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 |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
3 | INTRODUCTION | 1 | 23 | [
"B23",
"B23",
"B24",
"B25",
"B26",
"B27",
"B28",
"B27",
"B28",
"B23"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | The fluorescence increase is generated by a transition of the probe from a randomly coiled to linearized state upon hybridization to target DNA. | [
"23",
"23",
"24",
"25",
"26",
"27",
"28",
"27",
"28",
"23"
] | 144 | 4,800 | 0 | false | The fluorescence increase is generated by a transition of the probe from a randomly coiled to linearized state upon hybridization to target DNA. | [] | The fluorescence increase is generated by a transition of the probe from a randomly coiled to linearized state upon hybridization to target DNA. | true | true | true | true | true | 805 |
3 | INTRODUCTION | 1 | 23 | [
"B23",
"B23",
"B24",
"B25",
"B26",
"B27",
"B28",
"B27",
"B28",
"B23"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | It has been observed that the MGB-probes have reduced fluorescence background compared to non-MGB analogs (23). | [
"23",
"23",
"24",
"25",
"26",
"27",
"28",
"27",
"28",
"23"
] | 111 | 4,801 | 1 | false | It has been observed that the MGB-probes have reduced fluorescence background compared to non-MGB analogs. | [
"23"
] | It has been observed that the MGB-probes have reduced fluorescence background compared to non-MGB analogs. | true | true | true | true | true | 805 |
3 | INTRODUCTION | 1 | 23 | [
"B23",
"B23",
"B24",
"B25",
"B26",
"B27",
"B28",
"B27",
"B28",
"B23"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | This was attributed to a reduced length of the MGB probes and, therefore, relative proximity of the fluorophore and the quencher. | [
"23",
"23",
"24",
"25",
"26",
"27",
"28",
"27",
"28",
"23"
] | 129 | 4,802 | 0 | false | This was attributed to a reduced length of the MGB probes and, therefore, relative proximity of the fluorophore and the quencher. | [] | This was attributed to a reduced length of the MGB probes and, therefore, relative proximity of the fluorophore and the quencher. | true | true | true | true | true | 805 |
3 | INTRODUCTION | 1 | 23 | [
"B23",
"B23",
"B24",
"B25",
"B26",
"B27",
"B28",
"B27",
"B28",
"B23"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | Both MGB-TaqMan and MGB-Eclipse probe formats have fluorophore and the MGB attached at opposite ends of the DNA probe. | [
"23",
"23",
"24",
"25",
"26",
"27",
"28",
"27",
"28",
"23"
] | 118 | 4,803 | 0 | false | Both MGB-TaqMan and MGB-Eclipse probe formats have fluorophore and the MGB attached at opposite ends of the DNA probe. | [] | Both MGB-TaqMan and MGB-Eclipse probe formats have fluorophore and the MGB attached at opposite ends of the DNA probe. | true | true | true | true | true | 805 |
4 | INTRODUCTION | 0 | null | null | 17,259,212 | null | We have recently discovered that when a fluorescent dye is positioned in close proximity to the MGB moiety, its fluorescence is substantially reduced. | null | 150 | 4,804 | 0 | false | null | null | We have recently discovered that when a fluorescent dye is positioned in close proximity to the MGB moiety, its fluorescence is substantially reduced. | true | true | true | true | true | 806 |
4 | INTRODUCTION | 0 | null | null | 17,259,212 | null | This surprising finding prompted us to investigate a novel design of hybridization probes, which we have called Pleiades probes (after one of the brightest star constellations in the night sky), wherein the fluorophore is located directly adjacent to the MGB at one of the ends of the probe, whereas the quencher is atta... | null | 345 | 4,805 | 0 | false | null | null | This surprising finding prompted us to investigate a novel design of hybridization probes, which we have called Pleiades probes (after one of the brightest star constellations in the night sky), wherein the fluorophore is located directly adjacent to the MGB at one of the ends of the probe, whereas the quencher is atta... | true | true | true | true | true | 806 |
4 | INTRODUCTION | 0 | null | null | 17,259,212 | null | We have found that this design provides extremely low background fluorescence. | null | 78 | 4,806 | 0 | false | null | null | We have found that this design provides extremely low background fluorescence. | true | true | true | true | true | 806 |
4 | INTRODUCTION | 0 | null | null | 17,259,212 | null | Moreover, when such probes are hybridized to complementary targets the fluorescence is efficiently released. | null | 108 | 4,807 | 0 | false | null | null | Moreover, when such probes are hybridized to complementary targets the fluorescence is efficiently released. | true | true | true | true | true | 806 |
5 | INTRODUCTION | 0 | null | null | 17,259,212 | null | The aim of the current study was to investigate fluorescence and hybridization properties of the novel probes and determine structural elements underlying the efficient fluorescence quenching for free probes and strong hybridization-triggered fluorescence. | null | 256 | 4,808 | 0 | false | null | null | The aim of the current study was to investigate fluorescence and hybridization properties of the novel probes and determine structural elements underlying the efficient fluorescence quenching for free probes and strong hybridization-triggered fluorescence. | true | true | true | true | true | 807 |
0 | DISCUSSION | 1 | 36–38 | [
"B36 B37 B38"
] | 17,259,212 | pmid-9439442|pmid-11846612|NA | Performance of a fluorogenic DNA hybridization probe can be characterized by several important parameters. | [
"36–38"
] | 106 | 4,809 | 0 | false | Performance of a fluorogenic DNA hybridization probe can be characterized by several important parameters. | [] | Performance of a fluorogenic DNA hybridization probe can be characterized by several important parameters. | true | true | true | true | true | 808 |
0 | DISCUSSION | 1 | 36–38 | [
"B36 B37 B38"
] | 17,259,212 | pmid-9439442|pmid-11846612|NA | The first is the degree of quenching in unhybridized probe (background fluorescence). | [
"36–38"
] | 85 | 4,810 | 0 | false | The first is the degree of quenching in unhybridized probe (background fluorescence). | [] | The first is the degree of quenching in unhybridized probe (background fluorescence). | true | true | true | true | true | 808 |
0 | DISCUSSION | 1 | 36–38 | [
"B36 B37 B38"
] | 17,259,212 | pmid-9439442|pmid-11846612|NA | The second factor is the fluorescence intensity after hybridization with a target (signal fluorescence). | [
"36–38"
] | 104 | 4,811 | 0 | false | The second factor is the fluorescence intensity after hybridization with a target (signal fluorescence). | [] | The second factor is the fluorescence intensity after hybridization with a target (signal fluorescence). | true | true | true | true | true | 808 |
0 | DISCUSSION | 1 | 36–38 | [
"B36 B37 B38"
] | 17,259,212 | pmid-9439442|pmid-11846612|NA | Together they can be characterized by the value of signal-to-background (S/B) ratio—the ultimate measure of assay sensitivity. | [
"36–38"
] | 126 | 4,812 | 0 | false | Together they can be characterized by the value of signal-to-background (S/B) ratio—the ultimate measure of assay sensitivity. | [] | Together they can be characterized by the value of signal-to-background (S/B) ratio—the ultimate measure of assay sensitivity. | true | true | true | true | true | 808 |
0 | DISCUSSION | 1 | 36–38 | [
"B36 B37 B38"
] | 17,259,212 | pmid-9439442|pmid-11846612|NA | Furthermore, it is crucial for some applications to keep the background fluorescence stable at any temperature of the assay. | [
"36–38"
] | 124 | 4,813 | 0 | false | Furthermore, it is crucial for some applications to keep the background fluorescence stable at any temperature of the assay. | [] | Furthermore, it is crucial for some applications to keep the background fluorescence stable at any temperature of the assay. | true | true | true | true | true | 808 |
0 | DISCUSSION | 1 | 36–38 | [
"B36 B37 B38"
] | 17,259,212 | pmid-9439442|pmid-11846612|NA | For example, post-PCR melting curve analysis is an important tool in genetic analysis (36–38); it assures specificity of target detection and allows discrimination between fully and partially matched duplexes. | [
"36–38"
] | 209 | 4,814 | 1 | false | For example, post-PCR melting curve analysis is an important tool in genetic analysis ; it assures specificity of target detection and allows discrimination between fully and partially matched duplexes. | [
"36–38"
] | For example, post-PCR melting curve analysis is an important tool in genetic analysis ; it assures specificity of target detection and allows discrimination between fully and partially matched duplexes. | true | true | true | true | true | 808 |
0 | DISCUSSION | 1 | 36–38 | [
"B36 B37 B38"
] | 17,259,212 | pmid-9439442|pmid-11846612|NA | However, a probe that has an unstable fluorescence background due, for instance, to an intrinsic secondary structure, may generate a complicated melting profile and lead to erroneous conclusions. | [
"36–38"
