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 |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
2 | INTRODUCTION | 1 | 10 | [
"B10"
] | 17,526,522 | pmid-16381885 | The essence of the KO system is that it is a pathway based definition of orthologous genes. | [
"10"
] | 91 | 10,600 | 0 | false | The essence of the KO system is that it is a pathway based definition of orthologous genes. | [] | The essence of the KO system is that it is a pathway based definition of orthologous genes. | true | true | true | true | true | 1,688 |
2 | INTRODUCTION | 1 | 10 | [
"B10"
] | 17,526,522 | pmid-16381885 | The KO entry represents an ortholog group that is linked to a box (gene product) in the KEGG pathway diagram. | [
"10"
] | 109 | 10,601 | 0 | false | The KO entry represents an ortholog group that is linked to a box (gene product) in the KEGG pathway diagram. | [] | The KO entry represents an ortholog group that is linked to a box (gene product) in the KEGG pathway diagram. | true | true | true | true | true | 1,688 |
2 | INTRODUCTION | 1 | 10 | [
"B10"
] | 17,526,522 | pmid-16381885 | Thus, once the KO identifiers, or the K numbers, are assigned to genes in the genome, which is manually verified in KEGG, organism-specific pathways can be computationally generated. | [
"10"
] | 182 | 10,602 | 0 | false | Thus, once the KO identifiers, or the K numbers, are assigned to genes in the genome, which is manually verified in KEGG, organism-specific pathways can be computationally generated. | [] | Thus, once the KO identifiers, or the K numbers, are assigned to genes in the genome, which is manually verified in KEGG, organism-specific pathways can be computationally generated. | true | true | true | true | true | 1,688 |
2 | INTRODUCTION | 1 | 10 | [
"B10"
] | 17,526,522 | pmid-16381885 | The KO system has since been expanded to include the BRITE functional hierarchies, such as hierarchical classifications of protein families. | [
"10"
] | 140 | 10,603 | 0 | false | The KO system has since been expanded to include the BRITE functional hierarchies, such as hierarchical classifications of protein families. | [] | The KO system has since been expanded to include the BRITE functional hierarchies, such as hierarchical classifications of protein families. | true | true | true | true | true | 1,688 |
2 | INTRODUCTION | 1 | 10 | [
"B10"
] | 17,526,522 | pmid-16381885 | A set of K numbers in the genome can be mapped, i.e. | [
"10"
] | 52 | 10,604 | 0 | false | A set of K numbers in the genome can be mapped, i.e. | [] | A set of K numbers in the genome can be mapped, i.e. | true | true | true | true | true | 1,688 |
2 | INTRODUCTION | 1 | 10 | [
"B10"
] | 17,526,522 | pmid-16381885 | to specific classes of receptors, which may then be linked to specific classes of ligands in the chemical category of the BRITE database (see Figure 1). | [
"10"
] | 152 | 10,605 | 0 | false | to specific classes of receptors, which may then be linked to specific classes of ligands in the chemical category of the BRITE database (see Figure 1). | [] | to specific classes of receptors, which may then be linked to specific classes of ligands in the chemical category of the BRITE database. | false | true | true | true | false | 1,688 |
2 | INTRODUCTION | 1 | 10 | [
"B10"
] | 17,526,522 | pmid-16381885 | In essence, the KEGG database provides a reference knowledge base for linking genomes to the biological systems, and now to the environments as well (10). | [
"10"
] | 154 | 10,606 | 1 | false | In essence, the KEGG database provides a reference knowledge base for linking genomes to the biological systems, and now to the environments as well. | [
"10"
] | In essence, the KEGG database provides a reference knowledge base for linking genomes to the biological systems, and now to the environments as well. | true | true | true | true | true | 1,688 |
2 | INTRODUCTION | 1 | 10 | [
"B10"
] | 17,526,522 | pmid-16381885 | Here, we report a web-based server called KAAS (KEGG Automatic Annotation Server) to automate the processes of the K number assignment and the subsequent pathway mapping and BRITE mapping. | [
"10"
] | 188 | 10,607 | 0 | false | Here, we report a web-based server called KAAS (KEGG Automatic Annotation Server) to automate the processes of the K number assignment and the subsequent pathway mapping and BRITE mapping. | [] | Here, we report a web-based server called KAAS (KEGG Automatic Annotation Server) to automate the processes of the K number assignment and the subsequent pathway mapping and BRITE mapping. | true | true | true | true | true | 1,688 |
2 | INTRODUCTION | 1 | 10 | [
"B10"
] | 17,526,522 | pmid-16381885 | Figure 1.An example of the genome annotation with the KO identifiers or the K numbers by the KAAS service, which is integrated into the KEGG resource. | [
"10"
] | 150 | 10,608 | 0 | false | Figure 1.An example of the genome annotation with the KO identifiers or the K numbers by the KAAS service, which is integrated into the KEGG resource. | [] | Figure 1.An example of the genome annotation with the KO identifiers or the K numbers by the KAAS service, which is integrated into the KEGG resource. | true | true | true | true | true | 1,688 |
2 | INTRODUCTION | 1 | 10 | [
"B10"
] | 17,526,522 | pmid-16381885 | Once the KAAS assigns K numbers to query genes, the mapping to KEGG pathways and BRITE hierchies is generated using the existing framework of the KEGG system. | [
"10"
] | 158 | 10,609 | 0 | false | Once the KAAS assigns K numbers to query genes, the mapping to KEGG pathways and BRITE hierchies is generated using the existing framework of the KEGG system. | [] | Once the KAAS assigns K numbers to query genes, the mapping to KEGG pathways and BRITE hierchies is generated using the existing framework of the KEGG system. | true | true | true | true | true | 1,688 |
3 | INTRODUCTION | 0 | null | null | 17,526,522 | null | An example of the genome annotation with the KO identifiers or the K numbers by the KAAS service, which is integrated into the KEGG resource. | null | 141 | 10,610 | 0 | false | null | null | An example of the genome annotation with the KO identifiers or the K numbers by the KAAS service, which is integrated into the KEGG resource. | true | true | true | true | true | 1,689 |
3 | INTRODUCTION | 0 | null | null | 17,526,522 | null | Once the KAAS assigns K numbers to query genes, the mapping to KEGG pathways and BRITE hierchies is generated using the existing framework of the KEGG system. | null | 158 | 10,611 | 0 | false | null | null | Once the KAAS assigns K numbers to query genes, the mapping to KEGG pathways and BRITE hierchies is generated using the existing framework of the KEGG system. | true | true | true | true | true | 1,689 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b4"
] | 17,158,166 | pmid-870828|pmid-16809333|pmid-16794078 | Virus genome analysis has a long history. | [
"1",
"2",
"4"
] | 41 | 10,612 | 0 | false | Virus genome analysis has a long history. | [] | Virus genome analysis has a long history. | true | true | true | true | true | 1,690 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b4"
] | 17,158,166 | pmid-870828|pmid-16809333|pmid-16794078 | In 1977, Frederick Sanger successfully sequenced the entire genome of Phage φphiv;X174 (1). | [
"1",
"2",
"4"
] | 91 | 10,613 | 1 | false | In 1977, Frederick Sanger successfully sequenced the entire genome of Phage φphiv;X174. | [
"1"
] | In 1977, Frederick Sanger successfully sequenced the entire genome of Phage φphiv;X174. | true | true | true | true | true | 1,690 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b4"
] | 17,158,166 | pmid-870828|pmid-16809333|pmid-16794078 | Since that time, a huge number of virus genomes have been sequenced. | [
"1",
"2",
"4"
