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Namespace Prefixes

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_:vb391550046 _:vb391550047 _:vb391550032 _:vb391550033 _:vb391550034 _:vb391550035 _:vb391550036 _:vb391550037 _:vb391550038 _:vb391550039 _:vb391550024 _:vb391550025 _:vb391550026 _:vb391550027 _:vb391550028 _:vb391550029 _:vb391550030 _:vb391550031 _:vb391550016 _:vb391550017 _:vb391550018 _:vb391550019 _:vb391550020 _:vb391550021 _:vb391550022 _:vb391550023 _:vb391550072 _:vb391550073 _:vb391550074 _:vb391550075 _:vb391550076 _:vb391550077 _:vb391550078 _:vb391550079 _:vb391550064 _:vb391550065 _:vb391550066 _:vb391550067 _:vb391550068 _:vb391550069 _:vb391550070 _:vb391550071 _:vb391550056 _:vb391550057 _:vb391550058 _:vb391550059 _:vb391550060 _:vb391550061 _:vb391550062 _:vb391550063 _:vb391550048 _:vb391550049 _:vb391550050 _:vb391550051 _:vb391550052 _:vb391550053 _:vb391550054 _:vb391550055 _:vb391550104 _:vb391550105 _:vb391550106 _:vb391550107 _:vb391550108 _:vb391550109 _:vb391550110 _:vb391550111 _:vb391550096 _:vb391550097 _:vb391550098 _:vb391550099 _:vb391550100 _:vb391550101 _:vb391550102 _:vb391550103 _:vb391550088 _:vb391550089 _:vb391550090 _:vb391550091 _:vb391550092 _:vb391550093 _:vb391550094 _:vb391550095 _:vb391550080 _:vb391550081 _:vb391550082 _:vb391550083 _:vb391550084 _:vb391550085 _:vb391550086 _:vb391550087 _:vb391550136 _:vb391550137 _:vb391550138 _:vb391550139 _:vb391550140 _:vb391550141 _:vb391550142 _:vb391550143 _:vb391550128 _:vb391550129 _:vb391550130 _:vb391550131 _:vb391550132 _:vb391550133 _:vb391550134 _:vb391550135 _:vb391550120 _:vb391550121 _:vb391550122 _:vb391550123 _:vb391550124 _:vb391550125 _:vb391550126 _:vb391550127 _:vb391550112 _:vb391550113 _:vb391550114 _:vb391550115 _:vb391550116 _:vb391550117 _:vb391550118 _:vb391550119 _:vb391550168 _:vb391550169 _:vb391550170 _:vb391550171 _:vb391550172 _:vb391550173 _:vb391550174 _:vb391550175 _:vb391550160 _:vb391550161 _:vb391550162 _:vb391550163 _:vb391550164 _:vb391550165 _:vb391550166 _:vb391550167 _:vb391550152 _:vb391550153 _:vb391550154 _:vb391550155 _:vb391550156 _:vb391550157 _:vb391550158 _:vb391550159 _:vb391550144 _:vb391550145 _:vb391550146 _:vb391550147 _:vb391550148 _:vb391550149 _:vb391550150 _:vb391550151 _:vb391550200 _:vb391550201 _:vb391550202 _:vb391550203 _:vb391550204 _:vb391550205 _:vb391550206 _:vb391550207 _:vb391550192 _:vb391550193 _:vb391550194 _:vb391550195 _:vb391550196 _:vb391550197 _:vb391550198 _:vb391550199 _:vb391550184 _:vb391550185 _:vb391550186 _:vb391550187 _:vb391550188 _:vb391550189 _:vb391550190 _:vb391550191 _:vb391550176 _:vb391550177 _:vb391550178 _:vb391550179 _:vb391550180 _:vb391550181 _:vb391550182 _:vb391550183
n2:pmcid
PMC0
bibo:doi
10.1093%2Fnar%2Fgkn937
n5:contains
_:vb4399425 _:vb4399446 _:vb4399463 _:vb4399380 _:vb4399404 _:vb4399326 _:vb4399344 _:vb4399244 _:vb4399270 _:vb4399183 _:vb4399191 _:vb4399205
Subject Item
_:vb4399183
rdf:type
n5:Section
dc:title
introduction
n5:contains
_:vb4399184 _:vb4399185 _:vb4399186 _:vb4399187 _:vb4399188 _:vb4399189 _:vb4399190
Subject Item
_:vb4399184
rdf:type
n2:Context
rdf:value
For example, while the cell requires DNA polymerases to copy the genetic material, these enzymes insert an incorrect base approximately every 107 nt (>>1<<). Consequently, in the absence of mismatch repair pathways, human DNA polymerases would generate several hundred mutations every round of cell division. Furthermore, while DNA glycosylases initiate base-excision repair pathways, these
n2:mentions
n3:18626473
Subject Item
_:vb4399185
rdf:type
n2:Context
rdf:value
Furthermore, while DNA glycosylases initiate base-excision repair pathways, these enzymes can convert innocuous lesions to abasic sites with far greater mutagenic potential (>>2<<). Finally, while cytochrome P450 enzymes play critical roles in detoxification pathways, they sometimes convert inert xenobiotic chemicals to compounds with mutagenic properties (3).
n2:mentions
n3:18166975
Subject Item
_:vb4399186
rdf:type
n2:Context
rdf:value
Finally, while cytochrome P450 enzymes play critical roles in detoxification pathways, they sometimes convert inert xenobiotic chemicals to compounds with mutagenic properties (>>3<<).
n2:mentions
n3:16584116
Subject Item
_:vb4399187
rdf:type
n2:Context
rdf:value
Of all the enzymes required to sustain cellular growth, topoisomerase II is one of the most dangerous (4–>>8<<). As discussed below, this enzyme unwinds, unknots and untangles the genetic material by generating transient double-stranded breaks in DNA (8–12).
n2:mentions
n3:11340607 n3:10697411 n3:9748584 n3:16857431 n3:17681352
Subject Item
_:vb4399188
rdf:type
n2:Context
rdf:value
As discussed below, this enzyme unwinds, unknots and untangles the genetic material by generating transient double-stranded breaks in DNA (8–>>12<<). Although the cell cannot survive without topoisomerase II, the strand breaks that the enzyme generates have the potential to trigger cell death pathways or chromosomal translocations (8,13).
n2:mentions
n3:12042765 n3:9748506 n3:8811192 n3:17681352
Subject Item
_:vb4399189
rdf:type
n2:Context
rdf:value
Although the cell cannot survive without topoisomerase II, the strand breaks that the enzyme generates have the potential to trigger cell death pathways or chromosomal translocations (>>8<<,13).
