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 | 17 | [
"B12",
"B13",
"B14",
"B15",
"B16",
"B17",
"B17 B18 B19",
"B20",
"B21",
"B22",
"B23",
"B24",
"B25 B26 B27",
"B24"
] | 17,395,638 | pmid-12464173|pmid-15145579|pmid-10786850|pmid-16111937|pmid-16455498|pmid-1380161|pmid-1380161|pmid-7523833|pmid-7688127|pmid-12941949|pmid-15145828|pmid-7533264|pmid-10594833|pmid-15743942|pmid-7732015|pmid-7534403|pmid-14622415|pmid-15743942|pmid-12526800|pmid-12787364|NA|pmid-16020788 | The enzyme responsible for the majority of polyadenylation in E.coli, poly(A)polymerase (PAP I), is encoded by the pcnB gene (17). | [
"12",
"13",
"14",
"15",
"16",
"17",
"17β19",
"20",
"21",
"22",
"23",
"24",
"25β27",
"24"
] | 130 | 8,400 | 1 | false | The enzyme responsible for the majority of polyadenylation in E.coli, poly(A)polymerase (PAP I), is encoded by the pcnB gene. | [
"17"
] | The enzyme responsible for the majority of polyadenylation in E.coli, poly(A)polymerase (PAP I), is encoded by the pcnB gene. | true | true | true | true | true | 1,352 |
1 | INTRODUCTION | 1 | 17β19 | [
"B12",
"B13",
"B14",
"B15",
"B16",
"B17",
"B17 B18 B19",
"B20",
"B21",
"B22",
"B23",
"B24",
"B25 B26 B27",
"B24"
] | 17,395,638 | pmid-12464173|pmid-15145579|pmid-10786850|pmid-16111937|pmid-16455498|pmid-1380161|pmid-1380161|pmid-7523833|pmid-7688127|pmid-12941949|pmid-15145828|pmid-7533264|pmid-10594833|pmid-15743942|pmid-7732015|pmid-7534403|pmid-14622415|pmid-15743942|pmid-12526800|pmid-12787364|NA|pmid-16020788 | The consensus idea emerging from numerous studies of pcnB mutations is that the main function of polyadenylation is to facilitate degradation of short folded RNAs such as RNA fragments produced during the processing of longer RNA molecules (17β19) and of a non-functional mutated tRNA (20). | [
"12",
"13",
"14",
"15",
"16",
"17",
"17β19",
"20",
"21",
"22",
"23",
"24",
"25β27",
"24"
] | 290 | 8,401 | 1 | false | The consensus idea emerging from numerous studies of pcnB mutations is that the main function of polyadenylation is to facilitate degradation of short folded RNAs such as RNA fragments produced during the processing of longer RNA molecules and of a non-functional mutated tRNA. | [
"17β19",
"20"
] | The consensus idea emerging from numerous studies of pcnB mutations is that the main function of polyadenylation is to facilitate degradation of short folded RNAs such as RNA fragments produced during the processing of longer RNA molecules and of a non-functional mutated tRNA. | true | true | true | true | true | 1,352 |
1 | INTRODUCTION | 1 | 21 | [
"B12",
"B13",
"B14",
"B15",
"B16",
"B17",
"B17 B18 B19",
"B20",
"B21",
"B22",
"B23",
"B24",
"B25 B26 B27",
"B24"
] | 17,395,638 | pmid-12464173|pmid-15145579|pmid-10786850|pmid-16111937|pmid-16455498|pmid-1380161|pmid-1380161|pmid-7523833|pmid-7688127|pmid-12941949|pmid-15145828|pmid-7533264|pmid-10594833|pmid-15743942|pmid-7732015|pmid-7534403|pmid-14622415|pmid-15743942|pmid-12526800|pmid-12787364|NA|pmid-16020788 | This latter example suggested that poly(A)-dependent decay is involved in quality surveillance of bacterial RNA, as previously reported in yeast (21). | [
"12",
"13",
"14",
"15",
"16",
"17",
"17β19",
"20",
"21",
"22",
"23",
"24",
"25β27",
"24"
] | 150 | 8,402 | 1 | false | This latter example suggested that poly(A)-dependent decay is involved in quality surveillance of bacterial RNA, as previously reported in yeast. | [
"21"
] | This latter example suggested that poly(A)-dependent decay is involved in quality surveillance of bacterial RNA, as previously reported in yeast. | true | true | true | true | true | 1,352 |
1 | INTRODUCTION | 1 | 12 | [
"B12",
"B13",
"B14",
"B15",
"B16",
"B17",
"B17 B18 B19",
"B20",
"B21",
"B22",
"B23",
"B24",
"B25 B26 B27",
"B24"
] | 17,395,638 | pmid-12464173|pmid-15145579|pmid-10786850|pmid-16111937|pmid-16455498|pmid-1380161|pmid-1380161|pmid-7523833|pmid-7688127|pmid-12941949|pmid-15145828|pmid-7533264|pmid-10594833|pmid-15743942|pmid-7732015|pmid-7534403|pmid-14622415|pmid-15743942|pmid-12526800|pmid-12787364|NA|pmid-16020788 | A special function of polyadenylation is in the control of copy number of ColEI plasmids. | [
"12",
"13",
"14",
"15",
"16",
"17",
"17β19",
"20",
"21",
"22",
"23",
"24",
"25β27",
"24"
] | 89 | 8,403 | 0 | false | A special function of polyadenylation is in the control of copy number of ColEI plasmids. | [] | A special function of polyadenylation is in the control of copy number of ColEI plasmids. | true | true | true | true | true | 1,352 |
1 | INTRODUCTION | 1 | 22 | [
"B12",
"B13",
"B14",
"B15",
"B16",
"B17",
"B17 B18 B19",
"B20",
"B21",
"B22",
"B23",
"B24",
"B25 B26 B27",
"B24"
] | 17,395,638 | pmid-12464173|pmid-15145579|pmid-10786850|pmid-16111937|pmid-16455498|pmid-1380161|pmid-1380161|pmid-7523833|pmid-7688127|pmid-12941949|pmid-15145828|pmid-7533264|pmid-10594833|pmid-15743942|pmid-7732015|pmid-7534403|pmid-14622415|pmid-15743942|pmid-12526800|pmid-12787364|NA|pmid-16020788 | The decay of the regulatory RNA I is initiated by RNase E cleavage five nucleotides from the 5β² end, which activates very fast decay via the PAP I-PNPase pathway (22). | [
"12",
"13",
"14",
"15",
"16",
"17",
"17β19",
"20",
"21",
"22",
"23",
"24",
"25β27",
"24"
] | 167 | 8,404 | 1 | false | The decay of the regulatory RNA I is initiated by RNase E cleavage five nucleotides from the 5β² end, which activates very fast decay via the PAP I-PNPase pathway. | [
"22"
] | The decay of the regulatory RNA I is initiated by RNase E cleavage five nucleotides from the 5β² end, which activates very fast decay via the PAP I-PNPase pathway. | true | true | true | true | true | 1,352 |
1 | INTRODUCTION | 1 | 12 | [
"B12",
"B13",
"B14",
"B15",
"B16",
"B17",
"B17 B18 B19",
"B20",
"B21",
"B22",
"B23",
"B24",
"B25 B26 B27",
"B24"
] | 17,395,638 | pmid-12464173|pmid-15145579|pmid-10786850|pmid-16111937|pmid-16455498|pmid-1380161|pmid-1380161|pmid-7523833|pmid-7688127|pmid-12941949|pmid-15145828|pmid-7533264|pmid-10594833|pmid-15743942|pmid-7732015|pmid-7534403|pmid-14622415|pmid-15743942|pmid-12526800|pmid-12787364|NA|pmid-16020788 | There are also data indicating that PAP I may control the stability of primary transcripts (23,24). | [
"12",
"13",
"14",
"15",
"16",
"17",
"17β19",
"20",
"21",
"22",
"23",
"24",
"25β27",
"24"
] | 99 | 8,405 | 0 | false | There are also data indicating that PAP I may control the stability of primary transcripts. | [
"23,24"
] | There are also data indicating that PAP I may control the stability of primary transcripts. | true | true | true | true | true | 1,352 |
1 | INTRODUCTION | 1 | 25β27 | [
"B12",
"B13",
"B14",
"B15",
"B16",
"B17",
"B17 B18 B19",
"B20",
"B21",
"B22",
"B23",
"B24",
"B25 B26 B27",
"B24"
] | 17,395,638 | pmid-12464173|pmid-15145579|pmid-10786850|pmid-16111937|pmid-16455498|pmid-1380161|pmid-1380161|pmid-7523833|pmid-7688127|pmid-12941949|pmid-15145828|pmid-7533264|pmid-10594833|pmid-15743942|pmid-7732015|pmid-7534403|pmid-14622415|pmid-15743942|pmid-12526800|pmid-12787364|NA|pmid-16020788 | For instance, mutations that inactivate RNase E-dependent decay render mRNA more sensitive to poly(A)-dependent degradation (25β27). | [
"12",
"13",
"14",
"15",
"16",
"17",
"17β19",
"20",
"21",
"22",
"23",
"24",
"25β27",
"24"
] | 132 | 8,406 | 1 | false | For instance, mutations that inactivate RNase E-dependent decay render mRNA more sensitive to poly(A)-dependent degradation. | [
"25β27"
] | For instance, mutations that inactivate RNase E-dependent decay render mRNA more sensitive to poly(A)-dependent degradation. | true | true | true | true | true | 1,352 |
1 | INTRODUCTION | 1 | 12 | [
"B12",
"B13",
"B14",
"B15",
"B16",
"B17",
"B17 B18 B19",
"B20",
"B21",
"B22",
"B23",
"B24",
"B25 B26 B27",
"B24"
] | 17,395,638 | pmid-12464173|pmid-15145579|pmid-10786850|pmid-16111937|pmid-16455498|pmid-1380161|pmid-1380161|pmid-7523833|pmid-7688127|pmid-12941949|pmid-15145828|pmid-7533264|pmid-10594833|pmid-15743942|pmid-7732015|pmid-7534403|pmid-14622415|pmid-15743942|pmid-12526800|pmid-12787364|NA|pmid-16020788 | In addition, Aiso et al. | [
"12",
"13",
"14",
"15",
"16",
"17",
"17β19",
"20",
"21",
"22",
"23",
"24",
"25β27",
"24"
] | 24 | 8,407 | 0 | false | In addition, Aiso et al. | [] | In addition, Aiso et al. | true | true | true | true | true | 1,352 |
1 | INTRODUCTION | 1 | 24 | [
"B12",
"B13",
"B14",
"B15",
"B16",
"B17",
"B17 B18 B19",
"B20",
"B21",
"B22",
"B23",
"B24",
"B25 B26 B27",
"B24"
] | 17,395,638 | pmid-12464173|pmid-15145579|pmid-10786850|pmid-16111937|pmid-16455498|pmid-1380161|pmid-1380161|pmid-7523833|pmid-7688127|pmid-12941949|pmid-15145828|pmid-7533264|pmid-10594833|pmid-15743942|pmid-7732015|pmid-7534403|pmid-14622415|pmid-15743942|pmid-12526800|pmid-12787364|NA|pmid-16020788 | showed that the pcnB mutation affected degradation of rmf mRNA in stationary phase, but this effect could be indirect as it required de novo mRNA synthesis (24). | [
"12",
"13",
"14",
"15",
"16",
"17",
"17β19",
"20",
"21",
"22",
"23",
"24",
"25β27",
"24"
] | 161 | 8,408 | 1 | false | showed that the pcnB mutation affected degradation of rmf mRNA in stationary phase, but this effect could be indirect as it required de novo mRNA synthesis. | [
"24"
] | showed that the pcnB mutation affected degradation of rmf mRNA in stationary phase, but this effect could be indirect as it required de novo mRNA synthesis. | false | true | true | true | false | 1,352 |
1 | INTRODUCTION | 1 | 12 | [
"B12",
"B13",
"B14",
"B15",
"B16",
"B17",
"B17 B18 B19",
"B20",
"B21",
"B22",
"B23",
"B24",
"B25 B26 B27",
"B24"
] | 17,395,638 | pmid-12464173|pmid-15145579|pmid-10786850|pmid-16111937|pmid-16455498|pmid-1380161|pmid-1380161|pmid-7523833|pmid-7688127|pmid-12941949|pmid-15145828|pmid-7533264|pmid-10594833|pmid-15743942|pmid-7732015|pmid-7534403|pmid-14622415|pmid-15743942|pmid-12526800|pmid-12787364|NA|pmid-16020788 | However, there has been no evidence so far that polyadenylation directly controls protein levels by modulating mRNA stability. | [
"12",
"13",
"14",
"15",
"16",