] | 68 | 10,614 | 0 | false | Since that time, a huge number of virus genomes have been sequenced. | [] | Since that time, a huge number of virus genomes have been sequenced. | true | true | true | true | true | 1,690 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2",
"b4"
] | 17,158,166 | pmid-870828|pmid-16809333|pmid-16794078 | Virus genome sequences provide researchers with important information needed to analyze virus evolution, pathogenicity and diversity (2–4). | [
"1",
"2",
"4"
] | 139 | 10,615 | 0 | false | Virus genome sequences provide researchers with important information needed to analyze virus evolution, pathogenicity and diversity. | [
"2–4"
] | Virus genome sequences provide researchers with important information needed to analyze virus evolution, pathogenicity and diversity. | true | true | true | true | true | 1,690 |
1 | INTRODUCTION | 0 | null | null | 17,158,166 | null | The International Nucleotide Sequence Database Collaboration (INSDC) makes a substantial amount of genomic data available in a public database. | null | 143 | 10,616 | 0 | false | null | null | The International Nucleotide Sequence Database Collaboration (INSDC) makes a substantial amount of genomic data available in a public database. | true | true | true | true | true | 1,691 |
1 | INTRODUCTION | 0 | null | null | 17,158,166 | null | However, these genomic data are stored in the same database as general gene registrations and are not distinguished. | null | 116 | 10,617 | 0 | false | null | null | However, these genomic data are stored in the same database as general gene registrations and are not distinguished. | true | true | true | true | true | 1,691 |
1 | INTRODUCTION | 0 | null | null | 17,158,166 | null | In some cases, the specific prefix of the accession number (AE, AL, AP, BS, BX, CP, CR, CT, CU and CY) refers to a registration from a genome project (). | null | 153 | 10,618 | 0 | false | null | null | In some cases, the specific prefix of the accession number (AE, AL, AP, BS, BX, CP, CR, CT, CU and CY) refers to a registration from a genome project (). | true | true | true | true | true | 1,691 |
1 | INTRODUCTION | 0 | null | null | 17,158,166 | null | However, for many genome data, the prefix is the same as that of general gene registrations, making it difficult to extract genomic data. | null | 137 | 10,619 | 0 | false | null | null | However, for many genome data, the prefix is the same as that of general gene registrations, making it difficult to extract genomic data. | true | true | true | true | true | 1,691 |
2 | INTRODUCTION | 1 | 5 | [
"b5",
"b6",
"b7",
"b8",
"b9"
] | 17,158,166 | pmid-16381892|pmid-15702954|pmid-11125070|pmid-14681415|pmid-11752256 | There are several virus genome databases such as DPVweb (5), HCVDB (6), VIDA (7) and VirGen (8). | [
"5",
"6",
"7",
"8",
"9"
] | 96 | 10,620 | 1 | false | There are several virus genome databases such as DPVweb, HCVDB, VIDA and VirGen. | [
"5",
"6",
"7",
"8"
] | There are several virus genome databases such as DPVweb, HCVDB, VIDA and VirGen. | true | true | true | true | true | 1,692 |
2 | INTRODUCTION | 1 | 5 | [
"b5",
"b6",
"b7",
"b8",
"b9"
] | 17,158,166 | pmid-16381892|pmid-15702954|pmid-11125070|pmid-14681415|pmid-11752256 | However, most of these are limited to specific groups of viruses. | [
"5",
"6",
"7",
"8",
"9"
] | 65 | 10,621 | 0 | false | However, most of these are limited to specific groups of viruses. | [] | However, most of these are limited to specific groups of viruses. | true | true | true | true | true | 1,692 |
2 | INTRODUCTION | 1 | 5 | [
"b5",
"b6",
"b7",
"b8",
"b9"
] | 17,158,166 | pmid-16381892|pmid-15702954|pmid-11125070|pmid-14681415|pmid-11752256 | Thus, to fill the need for a comprehensive virus genome database, weconstructed Genome Information Broker for Viruses (GIB-V), which includes all groups of viruses and is updated regularly with the release of our DNA Data Bank of Japan (DDBJ) data. | [
"5",
"6",
"7",
"8",
"9"
] | 248 | 10,622 | 0 | false | Thus, to fill the need for a comprehensive virus genome database, weconstructed Genome Information Broker for Viruses (GIB-V), which includes all groups of viruses and is updated regularly with the release of our DNA Data Bank of Japan (DDBJ) data. | [] | Thus, to fill the need for a comprehensive virus genome database, weconstructed Genome Information Broker for Viruses (GIB-V), which includes all groups of viruses and is updated regularly with the release of our DNA Data Bank of Japan (DDBJ) data. | true | true | true | true | true | 1,692 |
2 | INTRODUCTION | 1 | 9 | [
"b5",
"b6",
"b7",
"b8",
"b9"
] | 17,158,166 | pmid-16381892|pmid-15702954|pmid-11125070|pmid-14681415|pmid-11752256 | GIB-V was created with the use of the Genome Information Browser (GIB) (9), an online microbial genome analysis system that we have developed. | [
"5",
"6",
"7",
"8",
"9"
] | 142 | 10,623 | 1 | false | GIB-V was created with the use of the Genome Information Browser (GIB), an online microbial genome analysis system that we have developed. | [
"9"
] | GIB-V was created with the use of the Genome Information Browser (GIB), an online microbial genome analysis system that we have developed. | true | true | true | true | true | 1,692 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2"
] | 16,945,960 | pmid-9392700|pmid-1325733 | More than 300 million people worldwide are estimated to be chronically infected by hepatitis B virus (HBV) (1) and | [
"1",
"2"
] | 114 | 10,624 | 1 | false | More than 300 million people worldwide are estimated to be chronically infected by hepatitis B virus (HBV) and | [
"1"
] | More than 300 million people worldwide are estimated to be chronically infected by hepatitis B virus (HBV) and | true | true | false | true | false | 1,693 |
0 | INTRODUCTION | 1 | 2 | [
"b1",
"b2"
] | 16,945,960 | pmid-9392700|pmid-1325733 | chronic HBV infection carriers have a great risk to develop severe liver diseases, including cirrhosis and liver cancer, resulting in a million deaths annually (2). | [
"1",
"2"
] | 164 | 10,625 | 1 | false | chronic HBV infection carriers have a great risk to develop severe liver diseases, including cirrhosis and liver cancer, resulting in a million deaths annually. | [
"2"
] | chronic HBV infection carriers have a great risk to develop severe liver diseases, including cirrhosis and liver cancer, resulting in a million deaths annually. | false | true | true | true | false | 1,693 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2"
] | 16,945,960 | pmid-9392700|pmid-1325733 | No treatment for the efficient elimination of HBV in infected patients exists as yet. | [
"1",
"2"
] | 85 | 10,626 | 0 | false | No treatment for the efficient elimination of HBV in infected patients exists as yet. | [] | No treatment for the efficient elimination of HBV in infected patients exists as yet. | true | true | true | true | true | 1,693 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b2"
] | 16,945,960 | pmid-9392700|pmid-1325733 | Therefore more knowledge about HBV replication is needed to enable the design of more efficient antiviral drugs. | [
"1",
"2"
] | 112 | 10,627 | 0 | false | Therefore more knowledge about HBV replication is needed to enable the design of more efficient antiviral drugs. | [] | Therefore more knowledge about HBV replication is needed to enable the design of more efficient antiviral drugs. | true | true | true | true | true | 1,693 |
1 | INTRODUCTION | 1 | 3 | [
"b3",
"b5",
"b6",
"b8",
"b9",
"b12"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | HBV is a member of the Hepadnaviridae family, consisting of hepatotropic DNA viruses which also includes related animal viruses such as duck HBV (DHBV) and heron hepatitis virus. | [
"3",
"5",
"6",
"8",
"9",
"12"