n2:mentions
n3:17681352
Subject Item
_:vb4399190
rdf:type
n2:Context
rdf:value
Although the cell cannot survive without topoisomerase II, the strand breaks that the enzyme generates have the potential to trigger cell death pathways or chromosomal translocations (8,>>13<<).
n2:mentions
n3:9748575
Subject Item
_:vb4399191
rdf:type
n5:Section
dc:title
dna topology
n5:contains
_:vb4399200 _:vb4399201 _:vb4399202 _:vb4399203 _:vb4399204 _:vb4399192 _:vb4399193 _:vb4399194 _:vb4399195 _:vb4399196 _:vb4399197 _:vb4399198 _:vb4399199
Subject Item
_:vb4399192
rdf:type
n2:Context
rdf:value
Because the genetic material is anchored to the chromosome scaffold and the two strands of the double helix are plectonemically coiled, accessing the genome is a complex topological challenge (>>11<<,1216–18).
n2:mentions
n3:8811192
Subject Item
_:vb4399193
rdf:type
n2:Context
rdf:value
Because the genetic material is anchored to the chromosome scaffold and the two strands of the double helix are plectonemically coiled, accessing the genome is a complex topological challenge (11,1216–>>18<<).
n2:mentions
n3:17268506 n3:17622799 n3:15130115
Subject Item
_:vb4399194
rdf:type
n2:Context
rdf:value
In all living systems, from bacteria to humans, DNA is globally underwound (i.e. negatively supercoiled) by ∼6% (12,19–>>21<<). This is important because duplex DNA is merely the storage form for the genetic information. In order to replicate or express this information, the two strands of DNA must be separated. Since global underwinding of the genome imparts
n2:mentions
n3:7919794 n3:6587352 n3:6256851
Subject Item
_:vb4399195
rdf:type
n2:Context
rdf:value
Since global underwinding of the genome imparts increased single-stranded character to the double helix, negative supercoiling greatly facilitates strand separation (12,16–>>18<<).
n2:mentions
n3:17268506 n3:17622799 n3:15130115
Subject Item
_:vb4399196
rdf:type
n2:Context
rdf:value
The linear movement of tracking enzymes, such as helicases and polymerases, compresses the turns of the double helix into a shorter region (Figure 1) (12,19–>>21<<). Consequently, the double helix becomes increasingly overwound ahead of tracking systems. The positive supercoiling that results makes it more difficult to open the two strands of the double helix and ultimately blocks essential nucleic
n2:mentions
n3:7919794 n3:6587352 n3:6256851
Subject Item
_:vb4399197
rdf:type
n2:Context
rdf:value
The positive supercoiling that results makes it more difficult to open the two strands of the double helix and ultimately blocks essential nucleic acid processes (>>10<<, 12, 16–18).
n2:mentions
n3:12042765
Subject Item
_:vb4399198
rdf:type
n2:Context
rdf:value
The positive supercoiling that results makes it more difficult to open the two strands of the double helix and ultimately blocks essential nucleic acid processes (10, 12, 16–>>18<<). Figure 1.
n2:mentions
n3:17268506 n3:17622799 n3:15130115
Subject Item
_:vb4399199
rdf:type
n2:Context
rdf:value
Intramolecular knots (formed within the same DNA molecule) are generated during recombination, and intermolecular tangles (formed between daughter DNA molecules) are produced during replication (Figure 1) (>>8<<,10,12,17).
n2:mentions
n3:17681352
Subject Item
_:vb4399200
rdf:type
n2:Context
rdf:value
Intramolecular knots (formed within the same DNA molecule) are generated during recombination, and intermolecular tangles (formed between daughter DNA molecules) are produced during replication (Figure 1) (8,>>10<<,12,17). DNA knots block essential nucleic acid processes because they make it impossible to separate the two strands of the double helix. Moreover, tangled DNA molecules cannot be segregated during mitosis or meiosis (8,10,12,17).
n2:mentions
n3:12042765
Subject Item
_:vb4399201
rdf:type
n2:Context
rdf:value
Intramolecular knots (formed within the same DNA molecule) are generated during recombination, and intermolecular tangles (formed between daughter DNA molecules) are produced during replication (Figure 1) (8,10,12,>>17<<). DNA knots block essential nucleic acid processes because they make it impossible to separate the two strands of the double helix. Moreover, tangled DNA molecules cannot be segregated during mitosis or meiosis (8,10,12,17). Consequently,
n2:mentions
n3:17622799
Subject Item
_:vb4399202
rdf:type
n2:Context
rdf:value
Moreover, tangled DNA molecules cannot be segregated during mitosis or meiosis (>>8<<,10,12,17).
n2:mentions
n3:17681352
Subject Item
_:vb4399203
rdf:type
n2:Context
rdf:value
Moreover, tangled DNA molecules cannot be segregated during mitosis or meiosis (8,>>10<<,12,17). Consequently, DNA knots and tangles can be lethal to cells if they are not resolved.
n2:mentions
n3:12042765
Subject Item
_:vb4399204
rdf:type
n2:Context
rdf:value
Moreover, tangled DNA molecules cannot be segregated during mitosis or meiosis (8,10,12,>>17<<). Consequently, DNA knots and tangles can be lethal to cells if they are not resolved.
n2:mentions
n3:17622799
Subject Item
_:vb4399205
rdf:type
n5:Section
dc:title
dna topoisomerases
n5:contains
_:vb4399216 _:vb4399217 _:vb4399218 _:vb4399219 _:vb4399220 _:vb4399221 _:vb4399222 _:vb4399223 _:vb4399224 _:vb4399225 _:vb4399226 _:vb4399227 _:vb4399228 _:vb4399229 _:vb4399230 _:vb4399231 _:vb4399206 _:vb4399207 _:vb4399208 _:vb4399209 _:vb4399210 _:vb4399211 _:vb4399212 _:vb4399213 _:vb4399214 _:vb4399215 _:vb4399232 _:vb4399233 _:vb4399234 _:vb4399235 _:vb4399236 _:vb4399237 _:vb4399238 _:vb4399239 _:vb4399240 _:vb4399241 _:vb4399242 _:vb4399243
Subject Item
_:vb4399206
rdf:type
n2:Context
rdf:value
The topological state of the genetic material is regulated by enzymes known as topoisomerases (>>8<<,10,11,22,23). Topoisomerases are required for the survival of all organisms and alter DNA topology by generating transient breaks in the double helix (8,10,11,22,23).
n2:mentions
n3:17681352
Subject Item
_:vb4399207
rdf:type
n2:Context
rdf:value
The topological state of the genetic material is regulated by enzymes known as topoisomerases (8,>>10<<,11,22,23). Topoisomerases are required for the survival of all organisms and alter DNA topology by generating transient breaks in the double helix (8,10,11,22,23).