"17",
"17β19",
"20",
"21",
"22",
"23",
"24",
"25β27",
"24"
] | 126 | 8,409 | 0 | false | However, there has been no evidence so far that polyadenylation directly controls protein levels by modulating mRNA stability. | [] | However, there has been no evidence so far that polyadenylation directly controls protein levels by modulating mRNA stability. | true | true | true | true | true | 1,352 |
2 | INTRODUCTION | 0 | null | null | 17,395,638 | pmid-7533264|pmid-11867541 | In an attempt to identify genes whose expression is affected by mRNA polyadenylation, we compared proteins of a wild-type and PAP I-deficient strains on 1D and 2D PAGE gels (2D-gel) | null | 181 | 8,410 | 0 | false | null | null | In an attempt to identify genes whose expression is affected by mRNA polyadenylation, we compared proteins of a wild-type and PAP I-deficient strains on 1D and 2D PAGE gels (2D-gel) | true | true | false | true | false | 1,353 |
2 | INTRODUCTION | 0 | null | null | 17,395,638 | pmid-7533264|pmid-11867541 | There were several differences and, in particular, one polypeptide; glucosamine-6-phosphate synthase (GlmS) was significantly more abundant in the mutant strain. | null | 161 | 8,411 | 0 | false | null | null | There were several differences and, in particular, one polypeptide; glucosamine-6-phosphate synthase (GlmS) was significantly more abundant in the mutant strain. | true | true | true | true | true | 1,353 |
2 | INTRODUCTION | 0 | null | null | 17,395,638 | pmid-7533264|pmid-11867541 | In this work, we demonstrate that the overexpression of GlmS is correlated with the accumulation and stabilization of the monocistronic glmS mRNA resulting from the processing of the glmU-glmS cotranscript. | null | 206 | 8,412 | 0 | false | null | null | In this work, we demonstrate that the overexpression of GlmS is correlated with the accumulation and stabilization of the monocistronic glmS mRNA resulting from the processing of the glmU-glmS cotranscript. | true | true | true | true | true | 1,353 |
0 | DISCUSSION | 1 | 37 | [
"B37",
"B38",
"B39",
"B40",
"B41"
] | 17,395,638 | pmid-3521892|pmid-1280335|pmid-14654705|pmid-11390393|pmid-7526223|pmid-9707438|pmid-12055299|pmid-2583104|pmid-11741337|pmid-16452296|pmid-8670815|pmid-11867541|pmid-11871663|pmid-12169588|pmid-10047480|pmid-17040898 | We present here evidence that poly(A)polymerase can negatively affect gene expression. | [
"37",
"38",
"39",
"40",
"41"
] | 86 | 8,413 | 0 | false | We present here evidence that poly(A)polymerase can negatively affect gene expression. | [] | We present here evidence that poly(A)polymerase can negatively affect gene expression. | true | true | true | true | true | 1,354 |
0 | DISCUSSION | 1 | 37 | [
"B37",
"B38",
"B39",
"B40",
"B41"
] | 17,395,638 | pmid-3521892|pmid-1280335|pmid-14654705|pmid-11390393|pmid-7526223|pmid-9707438|pmid-12055299|pmid-2583104|pmid-11741337|pmid-16452296|pmid-8670815|pmid-11867541|pmid-11871663|pmid-12169588|pmid-10047480|pmid-17040898 | Previously, it was thought that the role of the poly(A)-dependent pathway was to increase the turnovers of defective tRNAs (37) and non-processed RNA precursors (38), and to clear the cell of endonucleolytically produced, tightly folded mRNA fragments resistant to further degradation by exonucleases (39,40). | [
"37",
"38",
"39",
"40",
"41"
] | 309 | 8,414 | 1 | false | Previously, it was thought that the role of the poly(A)-dependent pathway was to increase the turnovers of defective tRNAs and non-processed RNA precursors, and to clear the cell of endonucleolytically produced, tightly folded mRNA fragments resistant to further degradation by exonucleases. | [
"37",
"38",
"39,40"
] | Previously, it was thought that the role of the poly(A)-dependent pathway was to increase the turnovers of defective tRNAs and non-processed RNA precursors, and to clear the cell of endonucleolytically produced, tightly folded mRNA fragments resistant to further degradation by exonucleases. | true | true | true | true | true | 1,354 |
0 | DISCUSSION | 1 | 37 | [
"B37",
"B38",
"B39",
"B40",
"B41"
] | 17,395,638 | pmid-3521892|pmid-1280335|pmid-14654705|pmid-11390393|pmid-7526223|pmid-9707438|pmid-12055299|pmid-2583104|pmid-11741337|pmid-16452296|pmid-8670815|pmid-11867541|pmid-11871663|pmid-12169588|pmid-10047480|pmid-17040898 | Here, we show that overproduction of glucosamine-6P synthase, an essential enzyme in E.coli in the absence of exogenous aminosugars, occurs upon inactivation of PAP I, and that this accumulation is correlated with the accumulation of the glmS mRNA and the reduction in its decay-rate. | [
"37",
"38",
"39",
"40",
"41"
] | 284 | 8,415 | 0 | false | Here, we show that overproduction of glucosamine-6P synthase, an essential enzyme in E.coli in the absence of exogenous aminosugars, occurs upon inactivation of PAP I, and that this accumulation is correlated with the accumulation of the glmS mRNA and the reduction in its decay-rate. | [] | Here, we show that overproduction of glucosamine-6P synthase, an essential enzyme in E.coli in the absence of exogenous aminosugars, occurs upon inactivation of PAP I, and that this accumulation is correlated with the accumulation of the glmS mRNA and the reduction in its decay-rate. | true | true | true | true | true | 1,354 |
0 | DISCUSSION | 1 | 37 | [
"B37",
"B38",
"B39",
"B40",
"B41"
] | 17,395,638 | pmid-3521892|pmid-1280335|pmid-14654705|pmid-11390393|pmid-7526223|pmid-9707438|pmid-12055299|pmid-2583104|pmid-11741337|pmid-16452296|pmid-8670815|pmid-11867541|pmid-11871663|pmid-12169588|pmid-10047480|pmid-17040898 | This led us to conclude that poly(A)-dependent degradation of the functional glmS mRNA determines the yield of GlmS. | [
"37",
"38",
"39",
"40",
"41"
] | 116 | 8,416 | 0 | false | This led us to conclude that poly(A)-dependent degradation of the functional glmS mRNA determines the yield of GlmS. | [] | This led us to conclude that poly(A)-dependent degradation of the functional glmS mRNA determines the yield of GlmS. | true | true | true | true | true | 1,354 |
0 | DISCUSSION | 1 | 41 | [
"B37",
"B38",
"B39",
"B40",
"B41"
] | 17,395,638 | pmid-3521892|pmid-1280335|pmid-14654705|pmid-11390393|pmid-7526223|pmid-9707438|pmid-12055299|pmid-2583104|pmid-11741337|pmid-16452296|pmid-8670815|pmid-11867541|pmid-11871663|pmid-12169588|pmid-10047480|pmid-17040898 | In agreement with our observation, glmS ORF was recently shown, using macroarrays, to be highly polyadenylated when PAP I is overproduced (41). | [
"37",
"38",
"39",
"40",
"41"
] | 143 | 8,417 | 1 | false | In agreement with our observation, glmS ORF was recently shown, using macroarrays, to be highly polyadenylated when PAP I is overproduced. | [
"41"
] | In agreement with our observation, glmS ORF was recently shown, using macroarrays, to be highly polyadenylated when PAP I is overproduced. | true | true | true | true | true | 1,354 |
0 | DISCUSSION | 1 | 37 | [
"B37",
"B38",
"B39",
"B40",
"B41"
] | 17,395,638 | pmid-3521892|pmid-1280335|pmid-14654705|pmid-11390393|pmid-7526223|pmid-9707438|pmid-12055299|pmid-2583104|pmid-11741337|pmid-16452296|pmid-8670815|pmid-11867541|pmid-11871663|pmid-12169588|pmid-10047480|pmid-17040898 | One cannot exclude, however, that polyadenylation acts indirectly on GlmS expression, e.g. | [
"37",
"38",
"39",
"40",
"41"
] | 90 | 8,418 | 0 | false | One cannot exclude, however, that polyadenylation acts indirectly on GlmS expression, e.g. | [] | One cannot exclude, however, that polyadenylation acts indirectly on GlmS expression, e.g. | true | true | true | true | true | 1,354 |
0 | DISCUSSION | 1 | 37 | [
"B37",
"B38",
"B39",
"B40",
"B41"
] | 17,395,638 | pmid-3521892|pmid-1280335|pmid-14654705|pmid-11390393|pmid-7526223|pmid-9707438|pmid-12055299|pmid-2583104|pmid-11741337|pmid-16452296|pmid-8670815|pmid-11867541|pmid-11871663|pmid-12169588|pmid-10047480|pmid-17040898 | by modulating the stability of a small regulatory RNA or another trans-acting factor. | [
"37",
"38",
"39",
"40",
"41"
] | 85 | 8,419 | 0 | false | by modulating the stability of a small regulatory RNA or another trans-acting factor. | [] | by modulating the stability of a small regulatory RNA or another trans-acting factor. | false | true | true | true | false | 1,354 |
1 | DISCUSSION | 1 | 42β45 | [
"B42 B43 B44 B45"
] | 17,395,638 | pmid-12464173|pmid-15145579|pmid-10786850|pmid-16111937|pmid-16455498|pmid-1380161|pmid-1380161|pmid-7523833|pmid-7688127|pmid-12941949|pmid-15145828|pmid-7533264|pmid-10594833|pmid-15743942|pmid-7732015|pmid-7534403|pmid-14622415|pmid-15743942|pmid-12526800|pmid-12787364|NA|pmid-16020788 | We also demonstrate that the glmS monocistronic mRNA, stabilized in PAP I-deficient cells, likely results from the endonucleolytic maturation of the glmUS dicistronic primary transcript. | [
"42β45"
] | 186 | 8,420 | 0 | false | We also demonstrate that the glmS monocistronic mRNA, stabilized in PAP I-deficient cells, likely results from the endonucleolytic maturation of the glmUS dicistronic primary transcript. | [] | We also demonstrate that the glmS monocistronic mRNA, stabilized in PAP I-deficient cells, likely results from the endonucleolytic maturation of the glmUS dicistronic primary transcript. | true | true | true | true | true | 1,355 |
1 | DISCUSSION | 1 | 42β45 | [
"B42 B43 B44 B45"
] | 17,395,638 | pmid-12464173|pmid-15145579|pmid-10786850|pmid-16111937|pmid-16455498|pmid-1380161|pmid-1380161|pmid-7523833|pmid-7688127|pmid-12941949|pmid-15145828|pmid-7533264|pmid-10594833|pmid-15743942|pmid-7732015|pmid-7534403|pmid-14622415|pmid-15743942|pmid-12526800|pmid-12787364|NA|pmid-16020788 | Although the dicistronic transcript was only detected in cells lacking RNase E, the fact that the monocistronic glmS transcript is still produced in these bacteria suggests that glmUS could be processed by another enzyme. | [
"42β45"