] | 178 | 10,628 | 0 | false | HBV is a member of the Hepadnaviridae family, consisting of hepatotropic DNA viruses which also includes related animal viruses such as duck HBV (DHBV) and heron hepatitis virus. | [] | HBV is a member of the Hepadnaviridae family, consisting of hepatotropic DNA viruses which also includes related animal viruses such as duck HBV (DHBV) and heron hepatitis virus. | true | true | true | true | true | 1,694 |
1 | INTRODUCTION | 1 | 3 | [
"b3",
"b5",
"b6",
"b8",
"b9",
"b12"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | HBV has a small (3.2 kb), relaxed circular, partially double-stranded DNA genome and replicates this DNA genome through an RNA intermediate, the pregenomic RNA (pgRNA), by reverse transcription [for reviews see (3–5)]. | [
"3",
"5",
"6",
"8",
"9",
"12"
] | 218 | 10,629 | 0 | false | HBV has a small, relaxed circular, partially double-stranded DNA genome and replicates this DNA genome through an RNA intermediate, the pregenomic RNA (pgRNA), by reverse transcription. | [
"3.2 kb",
"for reviews see (3–5)"
] | HBV has a small, relaxed circular, partially double-stranded DNA genome and replicates this DNA genome through an RNA intermediate, the pregenomic RNA (pgRNA), by reverse transcription. | true | true | true | true | true | 1,694 |
1 | INTRODUCTION | 1 | 3 | [
"b3",
"b5",
"b6",
"b8",
"b9",
"b12"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | The RNA pregenome also serves as the mRNA for the capsid (or core) protein and the P protein. | [
"3",
"5",
"6",
"8",
"9",
"12"
] | 93 | 10,630 | 0 | false | The RNA pregenome also serves as the mRNA for the capsid (or core) protein and the P protein. | [] | The RNA pregenome also serves as the mRNA for the capsid (or core) protein and the P protein. | true | true | true | true | true | 1,694 |
1 | INTRODUCTION | 1 | 3 | [
"b3",
"b5",
"b6",
"b8",
"b9",
"b12"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | The P protein contains the evolutionarily conserved RT domain, a middle spacer region, a C-terminal RNase H (RH) domain and a unique terminal protein (TP) domain at its N-terminus, which acts as a protein primer for reverse transcription. | [
"3",
"5",
"6",
"8",
"9",
"12"
] | 238 | 10,631 | 0 | false | The P protein contains the evolutionarily conserved RT domain, a middle spacer region, a C-terminal RNase H (RH) domain and a unique terminal protein (TP) domain at its N-terminus, which acts as a protein primer for reverse transcription. | [] | The P protein contains the evolutionarily conserved RT domain, a middle spacer region, a C-terminal RNase H (RH) domain and a unique terminal protein (TP) domain at its N-terminus, which acts as a protein primer for reverse transcription. | true | true | true | true | true | 1,694 |
1 | INTRODUCTION | 1 | 3 | [
"b3",
"b5",
"b6",
"b8",
"b9",
"b12"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | Replication is initiated by the binding of P to epsilon (ɛ) (Figure 1), a 60 nt bulged stem–loop at the 5′ end of the pgRNA (6–8). | [
"3",
"5",
"6",
"8",
"9",
"12"
] | 130 | 10,632 | 0 | false | Replication is initiated by the binding of P to epsilon (ɛ) (Figure 1), a 60 nt bulged stem–loop at the 5′ end of the pgRNA. | [
"6–8"
] | Replication is initiated by the binding of P to epsilon (ɛ) (Figure 1), a 60 nt bulged stem–loop at the 5′ end of the pgRNA. | true | true | true | true | true | 1,694 |
1 | INTRODUCTION | 1 | 3 | [
"b3",
"b5",
"b6",
"b8",
"b9",
"b12"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | This binding event triggers encapsidation of the P–ɛ complex by capsid proteins, resulting in a priming competent, encapsidated complex. | [
"3",
"5",
"6",
"8",
"9",
"12"
] | 136 | 10,633 | 0 | false | This binding event triggers encapsidation of the P–ɛ complex by capsid proteins, resulting in a priming competent, encapsidated complex. | [] | This binding event triggers encapsidation of the P–ɛ complex by capsid proteins, resulting in a priming competent, encapsidated complex. | true | true | true | true | true | 1,694 |
1 | INTRODUCTION | 1 | 3 | [
"b3",
"b5",
"b6",
"b8",
"b9",
"b12"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | The product of the priming reaction is a 4 nt DNA, synthesized off a template in the primer bulge in ɛ, whose 5′ end is covalently attached to a tyrosine residue in the TP domain. | [
"3",
"5",
"6",
"8",
"9",
"12"
] | 179 | 10,634 | 0 | false | The product of the priming reaction is a 4 nt DNA, synthesized off a template in the primer bulge in ɛ, whose 5′ end is covalently attached to a tyrosine residue in the TP domain. | [] | The product of the priming reaction is a 4 nt DNA, synthesized off a template in the primer bulge in ɛ, whose 5′ end is covalently attached to a tyrosine residue in the TP domain. | true | true | true | true | true | 1,694 |
1 | INTRODUCTION | 1 | 3 | [
"b3",
"b5",
"b6",
"b8",
"b9",
"b12"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | This complex subsequently translocates to a 3′-proximal RNA element in the pregenome where full-length (−)-DNA synthesis is primed by the 4 nt DNA oligonucleotide (9–12). | [
"3",
"5",
"6",
"8",
"9",
"12"
] | 170 | 10,635 | 0 | false | This complex subsequently translocates to a 3′-proximal RNA element in the pregenome where full-length (−)-DNA synthesis is primed by the 4 nt DNA oligonucleotide. | [
"9–12"
] | This complex subsequently translocates to a 3′-proximal RNA element in the pregenome where full-length (−)-DNA synthesis is primed by the 4 nt DNA oligonucleotide. | true | true | true | true | true | 1,694 |
2 | INTRODUCTION | 1 | 13 | [
"b13",
"b17",
"b18",
"b12",
"b16",
"b19"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | Detailed biochemical studies of the P–ɛ interaction have been made possible in recent years by the development of DHBV cell-free reconstitution systems consisting of P, ɛ and cellular chaperones (13–17). | [
"13",
"17",
"18",
"12",
"16",
"19"
] | 203 | 10,636 | 0 | false | Detailed biochemical studies of the P–ɛ interaction have been made possible in recent years by the development of DHBV cell-free reconstitution systems consisting of P, ɛ and cellular chaperones. | [
"13–17"
] | Detailed biochemical studies of the P–ɛ interaction have been made possible in recent years by the development of DHBV cell-free reconstitution systems consisting of P, ɛ and cellular chaperones. | true | true | true | true | true | 1,695 |
2 | INTRODUCTION | 1 | 13 | [
"b13",
"b17",
"b18",
"b12",
"b16",
"b19"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | The system shows both P–ɛ binding and priming. | [
"13",
"17",
"18",
"12",
"16",
"19"
] | 46 | 10,637 | 0 | false | The system shows both P–ɛ binding and priming. | [] | The system shows both P–ɛ binding and priming. | true | true | true | true | true | 1,695 |
2 | INTRODUCTION | 1 | 18 | [
"b13",
"b17",
"b18",
"b12",
"b16",
"b19"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | Using truncated P protein constructs in these in vitro systems it was demonstrated that P–ɛ interaction requires sequences from both RT and TP protein domains (18). | [
"13",
"17",
"18",
"12",
"16",
"19"
] | 164 | 10,638 | 1 | false | Using truncated P protein constructs in these in vitro systems it was demonstrated that P–ɛ interaction requires sequences from both RT and TP protein domains. | [
"18"
] | Using truncated P protein constructs in these in vitro systems it was demonstrated that P–ɛ interaction requires sequences from both RT and TP protein domains. | true | true | true | true | true | 1,695 |
2 | INTRODUCTION | 1 | 12 | [
"b13",
"b17",
"b18",
"b12",
"b16",
"b19"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | On the RNA side, the loop at the apical stem–loop of DHBV-ɛ is found to be essential for binding and primer synthesis (12). | [
"13",
"17",
"18",
"12",
"16",
"19"
] | 123 | 10,639 | 1 | false | On the RNA side, the loop at the apical stem–loop of DHBV-ɛ is found to be essential for binding and primer synthesis. | [
"12"
] | On the RNA side, the loop at the apical stem–loop of DHBV-ɛ is found to be essential for binding and primer synthesis. | true | true | true | true | true | 1,695 |