n2:mentions
n3:12042765
Subject Item
_:vb4399208
rdf:type
n2:Context
rdf:value
The topological state of the genetic material is regulated by enzymes known as topoisomerases (8,10,>>11<<,22,23). Topoisomerases are required for the survival of all organisms and alter DNA topology by generating transient breaks in the double helix (8,10,11,22,23).
n2:mentions
n3:8811192
Subject Item
_:vb4399209
rdf:type
n2:Context
rdf:value
The topological state of the genetic material is regulated by enzymes known as topoisomerases (8,10,11,>>22<<,23). Topoisomerases are required for the survival of all organisms and alter DNA topology by generating transient breaks in the double helix (8,10,11,22,23).
n2:mentions
n3:11395412
Subject Item
_:vb4399210
rdf:type
n2:Context
rdf:value
The topological state of the genetic material is regulated by enzymes known as topoisomerases (8,10,11,22,>>23<<). Topoisomerases are required for the survival of all organisms and alter DNA topology by generating transient breaks in the double helix (8,10,11,22,23).
n2:mentions
n3:16246147
Subject Item
_:vb4399211
rdf:type
n2:Context
rdf:value
Topoisomerases are required for the survival of all organisms and alter DNA topology by generating transient breaks in the double helix (>>8<<,10,11,22,23).
n2:mentions
n3:17681352
Subject Item
_:vb4399212
rdf:type
n2:Context
rdf:value
Topoisomerases are required for the survival of all organisms and alter DNA topology by generating transient breaks in the double helix (8,>>10<<,11,22,23).
n2:mentions
n3:12042765
Subject Item
_:vb4399213
rdf:type
n2:Context
rdf:value
Topoisomerases are required for the survival of all organisms and alter DNA topology by generating transient breaks in the double helix (8,10,>>11<<,22,23). There are two major classes of topoisomerases, type I and type II, that are distinguished by the number of DNA strands that they cleave and the mechanism by which they alter the topological properties of the genetic material
n2:mentions
n3:8811192
Subject Item
_:vb4399214
rdf:type
n2:Context
rdf:value
Topoisomerases are required for the survival of all organisms and alter DNA topology by generating transient breaks in the double helix (8,10,11,>>22<<,23). There are two major classes of topoisomerases, type I and type II, that are distinguished by the number of DNA strands that they cleave and the mechanism by which they alter the topological properties of the genetic material
n2:mentions
n3:11395412
Subject Item
_:vb4399215
rdf:type
n2:Context
rdf:value
Topoisomerases are required for the survival of all organisms and alter DNA topology by generating transient breaks in the double helix (8,10,11,22,>>23<<). There are two major classes of topoisomerases, type I and type II, that are distinguished by the number of DNA strands that they cleave and the mechanism by which they alter the topological properties of the genetic material
n2:mentions
n3:16246147
Subject Item
_:vb4399216
rdf:type
n2:Context
rdf:value
There are two major classes of topoisomerases, type I and type II, that are distinguished by the number of DNA strands that they cleave and the mechanism by which they alter the topological properties of the genetic material (>>8<<,10,11,22,23).
n2:mentions
n3:17681352
Subject Item
_:vb4399217
rdf:type
n2:Context
rdf:value
There are two major classes of topoisomerases, type I and type II, that are distinguished by the number of DNA strands that they cleave and the mechanism by which they alter the topological properties of the genetic material (8,>>10<<,11,22,23).
n2:mentions
n3:12042765
Subject Item
_:vb4399218
rdf:type
n2:Context
rdf:value
There are two major classes of topoisomerases, type I and type II, that are distinguished by the number of DNA strands that they cleave and the mechanism by which they alter the topological properties of the genetic material (8,10,>>11<<,22,23).
n2:mentions
n3:8811192
Subject Item
_:vb4399219
rdf:type
n2:Context
rdf:value
There are two major classes of topoisomerases, type I and type II, that are distinguished by the number of DNA strands that they cleave and the mechanism by which they alter the topological properties of the genetic material (8,10,11,>>22<<,23).
n2:mentions
n3:11395412
Subject Item
_:vb4399220
rdf:type
n2:Context
rdf:value
There are two major classes of topoisomerases, type I and type II, that are distinguished by the number of DNA strands that they cleave and the mechanism by which they alter the topological properties of the genetic material (8,10,11,22,>>23<<).
n2:mentions
n3:16246147
Subject Item
_:vb4399221
rdf:type
n2:Context
rdf:value
Eukaryotic type I topoisomerases are monomeric enzymes that require no high-energy cofactor (>>11<<,22,24). Type I enzymes are organized into two subclasses: type IA and type IB.
n2:mentions
n3:8811192
Subject Item
_:vb4399222
rdf:type
n2:Context
rdf:value
Eukaryotic type I topoisomerases are monomeric enzymes that require no high-energy cofactor (11,>>22<<,24). Type I enzymes are organized into two subclasses: type IA and type IB.
n2:mentions
n3:11395412
Subject Item
_:vb4399223
rdf:type
n2:Context
rdf:value
Eukaryotic type I topoisomerases are monomeric enzymes that require no high-energy cofactor (11,22,>>24<<). Type I enzymes are organized into two subclasses: type IA and type IB.
n2:mentions
n3:15830206
Subject Item
_:vb4399224
rdf:type
n2:Context
rdf:value
These enzymes alter topology by creating transient single-stranded breaks in the DNA, followed by passage of the opposite intact strand through the break (type IA) or by controlled rotation of the helix around the break (type IB) (>>11<<,22,24). Type IA topoisomerases need divalent metal ions for DNA scission and attach covalently to the 5′-terminal phosphate of the DNA (11,22,24). In contrast, type IB enzymes do not require divalent metal ions and covalently link to the
n2:mentions
n3:8811192
Subject Item
_:vb4399225
rdf:type
n2:Context
rdf:value
These enzymes alter topology by creating transient single-stranded breaks in the DNA, followed by passage of the opposite intact strand through the break (type IA) or by controlled rotation of the helix around the break (type IB) (11,>>22<<,24). Type IA topoisomerases need divalent metal ions for DNA scission and attach covalently to the 5′-terminal phosphate of the DNA (11,22,24).
n2:mentions
n3:11395412
Subject Item
_:vb4399226
rdf:type
n2:Context
rdf:value
These enzymes alter topology by creating transient single-stranded breaks in the DNA, followed by passage of the opposite intact strand through the break (type IA) or by controlled rotation of the helix around the break (type IB) (11,22,>>24<<). Type IA topoisomerases need divalent metal ions for DNA scission and attach covalently to the 5′-terminal phosphate of the DNA (11,22,24).