] | 195 | 4,815 | 0 | false | However, a probe that has an unstable fluorescence background due, for instance, to an intrinsic secondary structure, may generate a complicated melting profile and lead to erroneous conclusions. | [] | However, a probe that has an unstable fluorescence background due, for instance, to an intrinsic secondary structure, may generate a complicated melting profile and lead to erroneous conclusions. | true | true | true | true | true | 808 |
0 | DISCUSSION | 1 | 36–38 | [
"B36 B37 B38"
] | 17,259,212 | pmid-9439442|pmid-11846612|NA | The third factor is the efficiency of hybridization, which depends on the probe's Tm, assay conditions and presence of secondary structures in probe or target. | [
"36–38"
] | 159 | 4,816 | 0 | false | The third factor is the efficiency of hybridization, which depends on the probe's Tm, assay conditions and presence of secondary structures in probe or target. | [] | The third factor is the efficiency of hybridization, which depends on the probe's Tm, assay conditions and presence of secondary structures in probe or target. | true | true | true | true | true | 808 |
0 | DISCUSSION | 1 | 36–38 | [
"B36 B37 B38"
] | 17,259,212 | pmid-9439442|pmid-11846612|NA | Secondary structure in a probe can reduce hybridization rates and result in inefficient hybridization and, consequently, low fluorescent signal. | [
"36–38"
] | 144 | 4,817 | 0 | false | Secondary structure in a probe can reduce hybridization rates and result in inefficient hybridization and, consequently, low fluorescent signal. | [] | Secondary structure in a probe can reduce hybridization rates and result in inefficient hybridization and, consequently, low fluorescent signal. | true | true | true | true | true | 808 |
0 | DISCUSSION | 1 | 36–38 | [
"B36 B37 B38"
] | 17,259,212 | pmid-9439442|pmid-11846612|NA | This is crucial for applications such as fast cycling PCR assays. | [
"36–38"
] | 65 | 4,818 | 0 | false | This is crucial for applications such as fast cycling PCR assays. | [] | This is crucial for applications such as fast cycling PCR assays. | true | true | true | true | true | 808 |
0 | DISCUSSION | 1 | 36–38 | [
"B36 B37 B38"
] | 17,259,212 | pmid-9439442|pmid-11846612|NA | The fourth factor is the sequence specificity of hybridization, such as the ability to discriminate single nucleotide polymorphisms. | [
"36–38"
] | 132 | 4,819 | 0 | false | The fourth factor is the sequence specificity of hybridization, such as the ability to discriminate single nucleotide polymorphisms. | [] | The fourth factor is the sequence specificity of hybridization, such as the ability to discriminate single nucleotide polymorphisms. | true | true | true | true | true | 808 |
0 | DISCUSSION | 1 | 36–38 | [
"B36 B37 B38"
] | 17,259,212 | pmid-9439442|pmid-11846612|NA | The fifth factor is the resistance to enzymatic degradation during PCR reaction. | [
"36–38"
] | 80 | 4,820 | 0 | false | The fifth factor is the resistance to enzymatic degradation during PCR reaction. | [] | The fifth factor is the resistance to enzymatic degradation during PCR reaction. | true | true | true | true | true | 808 |
0 | DISCUSSION | 1 | 36–38 | [
"B36 B37 B38"
] | 17,259,212 | pmid-9439442|pmid-11846612|NA | This property allows a post-PCR thermal melt analysis to be performed. | [
"36–38"
] | 70 | 4,821 | 0 | false | This property allows a post-PCR thermal melt analysis to be performed. | [] | This property allows a post-PCR thermal melt analysis to be performed. | true | true | true | true | true | 808 |
1 | DISCUSSION | 1 | 1 | [
"B1",
"B32",
"B8",
"B33",
"B28"
] | 17,259,212 | pmid-9630890|pmid-12409481|pmid-10429248|pmid-9649324|NA|NA|NA|pmid-11829619|NA|NA|NA|pmid-11829619|NA|pmid-12059218|NA|NA|pmid-12364614|pmid-16524730|pmid-9630890|pmid-10339560|pmid-11829619|pmid-12582252|pmid-11962616 | The molecular beacons tested in this study demonstrated outstanding S/B ratios at low temperatures, similar to that reported in literature (1). | [
"1",
"32",
"8",
"33",
"28"
] | 143 | 4,822 | 1 | false | The molecular beacons tested in this study demonstrated outstanding S/B ratios at low temperatures, similar to that reported in literature. | [
"1"
] | The molecular beacons tested in this study demonstrated outstanding S/B ratios at low temperatures, similar to that reported in literature. | true | true | true | true | true | 809 |
1 | DISCUSSION | 1 | 1 | [
"B1",
"B32",
"B8",
"B33",
"B28"
] | 17,259,212 | pmid-9630890|pmid-12409481|pmid-10429248|pmid-9649324|NA|NA|NA|pmid-11829619|NA|NA|NA|pmid-11829619|NA|pmid-12059218|NA|NA|pmid-12364614|pmid-16524730|pmid-9630890|pmid-10339560|pmid-11829619|pmid-12582252|pmid-11962616 | However, at PCR relevant conditions the value of this parameter was substantially compromised. | [
"1",
"32",
"8",
"33",
"28"
] | 94 | 4,823 | 0 | false | However, at PCR relevant conditions the value of this parameter was substantially compromised. | [] | However, at PCR relevant conditions the value of this parameter was substantially compromised. | true | true | true | true | true | 809 |
1 | DISCUSSION | 1 | 1 | [
"B1",
"B32",
"B8",
"B33",
"B28"
] | 17,259,212 | pmid-9630890|pmid-12409481|pmid-10429248|pmid-9649324|NA|NA|NA|pmid-11829619|NA|NA|NA|pmid-11829619|NA|pmid-12059218|NA|NA|pmid-12364614|pmid-16524730|pmid-9630890|pmid-10339560|pmid-11829619|pmid-12582252|pmid-11962616 | A relatively stable stem is needed to keep molecular beacon's background fluorescence low at elevated temperatures. | [
"1",
"32",
"8",
"33",
"28"
] | 115 | 4,824 | 0 | false | A relatively stable stem is needed to keep molecular beacon's background fluorescence low at elevated temperatures. | [] | A relatively stable stem is needed to keep molecular beacon's background fluorescence low at elevated temperatures. | true | true | true | true | true | 809 |
1 | DISCUSSION | 1 | 32 | [
"B1",
"B32",
"B8",
"B33",
"B28"
] | 17,259,212 | pmid-9630890|pmid-12409481|pmid-10429248|pmid-9649324|NA|NA|NA|pmid-11829619|NA|NA|NA|pmid-11829619|NA|pmid-12059218|NA|NA|pmid-12364614|pmid-16524730|pmid-9630890|pmid-10339560|pmid-11829619|pmid-12582252|pmid-11962616 | The stem structure is also required for the improved mismatch discrimination by molecular beacons (32). | [
"1",
"32",
"8",
"33",
"28"
] | 103 | 4,825 | 1 | false | The stem structure is also required for the improved mismatch discrimination by molecular beacons. | [
"32"
] | The stem structure is also required for the improved mismatch discrimination by molecular beacons. | true | true | true | true | true | 809 |
1 | DISCUSSION | 1 | 1 | [
"B1",
"B32",
"B8",
"B33",
"B28"
] | 17,259,212 | pmid-9630890|pmid-12409481|pmid-10429248|pmid-9649324|NA|NA|NA|pmid-11829619|NA|NA|NA|pmid-11829619|NA|pmid-12059218|NA|NA|pmid-12364614|pmid-16524730|pmid-9630890|pmid-10339560|pmid-11829619|pmid-12582252|pmid-11962616 | However, the benefits of having this structure come at the price of reduced hybridization kinetics (8,33), which may render molecular beacons inefficient for some applications. | [
"1",
"32",
"8",
"33",
"28"
] | 176 | 4,826 | 0 | false | However, the benefits of having this structure come at the price of reduced hybridization kinetics, which may render molecular beacons inefficient for some applications. | [
"8,33"
] | However, the benefits of having this structure come at the price of reduced hybridization kinetics, which may render molecular beacons inefficient for some applications. | true | true | true | true | true | 809 |
1 | DISCUSSION | 1 | 1 | [
"B1",
"B32",
"B8",
"B33",
"B28"
] | 17,259,212 | pmid-9630890|pmid-12409481|pmid-10429248|pmid-9649324|NA|NA|NA|pmid-11829619|NA|NA|NA|pmid-11829619|NA|pmid-12059218|NA|NA|pmid-12364614|pmid-16524730|pmid-9630890|pmid-10339560|pmid-11829619|pmid-12582252|pmid-11962616 | Melting profile analysis for molecular beacons is also complicated by the presence of the stem-loop to random coil transition. | [
"1",
"32",
"8",
"33",
"28"
] | 126 | 4,827 | 0 | false | Melting profile analysis for molecular beacons is also complicated by the presence of the stem-loop to random coil transition. | [] | Melting profile analysis for molecular beacons is also complicated by the presence of the stem-loop to random coil transition. | true | true | true | true | true | 809 |
1 | DISCUSSION | 1 | 28 | [
"B1",
"B32",
"B8",
"B33",
"B28"
] | 17,259,212 | pmid-9630890|pmid-12409481|pmid-10429248|pmid-9649324|NA|NA|NA|pmid-11829619|NA|NA|NA|pmid-11829619|NA|pmid-12059218|NA|NA|pmid-12364614|pmid-16524730|pmid-9630890|pmid-10339560|pmid-11829619|pmid-12582252|pmid-11962616 | In addition, substantial probe degradation is observed for molecular beacons during PCR reaction (28). | [
"1",
"32",
"8",
"33",
"28"
] | 102 | 4,828 | 1 | false | In addition, substantial probe degradation is observed for molecular beacons during PCR reaction. | [
"28"
] | In addition, substantial probe degradation is observed for molecular beacons during PCR reaction. | true | true | true | true | true | 809 |
2 | DISCUSSION | 1 | 8 | [
"B8",
"B39"
] | 17,259,212 | pmid-9016671|pmid-10847607|NA|pmid-15918676|pmid-10959954|pmid-11180941|pmid-11239011|pmid-11829619|pmid-11572603 | MGB-Eclipse, the second type of probes compared, does not possess very low fluorescence background. | [
"8",
"39"
] | 99 | 4,829 | 0 | false | MGB-Eclipse, the second type of probes compared, does not possess very low fluorescence background. | [] | MGB-Eclipse, the second type of probes compared, does not possess very low fluorescence background. | true | true | true | true | true | 810 |