] | 221 | 8,421 | 0 | false | Although the dicistronic transcript was only detected in cells lacking RNase E, the fact that the monocistronic glmS transcript is still produced in these bacteria suggests that glmUS could be processed by another enzyme. | [] | Although the dicistronic transcript was only detected in cells lacking RNase E, the fact that the monocistronic glmS transcript is still produced in these bacteria suggests that glmUS could be processed by another enzyme. | true | true | true | true | true | 1,355 |
1 | DISCUSSION | 1 | 42β45 | [
"B42 B43 B44 B45"
] | 17,395,638 | pmid-12464173|pmid-15145579|pmid-10786850|pmid-16111937|pmid-16455498|pmid-1380161|pmid-1380161|pmid-7523833|pmid-7688127|pmid-12941949|pmid-15145828|pmid-7533264|pmid-10594833|pmid-15743942|pmid-7732015|pmid-7534403|pmid-14622415|pmid-15743942|pmid-12526800|pmid-12787364|NA|pmid-16020788 | The 5β² mRNA extremity mapping just downstream of the UGA stop codon suggests that ribosome stalling could be implicated in the mechanism of glmUS RNA processing (42β45). | [
"42β45"
] | 169 | 8,422 | 1 | false | The 5β² mRNA extremity mapping just downstream of the UGA stop codon suggests that ribosome stalling could be implicated in the mechanism of glmUS RNA processing. | [
"42β45"
] | The 5β² mRNA extremity mapping just downstream of the UGA stop codon suggests that ribosome stalling could be implicated in the mechanism of glmUS RNA processing. | true | true | true | true | true | 1,355 |
2 | DISCUSSION | 1 | 22 | [
"B22",
"B37"
] | 17,395,638 | pmid-7533264|pmid-11867541 | Interestingly, in spite of the fact that the glmS and glmUS mRNAs have identical 3β² terminal structures, we found that the primary transcript is much less sensitive to the poly(A)-assisted exonucleolytic route of decay than the monocistronic processed molecule. | [
"22",
"37"
] | 261 | 8,423 | 0 | false | Interestingly, in spite of the fact that the glmS and glmUS mRNAs have identical 3β² terminal structures, we found that the primary transcript is much less sensitive to the poly(A)-assisted exonucleolytic route of decay than the monocistronic processed molecule. | [] | Interestingly, in spite of the fact that the glmS and glmUS mRNAs have identical 3β² terminal structures, we found that the primary transcript is much less sensitive to the poly(A)-assisted exonucleolytic route of decay than the monocistronic processed molecule. | true | true | true | true | true | 1,356 |
2 | DISCUSSION | 1 | 22 | [
"B22",
"B37"
] | 17,395,638 | pmid-7533264|pmid-11867541 | An important question arising is how the poly(A)-assisted machinery of decay recognizes its targets and, in the case described above, how it distinguishes the glmS monocistronic mRNA from glmUS primary transcript and other primary transcripts. | [
"22",
"37"
] | 243 | 8,424 | 0 | false | An important question arising is how the poly(A)-assisted machinery of decay recognizes its targets and, in the case described above, how it distinguishes the glmS monocistronic mRNA from glmUS primary transcript and other primary transcripts. | [] | An important question arising is how the poly(A)-assisted machinery of decay recognizes its targets and, in the case described above, how it distinguishes the glmS monocistronic mRNA from glmUS primary transcript and other primary transcripts. | true | true | true | true | true | 1,356 |
2 | DISCUSSION | 1 | 22 | [
"B22",
"B37"
] | 17,395,638 | pmid-7533264|pmid-11867541 | The fact that the glmS and glmUS mRNA correspond to the 3β² part of the dicistronic transcript implies that it is the nature of the 5β² part of the RNA that determines its sensitivity to this pathway. | [
"22",
"37"
] | 198 | 8,425 | 0 | false | The fact that the glmS and glmUS mRNA correspond to the 3β² part of the dicistronic transcript implies that it is the nature of the 5β² part of the RNA that determines its sensitivity to this pathway. | [] | The fact that the glmS and glmUS mRNA correspond to the 3β² part of the dicistronic transcript implies that it is the nature of the 5β² part of the RNA that determines its sensitivity to this pathway. | true | true | true | true | true | 1,356 |
2 | DISCUSSION | 1 | 22 | [
"B22",
"B37"
] | 17,395,638 | pmid-7533264|pmid-11867541 | One possibility is that, as described earlier for RNA I, the 5β² monophosphorylated terminus generated by RNase E facilitates polyadenylation of the glmS mRNA and thus promotes its degradation (22). | [
"22",
"37"
] | 197 | 8,426 | 1 | false | One possibility is that, as described earlier for RNA I, the 5β² monophosphorylated terminus generated by RNase E facilitates polyadenylation of the glmS mRNA and thus promotes its degradation. | [
"22"
] | One possibility is that, as described earlier for RNA I, the 5β² monophosphorylated terminus generated by RNase E facilitates polyadenylation of the glmS mRNA and thus promotes its degradation. | true | true | true | true | true | 1,356 |
2 | DISCUSSION | 1 | 22 | [
"B22",
"B37"
] | 17,395,638 | pmid-7533264|pmid-11867541 | Such a model could explain why the RNase E-processed mRNA is more sensitive to the poly(A)-dependent pathway than the primary transcript harbouring a 5β² triphosphate extremity. | [
"22",
"37"
] | 176 | 8,427 | 0 | false | Such a model could explain why the RNase E-processed mRNA is more sensitive to the poly(A)-dependent pathway than the primary transcript harbouring a 5β² triphosphate extremity. | [] | Such a model could explain why the RNase E-processed mRNA is more sensitive to the poly(A)-dependent pathway than the primary transcript harbouring a 5β² triphosphate extremity. | true | true | true | true | true | 1,356 |
2 | DISCUSSION | 1 | 22 | [
"B22",
"B37"
] | 17,395,638 | pmid-7533264|pmid-11867541 | At the moment, the mechanism by which the 5β² end of the long 1.9-kb glmS mRNA could affect a reaction occurring at its 3β² end is not known. | [
"22",
"37"
] | 139 | 8,428 | 0 | false | At the moment, the mechanism by which the 5β² end of the long 1.9-kb glmS mRNA could affect a reaction occurring at its 3β² end is not known. | [] | At the moment, the mechanism by which the 5β² end of the long 1.9-kb glmS mRNA could affect a reaction occurring at its 3β² end is not known. | true | true | true | true | true | 1,356 |
2 | DISCUSSION | 1 | 37 | [
"B22",
"B37"
] | 17,395,638 | pmid-7533264|pmid-11867541 | A greater accessibility of the 3β² end has been proposed to explain why the precursor of a mutated tRNATrp is degraded by a poly(A)-dependent pathway (37). | [
"22",
"37"
] | 154 | 8,429 | 1 | false | A greater accessibility of the 3β² end has been proposed to explain why the precursor of a mutated tRNATrp is degraded by a poly(A)-dependent pathway. | [
"37"
] | A greater accessibility of the 3β² end has been proposed to explain why the precursor of a mutated tRNATrp is degraded by a poly(A)-dependent pathway. | true | true | true | true | true | 1,356 |
2 | DISCUSSION | 1 | 22 | [
"B22",
"B37"
] | 17,395,638 | pmid-7533264|pmid-11867541 | One can imagine that refolding of the glmS mRNA consecutive to the processing of the primary transcript improves accessibility of PAP I and/or exoribonucleases at its 3β² end. | [
"22",
"37"
] | 174 | 8,430 | 0 | false | One can imagine that refolding of the glmS mRNA consecutive to the processing of the primary transcript improves accessibility of PAP I and/or exoribonucleases at its 3β² end. | [] | One can imagine that refolding of the glmS mRNA consecutive to the processing of the primary transcript improves accessibility of PAP I and/or exoribonucleases at its 3β² end. | true | true | true | true | true | 1,356 |
2 | DISCUSSION | 1 | 22 | [
"B22",
"B37"
] | 17,395,638 | pmid-7533264|pmid-11867541 | It is possible, for example, that translation of glmS is coupled to that of the upstream gene glmU and that a reduction of ribosome loading of the glmS message consecutive to the removal of the upstream glmU cistron modifies the folding of the molecule. | [
"22",
"37"
] | 253 | 8,431 | 0 | false | It is possible, for example, that translation of glmS is coupled to that of the upstream gene glmU and that a reduction of ribosome loading of the glmS message consecutive to the removal of the upstream glmU cistron modifies the folding of the molecule. | [] | It is possible, for example, that translation of glmS is coupled to that of the upstream gene glmU and that a reduction of ribosome loading of the glmS message consecutive to the removal of the upstream glmU cistron modifies the folding of the molecule. | true | true | true | true | true | 1,356 |
3 | DISCUSSION | 1 | 46 | [
"B46",
"B25 B26 B27"
] | 17,395,638 | pmid-9790196|pmid-7732015|pmid-7534403|pmid-14622415 | It is worth mentioning here that the 5β² monophosphate extremity that may trigger the poly(A)-dependent decay of the glmS mRNA may also promote its degradation by RNase E (46). | [
"46",
"25β27"
] | 175 | 8,432 | 1 | false | It is worth mentioning here that the 5β² monophosphate extremity that may trigger the poly(A)-dependent decay of the glmS mRNA may also promote its degradation by RNase E. | [
"46"
] | It is worth mentioning here that the 5β² monophosphate extremity that may trigger the poly(A)-dependent decay of the glmS mRNA may also promote its degradation by RNase E. | true | true | true | true | true | 1,357 |
3 | DISCUSSION | 1 | 46 | [
"B46",
"B25 B26 B27"
] | 17,395,638 | pmid-9790196|pmid-7732015|pmid-7534403|pmid-14622415 | The fact that the glmS mRNA accumulates in the absence of PAP I at 30Β°C, 37Β°C but not at 44Β°C is consistent with the idea that the efficiency of its degradation by RNase E increases at high temperature. | [
"46",
"25β27"
] | 202 | 8,433 | 0 | false | The fact that the glmS mRNA accumulates in the absence of PAP I at 30Β°C, 37Β°C but not at 44Β°C is consistent with the idea that the efficiency of its degradation by RNase E increases at high temperature. | [] | The fact that the glmS mRNA accumulates in the absence of PAP I at 30Β°C, 37Β°C but not at 44Β°C is consistent with the idea that the efficiency of its degradation by RNase E increases at high temperature. | true | true | true | true | true | 1,357 |