2 | INTRODUCTION | 1 | 16 | [
"b13",
"b17",
"b18",
"b12",
"b16",
"b19"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | Recent SELEX experiments in such a system further defined the structure and sequence elements in the apical stem–loop of DHBV crucial for binding and/or priming (16). | [
"13",
"17",
"18",
"12",
"16",
"19"
] | 166 | 10,640 | 1 | false | Recent SELEX experiments in such a system further defined the structure and sequence elements in the apical stem–loop of DHBV crucial for binding and/or priming. | [
"16"
] | Recent SELEX experiments in such a system further defined the structure and sequence elements in the apical stem–loop of DHBV crucial for binding and/or priming. | true | true | true | true | true | 1,695 |
2 | INTRODUCTION | 1 | 13 | [
"b13",
"b17",
"b18",
"b12",
"b16",
"b19"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | For instance, the middle of the stem underlying the loop should be weakly or not base paired at all. | [
"13",
"17",
"18",
"12",
"16",
"19"
] | 100 | 10,641 | 0 | false | For instance, the middle of the stem underlying the loop should be weakly or not base paired at all. | [] | For instance, the middle of the stem underlying the loop should be weakly or not base paired at all. | true | true | true | true | true | 1,695 |
2 | INTRODUCTION | 1 | 19 | [
"b13",
"b17",
"b18",
"b12",
"b16",
"b19"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | Most recently, a cell-free and chaperone dependent in vitro reconstitution system was developed also for human HBV (19). | [
"13",
"17",
"18",
"12",
"16",
"19"
] | 120 | 10,642 | 1 | false | Most recently, a cell-free and chaperone dependent in vitro reconstitution system was developed also for human HBV. | [
"19"
] | Most recently, a cell-free and chaperone dependent in vitro reconstitution system was developed also for human HBV. | true | true | true | true | true | 1,695 |
2 | INTRODUCTION | 1 | 13 | [
"b13",
"b17",
"b18",
"b12",
"b16",
"b19"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | It shows P–ɛ binding but, in contrast to the DHBV system, not priming. | [
"13",
"17",
"18",
"12",
"16",
"19"
] | 70 | 10,643 | 0 | false | It shows P–ɛ binding but, in contrast to the DHBV system, not priming. | [] | It shows P–ɛ binding but, in contrast to the DHBV system, not priming. | true | true | true | true | true | 1,695 |
2 | INTRODUCTION | 1 | 13 | [
"b13",
"b17",
"b18",
"b12",
"b16",
"b19"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | Similar to DHBV, in human HBV sequences from both the RT and TP domains are required for binding of P to ɛ. | [
"13",
"17",
"18",
"12",
"16",
"19"
] | 107 | 10,644 | 0 | false | Similar to DHBV, in human HBV sequences from both the RT and TP domains are required for binding of P to ɛ. | [] | Similar to DHBV, in human HBV sequences from both the RT and TP domains are required for binding of P to ɛ. | true | true | true | true | true | 1,695 |
2 | INTRODUCTION | 1 | 13 | [
"b13",
"b17",
"b18",
"b12",
"b16",
"b19"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | Surprisingly, and in contrast to DHBV P–ɛ where the ɛ-apical loop is essential, in human HBV it is not needed for binding. | [
"13",
"17",
"18",
"12",
"16",
"19"
] | 122 | 10,645 | 0 | false | Surprisingly, and in contrast to DHBV P–ɛ where the ɛ-apical loop is essential, in human HBV it is not needed for binding. | [] | Surprisingly, and in contrast to DHBV P–ɛ where the ɛ-apical loop is essential, in human HBV it is not needed for binding. | true | true | true | true | true | 1,695 |
2 | INTRODUCTION | 1 | 13 | [
"b13",
"b17",
"b18",
"b12",
"b16",
"b19"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | The ɛ-apical loop is, however, required for encapsidation. | [
"13",
"17",
"18",
"12",
"16",
"19"
] | 58 | 10,646 | 0 | false | The ɛ-apical loop is, however, required for encapsidation. | [] | The ɛ-apical loop is, however, required for encapsidation. | true | true | true | true | true | 1,695 |
2 | INTRODUCTION | 1 | 13 | [
"b13",
"b17",
"b18",
"b12",
"b16",
"b19"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | Moreover, the structural features, requirement for base pairing in the stem part of the apical stem–loop, differ from those in DHBV. | [
"13",
"17",
"18",
"12",
"16",
"19"
] | 132 | 10,647 | 0 | false | Moreover, the structural features, requirement for base pairing in the stem part of the apical stem–loop, differ from those in DHBV. | [] | Moreover, the structural features, requirement for base pairing in the stem part of the apical stem–loop, differ from those in DHBV. | true | true | true | true | true | 1,695 |
2 | INTRODUCTION | 1 | 13 | [
"b13",
"b17",
"b18",
"b12",
"b16",
"b19"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | In human HBV, the upper part of the stem of the apical stem–loop needs to be base paired and the bulged out U is essential for binding. | [
"13",
"17",
"18",
"12",
"16",
"19"
] | 135 | 10,648 | 0 | false | In human HBV, the upper part of the stem of the apical stem–loop needs to be base paired and the bulged out U is essential for binding. | [] | In human HBV, the upper part of the stem of the apical stem–loop needs to be base paired and the bulged out U is essential for binding. | true | true | true | true | true | 1,695 |
2 | INTRODUCTION | 1 | 13 | [
"b13",
"b17",
"b18",
"b12",
"b16",
"b19"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | Although the structural basis and sequence requirements for P–ɛ binding and priming are emerging, a full understanding of the molecular basis for the specific interactions between P and ɛ awaits high-resolution structural studies. | [
"13",
"17",
"18",
"12",
"16",
"19"
] | 230 | 10,649 | 0 | false | Although the structural basis and sequence requirements for P–ɛ binding and priming are emerging, a full understanding of the molecular basis for the specific interactions between P and ɛ awaits high-resolution structural studies. | [] | Although the structural basis and sequence requirements for P–ɛ binding and priming are emerging, a full understanding of the molecular basis for the specific interactions between P and ɛ awaits high-resolution structural studies. | true | true | true | true | true | 1,695 |
3 | INTRODUCTION | 1 | 20 | [
"b20",
"b20",
"b21",
"b23",
"b24",
"b20",
"b25",
"b25",
"b26",
"b27",
"b28",
"b29",
"b30",
"b31",
"b32"
] | 16,945,960 | pmid-12409471|pmid-12409471|pmid-7684464|pmid-8811080|pmid-7690471|pmid-12409471|pmid-10836792|pmid-10836792|pmid-11873757|pmid-7870579|NA|pmid-11073218|pmid-11101890|pmid-10936101|NA | Some high-resolution data have already been obtained on the human HBV ɛ apical stem–loop from NMR studies (20). | [
"20",
"20",
"21",
"23",
"24",
"20",
"25",
"25",
"26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 111 | 10,650 | 1 | false | Some high-resolution data have already been obtained on the human HBV ɛ apical stem–loop from NMR studies. | [
"20"
] | Some high-resolution data have already been obtained on the human HBV ɛ apical stem–loop from NMR studies. | true | true | true | true | true | 1,696 |
3 | INTRODUCTION | 1 | 20 | [
"b20",
"b20",
"b21",
"b23",
"b24",
"b20",
"b25",
"b25",
"b26",
"b27",
"b28",
"b29",
"b30",
"b31",
"b32"
] | 16,945,960 | pmid-12409471|pmid-12409471|pmid-7684464|pmid-8811080|pmid-7690471|pmid-12409471|pmid-10836792|pmid-10836792|pmid-11873757|pmid-7870579|NA|pmid-11073218|pmid-11101890|pmid-10936101|NA | We note in passing that the residues in the ɛ apical stem–loop are either totally conserved or show rare non-disruptive mutations (20). | [
"20",
"20",
"21",
"23",
"24",
"20",
"25",
"25",
"26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 135 | 10,651 | 1 | false | We note in passing that the residues in the ɛ apical stem–loop are either totally conserved or show rare non-disruptive mutations. | [
"20"