2 | DISCUSSION | 1 | 8 | [
"B8",
"B39"
] | 17,259,212 | pmid-9016671|pmid-10847607|NA|pmid-15918676|pmid-10959954|pmid-11180941|pmid-11239011|pmid-11829619|pmid-11572603 | The S/B ratios for these probes are only slightly better than those for corresponding non-MGB linear probes. | [
"8",
"39"
] | 108 | 4,830 | 0 | false | The S/B ratios for these probes are only slightly better than those for corresponding non-MGB linear probes. | [] | The S/B ratios for these probes are only slightly better than those for corresponding non-MGB linear probes. | true | true | true | true | true | 810 |
2 | DISCUSSION | 1 | 8 | [
"B8",
"B39"
] | 17,259,212 | pmid-9016671|pmid-10847607|NA|pmid-15918676|pmid-10959954|pmid-11180941|pmid-11239011|pmid-11829619|pmid-11572603 | Unstable, temperature-dependent background fluorescence is another weakness of MGB-Eclipse probes. | [
"8",
"39"
] | 98 | 4,831 | 0 | false | Unstable, temperature-dependent background fluorescence is another weakness of MGB-Eclipse probes. | [] | Unstable, temperature-dependent background fluorescence is another weakness of MGB-Eclipse probes. | true | true | true | true | true | 810 |
2 | DISCUSSION | 1 | 8 | [
"B8",
"B39"
] | 17,259,212 | pmid-9016671|pmid-10847607|NA|pmid-15918676|pmid-10959954|pmid-11180941|pmid-11239011|pmid-11829619|pmid-11572603 | On the upside, due to the stabilizing effect of the MGB, MGB-Eclipse probes are relatively short and, therefore, have a good mismatch discriminating ability. | [
"8",
"39"
] | 157 | 4,832 | 0 | false | On the upside, due to the stabilizing effect of the MGB, MGB-Eclipse probes are relatively short and, therefore, have a good mismatch discriminating ability. | [] | On the upside, due to the stabilizing effect of the MGB, MGB-Eclipse probes are relatively short and, therefore, have a good mismatch discriminating ability. | true | true | true | true | true | 810 |
2 | DISCUSSION | 1 | 8 | [
"B8",
"B39"
] | 17,259,212 | pmid-9016671|pmid-10847607|NA|pmid-15918676|pmid-10959954|pmid-11180941|pmid-11239011|pmid-11829619|pmid-11572603 | Another benefit is that their rates of hybridization are not inhibited by purposefully introduced secondary structures. | [
"8",
"39"
] | 119 | 4,833 | 0 | false | Another benefit is that their rates of hybridization are not inhibited by purposefully introduced secondary structures. | [] | Another benefit is that their rates of hybridization are not inhibited by purposefully introduced secondary structures. | true | true | true | true | true | 810 |
2 | DISCUSSION | 1 | 8 | [
"B8",
"B39"
] | 17,259,212 | pmid-9016671|pmid-10847607|NA|pmid-15918676|pmid-10959954|pmid-11180941|pmid-11239011|pmid-11829619|pmid-11572603 | In this and other aspects MGB-Eclipse probes are similar to no-stem PNA beacons (8). | [
"8",
"39"
] | 84 | 4,834 | 1 | false | In this and other aspects MGB-Eclipse probes are similar to no-stem PNA beacons. | [
"8"
] | In this and other aspects MGB-Eclipse probes are similar to no-stem PNA beacons. | true | true | true | true | true | 810 |
2 | DISCUSSION | 1 | 39 | [
"B8",
"B39"
] | 17,259,212 | pmid-9016671|pmid-10847607|NA|pmid-15918676|pmid-10959954|pmid-11180941|pmid-11239011|pmid-11829619|pmid-11572603 | PNA beacons also demonstrate signal-to-background ratios of approximately 10–15 at room temperature and of ∼7 at 43°C (39), which are similar to those of MGB-Eclipse. | [
"8",
"39"
] | 166 | 4,835 | 1 | false | PNA beacons also demonstrate signal-to-background ratios of approximately 10–15 at room temperature and of ∼7 at 43°C, which are similar to those of MGB-Eclipse. | [
"39"
] | PNA beacons also demonstrate signal-to-background ratios of approximately 10–15 at room temperature and of ∼7 at 43°C, which are similar to those of MGB-Eclipse. | true | true | true | true | true | 810 |
2 | DISCUSSION | 1 | 8 | [
"B8",
"B39"
] | 17,259,212 | pmid-9016671|pmid-10847607|NA|pmid-15918676|pmid-10959954|pmid-11180941|pmid-11239011|pmid-11829619|pmid-11572603 | Also like MGB-Eclipse, short no-stem PNA beacons are more sensitive to sequence mismatches compared to longer linear DNA probes. | [
"8",
"39"
] | 128 | 4,836 | 0 | false | Also like MGB-Eclipse, short no-stem PNA beacons are more sensitive to sequence mismatches compared to longer linear DNA probes. | [] | Also like MGB-Eclipse, short no-stem PNA beacons are more sensitive to sequence mismatches compared to longer linear DNA probes. | true | true | true | true | true | 810 |
2 | DISCUSSION | 1 | 8 | [
"B8",
"B39"
] | 17,259,212 | pmid-9016671|pmid-10847607|NA|pmid-15918676|pmid-10959954|pmid-11180941|pmid-11239011|pmid-11829619|pmid-11572603 | For many applications both no-stem PNA and MGB-Eclipse probes will provide good performance. | [
"8",
"39"
] | 92 | 4,837 | 0 | false | For many applications both no-stem PNA and MGB-Eclipse probes will provide good performance. | [] | For many applications both no-stem PNA and MGB-Eclipse probes will provide good performance. | true | true | true | true | true | 810 |
3 | DISCUSSION | 1 | 40–42 | [
"B40 B41 B42",
"B43"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | Pleiades probes combine the advantages and address some of the drawbacks of the other technologies. | [
"40–42",
"43"
] | 99 | 4,838 | 0 | false | Pleiades probes combine the advantages and address some of the drawbacks of the other technologies. | [] | Pleiades probes combine the advantages and address some of the drawbacks of the other technologies. | true | true | true | true | true | 811 |
3 | DISCUSSION | 1 | 40–42 | [
"B40 B41 B42",
"B43"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | They possess low background fluorescence and high S/B ratios both at ambient temperature and PCR-relevant temperatures. | [
"40–42",
"43"
] | 119 | 4,839 | 0 | false | They possess low background fluorescence and high S/B ratios both at ambient temperature and PCR-relevant temperatures. | [] | They possess low background fluorescence and high S/B ratios both at ambient temperature and PCR-relevant temperatures. | true | true | true | true | true | 811 |
3 | DISCUSSION | 1 | 40–42 | [
"B40 B41 B42",
"B43"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | Unlike MGB-Eclipse, Pleiades probes do not demonstrate peculiar, duplex-unrelated melting transitions. | [
"40–42",
"43"
] | 102 | 4,840 | 0 | false | Unlike MGB-Eclipse, Pleiades probes do not demonstrate peculiar, duplex-unrelated melting transitions. | [] | Unlike MGB-Eclipse, Pleiades probes do not demonstrate peculiar, duplex-unrelated melting transitions. | true | true | true | true | true | 811 |
3 | DISCUSSION | 1 | 40–42 | [
"B40 B41 B42",
"B43"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | Combination of high hybridization signal with low and stable background is the basis for increased sensitivity of the Pleiades probes. | [
"40–42",
"43"
] | 134 | 4,841 | 0 | false | Combination of high hybridization signal with low and stable background is the basis for increased sensitivity of the Pleiades probes. | [] | Combination of high hybridization signal with low and stable background is the basis for increased sensitivity of the Pleiades probes. | true | true | true | true | true | 811 |
3 | DISCUSSION | 1 | 40–42 | [
"B40 B41 B42",
"B43"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | In addition to providing a higher sensitivity, low background fluorescence allows the use of increased concentrations of the probes without overwhelming detection devices. | [
"40–42",
"43"
] | 171 | 4,842 | 0 | false | In addition to providing a higher sensitivity, low background fluorescence allows the use of increased concentrations of the probes without overwhelming detection devices. | [] | In addition to providing a higher sensitivity, low background fluorescence allows the use of increased concentrations of the probes without overwhelming detection devices. | true | true | true | true | true | 811 |
3 | DISCUSSION | 1 | 40–42 | [
"B40 B41 B42",
"B43"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | Another useful feature of the Pleiades probes is that the background fluorescence, at least in part, depends on the distance (spacer length) between the MGB and the dye. | [
"40–42",
"43"
] | 169 | 4,843 | 0 | false | Another useful feature of the Pleiades probes is that the background fluorescence, at least in part, depends on the distance (spacer length) between the MGB and the dye. | [] | Another useful feature of the Pleiades probes is that the background fluorescence, at least in part, depends on the distance (spacer length) between the MGB and the dye. | true | true | true | true | true | 811 |
3 | DISCUSSION | 1 | 40–42 | [
"B40 B41 B42",
"B43"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | This offers a way to fine tune properties of the probes, which may be desirable for certain applications. | [
"40–42",
"43"
] | 105 | 4,844 | 0 | false | This offers a way to fine tune properties of the probes, which may be desirable for certain applications. | [] | This offers a way to fine tune properties of the probes, which may be desirable for certain applications. | true | true | true | true | true | 811 |