n2:mentions
n3:15830206
Subject Item
_:vb4399227
rdf:type
n2:Context
rdf:value
Type IA topoisomerases need divalent metal ions for DNA scission and attach covalently to the 5′-terminal phosphate of the DNA (>>11<<,22,24). In contrast, type IB enzymes do not require divalent metal ions and covalently link to the 3′-terminal phosphate (11,22,24). As a result of their reaction mechanism, type I topoisomerases can modulate DNA under- and overwinding,
n2:mentions
n3:8811192
Subject Item
_:vb4399228
rdf:type
n2:Context
rdf:value
Type IA topoisomerases need divalent metal ions for DNA scission and attach covalently to the 5′-terminal phosphate of the DNA (11,>>22<<,24). In contrast, type IB enzymes do not require divalent metal ions and covalently link to the 3′-terminal phosphate (11,22,24). As a result of their reaction mechanism, type I topoisomerases can modulate DNA under- and overwinding, but
n2:mentions
n3:11395412
Subject Item
_:vb4399229
rdf:type
n2:Context
rdf:value
Type IA topoisomerases need divalent metal ions for DNA scission and attach covalently to the 5′-terminal phosphate of the DNA (11,22,>>24<<). In contrast, type IB enzymes do not require divalent metal ions and covalently link to the 3′-terminal phosphate (11,22,24). As a result of their reaction mechanism, type I topoisomerases can modulate DNA under- and overwinding, but
n2:mentions
n3:15830206
Subject Item
_:vb4399230
rdf:type
n2:Context
rdf:value
In contrast, type IB enzymes do not require divalent metal ions and covalently link to the 3′-terminal phosphate (>>11<<,22,24). As a result of their reaction mechanism, type I topoisomerases can modulate DNA under- and overwinding, but cannot remove knots or tangles from duplex DNA. A number of excellent review articles on type I topoisomerases have
n2:mentions
n3:8811192
Subject Item
_:vb4399231
rdf:type
n2:Context
rdf:value
In contrast, type IB enzymes do not require divalent metal ions and covalently link to the 3′-terminal phosphate (11,>>22<<,24). As a result of their reaction mechanism, type I topoisomerases can modulate DNA under- and overwinding, but cannot remove knots or tangles from duplex DNA. A number of excellent review articles on type I topoisomerases have appeared
n2:mentions
n3:11395412
Subject Item
_:vb4399232
rdf:type
n2:Context
rdf:value
In contrast, type IB enzymes do not require divalent metal ions and covalently link to the 3′-terminal phosphate (11,22,>>24<<). As a result of their reaction mechanism, type I topoisomerases can modulate DNA under- and overwinding, but cannot remove knots or tangles from duplex DNA. A number of excellent review articles on type I topoisomerases have appeared
n2:mentions
n3:15830206
Subject Item
_:vb4399233
rdf:type
n2:Context
rdf:value
A number of excellent review articles on type I topoisomerases have appeared recently (>>22<<,24,25). Consequently, these enzymes will not be discussed further in this article.
n2:mentions
n3:11395412
Subject Item
_:vb4399234
rdf:type
n2:Context
rdf:value
A number of excellent review articles on type I topoisomerases have appeared recently (22,>>24<<,25). Consequently, these enzymes will not be discussed further in this article.
n2:mentions
n3:15830206
Subject Item
_:vb4399235
rdf:type
n2:Context
rdf:value
A number of excellent review articles on type I topoisomerases have appeared recently (22,24,>>25<<). Consequently, these enzymes will not be discussed further in this article.
n2:mentions
n3:16990856
Subject Item
_:vb4399236
rdf:type
n2:Context
rdf:value
Eukaryotic type II topoisomerases function as homodimers and require divalent metal ions and ATP for complete catalytic activity (>>5<<,8,26–28). These enzymes interconvert different topological forms of DNA by a ‘double-stranded DNA passage reaction’ that can be separated into a number of discrete steps (5,8,26–28).
n2:mentions
n3:10697411
Subject Item
_:vb4399237
rdf:type
n2:Context
rdf:value
Eukaryotic type II topoisomerases function as homodimers and require divalent metal ions and ATP for complete catalytic activity (5,>>8<<,26–28). These enzymes interconvert different topological forms of DNA by a ‘double-stranded DNA passage reaction’ that can be separated into a number of discrete steps (5,8,26–28).
n2:mentions
n3:17681352
Subject Item
_:vb4399238
rdf:type
n2:Context
rdf:value
Eukaryotic type II topoisomerases function as homodimers and require divalent metal ions and ATP for complete catalytic activity (5,8,26–>>28<<). These enzymes interconvert different topological forms of DNA by a ‘double-stranded DNA passage reaction’ that can be separated into a number of discrete steps (5,8,26–28).
n2:mentions
n3:8538787
Subject Item
_:vb4399239
rdf:type
n2:Context
rdf:value
These enzymes interconvert different topological forms of DNA by a ‘double-stranded DNA passage reaction’ that can be separated into a number of discrete steps (>>5<<,8,26–28). Briefly, type II topoisomerases (i) bind two separate segments of DNA, (ii) create a double-stranded break in one of the segments, (iii) translocate the second DNA segment through the cleaved nucleic acid ‘gate’, (iv) rejoin (i.
n2:mentions
n3:10697411
Subject Item
_:vb4399240
rdf:type
n2:Context
rdf:value
These enzymes interconvert different topological forms of DNA by a ‘double-stranded DNA passage reaction’ that can be separated into a number of discrete steps (5,>>8<<,26–28). Briefly, type II topoisomerases (i) bind two separate segments of DNA, (ii) create a double-stranded break in one of the segments, (iii) translocate the second DNA segment through the cleaved nucleic acid ‘gate’, (iv) rejoin (i.e.
n2:mentions
n3:17681352
Subject Item
_:vb4399241
rdf:type
n2:Context
rdf:value
These enzymes interconvert different topological forms of DNA by a ‘double-stranded DNA passage reaction’ that can be separated into a number of discrete steps (5,8,26–>>28<<). Briefly, type II topoisomerases (i) bind two separate segments of DNA, (ii) create a double-stranded break in one of the segments, (iii) translocate the second DNA segment through the cleaved nucleic acid ‘gate’, (iv) rejoin (i.e.
n2:mentions
n3:8538787
Subject Item
_:vb4399242
rdf:type
n2:Context
rdf:value
the cleaved nucleic acid ‘gate’, (iv) rejoin (i.e. ligate) the cleaved DNA, (v) release the translocated segment through a gate in the protein and (vi) close the protein gate and regain the ability to start a new round of catalysis (>>5<<,26–34). Because of their double-stranded DNA passage mechanism, type II topoisomerases can modulate DNA supercoiling and also can remove DNA knots and tangles.