] | We note in passing that the residues in the ɛ apical stem–loop are either totally conserved or show rare non-disruptive mutations. | true | true | true | true | true | 1,696 |
3 | INTRODUCTION | 1 | 20 | [
"b20",
"b20",
"b21",
"b23",
"b24",
"b20",
"b25",
"b25",
"b26",
"b27",
"b28",
"b29",
"b30",
"b31",
"b32"
] | 16,945,960 | pmid-12409471|pmid-12409471|pmid-7684464|pmid-8811080|pmid-7690471|pmid-12409471|pmid-10836792|pmid-10836792|pmid-11873757|pmid-7870579|NA|pmid-11073218|pmid-11101890|pmid-10936101|NA | The tip of ɛ contains a CUGUGC sequence, for which secondary structure predictions have predicted a hexaloop structure (21–23). | [
"20",
"20",
"21",
"23",
"24",
"20",
"25",
"25",
"26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 127 | 10,652 | 0 | false | The tip of ɛ contains a CUGUGC sequence, for which secondary structure predictions have predicted a hexaloop structure. | [
"21–23"
] | The tip of ɛ contains a CUGUGC sequence, for which secondary structure predictions have predicted a hexaloop structure. | true | true | true | true | true | 1,696 |
3 | INTRODUCTION | 1 | 24 | [
"b20",
"b20",
"b21",
"b23",
"b24",
"b20",
"b25",
"b25",
"b26",
"b27",
"b28",
"b29",
"b30",
"b31",
"b32"
] | 16,945,960 | pmid-12409471|pmid-12409471|pmid-7684464|pmid-8811080|pmid-7690471|pmid-12409471|pmid-10836792|pmid-10836792|pmid-11873757|pmid-7870579|NA|pmid-11073218|pmid-11101890|pmid-10936101|NA | However, enzymatic probing studies have suggested a base pair between the first and fifth residue of this hexaloop (24). | [
"20",
"20",
"21",
"23",
"24",
"20",
"25",
"25",
"26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 120 | 10,653 | 1 | false | However, enzymatic probing studies have suggested a base pair between the first and fifth residue of this hexaloop. | [
"24"
] | However, enzymatic probing studies have suggested a base pair between the first and fifth residue of this hexaloop. | true | true | true | true | true | 1,696 |
3 | INTRODUCTION | 1 | 20 | [
"b20",
"b20",
"b21",
"b23",
"b24",
"b20",
"b25",
"b25",
"b26",
"b27",
"b28",
"b29",
"b30",
"b31",
"b32"
] | 16,945,960 | pmid-12409471|pmid-12409471|pmid-7684464|pmid-8811080|pmid-7690471|pmid-12409471|pmid-10836792|pmid-10836792|pmid-11873757|pmid-7870579|NA|pmid-11073218|pmid-11101890|pmid-10936101|NA | Our previous NMR studies confirmed the presence of this base pair indicating that the loop forms a pseudo-triloop motif (20). | [
"20",
"20",
"21",
"23",
"24",
"20",
"25",
"25",
"26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 125 | 10,654 | 1 | false | Our previous NMR studies confirmed the presence of this base pair indicating that the loop forms a pseudo-triloop motif. | [
"20"
] | Our previous NMR studies confirmed the presence of this base pair indicating that the loop forms a pseudo-triloop motif. | true | true | true | true | true | 1,696 |
3 | INTRODUCTION | 1 | 25 | [
"b20",
"b20",
"b21",
"b23",
"b24",
"b20",
"b25",
"b25",
"b26",
"b27",
"b28",
"b29",
"b30",
"b31",
"b32"
] | 16,945,960 | pmid-12409471|pmid-12409471|pmid-7684464|pmid-8811080|pmid-7690471|pmid-12409471|pmid-10836792|pmid-10836792|pmid-11873757|pmid-7870579|NA|pmid-11073218|pmid-11101890|pmid-10936101|NA | The pseudo-triloop is a recently proposed structural motif that consists of a hexaloop with transloop base pairing between residues 1 and 5 and a bulged out residue 6 (25). | [
"20",
"20",
"21",
"23",
"24",
"20",
"25",
"25",
"26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 172 | 10,655 | 1 | false | The pseudo-triloop is a recently proposed structural motif that consists of a hexaloop with transloop base pairing between residues 1 and 5 and a bulged out residue 6. | [
"25"
] | The pseudo-triloop is a recently proposed structural motif that consists of a hexaloop with transloop base pairing between residues 1 and 5 and a bulged out residue 6. | true | true | true | true | true | 1,696 |
3 | INTRODUCTION | 1 | 20 | [
"b20",
"b20",
"b21",
"b23",
"b24",
"b20",
"b25",
"b25",
"b26",
"b27",
"b28",
"b29",
"b30",
"b31",
"b32"
] | 16,945,960 | pmid-12409471|pmid-12409471|pmid-7684464|pmid-8811080|pmid-7690471|pmid-12409471|pmid-10836792|pmid-10836792|pmid-11873757|pmid-7870579|NA|pmid-11073218|pmid-11101890|pmid-10936101|NA | Hairpin loops with the potential to form pseudo-triloops are found in many RNA sequences, e.g. | [
"20",
"20",
"21",
"23",
"24",
"20",
"25",
"25",
"26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 94 | 10,656 | 0 | false | Hairpin loops with the potential to form pseudo-triloops are found in many RNA sequences, e.g. | [] | Hairpin loops with the potential to form pseudo-triloops are found in many RNA sequences, e.g. | true | true | true | true | true | 1,696 |
3 | INTRODUCTION | 1 | 31 | [
"b20",
"b20",
"b21",
"b23",
"b24",
"b20",
"b25",
"b25",
"b26",
"b27",
"b28",
"b29",
"b30",
"b31",
"b32"
] | 16,945,960 | pmid-12409471|pmid-12409471|pmid-7684464|pmid-8811080|pmid-7690471|pmid-12409471|pmid-10836792|pmid-10836792|pmid-11873757|pmid-7870579|NA|pmid-11073218|pmid-11101890|pmid-10936101|NA | the brome mosaic virus (25,26), the iron responsive element (IRE) (27,28), domain IIId of the internal ribosomal entry site (IRES) of the hepatitis C virus (29,30), the 5′ terminal hairpin of R-U5 of simian foamy virus (31) and HIV-1 TAR (32). | [
"20",
"20",
"21",
"23",
"24",
"20",
"25",
"25",
"26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 243 | 10,657 | 1 | false | the brome mosaic virus, the iron responsive element (IRE), domain IIId of the internal ribosomal entry site (IRES) of the hepatitis C virus, the 5′ terminal hairpin of R-U5 of simian foamy virus and HIV-1 TAR. | [
"25,26",
"27,28",
"29,30",
"31",
"32"
] | the brome mosaic virus, the iron responsive element (IRE), domain IIId of the internal ribosomal entry site (IRES) of the hepatitis C virus, the 5′ terminal hairpin of R-U5 of simian foamy virus and HIV-1 TAR. | false | true | true | true | false | 1,696 |
3 | INTRODUCTION | 1 | 20 | [
"b20",
"b20",
"b21",
"b23",
"b24",
"b20",
"b25",
"b25",
"b26",
"b27",
"b28",
"b29",
"b30",
"b31",
"b32"
] | 16,945,960 | pmid-12409471|pmid-12409471|pmid-7684464|pmid-8811080|pmid-7690471|pmid-12409471|pmid-10836792|pmid-10836792|pmid-11873757|pmid-7870579|NA|pmid-11073218|pmid-11101890|pmid-10936101|NA | The common appearance of the pseudo-triloop motif in different RNA sequences suggests that it might be an important protein binding motif. | [
"20",
"20",
"21",
"23",
"24",
"20",
"25",
"25",
"26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 138 | 10,658 | 0 | false | The common appearance of the pseudo-triloop motif in different RNA sequences suggests that it might be an important protein binding motif. | [] | The common appearance of the pseudo-triloop motif in different RNA sequences suggests that it might be an important protein binding motif. | true | true | true | true | true | 1,696 |
4 | INTRODUCTION | 1 | 33 | [
"b33",
"b38"
] | 16,945,960 | NA|pmid-15808230|pmid-15134450|pmid-11693565 | Here we present the high-resolution 3D structure of the human HBV ɛ apical stem–loop, i.e. | [
"33",
"38"
] | 90 | 10,659 | 0 | false | Here we present the high-resolution 3D structure of the human HBV ɛ apical stem–loop, i.e. | [] | Here we present the high-resolution 3D structure of the human HBV ɛ apical stem–loop, i.e. | true | true | true | true | true | 1,697 |
4 | INTRODUCTION | 1 | 33 | [
"b33",
"b38"
] | 16,945,960 | NA|pmid-15808230|pmid-15134450|pmid-11693565 | of the 27 nt fragment which includes the pseudo-triloop and the conserved U bulge in the underlying stem (Figure 1b). | [
"33",
"38"
] | 117 | 10,660 | 0 | false | of the 27 nt fragment which includes the pseudo-triloop and the conserved U bulge in the underlying stem (Figure 1b). | [] | of the 27 nt fragment which includes the pseudo-triloop and the conserved U bulge in the underlying stem (Figure 1b). | false | true | true | true | false | 1,697 |