3 | DISCUSSION | 1 | 40–42 | [
"B40 B41 B42",
"B43"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | For example, the long, hexaethylene glycol spacer between branching point and fluorophore slightly raises the background fluorescence. | [
"40–42",
"43"
] | 134 | 4,845 | 0 | false | For example, the long, hexaethylene glycol spacer between branching point and fluorophore slightly raises the background fluorescence. | [] | For example, the long, hexaethylene glycol spacer between branching point and fluorophore slightly raises the background fluorescence. | true | true | true | true | true | 811 |
3 | DISCUSSION | 1 | 40–42 | [
"B40 B41 B42",
"B43"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | On the other hand, this allows higher hybridization fluorescence and reduced quenching by the nucleotide sequence. | [
"40–42",
"43"
] | 114 | 4,846 | 0 | false | On the other hand, this allows higher hybridization fluorescence and reduced quenching by the nucleotide sequence. | [] | On the other hand, this allows higher hybridization fluorescence and reduced quenching by the nucleotide sequence. | true | true | true | true | true | 811 |
3 | DISCUSSION | 1 | 40–42 | [
"B40 B41 B42",
"B43"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | This may be important for high-throughput probe design for PCR application. | [
"40–42",
"43"
] | 75 | 4,847 | 0 | false | This may be important for high-throughput probe design for PCR application. | [] | This may be important for high-throughput probe design for PCR application. | true | true | true | true | true | 811 |
3 | DISCUSSION | 1 | 40–42 | [
"B40 B41 B42",
"B43"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | Alternatively, for applications, such as solid phase-immobilized light-up hybridization (40–42) or in vivo studies, a lower background and higher S/B ratios may be more beneficial. | [
"40–42",
"43"
] | 180 | 4,848 | 1 | false | Alternatively, for applications, such as solid phase-immobilized light-up hybridization or in vivo studies, a lower background and higher S/B ratios may be more beneficial. | [
"40–42"
] | Alternatively, for applications, such as solid phase-immobilized light-up hybridization or in vivo studies, a lower background and higher S/B ratios may be more beneficial. | true | true | true | true | true | 811 |
3 | DISCUSSION | 1 | 40–42 | [
"B40 B41 B42",
"B43"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | In this case shorter spacer, such as C6-spacer, should be used. | [
"40–42",
"43"
] | 63 | 4,849 | 0 | false | In this case shorter spacer, such as C6-spacer, should be used. | [] | In this case shorter spacer, such as C6-spacer, should be used. | true | true | true | true | true | 811 |
3 | DISCUSSION | 1 | 40–42 | [
"B40 B41 B42",
"B43"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | Similar to MGB-Eclipse, they demonstrate fast hybridization kinetics and excellent stability against 5′->3′-exonuclease cleavage. | [
"40–42",
"43"
] | 129 | 4,850 | 0 | false | Similar to MGB-Eclipse, they demonstrate fast hybridization kinetics and excellent stability against 5′->3′-exonuclease cleavage. | [] | Similar to MGB-Eclipse, they demonstrate fast hybridization kinetics and excellent stability against 5′->3′-exonuclease cleavage. | true | true | true | true | true | 811 |
3 | DISCUSSION | 1 | 43 | [
"B40 B41 B42",
"B43"
] | 17,259,212 | pmid-10606668|pmid-10606668|NA|pmid-1871133|pmid-7683443|NA|pmid-11962616|NA|pmid-11962616|pmid-10606668|NA|pmid-12060699|NA|NA | Like all MGB-containing oligonucleotides, Pleiades probes possess excellent specificity due to their short length and the mismatch discriminating effects of the MGB (43). | [
"40–42",
"43"
] | 170 | 4,851 | 1 | false | Like all MGB-containing oligonucleotides, Pleiades probes possess excellent specificity due to their short length and the mismatch discriminating effects of the MGB. | [
"43"
] | Like all MGB-containing oligonucleotides, Pleiades probes possess excellent specificity due to their short length and the mismatch discriminating effects of the MGB. | true | true | true | true | true | 811 |
0 | INTRODUCTION | 1 | 3 | [
"B1",
"B2",
"B3"
] | 17,452,362 | pmid-12713903|pmid-11485817|pmid-14523920 | RNA and its structural diversity has gained major attention in the last 10 years, in particular through the finding of RNAi as a natural antiviral mechanism of cells (1,2) and of riboswitches, a class of RNAs in bacteria, specialized in translational regulation (3). | [
"1",
"2",
"3"
] | 266 | 4,852 | 1 | false | RNA and its structural diversity has gained major attention in the last 10 years, in particular through the finding of RNAi as a natural antiviral mechanism of cells and of riboswitches, a class of RNAs in bacteria, specialized in translational regulation. | [
"1,2",
"3"
] | RNA and its structural diversity has gained major attention in the last 10 years, in particular through the finding of RNAi as a natural antiviral mechanism of cells and of riboswitches, a class of RNAs in bacteria, specialized in translational regulation. | true | true | true | true | true | 812 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3"
] | 17,452,362 | pmid-12713903|pmid-11485817|pmid-14523920 | Furthermore, the folding of RNA and its conformational changes, induced by interactions with proteins, metal ions or small molecules, are essential for its biological function. | [
"1",
"2",
"3"
] | 176 | 4,853 | 0 | false | Furthermore, the folding of RNA and its conformational changes, induced by interactions with proteins, metal ions or small molecules, are essential for its biological function. | [] | Furthermore, the folding of RNA and its conformational changes, induced by interactions with proteins, metal ions or small molecules, are essential for its biological function. | true | true | true | true | true | 812 |
0 | INTRODUCTION | 1 | 1 | [
"B1",
"B2",
"B3"
] | 17,452,362 | pmid-12713903|pmid-11485817|pmid-14523920 | This, in conjunction with a growing number of X-ray structures, makes RNA an ever increasingly interesting target for drug interactions and design. | [
"1",
"2",
"3"
] | 147 | 4,854 | 0 | false | This, in conjunction with a growing number of X-ray structures, makes RNA an ever increasingly interesting target for drug interactions and design. | [] | This, in conjunction with a growing number of X-ray structures, makes RNA an ever increasingly interesting target for drug interactions and design. | true | true | true | true | true | 812 |
1 | INTRODUCTION | 1 | 4–7 | [
"B4 B5 B6 B7",
"B8 B9 B10 B11 B12 B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B17",
"B19",
"B16",
"B20",
"B21 B22 B23",
"B24 B25 B26",
"B27",
"B28",
"B29",
"B30",
"B31",
"B32"
] | 17,452,362 | NA|pmid-11326067|NA|NA|pmid-15111099|pmid-11573095|NA|pmid-11996571|NA|pmid-10966640|pmid-15611296|pmid-17177426|pmid-15271352|pmid-10496217|pmid-15193316|pmid-10496217|pmid-11389608|pmid-15271352|pmid-11456739|pmid-16248034|pmid-12779332|NA|NA|NA|NA|NA|pmid-15183350|NA|NA|pmid-12643697|pmid-15212500 | In order to rationally approach RNA as a 3D target, simple, fast and accurate methods to gain structural and dynamical information are necessary. | [
"4–7",
"8–13",
"14",
"15",
"16",
"17",
"18",
"17",
"19",
"16",
"20",
"21–23",
"24–26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 145 | 4,855 | 0 | false | In order to rationally approach RNA as a 3D target, simple, fast and accurate methods to gain structural and dynamical information are necessary. | [] | In order to rationally approach RNA as a 3D target, simple, fast and accurate methods to gain structural and dynamical information are necessary. | true | true | true | true | true | 813 |
1 | INTRODUCTION | 1 | 4–7 | [
"B4 B5 B6 B7",
"B8 B9 B10 B11 B12 B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B17",
"B19",
"B16",
"B20",
"B21 B22 B23",
"B24 B25 B26",
"B27",
"B28",
"B29",
"B30",
"B31",
"B32"
] | 17,452,362 | NA|pmid-11326067|NA|NA|pmid-15111099|pmid-11573095|NA|pmid-11996571|NA|pmid-10966640|pmid-15611296|pmid-17177426|pmid-15271352|pmid-10496217|pmid-15193316|pmid-10496217|pmid-11389608|pmid-15271352|pmid-11456739|pmid-16248034|pmid-12779332|NA|NA|NA|NA|NA|pmid-15183350|NA|NA|pmid-12643697|pmid-15212500 | Electron Paramagnetic Resonance (EPR) has already proved its efficiency in characterizing the structural environment of paramagnetic centers (4–7), as well as the global arrangement of domains in proteins and protein complexes (8–13). | [
"4–7",
"8–13",
"14",
"15",
"16",
"17",
"18",
"17",
"19",
"16",
"20",
"21–23",
"24–26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 234 | 4,856 | 1 | false | Electron Paramagnetic Resonance (EPR) has already proved its efficiency in characterizing the structural environment of paramagnetic centers, as well as the global arrangement of domains in proteins and protein complexes. | [
"4–7",
"8–13"
] | Electron Paramagnetic Resonance (EPR) has already proved its efficiency in characterizing the structural environment of paramagnetic centers, as well as the global arrangement of domains in proteins and protein complexes. | true | true | true | true | true | 813 |
1 | INTRODUCTION | 1 | 4–7 | [
"B4 B5 B6 B7",
"B8 B9 B10 B11 B12 B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B17",