3 | DISCUSSION | 1 | 46 | [
"B46",
"B25 B26 B27"
] | 17,395,638 | pmid-9790196|pmid-7732015|pmid-7534403|pmid-14622415 | In contrast, this observation indicates that the contribution of the poly(A)-dependent pathway to the decay of this message increases at low temperature. | [
"46",
"25β27"
] | 153 | 8,434 | 0 | false | In contrast, this observation indicates that the contribution of the poly(A)-dependent pathway to the decay of this message increases at low temperature. | [] | In contrast, this observation indicates that the contribution of the poly(A)-dependent pathway to the decay of this message increases at low temperature. | true | true | true | true | true | 1,357 |
3 | DISCUSSION | 1 | 46 | [
"B46",
"B25 B26 B27"
] | 17,395,638 | pmid-9790196|pmid-7732015|pmid-7534403|pmid-14622415 | It therefore appears that RNase E exerts a predominant role in mRNA decay around the optimum temperature of growth and that the poly(A)-dependent degradation may substitute for RNase E at lower temperatures. | [
"46",
"25β27"
] | 207 | 8,435 | 0 | false | It therefore appears that RNase E exerts a predominant role in mRNA decay around the optimum temperature of growth and that the poly(A)-dependent degradation may substitute for RNase E at lower temperatures. | [] | It therefore appears that RNase E exerts a predominant role in mRNA decay around the optimum temperature of growth and that the poly(A)-dependent degradation may substitute for RNase E at lower temperatures. | true | true | true | true | true | 1,357 |
3 | DISCUSSION | 1 | 25β27 | [
"B46",
"B25 B26 B27"
] | 17,395,638 | pmid-9790196|pmid-7732015|pmid-7534403|pmid-14622415 | The idea that poly(A)-dependent decay can substitute for RNase E is also supported by earlier data showing that this pathway becomes effective on mRNAs that are no longer degraded by RNase E (25β27). | [
"46",
"25β27"
] | 199 | 8,436 | 1 | false | The idea that poly(A)-dependent decay can substitute for RNase E is also supported by earlier data showing that this pathway becomes effective on mRNAs that are no longer degraded by RNase E. | [
"25β27"
] | The idea that poly(A)-dependent decay can substitute for RNase E is also supported by earlier data showing that this pathway becomes effective on mRNAs that are no longer degraded by RNase E. | true | true | true | true | true | 1,357 |
4 | DISCUSSION | 1 | 47 | [
"B47",
"B36",
"B35",
"B48",
"B49",
"B50"
] | 17,395,638 | pmid-3297136|pmid-8349539|pmid-7545108|pmid-9829937|pmid-12794188|pmid-15029187 | GlmS catalyzes the conversion of fructose-6-phosphate into glucosamine-6-phosphate, which then undergoes sequential transformations leading to the formation of UDP-N-acetylglucosamine, the major intermediate in the biosynthesis of all amino-sugar-containing macromolecules in the cell (47). | [
"47",
"36",
"35",
"48",
"49",
"50"
] | 290 | 8,437 | 1 | false | GlmS catalyzes the conversion of fructose-6-phosphate into glucosamine-6-phosphate, which then undergoes sequential transformations leading to the formation of UDP-N-acetylglucosamine, the major intermediate in the biosynthesis of all amino-sugar-containing macromolecules in the cell. | [
"47"
] | GlmS catalyzes the conversion of fructose-6-phosphate into glucosamine-6-phosphate, which then undergoes sequential transformations leading to the formation of UDP-N-acetylglucosamine, the major intermediate in the biosynthesis of all amino-sugar-containing macromolecules in the cell. | true | true | true | true | true | 1,358 |
4 | DISCUSSION | 1 | 36 | [
"B47",
"B36",
"B35",
"B48",
"B49",
"B50"
] | 17,395,638 | pmid-3297136|pmid-8349539|pmid-7545108|pmid-9829937|pmid-12794188|pmid-15029187 | Regulation of glmS expression occurs both at the transcriptional level (36) with NagC acting as both an activator and a repressor of the glmUS operon in E.coli (35) and at the posttranscriptional level (present work). | [
"47",
"36",
"35",
"48",
"49",
"50"
] | 217 | 8,438 | 1 | false | Regulation of glmS expression occurs both at the transcriptional level with NagC acting as both an activator and a repressor of the glmUS operon in E.coli and at the posttranscriptional level (present work). | [
"36",
"35"
] | Regulation of glmS expression occurs both at the transcriptional level with NagC acting as both an activator and a repressor of the glmUS operon in E.coli and at the posttranscriptional level (present work). | true | true | true | true | true | 1,358 |
4 | DISCUSSION | 1 | 47 | [
"B47",
"B36",
"B35",
"B48",
"B49",
"B50"
] | 17,395,638 | pmid-3297136|pmid-8349539|pmid-7545108|pmid-9829937|pmid-12794188|pmid-15029187 | Interestingly, the expression of the glmS gene of Bacillus subtilis is also subject to a regulatory mechanism involving the processing and the degradation of its mRNA. | [
"47",
"36",
"35",
"48",
"49",
"50"
] | 167 | 8,439 | 0 | false | Interestingly, the expression of the glmS gene of Bacillus subtilis is also subject to a regulatory mechanism involving the processing and the degradation of its mRNA. | [] | Interestingly, the expression of the glmS gene of Bacillus subtilis is also subject to a regulatory mechanism involving the processing and the degradation of its mRNA. | true | true | true | true | true | 1,358 |
4 | DISCUSSION | 1 | 47 | [
"B47",
"B36",
"B35",
"B48",
"B49",
"B50"
] | 17,395,638 | pmid-3297136|pmid-8349539|pmid-7545108|pmid-9829937|pmid-12794188|pmid-15029187 | However, in these bacteria lacking orthologs of both RNase E and PAP I (48,49), an alternate strategy has emerged. | [
"47",
"36",
"35",
"48",
"49",
"50"
] | 114 | 8,440 | 0 | false | However, in these bacteria lacking orthologs of both RNase E and PAP I, an alternate strategy has emerged. | [
"48,49"
] | However, in these bacteria lacking orthologs of both RNase E and PAP I, an alternate strategy has emerged. | true | true | true | true | true | 1,358 |
4 | DISCUSSION | 1 | 50 | [
"B47",
"B36",
"B35",
"B48",
"B49",
"B50"
] | 17,395,638 | pmid-3297136|pmid-8349539|pmid-7545108|pmid-9829937|pmid-12794188|pmid-15029187 | A new class of ribozyme that cleaves the messenger of the glmS mRNA was discovered, which is activated by GlcN6P (50). | [
"47",
"36",
"35",
"48",
"49",
"50"
] | 118 | 8,441 | 1 | false | A new class of ribozyme that cleaves the messenger of the glmS mRNA was discovered, which is activated by GlcN6P. | [
"50"
] | A new class of ribozyme that cleaves the messenger of the glmS mRNA was discovered, which is activated by GlcN6P. | true | true | true | true | true | 1,358 |
4 | DISCUSSION | 1 | 47 | [
"B47",
"B36",
"B35",
"B48",
"B49",
"B50"
] | 17,395,638 | pmid-3297136|pmid-8349539|pmid-7545108|pmid-9829937|pmid-12794188|pmid-15029187 | In spite of some sequence homology in the glmU-glmS intergenic region in bacterial species closely related to E.coli, in-line probing did not reveal any structural changes or self-cleavage activity when the entire E.coli intergenic glmU-glmS region was incubated with either Glc6P or GlcN6P (Elaine Lee and Ron Breaker, ... | [
"47",
"36",
"35",
"48",
"49",
"50"
] | 344 | 8,442 | 0 | false | In spite of some sequence homology in the glmU-glmS intergenic region in bacterial species closely related to E.coli, in-line probing did not reveal any structural changes or self-cleavage activity when the entire E.coli intergenic glmU-glmS region was incubated with either Glc6P or GlcN6P (Elaine Lee and Ron Breaker, ... | [] | In spite of some sequence homology in the glmU-glmS intergenic region in bacterial species closely related to E.coli, in-line probing did not reveal any structural changes or self-cleavage activity when the entire E.coli intergenic glmU-glmS region was incubated with either Glc6P or GlcN6P (Elaine Lee and Ron Breaker, ... | true | true | true | true | true | 1,358 |
4 | DISCUSSION | 1 | 47 | [
"B47",
"B36",
"B35",
"B48",
"B49",
"B50"
] | 17,395,638 | pmid-3297136|pmid-8349539|pmid-7545108|pmid-9829937|pmid-12794188|pmid-15029187 | It therefore appears that different strategies exist that allow sensitive control of glmS mRNA and hence protein levels despite the fact that the machineries of mRNA processing and degradation are very different. | [
"47",
"36",
"35",
"48",
"49",
"50"
] | 212 | 8,443 | 0 | false | It therefore appears that different strategies exist that allow sensitive control of glmS mRNA and hence protein levels despite the fact that the machineries of mRNA processing and degradation are very different. | [] | It therefore appears that different strategies exist that allow sensitive control of glmS mRNA and hence protein levels despite the fact that the machineries of mRNA processing and degradation are very different. | true | true | true | true | true | 1,358 |
4 | DISCUSSION | 1 | 47 | [
"B47",
"B36",
"B35",
"B48",
"B49",
"B50"
] | 17,395,638 | pmid-3297136|pmid-8349539|pmid-7545108|pmid-9829937|pmid-12794188|pmid-15029187 | Such pathways may present selective advantages that could explain their conservation in Gram-positive and Gram-negative bacteria. | [
"47",
"36",
"35",
"48",
"49",
"50"
] | 129 | 8,444 | 0 | false | Such pathways may present selective advantages that could explain their conservation in Gram-positive and Gram-negative bacteria. | [] | Such pathways may present selective advantages that could explain their conservation in Gram-positive and Gram-negative bacteria. | true | true | true | true | true | 1,358 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b3",
"b2",
"b4",
"b2",
"b5",
"b7",
"b8",
"b9",
"b10",
"b13"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | Biology textbooks typically use phenotypic characters to describe clades, e.g. | [
"1",
"2",
"3",
"2",
"4",
"2",
"5",
"7",
"8",
"9",
"10",
"13"
] | 78 | 8,445 | 0 | false | Biology textbooks typically use phenotypic characters to describe clades, e.g. | [] | Biology textbooks typically use phenotypic characters to describe clades, e.g. | true | true | true | true | true | 1,359 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b3",
"b2",
"b4",
"b2",
"b5",
"b7",
"b8",
"b9",