4 | INTRODUCTION | 1 | 33 | [
"b33",
"b38"
] | 16,945,960 | NA|pmid-15808230|pmid-15134450|pmid-11693565 | Thanks to selective 2H/13C/15N-uridine-labelling, NMR spectral resolution could be increased and spectral overlap reduced (33–38), so that a set of highly reliable structural restraints for the structure derivation based on NOE, RDC and 1H chemical shift NMR data could be derived. | [
"33",
"38"
] | 281 | 10,661 | 0 | false | Thanks to selective 2H/13C/15N-uridine-labelling, NMR spectral resolution could be increased and spectral overlap reduced, so that a set of highly reliable structural restraints for the structure derivation based on NOE, RDC and 1H chemical shift NMR data could be derived. | [
"33–38"
] | Thanks to selective 2H/13C/15N-uridine-labelling, NMR spectral resolution could be increased and spectral overlap reduced, so that a set of highly reliable structural restraints for the structure derivation based on NOE, RDC and 1H chemical shift NMR data could be derived. | true | true | true | true | true | 1,697 |
0 | DISCUSSION | 0 | null | null | 16,945,960 | pmid-9392700|pmid-1325733 | Here we present the high-resolution 3D solution structure of the apical stem–loop of epsilon, the binding site of the viral reverse transcriptase in HBV. | null | 153 | 10,662 | 0 | false | null | null | Here we present the high-resolution 3D solution structure of the apical stem–loop of epsilon, the binding site of the viral reverse transcriptase in HBV. | true | true | true | true | true | 1,698 |
0 | DISCUSSION | 0 | null | null | 16,945,960 | pmid-9392700|pmid-1325733 | Chemical shift analysis showed that both helical regions are mainly A-type, and thus the structure determination has two main objectives, to determine the structure of the pseudo-triloop (PTL) motif at the tip of the apical stem–loop and the global structure of the whole molecule induced by the U23 interruption. | null | 313 | 10,663 | 0 | false | null | null | Chemical shift analysis showed that both helical regions are mainly A-type, and thus the structure determination has two main objectives, to determine the structure of the pseudo-triloop (PTL) motif at the tip of the apical stem–loop and the global structure of the whole molecule induced by the U23 interruption. | true | true | true | true | true | 1,698 |
0 | DISCUSSION | 0 | null | null | 16,945,960 | pmid-9392700|pmid-1325733 | As a consequence, we divided our structure calculation into two separate parts. | null | 79 | 10,664 | 0 | false | null | null | As a consequence, we divided our structure calculation into two separate parts. | true | true | true | true | true | 1,698 |
0 | DISCUSSION | 0 | null | null | 16,945,960 | pmid-9392700|pmid-1325733 | For determination of the PTL conformation, only the top 8 nt were included in the calculations (calculation A). | null | 111 | 10,665 | 0 | false | null | null | For determination of the PTL conformation, only the top 8 nt were included in the calculations (calculation A). | true | true | true | true | true | 1,698 |
0 | DISCUSSION | 0 | null | null | 16,945,960 | pmid-9392700|pmid-1325733 | This enabled us to make a thorough sampling of conformational space. | null | 68 | 10,666 | 0 | false | null | null | This enabled us to make a thorough sampling of conformational space. | true | true | true | true | true | 1,698 |
0 | DISCUSSION | 0 | null | null | 16,945,960 | pmid-9392700|pmid-1325733 | The dissection of the molecule for computational purposes also facilitated the analysis as we could evaluate the PTL conformations without considering whether the global geometry was optimal or not. | null | 198 | 10,667 | 0 | false | null | null | The dissection of the molecule for computational purposes also facilitated the analysis as we could evaluate the PTL conformations without considering whether the global geometry was optimal or not. | true | true | true | true | true | 1,698 |
0 | DISCUSSION | 0 | null | null | 16,945,960 | pmid-9392700|pmid-1325733 | Thus, fewer trial structures had to be calculated. | null | 50 | 10,668 | 0 | false | null | null | Thus, fewer trial structures had to be calculated. | true | true | true | true | true | 1,698 |
1 | DISCUSSION | 1 | 47 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | For the global structure, a protocol was designed to determine the geometry relying mainly on the RDC data. | [
"47",
"47",
"44"
] | 107 | 10,669 | 0 | false | For the global structure, a protocol was designed to determine the geometry relying mainly on the RDC data. | [] | For the global structure, a protocol was designed to determine the geometry relying mainly on the RDC data. | true | true | true | true | true | 1,699 |
1 | DISCUSSION | 1 | 47 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | Here, we exploited the modular build of the apical stem–loop RNA and used semi rigid-body dynamics to reorient the two helical regions relative to each other (step B2) (47). | [
"47",
"47",
"44"
] | 173 | 10,670 | 1 | false | Here, we exploited the modular build of the apical stem–loop RNA and used semi rigid-body dynamics to reorient the two helical regions relative to each other (step B2). | [
"47"
] | Here, we exploited the modular build of the apical stem–loop RNA and used semi rigid-body dynamics to reorient the two helical regions relative to each other (step B2). | true | true | true | true | true | 1,699 |
1 | DISCUSSION | 1 | 47 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | During this step, the five independent parameters of the alignment tensor were optimized simultaneously with the stem orientation. | [
"47",
"47",
"44"
] | 130 | 10,671 | 0 | false | During this step, the five independent parameters of the alignment tensor were optimized simultaneously with the stem orientation. | [] | During this step, the five independent parameters of the alignment tensor were optimized simultaneously with the stem orientation. | true | true | true | true | true | 1,699 |
1 | DISCUSSION | 1 | 47 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | This approach takes away the need for time consuming grid searches to determine the alignment tensor and hence increases computational efficiency. | [
"47",
"47",
"44"
] | 146 | 10,672 | 0 | false | This approach takes away the need for time consuming grid searches to determine the alignment tensor and hence increases computational efficiency. | [] | This approach takes away the need for time consuming grid searches to determine the alignment tensor and hence increases computational efficiency. | true | true | true | true | true | 1,699 |
1 | DISCUSSION | 1 | 47 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | However, we noticed that the two stem regions had to be kept rigid as otherwise the alignment tensor had a tendency to ‘blow up’. | [
"47",
"47",
"44"
] | 129 | 10,673 | 0 | false | However, we noticed that the two stem regions had to be kept rigid as otherwise the alignment tensor had a tendency to ‘blow up’. | [] | However, we noticed that the two stem regions had to be kept rigid as otherwise the alignment tensor had a tendency to ‘blow up’. | true | true | true | true | true | 1,699 |
1 | DISCUSSION | 1 | 47 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | In the initial structure, determined by NOE restraints (Step B1), the local geometry is only optimized with respect to the NOE restraints and not for the RDC restraints. | [
"47",
"47",
"44"
] | 169 | 10,674 | 0 | false | In the initial structure, determined by NOE restraints (Step B1), the local geometry is only optimized with respect to the NOE restraints and not for the RDC restraints. | [] | In the initial structure, determined by NOE restraints (Step B1), the local geometry is only optimized with respect to the NOE restraints and not for the RDC restraints. | true | true | true | true | true | 1,699 |