"B19",
"B16",
"B20",
"B21 B22 B23",
"B24 B25 B26",
"B27",
"B28",
"B29",
"B30",
"B31",
"B32"
] | 17,452,362 | NA|pmid-11326067|NA|NA|pmid-15111099|pmid-11573095|NA|pmid-11996571|NA|pmid-10966640|pmid-15611296|pmid-17177426|pmid-15271352|pmid-10496217|pmid-15193316|pmid-10496217|pmid-11389608|pmid-15271352|pmid-11456739|pmid-16248034|pmid-12779332|NA|NA|NA|NA|NA|pmid-15183350|NA|NA|pmid-12643697|pmid-15212500 | Yet, EPR-based studies on the local structure of, e.g. | [
"4–7",
"8–13",
"14",
"15",
"16",
"17",
"18",
"17",
"19",
"16",
"20",
"21–23",
"24–26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 54 | 4,857 | 0 | false | Yet, EPR-based studies on the local structure of, e.g. | [] | Yet, EPR-based studies on the local structure of, e.g. | true | true | true | true | true | 813 |
1 | INTRODUCTION | 1 | 16 | [
"B4 B5 B6 B7",
"B8 B9 B10 B11 B12 B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B17",
"B19",
"B16",
"B20",
"B21 B22 B23",
"B24 B25 B26",
"B27",
"B28",
"B29",
"B30",
"B31",
"B32"
] | 17,452,362 | NA|pmid-11326067|NA|NA|pmid-15111099|pmid-11573095|NA|pmid-11996571|NA|pmid-10966640|pmid-15611296|pmid-17177426|pmid-15271352|pmid-10496217|pmid-15193316|pmid-10496217|pmid-11389608|pmid-15271352|pmid-11456739|pmid-16248034|pmid-12779332|NA|NA|NA|NA|NA|pmid-15183350|NA|NA|pmid-12643697|pmid-15212500 | metal ion binding sites (14,15) or of tertiary structure elements in RNA (16) and RNA/protein complexes (17,18) are rare. | [
"4–7",
"8–13",
"14",
"15",
"16",
"17",
"18",
"17",
"19",
"16",
"20",
"21–23",
"24–26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 121 | 4,858 | 1 | false | metal ion binding sites or of tertiary structure elements in RNA and RNA/protein complexes are rare. | [
"14,15",
"16",
"17,18"
] | metal ion binding sites or of tertiary structure elements in RNA and RNA/protein complexes are rare. | false | true | true | true | false | 813 |
1 | INTRODUCTION | 1 | 4–7 | [
"B4 B5 B6 B7",
"B8 B9 B10 B11 B12 B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B17",
"B19",
"B16",
"B20",
"B21 B22 B23",
"B24 B25 B26",
"B27",
"B28",
"B29",
"B30",
"B31",
"B32"
] | 17,452,362 | NA|pmid-11326067|NA|NA|pmid-15111099|pmid-11573095|NA|pmid-11996571|NA|pmid-10966640|pmid-15611296|pmid-17177426|pmid-15271352|pmid-10496217|pmid-15193316|pmid-10496217|pmid-11389608|pmid-15271352|pmid-11456739|pmid-16248034|pmid-12779332|NA|NA|NA|NA|NA|pmid-15183350|NA|NA|pmid-12643697|pmid-15212500 | One reason for the lack of EPR studies related to tertiary RNA structures is that they require site directed and efficient labeling of RNA domains with nitroxides and subsequent measurements of the distance between these nitroxides. | [
"4–7",
"8–13",
"14",
"15",
"16",
"17",
"18",
"17",
"19",
"16",
"20",
"21–23",
"24–26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 232 | 4,859 | 0 | false | One reason for the lack of EPR studies related to tertiary RNA structures is that they require site directed and efficient labeling of RNA domains with nitroxides and subsequent measurements of the distance between these nitroxides. | [] | One reason for the lack of EPR studies related to tertiary RNA structures is that they require site directed and efficient labeling of RNA domains with nitroxides and subsequent measurements of the distance between these nitroxides. | true | true | true | true | true | 813 |
1 | INTRODUCTION | 1 | 21–23 | [
"B4 B5 B6 B7",
"B8 B9 B10 B11 B12 B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B17",
"B19",
"B16",
"B20",
"B21 B22 B23",
"B24 B25 B26",
"B27",
"B28",
"B29",
"B30",
"B31",
"B32"
] | 17,452,362 | NA|pmid-11326067|NA|NA|pmid-15111099|pmid-11573095|NA|pmid-11996571|NA|pmid-10966640|pmid-15611296|pmid-17177426|pmid-15271352|pmid-10496217|pmid-15193316|pmid-10496217|pmid-11389608|pmid-15271352|pmid-11456739|pmid-16248034|pmid-12779332|NA|NA|NA|NA|NA|pmid-15183350|NA|NA|pmid-12643697|pmid-15212500 | It is only recently that strategies were developed to spin label the phosphate backbone (17,19), the sugar moiety (16,20) or the uridine base (21–23) of RNA. | [
"4–7",
"8–13",
"14",
"15",
"16",
"17",
"18",
"17",
"19",
"16",
"20",
"21–23",
"24–26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 157 | 4,860 | 1 | false | It is only recently that strategies were developed to spin label the phosphate backbone, the sugar moiety or the uridine base of RNA. | [
"17,19",
"16,20",
"21–23"
] | It is only recently that strategies were developed to spin label the phosphate backbone, the sugar moiety or the uridine base of RNA. | true | true | true | true | true | 813 |
1 | INTRODUCTION | 1 | 24–26 | [
"B4 B5 B6 B7",
"B8 B9 B10 B11 B12 B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B17",
"B19",
"B16",
"B20",
"B21 B22 B23",
"B24 B25 B26",
"B27",
"B28",
"B29",
"B30",
"B31",
"B32"
] | 17,452,362 | NA|pmid-11326067|NA|NA|pmid-15111099|pmid-11573095|NA|pmid-11996571|NA|pmid-10966640|pmid-15611296|pmid-17177426|pmid-15271352|pmid-10496217|pmid-15193316|pmid-10496217|pmid-11389608|pmid-15271352|pmid-11456739|pmid-16248034|pmid-12779332|NA|NA|NA|NA|NA|pmid-15183350|NA|NA|pmid-12643697|pmid-15212500 | Furthermore, pulsed EPR sequences like pulsed electron double resonance (PELDOR) (24–26) or double quantum coherence EPR (DQC-EPR) (27) had to be introduced, which are capable to reliably and precisely measure spin–spin distance of up to 8 nm (28) and overcome thereby the distance limit of ∼2 nm for continuous wave EPR... | [
"4–7",
"8–13",
"14",
"15",
"16",
"17",
"18",
"17",
"19",
"16",
"20",
"21–23",
"24–26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 337 | 4,861 | 1 | false | Furthermore, pulsed EPR sequences like pulsed electron double resonance (PELDOR) or double quantum coherence EPR (DQC-EPR) had to be introduced, which are capable to reliably and precisely measure spin–spin distance of up to 8 nm and overcome thereby the distance limit of ∼2 nm for continuous wave EPR techniques. | [
"24–26",
"27",
"28",
"29"
] | Furthermore, pulsed EPR sequences like pulsed electron double resonance (PELDOR) or double quantum coherence EPR (DQC-EPR) had to be introduced, which are capable to reliably and precisely measure spin–spin distance of up to 8 nm and overcome thereby the distance limit of ∼2 nm for continuous wave EPR techniques. | true | true | true | true | true | 813 |
1 | INTRODUCTION | 1 | 32 | [
"B4 B5 B6 B7",
"B8 B9 B10 B11 B12 B13",
"B14",
"B15",
"B16",
"B17",
"B18",
"B17",
"B19",
"B16",
"B20",
"B21 B22 B23",
"B24 B25 B26",
"B27",
"B28",
"B29",
"B30",
"B31",
"B32"
] | 17,452,362 | NA|pmid-11326067|NA|NA|pmid-15111099|pmid-11573095|NA|pmid-11996571|NA|pmid-10966640|pmid-15611296|pmid-17177426|pmid-15271352|pmid-10496217|pmid-15193316|pmid-10496217|pmid-11389608|pmid-15271352|pmid-11456739|pmid-16248034|pmid-12779332|NA|NA|NA|NA|NA|pmid-15183350|NA|NA|pmid-12643697|pmid-15212500 | First applications of PELDOR (30,31) and DQC (32) to duplex RNAs have been reported. | [
"4–7",
"8–13",
"14",
"15",
"16",
"17",
"18",
"17",
"19",
"16",
"20",
"21–23",
"24–26",
"27",
"28",
"29",
"30",
"31",
"32"
] | 84 | 4,862 | 1 | false | First applications of PELDOR and DQC to duplex RNAs have been reported. | [
"30,31",
"32"
] | First applications of PELDOR and DQC to duplex RNAs have been reported. | true | true | true | true | true | 813 |
2 | INTRODUCTION | 1 | 21 | [
"B21",
"B22",
"B23",
"B20",
"B19"
] | 17,452,362 | pmid-16248034|pmid-12779332|NA|pmid-11456739|pmid-11389608 | Despite these advances, each of the RNA spin labeling strategies mentioned above has its disadvantages and limitations. | [
"21",
"22",
"23",
"20",
"19"
] | 119 | 4,863 | 0 | false | Despite these advances, each of the RNA spin labeling strategies mentioned above has its disadvantages and limitations. | [] | Despite these advances, each of the RNA spin labeling strategies mentioned above has its disadvantages and limitations. | true | true | true | true | true | 814 |
2 | INTRODUCTION | 1 | 21 | [
"B21",
"B22",
"B23",
"B20",
"B19"
] | 17,452,362 | pmid-16248034|pmid-12779332|NA|pmid-11456739|pmid-11389608 | The major disadvantage of spin labeling RNA bases is the restriction to uridine. | [
"21",
"22",
"23",
"20",
"19"
] | 80 | 4,864 | 0 | false | The major disadvantage of spin labeling RNA bases is the restriction to uridine. | [] | The major disadvantage of spin labeling RNA bases is the restriction to uridine. | true | true | true | true | true | 814 |
2 | INTRODUCTION | 1 | 21 | [
"B21",
"B22",
"B23",
"B20",
"B19"
] | 17,452,362 | pmid-16248034|pmid-12779332|NA|pmid-11456739|pmid-11389608 | Either a 5-iodouridine (21) or a 4-thiouridine (22,23) is incorporated into the RNA during the automated phosphoramidite synthesis and then coupled with the acetylenic nitroxide derivative 2,2,5,5-tetramethyl-pyrrolin-1-yloxyl-3-acetylene (TPA) or a methanethio-sulfonate nitroxide (MTSSL), respectively. | [
"21",
"22",
"23",
"20",
"19"
] | 304 | 4,865 | 1 | false | Either a 5-iodouridine or a 4-thiouridine is incorporated into the RNA during the automated phosphoramidite synthesis and then coupled with the acetylenic nitroxide derivative 2,2,5,5-tetramethyl-pyrrolin-1-yloxyl-3-acetylene (TPA) or a methanethio-sulfonate nitroxide (MTSSL), respectively. | [
"21",
"22,23"