n2:mentions
n3:10697411
Subject Item
_:vb4399243
rdf:type
n2:Context
rdf:value
cleaved nucleic acid ‘gate’, (iv) rejoin (i.e. ligate) the cleaved DNA, (v) release the translocated segment through a gate in the protein and (vi) close the protein gate and regain the ability to start a new round of catalysis (5,26–>>34<<). Because of their double-stranded DNA passage mechanism, type II topoisomerases can modulate DNA supercoiling and also can remove DNA knots and tangles.
n2:mentions
n3:8385137 n3:18653531 n3:8538787 n3:2827726 n3:3015913 n3:11359787 n3:1330327
Subject Item
_:vb4399244
rdf:type
n5:Section
dc:title
topoisomerase ii
n5:contains
_:vb4399252 _:vb4399253 _:vb4399254 _:vb4399255 _:vb4399248 _:vb4399249 _:vb4399250 _:vb4399251 _:vb4399260 _:vb4399261 _:vb4399262 _:vb4399263 _:vb4399256 _:vb4399257 _:vb4399258 _:vb4399259 _:vb4399245 _:vb4399246 _:vb4399247 _:vb4399268 _:vb4399269 _:vb4399264 _:vb4399265 _:vb4399266 _:vb4399267
Subject Item
_:vb4399245
rdf:type
n2:Context
rdf:value
Lower eukaryotes and invertebrates encode only a single type II topoisomerase, topoisomerase II (35–>>38<<). In contrast, vertebrate species encode two closely related isoforms of the enzyme, topoisomerase IIα and topoisomerase IIβ.
n2:mentions
n3:6088500 n3:6279616 n3:3012525 n3:6323017
Subject Item
_:vb4399246
rdf:type
n2:Context
rdf:value
These isoforms differ in their protomer molecular masses (170 versus 180 kDa, respectively) and are encoded by separate genes (>>8<<,10,22,28,39–46).
n2:mentions
n3:17681352
Subject Item
_:vb4399247
rdf:type
n2:Context
rdf:value
These isoforms differ in their protomer molecular masses (170 versus 180 kDa, respectively) and are encoded by separate genes (8,>>10<<,22,28,39–46).
n2:mentions
n3:12042765
Subject Item
_:vb4399248
rdf:type
n2:Context
rdf:value
These isoforms differ in their protomer molecular masses (170 versus 180 kDa, respectively) and are encoded by separate genes (8,10,>>22<<,28,39–46).
n2:mentions
n3:11395412
Subject Item
_:vb4399249
rdf:type
n2:Context
rdf:value
These isoforms differ in their protomer molecular masses (170 versus 180 kDa, respectively) and are encoded by separate genes (8,10,22,28,39–>>46<<). Topoisomerase IIα and topoisomerase IIβ display a high degree (∼70%) of amino acid sequence identity and similar enzymological characteristics. One notable difference between the two isoforms is that topoisomerase IIα relaxes (i.e.
n2:mentions
n3:1333583 n3:2557897 n3:12570766 n3:2556712 n3:2824504 n3:2845399 n3:1309226 n3:2163884
Subject Item
_:vb4399250
rdf:type
n2:Context
rdf:value
isoforms is that topoisomerase IIα relaxes (i.e. removes) positive superhelical twists ∼10 times faster than it does negative in vitro, while the β isoform is unable to distinguish the geometry of DNA supercoils during DNA relaxation (>>47<<).
n2:mentions
n3:16188892
Subject Item
_:vb4399251
rdf:type
n2:Context
rdf:value
Topoisomerase IIα is essential for the survival of proliferating cells, and protein levels rise dramatically during periods of cell growth (48–>>51<<). The enzyme is further regulated over the cell cycle, with protein concentrations peaking in G2/M (50,52,53). Topoisomerase IIα is associated with replication forks and remains tightly bound to chromosomes during mitosis (9,51,54–56).
n2:mentions
n3:1651102 n3:2835157 n3:9837951 n3:3025219
Subject Item
_:vb4399252
rdf:type
n2:Context
rdf:value
The enzyme is further regulated over the cell cycle, with protein concentrations peaking in G2/M (>>50<<,52,53). Topoisomerase IIα is associated with replication forks and remains tightly bound to chromosomes during mitosis (9,51,54–56). Thus, it is believed to be the isoform that functions in growth-related processes, such as DNA
n2:mentions
n3:1651102
Subject Item
_:vb4399253
rdf:type
n2:Context
rdf:value
The enzyme is further regulated over the cell cycle, with protein concentrations peaking in G2/M (50,>>52<<,53). Topoisomerase IIα is associated with replication forks and remains tightly bound to chromosomes during mitosis (9,51,54–56). Thus, it is believed to be the isoform that functions in growth-related processes, such as DNA replication
n2:mentions
n3:2829215
Subject Item
_:vb4399254
rdf:type
n2:Context
rdf:value
The enzyme is further regulated over the cell cycle, with protein concentrations peaking in G2/M (50,52,>>53<<). Topoisomerase IIα is associated with replication forks and remains tightly bound to chromosomes during mitosis (9,51,54–56). Thus, it is believed to be the isoform that functions in growth-related processes, such as DNA replication and
n2:mentions
n3:8288578
Subject Item
_:vb4399255
rdf:type
n2:Context
rdf:value
Topoisomerase IIα is associated with replication forks and remains tightly bound to chromosomes during mitosis (>>9<<,51,54–56).
n2:mentions
n3:9748506
Subject Item
_:vb4399256
rdf:type
n2:Context
rdf:value
Topoisomerase IIα is associated with replication forks and remains tightly bound to chromosomes during mitosis (9,>>51<<,54–56). Thus, it is believed to be the isoform that functions in growth-related processes, such as DNA replication and chromosome segregation (10,51).
n2:mentions
n3:9837951
Subject Item
_:vb4399257
rdf:type
n2:Context
rdf:value
Topoisomerase IIα is associated with replication forks and remains tightly bound to chromosomes during mitosis (9,51,54–>>56<<). Thus, it is believed to be the isoform that functions in growth-related processes, such as DNA replication and chromosome segregation (10,51).
n2:mentions
n3:17526531 n3:9071722 n3:11927602
Subject Item
_:vb4399258
rdf:type
n2:Context
rdf:value
Thus, it is believed to be the isoform that functions in growth-related processes, such as DNA replication and chromosome segregation (>>10<<,51).
n2:mentions
n3:12042765
Subject Item
_:vb4399259
rdf:type
n2:Context
rdf:value
Thus, it is believed to be the isoform that functions in growth-related processes, such as DNA replication and chromosome segregation (10,>>51<<).
n2:mentions
n3:9837951
Subject Item
_:vb4399260
rdf:type
n2:Context
rdf:value
Topoisomerase IIβ is dispensable at the cellular level but appears to be required for proper neural development (57–>>59<<). Expression of topoisomerase IIβ is independent of proliferative status and cell cycle, and the enzyme dissociates from chromosomes during mitosis (54,60,61).