1 | DISCUSSION | 1 | 47 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | Hence, initially there is a tendency to underestimate the axial component of the alignment tensor. | [
"47",
"47",
"44"
] | 98 | 10,675 | 0 | false | Hence, initially there is a tendency to underestimate the axial component of the alignment tensor. | [] | Hence, initially there is a tendency to underestimate the axial component of the alignment tensor. | true | true | true | true | true | 1,699 |
1 | DISCUSSION | 1 | 47 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | If both the geometry of the molecule and the alignment tensor are optimized simultaneously, computations incorrectly satisfy the experimental RDCs by increasing the components of the alignment tensor excessively (resulting in the alignment tensor ‘blowing up’). | [
"47",
"47",
"44"
] | 261 | 10,676 | 0 | false | If both the geometry of the molecule and the alignment tensor are optimized simultaneously, computations incorrectly satisfy the experimental RDCs by increasing the components of the alignment tensor excessively (resulting in the alignment tensor ‘blowing up’). | [] | If both the geometry of the molecule and the alignment tensor are optimized simultaneously, computations incorrectly satisfy the experimental RDCs by increasing the components of the alignment tensor excessively (resulting in the alignment tensor ‘blowing up’). | true | true | true | true | true | 1,699 |
1 | DISCUSSION | 1 | 47 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | The rigid-body dynamics step ensures that this does not happen. | [
"47",
"47",
"44"
] | 63 | 10,677 | 0 | false | The rigid-body dynamics step ensures that this does not happen. | [] | The rigid-body dynamics step ensures that this does not happen. | true | true | true | true | true | 1,699 |
1 | DISCUSSION | 1 | 47 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | After realigning the two stem regions of the molecule, the local geometry is reoptimized in the final step (B3). | [
"47",
"47",
"44"
] | 112 | 10,678 | 0 | false | After realigning the two stem regions of the molecule, the local geometry is reoptimized in the final step (B3). | [] | After realigning the two stem regions of the molecule, the local geometry is reoptimized in the final step (B3). | true | true | true | true | true | 1,699 |
1 | DISCUSSION | 1 | 47 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | Using this protocol, the RDCs are mainly used for determining the global structure of the molecule while the NOEs determine the local structure. | [
"47",
"47",
"44"
] | 144 | 10,679 | 0 | false | Using this protocol, the RDCs are mainly used for determining the global structure of the molecule while the NOEs determine the local structure. | [] | Using this protocol, the RDCs are mainly used for determining the global structure of the molecule while the NOEs determine the local structure. | true | true | true | true | true | 1,699 |
1 | DISCUSSION | 1 | 47 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | The outline of our strategy resembles the local-to-global structure determination approach presented by McCallum and Pardi (47). | [
"47",
"47",
"44"
] | 128 | 10,680 | 1 | false | The outline of our strategy resembles the local-to-global structure determination approach presented by McCallum and Pardi. | [
"47"
] | The outline of our strategy resembles the local-to-global structure determination approach presented by McCallum and Pardi. | true | true | true | true | true | 1,699 |
1 | DISCUSSION | 1 | 44 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | Wijmenga and co-workers (44) have shown recently that for nucleic acids aligned with Pf1 phages, the rhombicity of the molecular alignment tensor can be predicted accurately from the shape of the molecule. | [
"47",
"47",
"44"
] | 205 | 10,681 | 1 | false | Wijmenga and co-workers have shown recently that for nucleic acids aligned with Pf1 phages, the rhombicity of the molecular alignment tensor can be predicted accurately from the shape of the molecule. | [
"44"
] | Wijmenga and co-workers have shown recently that for nucleic acids aligned with Pf1 phages, the rhombicity of the molecular alignment tensor can be predicted accurately from the shape of the molecule. | true | true | true | true | true | 1,699 |
1 | DISCUSSION | 1 | 47 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | We utilized this in the final selection of molecules by demanding that the rhombicities of the alignment tensor calculated by PALES and by the gyration tensor method should agree. | [
"47",
"47",
"44"
] | 179 | 10,682 | 0 | false | We utilized this in the final selection of molecules by demanding that the rhombicities of the alignment tensor calculated by PALES and by the gyration tensor method should agree. | [] | We utilized this in the final selection of molecules by demanding that the rhombicities of the alignment tensor calculated by PALES and by the gyration tensor method should agree. | true | true | true | true | true | 1,699 |
1 | DISCUSSION | 1 | 47 | [
"b47",
"b47",
"b44"
] | 16,945,960 | pmid-10516465|NA|pmid-3039907|pmid-8627750|pmid-7692081|pmid-9774643|pmid-12589752|pmid-12589752|pmid-16718586 | In this way, structures which have a rhombicity, and hence alignment tensor, inconsistent with their overall structure are removed from the set. | [
"47",
"47",
"44"
] | 144 | 10,683 | 0 | false | In this way, structures which have a rhombicity, and hence alignment tensor, inconsistent with their overall structure are removed from the set. | [] | In this way, structures which have a rhombicity, and hence alignment tensor, inconsistent with their overall structure are removed from the set. | true | true | true | true | true | 1,699 |
2 | DISCUSSION | 1 | 48 | [
"b48"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | Our methodology streamlines the structure determination by the subdivision of the problem into two separate and simpler problems. | [
"48"
] | 129 | 10,684 | 0 | false | Our methodology streamlines the structure determination by the subdivision of the problem into two separate and simpler problems. | [] | Our methodology streamlines the structure determination by the subdivision of the problem into two separate and simpler problems. | true | true | true | true | true | 1,700 |
2 | DISCUSSION | 1 | 48 | [
"b48"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | This strategy is only applicable if the molecule under study has a suitably modular build as the apical stem–loop of epsilon. | [
"48"
] | 125 | 10,685 | 0 | false | This strategy is only applicable if the molecule under study has a suitably modular build as the apical stem–loop of epsilon. | [] | This strategy is only applicable if the molecule under study has a suitably modular build as the apical stem–loop of epsilon. | true | true | true | true | true | 1,700 |
2 | DISCUSSION | 1 | 48 | [
"b48"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | For the global structure determination, we circumvent the problem of determining the components of the alignment tensor by grid searching. | [
"48"
] | 138 | 10,686 | 0 | false | For the global structure determination, we circumvent the problem of determining the components of the alignment tensor by grid searching. | [] | For the global structure determination, we circumvent the problem of determining the components of the alignment tensor by grid searching. | true | true | true | true | true | 1,700 |
2 | DISCUSSION | 1 | 48 | [
"b48"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | This strategy is less time consuming and if only fairly few RDCs are measured should be less prone to errors than a grid search which would overestimate the rhombicity and underestimate the axial component of the alignment tensor if the RDC space is sampled anisotropically (a common problem for elongated helical molecu... | [
"48"