] | Either a 5-iodouridine or a 4-thiouridine is incorporated into the RNA during the automated phosphoramidite synthesis and then coupled with the acetylenic nitroxide derivative 2,2,5,5-tetramethyl-pyrrolin-1-yloxyl-3-acetylene (TPA) or a methanethio-sulfonate nitroxide (MTSSL), respectively. | true | true | true | true | true | 814 |
2 | INTRODUCTION | 1 | 21 | [
"B21",
"B22",
"B23",
"B20",
"B19"
] | 17,452,362 | pmid-16248034|pmid-12779332|NA|pmid-11456739|pmid-11389608 | Advantageous of the TPA labeling is the chemically stable and geometrically fairly rigid acetylenic linker, whereas the disulfide bridge formed by MTSSL is chemically unstable and leads to the loss of the N3 imino proton, inducing structural distortions. | [
"21",
"22",
"23",
"20",
"19"
] | 254 | 4,866 | 0 | false | Advantageous of the TPA labeling is the chemically stable and geometrically fairly rigid acetylenic linker, whereas the disulfide bridge formed by MTSSL is chemically unstable and leads to the loss of the N3 imino proton, inducing structural distortions. | [] | Advantageous of the TPA labeling is the chemically stable and geometrically fairly rigid acetylenic linker, whereas the disulfide bridge formed by MTSSL is chemically unstable and leads to the loss of the N3 imino proton, inducing structural distortions. | true | true | true | true | true | 814 |
2 | INTRODUCTION | 1 | 20 | [
"B21",
"B22",
"B23",
"B20",
"B19"
] | 17,452,362 | pmid-16248034|pmid-12779332|NA|pmid-11456739|pmid-11389608 | The spin labeling of sugar moieties is also restricted with respect to label sites, at the moment to the 2′ site of pyrimidines (20). | [
"21",
"22",
"23",
"20",
"19"
] | 133 | 4,867 | 1 | false | The spin labeling of sugar moieties is also restricted with respect to label sites, at the moment to the 2′ site of pyrimidines. | [
"20"
] | The spin labeling of sugar moieties is also restricted with respect to label sites, at the moment to the 2′ site of pyrimidines. | true | true | true | true | true | 814 |
2 | INTRODUCTION | 1 | 19 | [
"B21",
"B22",
"B23",
"B20",
"B19"
] | 17,452,362 | pmid-16248034|pmid-12779332|NA|pmid-11456739|pmid-11389608 | The largest flexibility with respect to the choice of label site is given by spin labeling a specific phosphate group using phosphorothioates in combination with a iodomethylnitroxide (19). | [
"21",
"22",
"23",
"20",
"19"
] | 189 | 4,868 | 1 | false | The largest flexibility with respect to the choice of label site is given by spin labeling a specific phosphate group using phosphorothioates in combination with a iodomethylnitroxide. | [
"19"
] | The largest flexibility with respect to the choice of label site is given by spin labeling a specific phosphate group using phosphorothioates in combination with a iodomethylnitroxide. | true | true | true | true | true | 814 |
2 | INTRODUCTION | 1 | 21 | [
"B21",
"B22",
"B23",
"B20",
"B19"
] | 17,452,362 | pmid-16248034|pmid-12779332|NA|pmid-11456739|pmid-11389608 | However, in this case the 2′ site of the nucleotide 5′ to the label side has to be protected or replaced with a 2′ deoxyribose to avoid strand cleavage and the mixture of RP and SP diastereomers makes a translation of the measured distance into RNA structure more difficult. | [
"21",
"22",
"23",
"20",
"19"
] | 274 | 4,869 | 0 | false | However, in this case the 2′ site of the nucleotide 5′ to the label side has to be protected or replaced with a 2′ deoxyribose to avoid strand cleavage and the mixture of RP and SP diastereomers makes a translation of the measured distance into RNA structure more difficult. | [] | However, in this case the 2′ site of the nucleotide 5′ to the label side has to be protected or replaced with a 2′ deoxyribose to avoid strand cleavage and the mixture of RP and SP diastereomers makes a translation of the measured distance into RNA structure more difficult. | true | true | true | true | true | 814 |
2 | INTRODUCTION | 1 | 21 | [
"B21",
"B22",
"B23",
"B20",
"B19"
] | 17,452,362 | pmid-16248034|pmid-12779332|NA|pmid-11456739|pmid-11389608 | With respect to PELDOR, it should be mentioned that a parameter free and reliable extraction of a distance from the time trace requires the observation of a dipolar modulation. | [
"21",
"22",
"23",
"20",
"19"
] | 176 | 4,870 | 0 | false | With respect to PELDOR, it should be mentioned that a parameter free and reliable extraction of a distance from the time trace requires the observation of a dipolar modulation. | [] | With respect to PELDOR, it should be mentioned that a parameter free and reliable extraction of a distance from the time trace requires the observation of a dipolar modulation. | true | true | true | true | true | 814 |
2 | INTRODUCTION | 1 | 21 | [
"B21",
"B22",
"B23",
"B20",
"B19"
] | 17,452,362 | pmid-16248034|pmid-12779332|NA|pmid-11456739|pmid-11389608 | This can be achieved if most of the sample is labeled (>80%) and the distance distribution is small. | [
"21",
"22",
"23",
"20",
"19"
] | 100 | 4,871 | 0 | false | This can be achieved if most of the sample is labeled (>80%) and the distance distribution is small. | [] | This can be achieved if most of the sample is labeled (>80%) and the distance distribution is small. | true | true | true | true | true | 814 |
2 | INTRODUCTION | 1 | 21 | [
"B21",
"B22",
"B23",
"B20",
"B19"
] | 17,452,362 | pmid-16248034|pmid-12779332|NA|pmid-11456739|pmid-11389608 | Thus, highly efficient labeling strategies with rigid labels, a broad flexibility with respect to label sites and small structural perturbations are needed. | [
"21",
"22",
"23",
"20",
"19"
] | 156 | 4,872 | 0 | false | Thus, highly efficient labeling strategies with rigid labels, a broad flexibility with respect to label sites and small structural perturbations are needed. | [] | Thus, highly efficient labeling strategies with rigid labels, a broad flexibility with respect to label sites and small structural perturbations are needed. | true | true | true | true | true | 814 |
3 | INTRODUCTION | 0 | null | null | 17,452,362 | null | Here, we report an extension of RNA base specific labeling to cytosine and the purine adenine, in addition to a considerable increase of the yield of TPA labeled RNAs using ACetoxyEthyl orthoester (ACE®) chemistry. | null | 214 | 4,873 | 0 | false | null | null | Here, we report an extension of RNA base specific labeling to cytosine and the purine adenine, in addition to a considerable increase of the yield of TPA labeled RNAs using ACetoxyEthyl orthoester (ACE®) chemistry. | true | true | true | true | true | 815 |
3 | INTRODUCTION | 0 | null | null | 17,452,362 | null | PELDOR measurements for each duplex-RNA yielded a dipolar modulation, from which the distance between the spin labels distances could be extracted. | null | 147 | 4,874 | 0 | false | null | null | PELDOR measurements for each duplex-RNA yielded a dipolar modulation, from which the distance between the spin labels distances could be extracted. | true | true | true | true | true | 815 |
3 | INTRODUCTION | 0 | null | null | 17,452,362 | null | Furthermore, molecular dynamics (MD) simulations gave results in good agreement with the measured distances and indicated that the TPA label induces only a small and local structural distortion. | null | 194 | 4,875 | 0 | false | null | null | Furthermore, molecular dynamics (MD) simulations gave results in good agreement with the measured distances and indicated that the TPA label induces only a small and local structural distortion. | true | true | true | true | true | 815 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b5"
] | 16,982,646 | pmid-14559182|pmid-11679670|pmid-15123812 | RNA is more than a simple single-stranded sequence carrying genetic information as in the Central Dogma of Biology. | [
"1",
"5"
] | 115 | 4,876 | 0 | false | RNA is more than a simple single-stranded sequence carrying genetic information as in the Central Dogma of Biology. | [] | RNA is more than a simple single-stranded sequence carrying genetic information as in the Central Dogma of Biology. | true | true | true | true | true | 816 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b5"
] | 16,982,646 | pmid-14559182|pmid-11679670|pmid-15123812 | For example, it can form tertiary structures that, such as proteins, can be catalytic. | [
"1",
"5"
] | 86 | 4,877 | 0 | false | For example, it can form tertiary structures that, such as proteins, can be catalytic. | [] | For example, it can form tertiary structures that, such as proteins, can be catalytic. | true | true | true | true | true | 816 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b5"
] | 16,982,646 | pmid-14559182|pmid-11679670|pmid-15123812 | Natural and engineered RNA molecules are widely used as functional tools in enzymatic catalysis and genetic control (1–5). | [
"1",
"5"
] | 122 | 4,878 | 0 | false | Natural and engineered RNA molecules are widely used as functional tools in enzymatic catalysis and genetic control. | [
"1–5"
] | Natural and engineered RNA molecules are widely used as functional tools in enzymatic catalysis and genetic control. | true | true | true | true | true | 816 |
0 | INTRODUCTION | 1 | 1 | [
"b1",
"b5"
] | 16,982,646 | pmid-14559182|pmid-11679670|pmid-15123812 | One current problem is how to predict the structures of functional RNA sequences. | [