n2:mentions
n3:10615047 n3:7579726 n3:9331091
Subject Item
_:vb4399261
rdf:type
n2:Context
rdf:value
Expression of topoisomerase IIβ is independent of proliferative status and cell cycle, and the enzyme dissociates from chromosomes during mitosis (>>54<<,60,61). Topoisomerase IIβ cannot compensate for the loss of topoisomerase IIα in mammalian cells, suggesting that these two isoforms do not play redundant roles in replicative processes (51,60,62,63). Although the physiological functions
n2:mentions
n3:17526531
Subject Item
_:vb4399262
rdf:type
n2:Context
rdf:value
Expression of topoisomerase IIβ is independent of proliferative status and cell cycle, and the enzyme dissociates from chromosomes during mitosis (54,>>60<<,61). Topoisomerase IIβ cannot compensate for the loss of topoisomerase IIα in mammalian cells, suggesting that these two isoforms do not play redundant roles in replicative processes (51,60,62,63). Although the physiological functions of
n2:mentions
n3:9631649
Subject Item
_:vb4399263
rdf:type
n2:Context
rdf:value
Expression of topoisomerase IIβ is independent of proliferative status and cell cycle, and the enzyme dissociates from chromosomes during mitosis (54,60,>>61<<). Topoisomerase IIβ cannot compensate for the loss of topoisomerase IIα in mammalian cells, suggesting that these two isoforms do not play redundant roles in replicative processes (51,60,62,63). Although the physiological functions of
n2:mentions
n3:9748535
Subject Item
_:vb4399264
rdf:type
n2:Context
rdf:value
Topoisomerase IIβ cannot compensate for the loss of topoisomerase IIα in mammalian cells, suggesting that these two isoforms do not play redundant roles in replicative processes (>>51<<,60,62,63).
n2:mentions
n3:9837951
Subject Item
_:vb4399265
rdf:type
n2:Context
rdf:value
Topoisomerase IIβ cannot compensate for the loss of topoisomerase IIα in mammalian cells, suggesting that these two isoforms do not play redundant roles in replicative processes (51,>>60<<,62,63). Although the physiological functions of topoisomerase IIβ have yet to be defined, recent evidence indicates involvement in the transcription of hormonally or developmentally regulated genes (63,64).
n2:mentions
n3:9631649
Subject Item
_:vb4399266
rdf:type
n2:Context
rdf:value
Topoisomerase IIβ cannot compensate for the loss of topoisomerase IIα in mammalian cells, suggesting that these two isoforms do not play redundant roles in replicative processes (51,60,>>62<<,63). Although the physiological functions of topoisomerase IIβ have yet to be defined, recent evidence indicates involvement in the transcription of hormonally or developmentally regulated genes (63,64).
n2:mentions
n3:14996935
Subject Item
_:vb4399267
rdf:type
n2:Context
rdf:value
Topoisomerase IIβ cannot compensate for the loss of topoisomerase IIα in mammalian cells, suggesting that these two isoforms do not play redundant roles in replicative processes (51,60,62,>>63<<). Although the physiological functions of topoisomerase IIβ have yet to be defined, recent evidence indicates involvement in the transcription of hormonally or developmentally regulated genes (63,64).
n2:mentions
n3:16794079
Subject Item
_:vb4399268
rdf:type
n2:Context
rdf:value
Although the physiological functions of topoisomerase IIβ have yet to be defined, recent evidence indicates involvement in the transcription of hormonally or developmentally regulated genes (>>63<<,64).
n2:mentions
n3:16794079
Subject Item
_:vb4399269
rdf:type
n2:Context
rdf:value
Although the physiological functions of topoisomerase IIβ have yet to be defined, recent evidence indicates involvement in the transcription of hormonally or developmentally regulated genes (63,>>64<<).
n2:mentions
n3:16794066
Subject Item
_:vb4399270
rdf:type
n5:Section
dc:title
topoisomerase ii-mediated dna cleavage and ligation
n5:contains
_:vb4399324 _:vb4399325 _:vb4399320 _:vb4399321 _:vb4399322 _:vb4399323 _:vb4399316 _:vb4399317 _:vb4399318 _:vb4399319 _:vb4399312 _:vb4399313 _:vb4399314 _:vb4399315 _:vb4399308 _:vb4399309 _:vb4399310 _:vb4399311 _:vb4399304 _:vb4399305 _:vb4399306 _:vb4399307 _:vb4399300 _:vb4399301 _:vb4399302 _:vb4399303 _:vb4399296 _:vb4399297 _:vb4399298 _:vb4399299 _:vb4399292 _:vb4399293 _:vb4399294 _:vb4399295 _:vb4399288 _:vb4399289 _:vb4399290 _:vb4399291 _:vb4399284 _:vb4399285 _:vb4399286 _:vb4399287 _:vb4399280 _:vb4399281 _:vb4399282 _:vb4399283 _:vb4399276 _:vb4399277 _:vb4399278 _:vb4399279 _:vb4399272 _:vb4399273 _:vb4399274 _:vb4399275 _:vb4399271
Subject Item
_:vb4399271
rdf:type
n2:Context
rdf:value
The ability of topoisomerase II to cleave and ligate DNA is central to all of its catalytic functions (>>5<<,8,11,27). All topoisomerases utilize active site tyrosyl residues to mediate DNA cleavage and ligation.
n2:mentions
n3:10697411
Subject Item
_:vb4399272
rdf:type
n2:Context
rdf:value
The ability of topoisomerase II to cleave and ligate DNA is central to all of its catalytic functions (5,>>8<<,11,27). All topoisomerases utilize active site tyrosyl residues to mediate DNA cleavage and ligation.
n2:mentions
n3:17681352
Subject Item
_:vb4399273
rdf:type
n2:Context
rdf:value
The ability of topoisomerase II to cleave and ligate DNA is central to all of its catalytic functions (5,8,>>11<<,27). All topoisomerases utilize active site tyrosyl residues to mediate DNA cleavage and ligation.
n2:mentions
n3:8811192
Subject Item
_:vb4399274
rdf:type
n2:Context
rdf:value
The ability of topoisomerase II to cleave and ligate DNA is central to all of its catalytic functions (5,8,11,>>27<<). All topoisomerases utilize active site tyrosyl residues to mediate DNA cleavage and ligation.
n2:mentions
n3:8538787
Subject Item
_:vb4399275
rdf:type
n2:Context
rdf:value
Topoisomerase II initiates DNA cleavage by the nucleophilic attack of the active site tyrosine on the phosphate of the nucleic acid backbone (Figure 2) (>>11<<,23,26,27). The resulting transesterification reaction results in the formation of a covalent phosphotyrosyl bond that links the protein to the newly generated 5′-terminus of the DNA chain.