"b10",
"b13"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | milk and hair for mammals. | [
"1",
"2",
"3",
"2",
"4",
"2",
"5",
"7",
"8",
"9",
"10",
"13"
] | 26 | 8,446 | 0 | false | milk and hair for mammals. | [] | milk and hair for mammals. | false | true | true | true | false | 1,359 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b3",
"b2",
"b4",
"b2",
"b5",
"b7",
"b8",
"b9",
"b10",
"b13"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | Not only do these synapomorphies aid in phylogenetic inference, but they also record key innovations in the history of life, as exemplified by such famous clades as Amniota and Eutheria (placental mammals). | [
"1",
"2",
"3",
"2",
"4",
"2",
"5",
"7",
"8",
"9",
"10",
"13"
] | 206 | 8,447 | 0 | false | Not only do these synapomorphies aid in phylogenetic inference, but they also record key innovations in the history of life, as exemplified by such famous clades as Amniota and Eutheria (placental mammals). | [] | Not only do these synapomorphies aid in phylogenetic inference, but they also record key innovations in the history of life, as exemplified by such famous clades as Amniota and Eutheria (placental mammals). | true | true | true | true | true | 1,359 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b3",
"b2",
"b4",
"b2",
"b5",
"b7",
"b8",
"b9",
"b10",
"b13"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | A number of papers have used molecular synapomorphies to weigh in on phylogenetic debates. | [
"1",
"2",
"3",
"2",
"4",
"2",
"5",
"7",
"8",
"9",
"10",
"13"
] | 90 | 8,448 | 0 | false | A number of papers have used molecular synapomorphies to weigh in on phylogenetic debates. | [] | A number of papers have used molecular synapomorphies to weigh in on phylogenetic debates. | true | true | true | true | true | 1,359 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b3",
"b2",
"b4",
"b2",
"b5",
"b7",
"b8",
"b9",
"b10",
"b13"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | A convincing molecular synapomorphy can often resolve a phylogeny that cannot be unambiguously determined by more continuously varying characters (1). | [
"1",
"2",
"3",
"2",
"4",
"2",
"5",
"7",
"8",
"9",
"10",
"13"
] | 150 | 8,449 | 1 | false | A convincing molecular synapomorphy can often resolve a phylogeny that cannot be unambiguously determined by more continuously varying characters. | [
"1"
] | A convincing molecular synapomorphy can often resolve a phylogeny that cannot be unambiguously determined by more continuously varying characters. | true | true | true | true | true | 1,359 |
0 | INTRODUCTION | 1 | 2 | [
"b1",
"b2",
"b3",
"b2",
"b4",
"b2",
"b5",
"b7",
"b8",
"b9",
"b10",
"b13"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | Moreover, characteristic proteins (2) or regulatory sequences (3)βi.e. | [
"1",
"2",
"3",
"2",
"4",
"2",
"5",
"7",
"8",
"9",
"10",
"13"
] | 70 | 8,450 | 1 | false | Moreover, characteristic proteins or regulatory sequences βi.e. | [
"2",
"3"
] | Moreover, characteristic proteins or regulatory sequences βi.e. | true | true | true | true | true | 1,359 |
0 | INTRODUCTION | 1 | 2 | [
"b1",
"b2",
"b3",
"b2",
"b4",
"b2",
"b5",
"b7",
"b8",
"b9",
"b10",
"b13"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | sequences restricted to hypothesized cladesβmay represent landmark evolutionary events, such as the divergence of metazoans (2) or the origin of the bilaterian body plan (4). | [
"1",
"2",
"3",
"2",
"4",
"2",
"5",
"7",
"8",
"9",
"10",
"13"
] | 174 | 8,451 | 1 | false | sequences restricted to hypothesized cladesβmay represent landmark evolutionary events, such as the divergence of metazoans or the origin of the bilaterian body plan. | [
"2",
"4"
] | sequences restricted to hypothesized cladesβmay represent landmark evolutionary events, such as the divergence of metazoans or the origin of the bilaterian body plan. | false | true | true | true | false | 1,359 |
0 | INTRODUCTION | 1 | 2 | [
"b1",
"b2",
"b3",
"b2",
"b4",
"b2",
"b5",
"b7",
"b8",
"b9",
"b10",
"b13"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | Characteristic proteins are currently found, with some effort, by local alignment searching each gene in each genome of interest against all other genomes (2), or by the use of predefined ortholog collections, such as the COGs database (5β7). | [
"1",
"2",
"3",
"2",
"4",
"2",
"5",
"7",
"8",
"9",
"10",
"13"
] | 242 | 8,452 | 1 | false | Characteristic proteins are currently found, with some effort, by local alignment searching each gene in each genome of interest against all other genomes, or by the use of predefined ortholog collections, such as the COGs database. | [
"2",
"5β7"
] | Characteristic proteins are currently found, with some effort, by local alignment searching each gene in each genome of interest against all other genomes, or by the use of predefined ortholog collections, such as the COGs database. | true | true | true | true | true | 1,359 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b3",
"b2",
"b4",
"b2",
"b5",
"b7",
"b8",
"b9",
"b10",
"b13"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | More subtle synapomorphies, such as insertions or deletions are found serendipitously by researchers studying specific genes (8,9), or more systematically by manual examination of multiple alignments (10β13). | [
"1",
"2",
"3",
"2",
"4",
"2",
"5",
"7",
"8",
"9",
"10",
"13"
] | 208 | 8,453 | 0 | false | More subtle synapomorphies, such as insertions or deletions are found serendipitously by researchers studying specific genes, or more systematically by manual examination of multiple alignments. | [
"8,9",
"10β13"
] | More subtle synapomorphies, such as insertions or deletions are found serendipitously by researchers studying specific genes, or more systematically by manual examination of multiple alignments. | true | true | true | true | true | 1,359 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b3",
"b2",
"b4",
"b2",
"b5",
"b7",
"b8",
"b9",
"b10",
"b13"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | As more sequence becomes available, there is a need and opportunity to further automate the search for molecular synapomorphies. | [
"1",
"2",
"3",
"2",
"4",
"2",
"5",
"7",
"8",
"9",
"10",
"13"
] | 128 | 8,454 | 0 | false | As more sequence becomes available, there is a need and opportunity to further automate the search for molecular synapomorphies. | [] | As more sequence becomes available, there is a need and opportunity to further automate the search for molecular synapomorphies. | true | true | true | true | true | 1,359 |
1 | INTRODUCTION | 1 | 14 | [
"b14",
"b15",
"b16",
"b17",
"b18",
"b19"
] | 16,936,320 | pmid-12098695|pmid-12049665|pmid-10101183|pmid-7603565|NA|NA|pmid-9841678|pmid-15239383 | In this paper, we report on a synapomorphy search tool, called Conserv, that takes as input two sets of genomes: those for the putative clade, or in-group, and those for an out-group. | [
"14",
"15",
"16",
"17",
"18",
"19"
] | 183 | 8,455 | 0 | false | In this paper, we report on a synapomorphy search tool, called Conserv, that takes as input two sets of genomes: those for the putative clade, or in-group, and those for an out-group. | [] | In this paper, we report on a synapomorphy search tool, called Conserv, that takes as input two sets of genomes: those for the putative clade, or in-group, and those for an out-group. | true | true | true | true | true | 1,360 |
1 | INTRODUCTION | 1 | 14 | [
"b14",
"b15",
"b16",
"b17",
"b18",
"b19"
] | 16,936,320 | pmid-12098695|pmid-12049665|pmid-10101183|pmid-7603565|NA|NA|pmid-9841678|pmid-15239383 | The types of molecular synapomorphies we consider are as follows: (i) signature genes ubiquitous and unique to the clade, (ii) large insertions or deletions (indels) present only within the clade and (iii) sequence motifs well conserved within the clade but quite different outside the clade. | [
"14",
"15",
"16",
"17",
"18",
"19"
] | 292 | 8,456 | 0 | false | The types of molecular synapomorphies we consider are as follows: (i) signature genes ubiquitous and unique to the clade, (ii) large insertions or deletions (indels) present only within the clade and (iii) sequence motifs well conserved within the clade but quite different outside the clade. | [] | The types of molecular synapomorphies we consider are as follows: (i) signature genes ubiquitous and unique to the clade, (ii) large insertions or deletions (indels) present only within the clade and (iii) sequence motifs well conserved within the clade but quite different outside the clade. | true | true | true | true | true | 1,360 |
1 | INTRODUCTION | 1 | 14 | [
"b14",
"b15",
"b16",
"b17",
"b18",
"b19"
] | 16,936,320 | pmid-12098695|pmid-12049665|pmid-10101183|pmid-7603565|NA|NA|pmid-9841678|pmid-15239383 | Type (i) is generally the rarest and type (iii) the most common, so these types are roughly ordered from strongest to weakest phylogenetic evidence. | [
"14",
"15",
"16",
"17",
"18",
"19"
] | 148 | 8,457 | 0 | false | Type (i) is generally the rarest and type (iii) the most common, so these types are roughly ordered from strongest to weakest phylogenetic evidence. | [] | Type (i) is generally the rarest and type (iii) the most common, so these types are roughly ordered from strongest to weakest phylogenetic evidence. | true | true | true | true | true | 1,360 |
1 | INTRODUCTION | 1 | 14 | [
"b14",
"b15",
"b16",
"b17",
"b18",
"b19"
] | 16,936,320 | pmid-12098695|pmid-12049665|pmid-10101183|pmid-7603565|NA|NA|pmid-9841678|pmid-15239383 | Each type includes both strong and weak examples, however, and sequence alone cannot distinguish orthologs with novel function or structure, so we somewhat arbitrarily set the boundary between types (i) and (iii) using BLAST score thresholds that varied with the probe sequence length. | [
"14",
"15",
"16",
"17",
"18",
"19"