"1",
"5"
] | 81 | 4,879 | 0 | false | One current problem is how to predict the structures of functional RNA sequences. | [] | One current problem is how to predict the structures of functional RNA sequences. | true | true | true | true | true | 816 |
1 | INTRODUCTION | 1 | 10 | [
"b6",
"b9",
"b10",
"b11",
"b13",
"b14",
"b17",
"b17",
"b21",
"b17",
"b17",
"b18",
"b17",
"b22",
"b23",
"b22",
"b17"
] | 16,982,646 | pmid-15193319|pmid-8418835|pmid-10892344|pmid-2482415|pmid-6363901|pmid-12824338|pmid-15123812|pmid-15123812|pmid-9778347|pmid-15123812|pmid-15123812|pmid-10329189|pmid-15123812|pmid-15272118|pmid-1695107|pmid-15272118|pmid-15123812|pmid-15161262|pmid-15134461 | Secondary structure, the sum of canonical base pairs, is stronger (6–9) and forms faster (10) than tertiary structure. | [
"6",
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"10",
"11",
"13",
"14",
"17",
"17",
"21",
"17",
"17",
"18",
"17",
"22",
"23",
"22",
"17"
] | 118 | 4,880 | 1 | false | Secondary structure, the sum of canonical base pairs, is stronger and forms faster than tertiary structure. | [
"6–9",
"10"
] | Secondary structure, the sum of canonical base pairs, is stronger and forms faster than tertiary structure. | true | true | true | true | true | 817 |
1 | INTRODUCTION | 1 | 6 | [
"b6",
"b9",
"b10",
"b11",
"b13",
"b14",
"b17",
"b17",
"b21",
"b17",
"b17",
"b18",
"b17",
"b22",
"b23",
"b22",
"b17"
] | 16,982,646 | pmid-15193319|pmid-8418835|pmid-10892344|pmid-2482415|pmid-6363901|pmid-12824338|pmid-15123812|pmid-15123812|pmid-9778347|pmid-15123812|pmid-15123812|pmid-10329189|pmid-15123812|pmid-15272118|pmid-1695107|pmid-15272118|pmid-15123812|pmid-15161262|pmid-15134461 | Therefore, secondary structure can largely be determined without knowledge of tertiary structure. | [
"6",
"9",
"10",
"11",
"13",
"14",
"17",
"17",
"21",
"17",
"17",
"18",
"17",
"22",
"23",
"22",
"17"
] | 97 | 4,881 | 0 | false | Therefore, secondary structure can largely be determined without knowledge of tertiary structure. | [] | Therefore, secondary structure can largely be determined without knowledge of tertiary structure. | true | true | true | true | true | 817 |
1 | INTRODUCTION | 1 | 6 | [
"b6",
"b9",
"b10",
"b11",
"b13",
"b14",
"b17",
"b17",
"b21",
"b17",
"b17",
"b18",
"b17",
"b22",
"b23",
"b22",
"b17"
] | 16,982,646 | pmid-15193319|pmid-8418835|pmid-10892344|pmid-2482415|pmid-6363901|pmid-12824338|pmid-15123812|pmid-15123812|pmid-9778347|pmid-15123812|pmid-15123812|pmid-10329189|pmid-15123812|pmid-15272118|pmid-1695107|pmid-15272118|pmid-15123812|pmid-15161262|pmid-15134461 | Comparative sequence analysis is a standard technique for determining the secondary structure of homologous RNA sequences (11–13). | [
"6",
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"10",
"11",
"13",
"14",
"17",
"17",
"21",
"17",
"17",
"18",
"17",
"22",
"23",
"22",
"17"
] | 130 | 4,882 | 0 | false | Comparative sequence analysis is a standard technique for determining the secondary structure of homologous RNA sequences. | [
"11–13"
] | Comparative sequence analysis is a standard technique for determining the secondary structure of homologous RNA sequences. | true | true | true | true | true | 817 |
1 | INTRODUCTION | 1 | 6 | [
"b6",
"b9",
"b10",
"b11",
"b13",
"b14",
"b17",
"b17",
"b21",
"b17",
"b17",
"b18",
"b17",
"b22",
"b23",
"b22",
"b17"
] | 16,982,646 | pmid-15193319|pmid-8418835|pmid-10892344|pmid-2482415|pmid-6363901|pmid-12824338|pmid-15123812|pmid-15123812|pmid-9778347|pmid-15123812|pmid-15123812|pmid-10329189|pmid-15123812|pmid-15272118|pmid-1695107|pmid-15272118|pmid-15123812|pmid-15161262|pmid-15134461 | When only a few or even a single sequence is available, the secondary structure at 37°C can be predicted by free energy minimization algorithms (14–17) using a set of empirical free energy parameters, determined from optical melting experiments (17–21). | [
"6",
"9",
"10",
"11",
"13",
"14",
"17",
"17",
"21",
"17",
"17",
"18",
"17",
"22",
"23",
"22",
"17"
] | 253 | 4,883 | 0 | false | When only a few or even a single sequence is available, the secondary structure at 37°C can be predicted by free energy minimization algorithms using a set of empirical free energy parameters, determined from optical melting experiments. | [
"14–17",
"17–21"
] | When only a few or even a single sequence is available, the secondary structure at 37°C can be predicted by free energy minimization algorithms using a set of empirical free energy parameters, determined from optical melting experiments. | true | true | true | true | true | 817 |
1 | INTRODUCTION | 1 | 6 | [
"b6",
"b9",
"b10",
"b11",
"b13",
"b14",
"b17",
"b17",
"b21",
"b17",
"b17",
"b18",
"b17",
"b22",
"b23",
"b22",
"b17"
] | 16,982,646 | pmid-15193319|pmid-8418835|pmid-10892344|pmid-2482415|pmid-6363901|pmid-12824338|pmid-15123812|pmid-15123812|pmid-9778347|pmid-15123812|pmid-15123812|pmid-10329189|pmid-15123812|pmid-15272118|pmid-1695107|pmid-15272118|pmid-15123812|pmid-15161262|pmid-15134461 | Each parameter only depends on the sequence identity of nucleotides in the motif and in adjacent base pairs and the total free energy is the sum of nearest neighbor terms. | [
"6",
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"11",
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"14",
"17",
"17",
"21",
"17",
"17",
"18",
"17",
"22",
"23",
"22",
"17"
] | 171 | 4,884 | 0 | false | Each parameter only depends on the sequence identity of nucleotides in the motif and in adjacent base pairs and the total free energy is the sum of nearest neighbor terms. | [] | Each parameter only depends on the sequence identity of nucleotides in the motif and in adjacent base pairs and the total free energy is the sum of nearest neighbor terms. | true | true | true | true | true | 817 |
1 | INTRODUCTION | 1 | 17 | [
"b6",
"b9",
"b10",
"b11",
"b13",
"b14",
"b17",
"b17",
"b21",
"b17",
"b17",
"b18",
"b17",
"b22",
"b23",
"b22",
"b17"
] | 16,982,646 | pmid-15193319|pmid-8418835|pmid-10892344|pmid-2482415|pmid-6363901|pmid-12824338|pmid-15123812|pmid-15123812|pmid-9778347|pmid-15123812|pmid-15123812|pmid-10329189|pmid-15123812|pmid-15272118|pmid-1695107|pmid-15272118|pmid-15123812|pmid-15161262|pmid-15134461 | The average sensitivity (the percentage of known base pairs that are correctly predicted) of free energy minimization prediction has been benchmarked as high as 72.8 ± 9.4% for a diverse database of sequences having fewer than 800 nt (17). | [
"6",
"9",
"10",
"11",
"13",
"14",
"17",
"17",
"21",
"17",
"17",
"18",
"17",
"22",
"23",
"22",
"17"
] | 239 | 4,885 | 1 | false | The average sensitivity (the percentage of known base pairs that are correctly predicted) of free energy minimization prediction has been benchmarked as high as 72.8 ± 9.4% for a diverse database of sequences having fewer than 800 nt. | [
"17"
] | The average sensitivity (the percentage of known base pairs that are correctly predicted) of free energy minimization prediction has been benchmarked as high as 72.8 ± 9.4% for a diverse database of sequences having fewer than 800 nt. | true | true | true | true | true | 817 |
1 | INTRODUCTION | 1 | 17 | [
"b6",
"b9",
"b10",
"b11",
"b13",
"b14",
"b17",
"b17",
"b21",
"b17",
"b17",
"b18",
"b17",
"b22",
"b23",
"b22",
"b17"
] | 16,982,646 | pmid-15193319|pmid-8418835|pmid-10892344|pmid-2482415|pmid-6363901|pmid-12824338|pmid-15123812|pmid-15123812|pmid-9778347|pmid-15123812|pmid-15123812|pmid-10329189|pmid-15123812|pmid-15272118|pmid-1695107|pmid-15272118|pmid-15123812|pmid-15161262|pmid-15134461 | Furthermore, experimentally determined constraints can improve this accuracy of prediction up to 84% (17,18) for sequences with <6% pseudoknotted (non-nested) base pairs (17). | [
"6",
"9",
"10",
"11",
"13",
"14",
"17",
"17",
"21",
"17",
"17",
"18",
"17",
"22",
"23",
"22",
"17"
] | 175 | 4,886 | 1 | false | Furthermore, experimentally determined constraints can improve this accuracy of prediction up to 84% for sequences with <6% pseudoknotted (non-nested) base pairs. | [
"17,18",
"17"
] | Furthermore, experimentally determined constraints can improve this accuracy of prediction up to 84% for sequences with <6% pseudoknotted (non-nested) base pairs. | true | true | true | true | true | 817 |
1 | INTRODUCTION | 1 | 6 | [
"b6",
"b9",
"b10",
"b11",
"b13",
"b14",
"b17",
"b17",
"b21",
"b17",
"b17",
"b18",
"b17",
"b22",
"b23",
"b22",
"b17"
] | 16,982,646 | pmid-15193319|pmid-8418835|pmid-10892344|pmid-2482415|pmid-6363901|pmid-12824338|pmid-15123812|pmid-15123812|pmid-9778347|pmid-15123812|pmid-15123812|pmid-10329189|pmid-15123812|pmid-15272118|pmid-1695107|pmid-15272118|pmid-15123812|pmid-15161262|pmid-15134461 | Partition function prediction of base pair probabilities can be used to identify base pairs in the predicted lowest free energy structure that are much more likely than average to be in the known secondary structure (22,23). | [
"6",
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"10",
"11",
"13",
"14",
"17",
"17",
"21",
"17",
"17",
"18",
"17",
"22",
"23",
"22",
"17"
] | 224 | 4,887 | 0 | false | Partition function prediction of base pair probabilities can be used to identify base pairs in the predicted lowest free energy structure that are much more likely than average to be in the known secondary structure. | [