n2:mentions
n3:8811192
Subject Item
_:vb4399276
rdf:type
n2:Context
rdf:value
Topoisomerase II initiates DNA cleavage by the nucleophilic attack of the active site tyrosine on the phosphate of the nucleic acid backbone (Figure 2) (11,>>23<<,26,27). The resulting transesterification reaction results in the formation of a covalent phosphotyrosyl bond that links the protein to the newly generated 5′-terminus of the DNA chain.
n2:mentions
n3:16246147
Subject Item
_:vb4399277
rdf:type
n2:Context
rdf:value
Topoisomerase II initiates DNA cleavage by the nucleophilic attack of the active site tyrosine on the phosphate of the nucleic acid backbone (Figure 2) (11,23,26,>>27<<). The resulting transesterification reaction results in the formation of a covalent phosphotyrosyl bond that links the protein to the newly generated 5′-terminus of the DNA chain.
n2:mentions
n3:8538787
Subject Item
_:vb4399278
rdf:type
n2:Context
rdf:value
Thus, topoisomerase II generates cleaved DNA molecules with four-base 5′-single-stranded cohesive ends, each of which is covalently linked to a separate protomer subunit of the enzyme (65–>>67<<). Figure 2.
n2:mentions
n3:6317692 n3:6305984 n3:2551367
Subject Item
_:vb4399279
rdf:type
n2:Context
rdf:value
Second, because it does not allow the cleaved DNA chain to dissociate from the enzyme, the protein–DNA linkage maintains the integrity of the genetic material during the cleavage event (>>11<<,23,26,27).
n2:mentions
n3:8811192
Subject Item
_:vb4399280
rdf:type
n2:Context
rdf:value
Second, because it does not allow the cleaved DNA chain to dissociate from the enzyme, the protein–DNA linkage maintains the integrity of the genetic material during the cleavage event (11,>>23<<,26,27). The covalent topoisomerase II-cleaved DNA reaction intermediate is referred to as the ‘cleavage complex’ and is critical for the pharmacological activities of the enzyme, which are discussed later in this article.
n2:mentions
n3:16246147
Subject Item
_:vb4399281
rdf:type
n2:Context
rdf:value
Second, because it does not allow the cleaved DNA chain to dissociate from the enzyme, the protein–DNA linkage maintains the integrity of the genetic material during the cleavage event (11,23,26,>>27<<). The covalent topoisomerase II-cleaved DNA reaction intermediate is referred to as the ‘cleavage complex’ and is critical for the pharmacological activities of the enzyme, which are discussed later in this article.
n2:mentions
n3:8538787
Subject Item
_:vb4399282
rdf:type
n2:Context
rdf:value
Although topoisomerase II acts globally, it cleaves DNA at preferred sites (>>68<<). The consensus sequence for cleavage is weak, and many sites of action do not conform to it (68).
n2:mentions
n3:9748568
Subject Item
_:vb4399283
rdf:type
n2:Context
rdf:value
The consensus sequence for cleavage is weak, and many sites of action do not conform to it (>>68<<). Ultimately, the mechanism by which topoisomerase II selects DNA sites is not apparent, and it is nearly impossible to predict de novo whether a given DNA sequence will support scission. Most likely, the specificity of topoisomerase
n2:mentions
n3:9748568
Subject Item
_:vb4399284
rdf:type
n2:Context
rdf:value
specificity of topoisomerase II-mediated cleavage is determined by the local structure, flexibility, or malleability of the DNA that accompanies the sequence, as opposed to a direct recognition of the bases that comprise that sequence (>>69<<).
n2:mentions
n3:15751973
Subject Item
_:vb4399285
rdf:type
n2:Context
rdf:value
information regarding the roles of specific amino acid residues comes from structural studies on the catalytic core of yeast topoisomerase II generated in the absence of DNA or in a noncovalent complex with its nucleic acid substrate (>>27<<,70). For consistency, all amino acid assignments discussed below are for the homologous positions in human topoisomerase IIα.
n2:mentions
n3:8538787
Subject Item
_:vb4399286
rdf:type
n2:Context
rdf:value
regarding the roles of specific amino acid residues comes from structural studies on the catalytic core of yeast topoisomerase II generated in the absence of DNA or in a noncovalent complex with its nucleic acid substrate (27,>>70<<). For consistency, all amino acid assignments discussed below are for the homologous positions in human topoisomerase IIα.
n2:mentions
n3:18097402
Subject Item
_:vb4399287
rdf:type
n2:Context
rdf:value
The type II enzyme utilizes a two-metal ion mechanism similar to that utilized by primases and polymerases (>>34<<,70,71,74–77,155,156).
n2:mentions
n3:18653531
Subject Item
_:vb4399288
rdf:type
n2:Context
rdf:value
The type II enzyme utilizes a two-metal ion mechanism similar to that utilized by primases and polymerases (34,>>70<<,71,74–77,155,156).
n2:mentions
n3:18097402
Subject Item
_:vb4399289
rdf:type
n2:Context
rdf:value
The type II enzyme utilizes a two-metal ion mechanism similar to that utilized by primases and polymerases (34,70,>>71<<,74–77,155,156).
n2:mentions
n3:9722641
Subject Item
_:vb4399290
rdf:type
n2:Context
rdf:value
The type II enzyme utilizes a two-metal ion mechanism similar to that utilized by primases and polymerases (34,70,71,74–>>77<<,155,156). Amino acids that are postulated to interact with the metal ions in the active site of topoisomerase IIα and topoisomerase IIβ are indicated. One of the metal ions (shown at left) makes a critical interaction with the 3′-bridging
n2:mentions
n3:10684600 n3:16239602 n3:18403371
Subject Item
_:vb4399291
rdf:type
n2:Context
rdf:value
The type II enzyme utilizes a two-metal ion mechanism similar to that utilized by primases and polymerases (34,70,71,74–77,>>155<<,156). Amino acids that are postulated to interact with the metal ions in the active site of topoisomerase IIα and topoisomerase IIβ are indicated. One of the metal ions (shown at left) makes a critical interaction with the 3′-bridging
n2:mentions
n3:8260491
Subject Item
_:vb4399292
rdf:type
n2:Context
rdf:value
The acid may be a water molecule or an unidentified amino acid in the active site of topoisomerase II. Figure adapted from Noble and Maxwell (>>73<<).
n2:mentions
n3:12051843
Subject Item
_:vb4399293
rdf:type
n2:Context
rdf:value
The DNA cleavage reaction requires a divalent metal ion (>>5<<,30,34,71,72). Mg2+ appears to fulfill this function in vivo (5).