] | 285 | 8,458 | 0 | false | Each type includes both strong and weak examples, however, and sequence alone cannot distinguish orthologs with novel function or structure, so we somewhat arbitrarily set the boundary between types (i) and (iii) using BLAST score thresholds that varied with the probe sequence length. | [] | Each type includes both strong and weak examples, however, and sequence alone cannot distinguish orthologs with novel function or structure, so we somewhat arbitrarily set the boundary between types (i) and (iii) using BLAST score thresholds that varied with the probe sequence length. | true | true | true | true | true | 1,360 |
1 | INTRODUCTION | 1 | 14 | [
"b14",
"b15",
"b16",
"b17",
"b18",
"b19"
] | 16,936,320 | pmid-12098695|pmid-12049665|pmid-10101183|pmid-7603565|NA|NA|pmid-9841678|pmid-15239383 | We do not consider other types of synapomorphies, such as gene fusions (14,15) or changes in gene order (16,17). | [
"14",
"15",
"16",
"17",
"18",
"19"
] | 112 | 8,459 | 0 | false | We do not consider other types of synapomorphies, such as gene fusions or changes in gene order. | [
"14,15",
"16,17"
] | We do not consider other types of synapomorphies, such as gene fusions or changes in gene order. | true | true | true | true | true | 1,360 |
1 | INTRODUCTION | 1 | 14 | [
"b14",
"b15",
"b16",
"b17",
"b18",
"b19"
] | 16,936,320 | pmid-12098695|pmid-12049665|pmid-10101183|pmid-7603565|NA|NA|pmid-9841678|pmid-15239383 | No matter the type, synapomorphies possess the same allure. | [
"14",
"15",
"16",
"17",
"18",
"19"
] | 59 | 8,460 | 0 | false | No matter the type, synapomorphies possess the same allure. | [] | No matter the type, synapomorphies possess the same allure. | true | true | true | true | true | 1,360 |
1 | INTRODUCTION | 1 | 18 | [
"b14",
"b15",
"b16",
"b17",
"b18",
"b19"
] | 16,936,320 | pmid-12098695|pmid-12049665|pmid-10101183|pmid-7603565|NA|NA|pmid-9841678|pmid-15239383 | They represent rareβpossibly even uniqueβevents that can potentially overcome the βratio problemβ illustrated in Figure 1: clock-like evolutionary models are inherently limited in their ability to resolve a short internal branch followed by long branches to leaves (18). | [
"14",
"15",
"16",
"17",
"18",
"19"
] | 270 | 8,461 | 1 | false | They represent rareβpossibly even uniqueβevents that can potentially overcome the βratio problemβ illustrated in Figure 1: clock-like evolutionary models are inherently limited in their ability to resolve a short internal branch followed by long branches to leaves. | [
"18"
] | They represent rareβpossibly even uniqueβevents that can potentially overcome the βratio problemβ illustrated in Figure 1: clock-like evolutionary models are inherently limited in their ability to resolve a short internal branch followed by long branches to leaves. | true | true | true | true | true | 1,360 |
1 | INTRODUCTION | 1 | 19 | [
"b14",
"b15",
"b16",
"b17",
"b18",
"b19"
] | 16,936,320 | pmid-12098695|pmid-12049665|pmid-10101183|pmid-7603565|NA|NA|pmid-9841678|pmid-15239383 | Sequence characteristics with an extremely large number of character states, however, as is the case with signature genes or long indels, can theoretically still retain information (19). | [
"14",
"15",
"16",
"17",
"18",
"19"
] | 186 | 8,462 | 1 | false | Sequence characteristics with an extremely large number of character states, however, as is the case with signature genes or long indels, can theoretically still retain information. | [
"19"
] | Sequence characteristics with an extremely large number of character states, however, as is the case with signature genes or long indels, can theoretically still retain information. | true | true | true | true | true | 1,360 |
2 | INTRODUCTION | 1 | 20 | [
"b20",
"b21"
] | 16,936,320 | pmid-7984417|pmid-15034147|pmid-8783936|pmid-10101183|pmid-7603565|pmid-15535883 | Conceptually, we can think of Conserv as performing three steps. | [
"20",
"21"
] | 64 | 8,463 | 0 | false | Conceptually, we can think of Conserv as performing three steps. | [] | Conceptually, we can think of Conserv as performing three steps. | true | true | true | true | true | 1,361 |
2 | INTRODUCTION | 1 | 20 | [
"b20",
"b21"
] | 16,936,320 | pmid-7984417|pmid-15034147|pmid-8783936|pmid-10101183|pmid-7603565|pmid-15535883 | First it performs an all-against-all local alignment search, probing each protein-coding gene in each genome against every other genome. | [
"20",
"21"
] | 136 | 8,464 | 0 | false | First it performs an all-against-all local alignment search, probing each protein-coding gene in each genome against every other genome. | [] | First it performs an all-against-all local alignment search, probing each protein-coding gene in each genome against every other genome. | true | true | true | true | true | 1,361 |
2 | INTRODUCTION | 1 | 20 | [
"b20",
"b21"
] | 16,936,320 | pmid-7984417|pmid-15034147|pmid-8783936|pmid-10101183|pmid-7603565|pmid-15535883 | Second, it processes the resulting sets of hits to find the orthologous families most conserved over the in-group genomes. | [
"20",
"21"
] | 122 | 8,465 | 0 | false | Second, it processes the resulting sets of hits to find the orthologous families most conserved over the in-group genomes. | [] | Second, it processes the resulting sets of hits to find the orthologous families most conserved over the in-group genomes. | true | true | true | true | true | 1,361 |
2 | INTRODUCTION | 1 | 20 | [
"b20",
"b21"
] | 16,936,320 | pmid-7984417|pmid-15034147|pmid-8783936|pmid-10101183|pmid-7603565|pmid-15535883 | Third, it ranks the families by βsynaptitudeβ, which measures in-group pairwise similarity scores relative to in-to-out similarity scores. | [
"20",
"21"
] | 138 | 8,466 | 0 | false | Third, it ranks the families by βsynaptitudeβ, which measures in-group pairwise similarity scores relative to in-to-out similarity scores. | [] | Third, it ranks the families by βsynaptitudeβ, which measures in-group pairwise similarity scores relative to in-to-out similarity scores. | true | true | true | true | true | 1,361 |
2 | INTRODUCTION | 1 | 20 | [
"b20",
"b21"
] | 16,936,320 | pmid-7984417|pmid-15034147|pmid-8783936|pmid-10101183|pmid-7603565|pmid-15535883 | All three types of molecular synapomorphies, (iβiii) above, show up near the top of the ranked list. | [
"20",
"21"
] | 100 | 8,467 | 0 | false | All three types of molecular synapomorphies, (iβiii) above, show up near the top of the ranked list. | [] | All three types of molecular synapomorphies, (iβiii) above, show up near the top of the ranked list. | true | true | true | true | true | 1,361 |
2 | INTRODUCTION | 1 | 20 | [
"b20",
"b21"
] | 16,936,320 | pmid-7984417|pmid-15034147|pmid-8783936|pmid-10101183|pmid-7603565|pmid-15535883 | Evaluation of the significance of the discovered synapomorphies remains a manual (and poorly understood) process, but this step can be facilitated by existing bioinformatics tools, such as local alignment search and multiple alignment programs (20,21). | [
"20",
"21"
] | 252 | 8,468 | 0 | false | Evaluation of the significance of the discovered synapomorphies remains a manual (and poorly understood) process, but this step can be facilitated by existing bioinformatics tools, such as local alignment search and multiple alignment programs. | [
"20,21"
] | Evaluation of the significance of the discovered synapomorphies remains a manual (and poorly understood) process, but this step can be facilitated by existing bioinformatics tools, such as local alignment search and multiple alignment programs. | true | true | true | true | true | 1,361 |
3 | INTRODUCTION | 1 | 5 | [
"b5",
"b22",
"b22",
"b24",
"b25",
"b25",
"b26"
] | 16,936,320 | pmid-12515582|NA|NA|pmid-15681613|NA|NA|pmid-9918945 | We emphasize that Conserv is a search tool, and not a complete tool for inferring a phylogenetic tree or network. | [
"5",
"22",
"22",
"24",
"25",
"25",
"26"
] | 113 | 8,469 | 0 | false | We emphasize that Conserv is a search tool, and not a complete tool for inferring a phylogenetic tree or network. | [] | We emphasize that Conserv is a search tool, and not a complete tool for inferring a phylogenetic tree or network. | true | true | true | true | true | 1,362 |
3 | INTRODUCTION | 1 | 22 | [
"b5",
"b22",
"b22",
"b24",
"b25",
"b25",
"b26"
] | 16,936,320 | pmid-12515582|NA|NA|pmid-15681613|NA|NA|pmid-9918945 | Conserv's candidate synapomorphies can be used in conjunction with methods, such as parsimony (5,22) or Dollo parsimony (22) to reconstruct a tree; however, because conserved genes and indels that occur in only a single putative clade are rare, Conserv is unlikely to find enough synapomorphies to reconstruct a large tr... | [
"5",
"22",
"22",
"24",
"25",
"25",
"26"
] | 323 | 8,470 | 1 | false | Conserv's candidate synapomorphies can be used in conjunction with methods, such as parsimony or Dollo parsimony to reconstruct a tree; however, because conserved genes and indels that occur in only a single putative clade are rare, Conserv is unlikely to find enough synapomorphies to reconstruct a large tree. | [
"5,22",
"22"
] | Conserv's candidate synapomorphies can be used in conjunction with methods, such as parsimony or Dollo parsimony to reconstruct a tree; however, because conserved genes and indels that occur in only a single putative clade are rare, Conserv is unlikely to find enough synapomorphies to reconstruct a large tree. | true | true | true | true | true | 1,362 |
3 | INTRODUCTION | 1 | 5 | [
"b5",
"b22",
"b22",
"b24",
"b25",
"b25",
"b26"
] | 16,936,320 | pmid-12515582|NA|NA|pmid-15681613|NA|NA|pmid-9918945 | In this case, the program can provide confirmatory evidence and help evaluate trees suggested by other means. | [
"5",
"22",
"22",
"24",
"25",
"25",
"26"
] | 109 | 8,471 | 0 | false | In this case, the program can provide confirmatory evidence and help evaluate trees suggested by other means. | [] | In this case, the program can provide confirmatory evidence and help evaluate trees suggested by other means. | true | true | true | true | true | 1,362 |
3 | INTRODUCTION | 1 | 5 | [
"b5",
"b22",
"b22",
"b24",
"b25",
"b25",
"b26"