] | 330 | 10,687 | 1 | false | This strategy is less time consuming and if only fairly few RDCs are measured should be less prone to errors than a grid search which would overestimate the rhombicity and underestimate the axial component of the alignment tensor if the RDC space is sampled anisotropically (a common problem for elongated helical molecu... | [
"48"
] | This strategy is less time consuming and if only fairly few RDCs are measured should be less prone to errors than a grid search which would overestimate the rhombicity and underestimate the axial component of the alignment tensor if the RDC space is sampled anisotropically (a common problem for elongated helical molecu... | true | true | true | true | true | 1,700 |
2 | DISCUSSION | 1 | 48 | [
"b48"
] | 16,945,960 | pmid-11090140|pmid-15542664|pmid-8806527|pmid-9774643|pmid-15314208|pmid-16474122|pmid-11295749 | Importantly, both strategies are applicable to a wide range of RNA molecules appropriate for structural studies using NMR spectroscopy. | [
"48"
] | 135 | 10,688 | 0 | false | Importantly, both strategies are applicable to a wide range of RNA molecules appropriate for structural studies using NMR spectroscopy. | [] | Importantly, both strategies are applicable to a wide range of RNA molecules appropriate for structural studies using NMR spectroscopy. | true | true | true | true | true | 1,700 |
3 | DISCUSSION | 0 | null | null | 16,945,960 | pmid-12409471|pmid-12409471|pmid-7684464|pmid-8811080|pmid-7690471|pmid-12409471|pmid-10836792|pmid-10836792|pmid-11873757|pmid-7870579|NA|pmid-11073218|pmid-11101890|pmid-10936101|NA | The PTL at the tip of the apical stem–loop does not have a rigid and well-defined structure. | null | 92 | 10,689 | 0 | false | null | null | The PTL at the tip of the apical stem–loop does not have a rigid and well-defined structure. | true | true | true | true | true | 1,701 |
3 | DISCUSSION | 0 | null | null | 16,945,960 | pmid-12409471|pmid-12409471|pmid-7684464|pmid-8811080|pmid-7690471|pmid-12409471|pmid-10836792|pmid-10836792|pmid-11873757|pmid-7870579|NA|pmid-11073218|pmid-11101890|pmid-10936101|NA | The refinement with classical NOE and torsion angle restraints resulted in conformations of the triloop, where the two first residues, U12 and G13, alternate between the major and minor groove sides, showing all four possible permutations of minor–major groove conformations of U12 and G13. | null | 290 | 10,690 | 0 | false | null | null | The refinement with classical NOE and torsion angle restraints resulted in conformations of the triloop, where the two first residues, U12 and G13, alternate between the major and minor groove sides, showing all four possible permutations of minor–major groove conformations of U12 and G13. | true | true | true | true | true | 1,701 |
3 | DISCUSSION | 0 | null | null | 16,945,960 | pmid-12409471|pmid-12409471|pmid-7684464|pmid-8811080|pmid-7690471|pmid-12409471|pmid-10836792|pmid-10836792|pmid-11873757|pmid-7870579|NA|pmid-11073218|pmid-11101890|pmid-10936101|NA | However, only conformations with U12 and G13 in the major and minor groove, respectively, were found to fit also 1H chemical shifts. | null | 132 | 10,691 | 0 | false | null | null | However, only conformations with U12 and G13 in the major and minor groove, respectively, were found to fit also 1H chemical shifts. | true | true | true | true | true | 1,701 |
4 | DISCUSSION | 1 | 49 | [
"b49",
"b43"
] | 16,945,960 | NA|pmid-15808230|pmid-15134450|pmid-11693565 | Besides the lack of convergence based on NOE and torsion angle data, there are some additional indications of flexibility within the HBV PTL. | [
"49",
"43"
] | 141 | 10,692 | 0 | false | Besides the lack of convergence based on NOE and torsion angle data, there are some additional indications of flexibility within the HBV PTL. | [] | Besides the lack of convergence based on NOE and torsion angle data, there are some additional indications of flexibility within the HBV PTL. | true | true | true | true | true | 1,702 |
4 | DISCUSSION | 1 | 49 | [
"b49",
"b43"
] | 16,945,960 | NA|pmid-15808230|pmid-15134450|pmid-11693565 | First, inclusion of RDCs in the loop refinement (using the magnitude of the alignment tensor determined from the full 27 nt molecule) did not improve the convergence of the loop structures. | [
"49",
"43"
] | 189 | 10,693 | 0 | false | First, inclusion of RDCs in the loop refinement (using the magnitude of the alignment tensor determined from the full 27 nt molecule) did not improve the convergence of the loop structures. | [] | First, inclusion of RDCs in the loop refinement (using the magnitude of the alignment tensor determined from the full 27 nt molecule) did not improve the convergence of the loop structures. | true | true | true | true | true | 1,702 |
4 | DISCUSSION | 1 | 49 | [
"b49",
"b43"
] | 16,945,960 | NA|pmid-15808230|pmid-15134450|pmid-11693565 | Second, an inspection of the RDCs shows that compared to the stem RDCs, the loop RDCs appear small (Supplementary Figure S3), which could be the result of averaging of RDCs due to motion of the loop residues. | [
"49",
"43"
] | 208 | 10,694 | 0 | false | Second, an inspection of the RDCs shows that compared to the stem RDCs, the loop RDCs appear small (Supplementary Figure S3), which could be the result of averaging of RDCs due to motion of the loop residues. | [] | Second, an inspection of the RDCs shows that compared to the stem RDCs, the loop RDCs appear small (Supplementary Figure S3), which could be the result of averaging of RDCs due to motion of the loop residues. | true | true | true | true | true | 1,702 |
4 | DISCUSSION | 1 | 49 | [
"b49",
"b43"
] | 16,945,960 | NA|pmid-15808230|pmid-15134450|pmid-11693565 | The same phenomenon is observed for the bulge residues in Loop B RNA from the IRES in Enterovirus (49). | [
"49",
"43"
] | 103 | 10,695 | 1 | false | The same phenomenon is observed for the bulge residues in Loop B RNA from the IRES in Enterovirus. | [
"49"
] | The same phenomenon is observed for the bulge residues in Loop B RNA from the IRES in Enterovirus. | true | true | true | true | true | 1,702 |
4 | DISCUSSION | 1 | 49 | [
"b49",
"b43"
] | 16,945,960 | NA|pmid-15808230|pmid-15134450|pmid-11693565 | In addition, comparison of experimental and back-calculated 1H chemical shifts suggest the possible presence of flexibility. | [
"49",
"43"
] | 124 | 10,696 | 0 | false | In addition, comparison of experimental and back-calculated 1H chemical shifts suggest the possible presence of flexibility. | [] | In addition, comparison of experimental and back-calculated 1H chemical shifts suggest the possible presence of flexibility. | true | true | true | true | true | 1,702 |
4 | DISCUSSION | 1 | 49 | [
"b49",
"b43"
] | 16,945,960 | NA|pmid-15808230|pmid-15134450|pmid-11693565 | The loop conformations showing the best correspondence with the experimental 1H chemical shifts have an r.m.s.d. | [
"49",
"43"
] | 112 | 10,697 | 0 | false | The loop conformations showing the best correspondence with the experimental 1H chemical shifts have an r.m.s.d. | [] | The loop conformations showing the best correspondence with the experimental 1H chemical shifts have an r.m.s.d. | true | true | true | true | true | 1,702 |
4 | DISCUSSION | 1 | 49 | [
"b49",
"b43"
] | 16,945,960 | NA|pmid-15808230|pmid-15134450|pmid-11693565 | in the range of ≈0.25–0.30 p.p.m. | [
"49",
"43"
] | 33 | 10,698 | 0 | false | in the range of ≈0.25–0.30 p.p.m. | [] | in the range of ≈0.25–0.30 p.p.m. | false | true | true | true | false | 1,702 |
4 | DISCUSSION | 1 | 49 | [
"b49",
"b43"
] | 16,945,960 | NA|pmid-15808230|pmid-15134450|pmid-11693565 | (Supplementary Figure S2). | [
"49",
"43"
] | 26 | 10,699 | 0 | false | (Supplementary Figure S2). | [] | (Supplementary Figure S2). | false | false | true | true | false | 1,702 |
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