that partial destruction of the substrate via reduction will not affect calculation of the α value, only the β value will be affected. | [] | Regardless, it should also be noted that partial destruction of the substrate via reduction will not affect calculation of the α value, only the β value will be affected. | true | true | true | true | true | 1,008 |
2 | DISCUSSION | 1 | 13 | [
"B13",
"B22"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | With either the gel-based or DAPI-based methods, a strong reducing environment may possibly lead to inactivation of some enzyme molecules. | [
"13",
"22"
] | 138 | 6,092 | 0 | false | With either the gel-based or DAPI-based methods, a strong reducing environment may possibly lead to inactivation of some enzyme molecules. | [] | With either the gel-based or DAPI-based methods, a strong reducing environment may possibly lead to inactivation of some enzyme molecules. | true | true | true | true | true | 1,008 |
2 | DISCUSSION | 1 | 13 | [
"B13",
"B22"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | Nonetheless, it is unlikely that both NaBH4 and NaCNBH3 will show the same rate of inactivation due to the inherent differences in their rate of reduction. | [
"13",
"22"
] | 155 | 6,093 | 0 | false | Nonetheless, it is unlikely that both NaBH4 and NaCNBH3 will show the same rate of inactivation due to the inherent differences in their rate of reduction. | [] | Nonetheless, it is unlikely that both NaBH4 and NaCNBH3 will show the same rate of inactivation due to the inherent differences in their rate of reduction. | true | true | true | true | true | 1,008 |
2 | DISCUSSION | 1 | 13 | [
"B13",
"B22"
] | 17,289,752 | pmid-31603|pmid-6672773|pmid-2627296|pmid-10600105|pmid-6672773|pmid-8382683|pmid-2252904|pmid-8204219|pmid-10433722|pmid-8457562|pmid-8457562|pmid-9421529|pmid-8614617|pmid-12718542|pmid-15326180 | A side-by-side test with both reducing agents (as was done in Figures 3 and 4) is arguably a valid control for demonstrating the lack of enzyme inactivation. | [
"13",
"22"
] | 157 | 6,094 | 0 | false | A side-by-side test with both reducing agents (as was done in Figures 3 and 4) is arguably a valid control for demonstrating the lack of enzyme inactivation. | [] | A side-by-side test with both reducing agents is arguably a valid control for demonstrating the lack of enzyme inactivation. | true | true | true | true | true | 1,008 |
3 | DISCUSSION | 1 | 46–50 | [
"B46 B47 B48 B49 B50",
"B32",
"B33"
] | 17,289,752 | pmid-2673015|pmid-1544428|pmid-1988954|pmid-10600373|pmid-16008554|pmid-9421529|pmid-8614617 | The accessibility, and inaccessibility, of the reporter dye to its binding site is obviously a hallmark of this assay. | [
"46–50",
"32",
"33"
] | 118 | 6,095 | 0 | false | The accessibility, and inaccessibility, of the reporter dye to its binding site is obviously a hallmark of this assay. | [] | The accessibility, and inaccessibility, of the reporter dye to its binding site is obviously a hallmark of this assay. | true | true | true | true | true | 1,009 |
3 | DISCUSSION | 1 | 46–50 | [
"B46 B47 B48 B49 B50",
"B32",
"B33"
] | 17,289,752 | pmid-2673015|pmid-1544428|pmid-1988954|pmid-10600373|pmid-16008554|pmid-9421529|pmid-8614617 | The preference of DNA minor groove-binding drugs for AT-rich sequences is thought to be primarily due to the narrow minor groove width which influences hydrogen bonding and van der Waals’ interactions, and interrelationships of the positively charged amino ends of the drugs with the more negatively charged minor groove... | [
"46–50",
"32",
"33"
] | 345 | 6,096 | 1 | false | The preference of DNA minor groove-binding drugs for AT-rich sequences is thought to be primarily due to the narrow minor groove width which influences hydrogen bonding and van der Waals’ interactions, and interrelationships of the positively charged amino ends of the drugs with the more negatively charged minor groove... | [
"46–50"
] | The preference of DNA minor groove-binding drugs for AT-rich sequences is thought to be primarily due to the narrow minor groove width which influences hydrogen bonding and van der Waals’ interactions, and interrelationships of the positively charged amino ends of the drugs with the more negatively charged minor groove... | true | true | true | true | true | 1,009 |
3 | DISCUSSION | 1 | 46–50 | [
"B46 B47 B48 B49 B50",
"B32",
"B33"
] | 17,289,752 | pmid-2673015|pmid-1544428|pmid-1988954|pmid-10600373|pmid-16008554|pmid-9421529|pmid-8614617 | The choice to use DAPI was primarily based on its well-known binding properties, ease of use with our current fluorimeter and the success of its use in other fluorescence assays (32,33). | [
"46–50",
"32",
"33"
] | 186 | 6,097 | 0 | false | The choice to use DAPI was primarily based on its well-known binding properties, ease of use with our current fluorimeter and the success of its use in other fluorescence assays. | [
"32,33"
] | The choice to use DAPI was primarily based on its well-known binding properties, ease of use with our current fluorimeter and the success of its use in other fluorescence assays. | true | true | true | true | true | 1,009 |
3 | DISCUSSION | 1 | 46–50 | [
"B46 B47 B48 B49 B50",
"B32",
"B33"
] | 17,289,752 | pmid-2673015|pmid-1544428|pmid-1988954|pmid-10600373|pmid-16008554|pmid-9421529|pmid-8614617 | That said, other minor groove-binding dyes may prove useful in accessibility assays, notably ones with a larger minor groove footprint. | [
"46–50",
"32",
"33"
] | 135 | 6,098 | 0 | false | That said, other minor groove-binding dyes may prove useful in accessibility assays, notably ones with a larger minor groove footprint. | [] | That said, other minor groove-binding dyes may prove useful in accessibility assays, notably ones with a larger minor groove footprint. | true | true | true | true | true | 1,009 |
4 | DISCUSSION | 1 | 26 | [
"B26"
] | 17,289,752 | pmid-10600105 | Comparing results of the molecular accessibility assay with the modeling results presented in Table 1, a number of insights can be drawn. | [
"26"
] | 137 | 6,099 | 0 | false | Comparing results of the molecular accessibility assay with the modeling results presented in Table 1, a number of insights can be drawn. | [] | Comparing results of the molecular accessibility assay with the modeling results presented in Table 1, a number of insights can be drawn. | true | true | true | true | true | 1,010 |
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