] | 16,936,320 | pmid-12515582|NA|NA|pmid-15681613|NA|NA|pmid-9918945 | Notice that phylogeny by synapomorphies and parsimony is quite distinct from phylogeny by gene content (24,25), as a single gene with the right distribution pattern may decide a branch, whereas such a gene counts no more heavily than one with a scattered distribution in gene-content methods. | [
"5",
"22",
"22",
"24",
"25",
"25",
"26"
] | 292 | 8,472 | 0 | false | Notice that phylogeny by synapomorphies and parsimony is quite distinct from phylogeny by gene content, as a single gene with the right distribution pattern may decide a branch, whereas such a gene counts no more heavily than one with a scattered distribution in gene-content methods. | [
"24,25"
] | Notice that phylogeny by synapomorphies and parsimony is quite distinct from phylogeny by gene content, as a single gene with the right distribution pattern may decide a branch, whereas such a gene counts no more heavily than one with a scattered distribution in gene-content methods. | true | true | true | true | true | 1,362 |
3 | INTRODUCTION | 1 | 5 | [
"b5",
"b22",
"b22",
"b24",
"b25",
"b25",
"b26"
] | 16,936,320 | pmid-12515582|NA|NA|pmid-15681613|NA|NA|pmid-9918945 | Finally, it is worth reiterating that Conserv is a relatively simple tool, optimized for speed. | [
"5",
"22",
"22",
"24",
"25",
"25",
"26"
] | 95 | 8,473 | 0 | false | Finally, it is worth reiterating that Conserv is a relatively simple tool, optimized for speed. | [] | Finally, it is worth reiterating that Conserv is a relatively simple tool, optimized for speed. | true | true | true | true | true | 1,362 |
3 | INTRODUCTION | 1 | 5 | [
"b5",
"b22",
"b22",
"b24",
"b25",
"b25",
"b26"
] | 16,936,320 | pmid-12515582|NA|NA|pmid-15681613|NA|NA|pmid-9918945 | Because Conserv considers only highly conserved proteins and obvious homology (at least 25% identity), and performs only pairwise alignments, it has no need for sophisticated sequence modeling techniques, such as hidden Markov models (HMMs) (25,26). | [
"5",
"22",
"22",
"24",
"25",
"25",
"26"
] | 249 | 8,474 | 0 | false | Because Conserv considers only highly conserved proteins and obvious homology, and performs only pairwise alignments, it has no need for sophisticated sequence modeling techniques, such as hidden Markov models (HMMs). | [
"at least 25% identity",
"25,26"
] | Because Conserv considers only highly conserved proteins and obvious homology, and performs only pairwise alignments, it has no need for sophisticated sequence modeling techniques, such as hidden Markov models (HMMs). | true | true | true | true | true | 1,362 |
4 | INTRODUCTION | 1 | 27 | [
"b27"
] | 16,936,320 | pmid-15608212 | Conserv is currently most useful for prokaryotic genomes. | [
"27"
] | 57 | 8,475 | 0 | false | Conserv is currently most useful for prokaryotic genomes. | [] | Conserv is currently most useful for prokaryotic genomes. | true | true | true | true | true | 1,363 |
4 | INTRODUCTION | 1 | 27 | [
"b27"
] | 16,936,320 | pmid-15608212 | When run on a putative eukaryotic clade, e.g. | [
"27"
] | 45 | 8,476 | 0 | false | When run on a putative eukaryotic clade, e.g. | [] | When run on a putative eukaryotic clade, e.g. | true | true | true | true | true | 1,363 |
4 | INTRODUCTION | 1 | 27 | [
"b27"
] | 16,936,320 | pmid-15608212 | Ecdysozoa, Conserv will return voluminous results that are hard to evaluate, due to the sparse and uneven taxon sampling of eukaryotes. | [
"27"
] | 135 | 8,477 | 0 | false | Ecdysozoa, Conserv will return voluminous results that are hard to evaluate, due to the sparse and uneven taxon sampling of eukaryotes. | [] | Ecdysozoa, Conserv will return voluminous results that are hard to evaluate, due to the sparse and uneven taxon sampling of eukaryotes. | true | true | true | true | true | 1,363 |
4 | INTRODUCTION | 1 | 27 | [
"b27"
] | 16,936,320 | pmid-15608212 | Thus, to demonstrate the utility of Conserv, we ran the program over bacterial genomes in GenBank (27) for about 30 choices of in-groups and out-groups, both putative clades and other sets of genomes. | [
"27"
] | 200 | 8,478 | 1 | false | Thus, to demonstrate the utility of Conserv, we ran the program over bacterial genomes in GenBank for about 30 choices of in-groups and out-groups, both putative clades and other sets of genomes. | [
"27"
] | Thus, to demonstrate the utility of Conserv, we ran the program over bacterial genomes in GenBank for about 30 choices of in-groups and out-groups, both putative clades and other sets of genomes. | true | true | true | true | true | 1,363 |
4 | INTRODUCTION | 1 | 27 | [
"b27"
] | 16,936,320 | pmid-15608212 | In this test, we discovered possible synapomorphies for higher-level clades uniting Planctomycetes with Chlamydiales and Chloroflexi with Cyanobacteria, as in Figure 1. | [
"27"
] | 168 | 8,479 | 0 | false | In this test, we discovered possible synapomorphies for higher-level clades uniting Planctomycetes with Chlamydiales and Chloroflexi with Cyanobacteria, as in Figure 1. | [] | In this test, we discovered possible synapomorphies for higher-level clades uniting Planctomycetes with Chlamydiales and Chloroflexi with Cyanobacteria, as in Figure 1. | true | true | true | true | true | 1,363 |
4 | INTRODUCTION | 1 | 27 | [
"b27"
] | 16,936,320 | pmid-15608212 | We also discovered strong evidence for placing Symbiobacterium in Firmicutes, and weaker evidence for placing the endosymbionts Buchnera and Wigglesworthia in Enterobacteria. | [
"27"
] | 174 | 8,480 | 0 | false | We also discovered strong evidence for placing Symbiobacterium in Firmicutes, and weaker evidence for placing the endosymbionts Buchnera and Wigglesworthia in Enterobacteria. | [] | We also discovered strong evidence for placing Symbiobacterium in Firmicutes, and weaker evidence for placing the endosymbionts Buchnera and Wigglesworthia in Enterobacteria. | true | true | true | true | true | 1,363 |
4 | INTRODUCTION | 1 | 27 | [
"b27"
] | 16,936,320 | pmid-15608212 | The placement of Symbiobacterium with Firmicutes contradicts the current GenBank taxonomy, which places it in Actinobacteria, yet the discovered synapomorphies seem incontrovertible. | [
"27"
] | 182 | 8,481 | 0 | false | The placement of Symbiobacterium with Firmicutes contradicts the current GenBank taxonomy, which places it in Actinobacteria, yet the discovered synapomorphies seem incontrovertible. | [] | The placement of Symbiobacterium with Firmicutes contradicts the current GenBank taxonomy, which places it in Actinobacteria, yet the discovered synapomorphies seem incontrovertible. | true | true | true | true | true | 1,363 |
4 | INTRODUCTION | 1 | 27 | [
"b27"
] | 16,936,320 | pmid-15608212 | We discovered signature genes for a number of clades, including Actinobacteria and Firmicutes. | [
"27"
] | 94 | 8,482 | 0 | false | We discovered signature genes for a number of clades, including Actinobacteria and Firmicutes. | [] | We discovered signature genes for a number of clades, including Actinobacteria and Firmicutes. | true | true | true | true | true | 1,363 |
4 | INTRODUCTION | 1 | 27 | [
"b27"
] | 16,936,320 | pmid-15608212 | We also used Conserv to explore surprising similarities between two groups that do not together form a clade: Ι-Proteobacteria and Spirochaetes. | [
"27"
] | 144 | 8,483 | 0 | false | We also used Conserv to explore surprising similarities between two groups that do not together form a clade: Ι-Proteobacteria and Spirochaetes. | [] | We also used Conserv to explore surprising similarities between two groups that do not together form a clade: Ι-Proteobacteria and Spirochaetes. | true | true | true | true | true | 1,363 |
4 | INTRODUCTION | 1 | 27 | [
"b27"
] | 16,936,320 | pmid-15608212 | Finally, we used the tool to answer an intriguing peripheral question: what is the most conserved protein? | [
"27"
] | 106 | 8,484 | 0 | false | Finally, we used the tool to answer an intriguing peripheral question: what is the most conserved protein? | [] | Finally, we used the tool to answer an intriguing peripheral question: what is the most conserved protein? | true | true | true | true | true | 1,363 |
0 | DISCUSSION | 1 | 10 | [
"b10",
"b11",
"b36",
"b37",
"b42",
"b60"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | Molecular synapomorphies are potentially very valuable phylogenetic characters, because rare discontinuous eventsβa large insertion or deletion, or the βsuddenβ appearance of a novel, highly conserved geneβare not easily erased by subsequent point mutations. | [
"10",
"11",
"36",
"37",
"42",
"60"
] | 258 | 8,485 | 0 | false | Molecular synapomorphies are potentially very valuable phylogenetic characters, because rare discontinuous eventsβa large insertion or deletion, or the βsuddenβ appearance of a novel, highly conserved geneβare not easily erased by subsequent point mutations. | [] | Molecular synapomorphies are potentially very valuable phylogenetic characters, because rare discontinuous eventsβa large insertion or deletion, or the βsuddenβ appearance of a novel, highly conserved geneβare not easily erased by subsequent point mutations. | true | true | true | true | true | 1,364 |
0 | DISCUSSION | 1 | 10 | [
"b10",
"b11",
"b36",
"b37",
"b42",
"b60"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | Moreover, molecular synapomorphies are complementary to popular sequence-based methods, such as maximum likelihood, which do not ordinarily take into account non-ubiquitous characters, such as insertions and deletions (βgap columns') and proteins unique to a clade. | [
"10",
"11",
"36",
"37",
"42",
"60"
] | 265 | 8,486 | 0 | false | Moreover, molecular synapomorphies are complementary to popular sequence-based methods, such as maximum likelihood, which do not ordinarily take into account non-ubiquitous characters, such as insertions and deletions (βgap columns') and proteins unique to a clade. | [] | Moreover, molecular synapomorphies are complementary to popular sequence-based methods, such as maximum likelihood, which do not ordinarily take into account non-ubiquitous characters, such as insertions and deletions (βgap columns') and proteins unique to a clade. | true | true | true | true | true | 1,364 |