"22,23"
] | Partition function prediction of base pair probabilities can be used to identify base pairs in the predicted lowest free energy structure that are much more likely than average to be in the known secondary structure. | true | true | true | true | true | 817 |
1 | INTRODUCTION | 1 | 22 | [
"b6",
"b9",
"b10",
"b11",
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"b14",
"b17",
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"b22",
"b17"
] | 16,982,646 | pmid-15193319|pmid-8418835|pmid-10892344|pmid-2482415|pmid-6363901|pmid-12824338|pmid-15123812|pmid-15123812|pmid-9778347|pmid-15123812|pmid-15123812|pmid-10329189|pmid-15123812|pmid-15272118|pmid-1695107|pmid-15272118|pmid-15123812|pmid-15161262|pmid-15134461 | For example, 91.0% of base pairs in the lowest free energy structure with pairing probability of 0.99 or higher are contained in the known structure, on average (22). | [
"6",
"9",
"10",
"11",
"13",
"14",
"17",
"17",
"21",
"17",
"17",
"18",
"17",
"22",
"23",
"22",
"17"
] | 166 | 4,888 | 1 | false | For example, 91.0% of base pairs in the lowest free energy structure with pairing probability of 0.99 or higher are contained in the known structure, on average. | [
"22"
] | For example, 91.0% of base pairs in the lowest free energy structure with pairing probability of 0.99 or higher are contained in the known structure, on average. | true | true | true | true | true | 817 |
1 | INTRODUCTION | 1 | 17 | [
"b6",
"b9",
"b10",
"b11",
"b13",
"b14",
"b17",
"b17",
"b21",
"b17",
"b17",
"b18",
"b17",
"b22",
"b23",
"b22",
"b17"
] | 16,982,646 | pmid-15193319|pmid-8418835|pmid-10892344|pmid-2482415|pmid-6363901|pmid-12824338|pmid-15123812|pmid-15123812|pmid-9778347|pmid-15123812|pmid-15123812|pmid-10329189|pmid-15123812|pmid-15272118|pmid-1695107|pmid-15272118|pmid-15123812|pmid-15161262|pmid-15134461 | The high accuracy of thermodynamic structure prediction (17) demonstrates that many RNA secondary structures can be determined from sequences, without knowledge of any tertiary contacts or protein interactions. | [
"6",
"9",
"10",
"11",
"13",
"14",
"17",
"17",
"21",
"17",
"17",
"18",
"17",
"22",
"23",
"22",
"17"
] | 210 | 4,889 | 1 | false | The high accuracy of thermodynamic structure prediction demonstrates that many RNA secondary structures can be determined from sequences, without knowledge of any tertiary contacts or protein interactions. | [
"17"
] | The high accuracy of thermodynamic structure prediction demonstrates that many RNA secondary structures can be determined from sequences, without knowledge of any tertiary contacts or protein interactions. | true | true | true | true | true | 817 |
2 | INTRODUCTION | 1 | 24 | [
"b24",
"b17",
"b17",
"b18"
] | 16,982,646 | pmid-8538457|pmid-15123812|pmid-15123812|pmid-10329189 | The current set of free energy nearest neighbor parameters for predicting the free energy of RNA secondary structure, however, is limited to application at 37°C. | [
"24",
"17",
"17",
"18"
] | 161 | 4,890 | 0 | false | The current set of free energy nearest neighbor parameters for predicting the free energy of RNA secondary structure, however, is limited to application at 37°C. | [] | The current set of free energy nearest neighbor parameters for predicting the free energy of RNA secondary structure, however, is limited to application at 37°C. | true | true | true | true | true | 818 |
2 | INTRODUCTION | 1 | 24 | [
"b24",
"b17",
"b17",
"b18"
] | 16,982,646 | pmid-8538457|pmid-15123812|pmid-15123812|pmid-10329189 | Many organisms, thermophiles and psychrophiles, live at temperatures far from 37°C and many experiments are conducted at other temperatures. | [
"24",
"17",
"17",
"18"
] | 140 | 4,891 | 0 | false | Many organisms, thermophiles and psychrophiles, live at temperatures far from 37°C and many experiments are conducted at other temperatures. | [] | Many organisms, thermophiles and psychrophiles, live at temperatures far from 37°C and many experiments are conducted at other temperatures. | true | true | true | true | true | 818 |
2 | INTRODUCTION | 1 | 24 | [
"b24",
"b17",
"b17",
"b18"
] | 16,982,646 | pmid-8538457|pmid-15123812|pmid-15123812|pmid-10329189 | The prediction of secondary structure of RNA at arbitrary temperature would expand our knowledge of structure and evolution in the RNA world. | [
"24",
"17",
"17",
"18"
] | 141 | 4,892 | 0 | false | The prediction of secondary structure of RNA at arbitrary temperature would expand our knowledge of structure and evolution in the RNA world. | [] | The prediction of secondary structure of RNA at arbitrary temperature would expand our knowledge of structure and evolution in the RNA world. | true | true | true | true | true | 818 |
2 | INTRODUCTION | 1 | 24 | [
"b24",
"b17",
"b17",
"b18"
] | 16,982,646 | pmid-8538457|pmid-15123812|pmid-15123812|pmid-10329189 | Moreover, it would facilitate studying and designing functional RNA molecules at temperatures other than 37°C. | [
"24",
"17",
"17",
"18"
] | 110 | 4,893 | 0 | false | Moreover, it would facilitate studying and designing functional RNA molecules at temperatures other than 37°C. | [] | Moreover, it would facilitate studying and designing functional RNA molecules at temperatures other than 37°C. | true | true | true | true | true | 818 |
2 | INTRODUCTION | 1 | 24 | [
"b24",
"b17",
"b17",
"b18"
] | 16,982,646 | pmid-8538457|pmid-15123812|pmid-15123812|pmid-10329189 | The enthalpy nearest neighbor parameters can be used in conjunction with available free energy nearest neighbor parameters for 37°C to determine free energy nearest neighbors at other temperatures. | [
"24",
"17",
"17",
"18"
] | 197 | 4,894 | 0 | false | The enthalpy nearest neighbor parameters can be used in conjunction with available free energy nearest neighbor parameters for 37°C to determine free energy nearest neighbors at other temperatures. | [] | The enthalpy nearest neighbor parameters can be used in conjunction with available free energy nearest neighbor parameters for 37°C to determine free energy nearest neighbors at other temperatures. | true | true | true | true | true | 818 |
2 | INTRODUCTION | 1 | 24 | [
"b24",
"b17",
"b17",
"b18"
] | 16,982,646 | pmid-8538457|pmid-15123812|pmid-15123812|pmid-10329189 | But the most recent enthalpy parameters were derived in 1995 using a simple model (24). | [
"24",
"17",
"17",
"18"
] | 87 | 4,895 | 1 | false | But the most recent enthalpy parameters were derived in 1995 using a simple model. | [
"24"
] | But the most recent enthalpy parameters were derived in 1995 using a simple model. | true | true | true | true | true | 818 |
2 | INTRODUCTION | 1 | 24 | [
"b24",
"b17",
"b17",
"b18"
] | 16,982,646 | pmid-8538457|pmid-15123812|pmid-15123812|pmid-10329189 | At that time, no themes had emerged for the sequence-dependent stability of internal loops. | [
"24",
"17",
"17",
"18"
] | 91 | 4,896 | 0 | false | At that time, no themes had emerged for the sequence-dependent stability of internal loops. | [] | At that time, no themes had emerged for the sequence-dependent stability of internal loops. | true | true | true | true | true | 818 |
2 | INTRODUCTION | 1 | 17 | [
"b24",
"b17",
"b17",
"b18"
] | 16,982,646 | pmid-8538457|pmid-15123812|pmid-15123812|pmid-10329189 | Subsequently, the nearest neighbor model for free energy change at 37°C was significantly improved (17) using experimental results. | [
"24",
"17",
"17",
"18"
] | 131 | 4,897 | 1 | false | Subsequently, the nearest neighbor model for free energy change at 37°C was significantly improved using experimental results. | [
"17"
] | Subsequently, the nearest neighbor model for free energy change at 37°C was significantly improved using experimental results. | true | true | true | true | true | 818 |
2 | INTRODUCTION | 1 | 24 | [
"b24",
"b17",
"b17",
"b18"
] | 16,982,646 | pmid-8538457|pmid-15123812|pmid-15123812|pmid-10329189 | Therefore, we applied the principles of the current free energy nearest neighbor model (17,18) to determine a complete set of enthalpy nearest neighbor parameters using the available optical melting data. | [
"24",
"17",
"17",
"18"
] | 204 | 4,898 | 0 | false | Therefore, we applied the principles of the current free energy nearest neighbor model to determine a complete set of enthalpy nearest neighbor parameters using the available optical melting data. | [
"17,18"
] | Therefore, we applied the principles of the current free energy nearest neighbor model to determine a complete set of enthalpy nearest neighbor parameters using the available optical melting data. | true | true | true | true | true | 818 |
0 | DISCUSSION | 1 | 17 | [
"b17"
] | 16,982,646 | pmid-14559182|pmid-11679670|pmid-15123812 | The nearest neighbor parameters for enthalpy were derived here using similar rules as for free energy nearest neighbor parameters at 37°C (17). | [
"17"
] | 143 | 4,899 | 1 | false | The nearest neighbor parameters for enthalpy were derived here using similar rules as for free energy nearest neighbor parameters at 37°C. | [
"17"
] | The nearest neighbor parameters for enthalpy were derived here using similar rules as for free energy nearest neighbor parameters at 37°C. | true | true | true | true | true | 819 |
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