0 | DISCUSSION | 1 | 10 | [
"b10",
"b11",
"b36",
"b37",
"b42",
"b60"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | To date, however, molecular synapomorphies have been used on an ad hoc basis, with phylogenies inferred from a handful of manually discovered synapomorphies. | [
"10",
"11",
"36",
"37",
"42",
"60"
] | 157 | 8,487 | 0 | false | To date, however, molecular synapomorphies have been used on an ad hoc basis, with phylogenies inferred from a handful of manually discovered synapomorphies. | [] | To date, however, molecular synapomorphies have been used on an ad hoc basis, with phylogenies inferred from a handful of manually discovered synapomorphies. | true | true | true | true | true | 1,364 |
0 | DISCUSSION | 1 | 10 | [
"b10",
"b11",
"b36",
"b37",
"b42",
"b60"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | Nevertheless, the prokaryotic phylogenies computed in the 1990s by Gupta et al. | [
"10",
"11",
"36",
"37",
"42",
"60"
] | 79 | 8,488 | 0 | false | Nevertheless, the prokaryotic phylogenies computed in the 1990s by Gupta et al. | [] | Nevertheless, the prokaryotic phylogenies computed in the 1990s by Gupta et al. | true | true | true | true | true | 1,364 |
0 | DISCUSSION | 1 | 10 | [
"b10",
"b11",
"b36",
"b37",
"b42",
"b60"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | (10,11) from hand-picked indels in selected genes show broad agreement with recent phylogenies computed using complete genomes and the latest tools (36,37,42). | [
"10",
"11",
"36",
"37",
"42",
"60"
] | 159 | 8,489 | 0 | false | from hand-picked indels in selected genes show broad agreement with recent phylogenies computed using complete genomes and the latest tools. | [
"10,11",
"36,37,42"
] | from hand-picked indels in selected genes show broad agreement with recent phylogenies computed using complete genomes and the latest tools. | false | true | true | true | false | 1,364 |
0 | DISCUSSION | 1 | 60 | [
"b10",
"b11",
"b36",
"b37",
"b42",
"b60"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | We do not expect molecular synapomorphies to replace modern tree-building methods, but we can imagine hybrid methods akin to those devised for gene trees (60) and routine use of synapomorphies to rescore a small number of alternative trees. | [
"10",
"11",
"36",
"37",
"42",
"60"
] | 240 | 8,490 | 1 | false | We do not expect molecular synapomorphies to replace modern tree-building methods, but we can imagine hybrid methods akin to those devised for gene trees and routine use of synapomorphies to rescore a small number of alternative trees. | [
"60"
] | We do not expect molecular synapomorphies to replace modern tree-building methods, but we can imagine hybrid methods akin to those devised for gene trees and routine use of synapomorphies to rescore a small number of alternative trees. | true | true | true | true | true | 1,364 |
0 | DISCUSSION | 1 | 10 | [
"b10",
"b11",
"b36",
"b37",
"b42",
"b60"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | Until now there has been, to our knowledge, no effort or means to automatically gather βallβ synapomorphies bearing on a phylogenetic question. | [
"10",
"11",
"36",
"37",
"42",
"60"
] | 143 | 8,491 | 0 | false | Until now there has been, to our knowledge, no effort or means to automatically gather βallβ synapomorphies bearing on a phylogenetic question. | [] | Until now there has been, to our knowledge, no effort or means to automatically gather βallβ synapomorphies bearing on a phylogenetic question. | true | true | true | true | true | 1,364 |
0 | DISCUSSION | 1 | 10 | [
"b10",
"b11",
"b36",
"b37",
"b42",
"b60"
] | 16,936,320 | pmid-11050348|pmid-11591483|pmid-12823453|pmid-11591483|pmid-9733577|pmid-11591483|pmid-12515582|pmid-11125040|pmid-11470848|pmid-10606644|pmid-9841678|pmid-15179606|pmid-9841678|pmid-10361294|pmid-15535883|pmid-15927057|pmid-11734060|NA | Hence we believe that Conserv, simple as it is, can play a role in phylogenetic inference, as well as in data mining for unexpected nuggets, such as the similarity of the flagellar proteins of Ι-Proteobacteria and Spirochaetes. | [
"10",
"11",
"36",
"37",
"42",
"60"
] | 227 | 8,492 | 0 | false | Hence we believe that Conserv, simple as it is, can play a role in phylogenetic inference, as well as in data mining for unexpected nuggets, such as the similarity of the flagellar proteins of Ι-Proteobacteria and Spirochaetes. | [] | Hence we believe that Conserv, simple as it is, can play a role in phylogenetic inference, as well as in data mining for unexpected nuggets, such as the similarity of the flagellar proteins of Ι-Proteobacteria and Spirochaetes. | true | true | true | true | true | 1,364 |
1 | DISCUSSION | 1 | 10 | [
"b10",
"b12"
] | 16,936,320 | pmid-12098695|pmid-12049665|pmid-10101183|pmid-7603565|NA|NA|pmid-9841678|pmid-15239383 | The sensitivity and specificity of Conserv are hard to assess at this point, as we do not have a test set of agreed-upon synapomorphies or a validated mathematical model. | [
"10",
"12"
] | 170 | 8,493 | 0 | false | The sensitivity and specificity of Conserv are hard to assess at this point, as we do not have a test set of agreed-upon synapomorphies or a validated mathematical model. | [] | The sensitivity and specificity of Conserv are hard to assess at this point, as we do not have a test set of agreed-upon synapomorphies or a validated mathematical model. | true | true | true | true | true | 1,365 |
1 | DISCUSSION | 1 | 10 | [
"b10",
"b12"
] | 16,936,320 | pmid-12098695|pmid-12049665|pmid-10101183|pmid-7603565|NA|NA|pmid-9841678|pmid-15239383 | Conserv appears to be fairly effective at finding signature-gene and motif synapomorphies, which are easy to recognize from pairwise alignments, but indel synapomorphies remain somewhat problematic. | [
"10",
"12"
] | 198 | 8,494 | 0 | false | Conserv appears to be fairly effective at finding signature-gene and motif synapomorphies, which are easy to recognize from pairwise alignments, but indel synapomorphies remain somewhat problematic. | [] | Conserv appears to be fairly effective at finding signature-gene and motif synapomorphies, which are easy to recognize from pairwise alignments, but indel synapomorphies remain somewhat problematic. | true | true | true | true | true | 1,365 |
1 | DISCUSSION | 1 | 10 | [
"b10",
"b12"
] | 16,936,320 | pmid-12098695|pmid-12049665|pmid-10101183|pmid-7603565|NA|NA|pmid-9841678|pmid-15239383 | Conserv found most of the indels manually discovered by Gupta et al. | [
"10",
"12"
] | 68 | 8,495 | 0 | false | Conserv found most of the indels manually discovered by Gupta et al. | [] | Conserv found most of the indels manually discovered by Gupta et al. | true | true | true | true | true | 1,365 |
1 | DISCUSSION | 1 | 10 | [
"b10",
"b12"
] | 16,936,320 | pmid-12098695|pmid-12049665|pmid-10101183|pmid-7603565|NA|NA|pmid-9841678|pmid-15239383 | (10β12) from multiple alignments, but missed some of the less obvious (and more arguable) one- and two-residue indels. | [
"10",
"12"
] | 118 | 8,496 | 0 | false | from multiple alignments, but missed some of the less obvious (and more arguable) one- and two-residue indels. | [
"10β12"
] | from multiple alignments, but missed some of the less obvious (and more arguable) one- and two-residue indels. | false | true | true | true | false | 1,365 |
1 | DISCUSSION | 1 | 10 | [
"b10",
"b12"
] | 16,936,320 | pmid-12098695|pmid-12049665|pmid-10101183|pmid-7603565|NA|NA|pmid-9841678|pmid-15239383 | The great difference in the numbers of signature genes found by our study and that of Daubin and Ochman reveals that Conserv's sensitivity could be improved by a more flexible definition of synaptitude that allows signature genes to be missing from organisms deemed safely interior to the in-group. | [
"10",
"12"
] | 298 | 8,497 | 0 | false | The great difference in the numbers of signature genes found by our study and that of Daubin and Ochman reveals that Conserv's sensitivity could be improved by a more flexible definition of synaptitude that allows signature genes to be missing from organisms deemed safely interior to the in-group. | [] | The great difference in the numbers of signature genes found by our study and that of Daubin and Ochman reveals that Conserv's sensitivity could be improved by a more flexible definition of synaptitude that allows signature genes to be missing from organisms deemed safely interior to the in-group. | true | true | true | true | true | 1,365 |
2 | DISCUSSION | 1 | 61 | [
"b61",
"b16",
"b17",
"b36"
] | 16,936,320 | pmid-7984417|pmid-15034147|pmid-8783936|pmid-10101183|pmid-7603565|pmid-15535883 | Future research should assess the strengths and weaknesses of signature genes, indels, and motifs as phylogenetic characters. | [
"61",
"16",
"17",
"36"
] | 125 | 8,498 | 0 | false | Future research should assess the strengths and weaknesses of signature genes, indels, and motifs as phylogenetic characters. | [] | Future research should assess the strengths and weaknesses of signature genes, indels, and motifs as phylogenetic characters. | true | true | true | true | true | 1,366 |
2 | DISCUSSION | 1 | 61 | [
"b61",
"b16",
"b17",
"b36"
] | 16,936,320 | pmid-7984417|pmid-15034147|pmid-8783936|pmid-10101183|pmid-7603565|pmid-15535883 | The Listeria anomaly in Figure 3 highlights the fact that the evolutionary mechanism of insertion and deletion is not well understood. | [
"61",
"16",
"17",
"36"
] | 134 | 8,499 | 0 | false | The Listeria anomaly in Figure 3 highlights the fact that the evolutionary mechanism of insertion and deletion is not well understood. | [] | The Listeria anomaly in Figure 3 highlights the fact that the evolutionary mechanism of insertion and deletion is not well understood. | true | true | true | true | true | 1,366 |
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