n2:mentions
n3:10697411
Subject Item
_:vb4399294
rdf:type
n2:Context
rdf:value
The DNA cleavage reaction requires a divalent metal ion (5,>>30<<,34,71,72). Mg2+ appears to fulfill this function in vivo (5).
n2:mentions
n3:2827726
Subject Item
_:vb4399295
rdf:type
n2:Context
rdf:value
The DNA cleavage reaction requires a divalent metal ion (5,30,>>34<<,71,72). Mg2+ appears to fulfill this function in vivo (5).
n2:mentions
n3:18653531
Subject Item
_:vb4399296
rdf:type
n2:Context
rdf:value
The DNA cleavage reaction requires a divalent metal ion (5,30,34,>>71<<,72). Mg2+ appears to fulfill this function in vivo (5).
n2:mentions
n3:9722641
Subject Item
_:vb4399297
rdf:type
n2:Context
rdf:value
The DNA cleavage reaction requires a divalent metal ion (5,30,34,71,>>72<<). Mg2+ appears to fulfill this function in vivo (5).
n2:mentions
n3:9653108
Subject Item
_:vb4399298
rdf:type
n2:Context
rdf:value
Mg2+ appears to fulfill this function in vivo (>>5<<). Recent evidence indicates that human topoisomerase IIα utilizes a ‘two-metal-ion’ mechanism, in which one of the metal ions interacts with the bridging 5′-oxygen of the scissile bond (34).
n2:mentions
n3:10697411
Subject Item
_:vb4399299
rdf:type
n2:Context
rdf:value
Recent evidence indicates that human topoisomerase IIα utilizes a ‘two-metal-ion’ mechanism, in which one of the metal ions interacts with the bridging 5′-oxygen of the scissile bond (>>34<<). This interaction greatly accelerates rates of enzyme-mediated DNA cleavage and most likely is needed to stabilize the leaving 3′-oxygen. The role of the second metal ion is not known. However, it is believed to make critical contacts
n2:mentions
n3:18653531
Subject Item
_:vb4399300
rdf:type
n2:Context
rdf:value
However, it is believed to make critical contacts with the active site tyrosine and may stabilize the DNA transition state and/or help deprotonate the active site tyrosine (>>34<<,73). It has been postulated that the divalent metal ions are coordinated by Glu461, Asp541, Asp543 and Asp545 in human topoisomerase IIα and corresponding residues in the β isoform (Figure 3) (34,70,74,75). A two-metal-ion mechanism for
n2:mentions
n3:18653531
Subject Item
_:vb4399301
rdf:type
n2:Context
rdf:value
However, it is believed to make critical contacts with the active site tyrosine and may stabilize the DNA transition state and/or help deprotonate the active site tyrosine (34,>>73<<). It has been postulated that the divalent metal ions are coordinated by Glu461, Asp541, Asp543 and Asp545 in human topoisomerase IIα and corresponding residues in the β isoform (Figure 3) (34,70,74,75). A two-metal-ion mechanism for DNA
n2:mentions
n3:12051843
Subject Item
_:vb4399302
rdf:type
n2:Context
rdf:value
It has been postulated that the divalent metal ions are coordinated by Glu461, Asp541, Asp543 and Asp545 in human topoisomerase IIα and corresponding residues in the β isoform (Figure 3) (>>34<<,70,74,75).
n2:mentions
n3:18653531
Subject Item
_:vb4399303
rdf:type
n2:Context
rdf:value
It has been postulated that the divalent metal ions are coordinated by Glu461, Asp541, Asp543 and Asp545 in human topoisomerase IIα and corresponding residues in the β isoform (Figure 3) (34,>>70<<,74,75). A two-metal-ion mechanism for DNA cleavage mediated by the bacterial type II topoisomerase, DNA gyrase, also has been proposed (73).
n2:mentions
n3:18097402
Subject Item
_:vb4399304
rdf:type
n2:Context
rdf:value
It has been postulated that the divalent metal ions are coordinated by Glu461, Asp541, Asp543 and Asp545 in human topoisomerase IIα and corresponding residues in the β isoform (Figure 3) (34,70,>>74<<,75). A two-metal-ion mechanism for DNA cleavage mediated by the bacterial type II topoisomerase, DNA gyrase, also has been proposed (73).
n2:mentions
n3:10684600
Subject Item
_:vb4399305
rdf:type
n2:Context
rdf:value
It has been postulated that the divalent metal ions are coordinated by Glu461, Asp541, Asp543 and Asp545 in human topoisomerase IIα and corresponding residues in the β isoform (Figure 3) (34,70,74,>>75<<). A two-metal-ion mechanism for DNA cleavage mediated by the bacterial type II topoisomerase, DNA gyrase, also has been proposed (73).
n2:mentions
n3:16239602
Subject Item
_:vb4399306
rdf:type
n2:Context
rdf:value
A two-metal-ion mechanism for DNA cleavage mediated by the bacterial type II topoisomerase, DNA gyrase, also has been proposed (>>73<<).
n2:mentions
n3:12051843
Subject Item
_:vb4399307
rdf:type
n2:Context
rdf:value
Topoisomerase II–DNA cleavage complexes normally are short-lived and readily reversible (>>5<<,8,76), and the DNA cleavage/ligation equilibrium of the enzyme greatly favors ligation (5,8,11,23,26,27,77,78).
n2:mentions
n3:10697411
Subject Item
_:vb4399308
rdf:type
n2:Context
rdf:value
Topoisomerase II–DNA cleavage complexes normally are short-lived and readily reversible (5,>>8<<,76), and the DNA cleavage/ligation equilibrium of the enzyme greatly favors ligation (5,8,11,23,26,27,77,78).
n2:mentions
n3:17681352
Subject Item
_:vb4399309
rdf:type
n2:Context
rdf:value
Topoisomerase II–DNA cleavage complexes normally are short-lived and readily reversible (5,8,76), and the DNA cleavage/ligation equilibrium of the enzyme greatly favors ligation (>>5<<,8,11,23,26,27,77,78). Under equilibrium conditions, ∼0.5–1% of topoisomerase II in a DNA scission reaction mixture exists as a cleavage complex (65–67,78,79).
n2:mentions
n3:10697411
Subject Item
_:vb4399310
rdf:type
n2:Context
rdf:value
Topoisomerase II–DNA cleavage complexes normally are short-lived and readily reversible (5,8,76), and the DNA cleavage/ligation equilibrium of the enzyme greatly favors ligation (5,>>8<<,11,23,26,27,77,78). Under equilibrium conditions, ∼0.5–1% of topoisomerase II in a DNA scission reaction mixture exists as a cleavage complex (65–67,78,79).
n2:mentions
n3:17681352
Subject Item
_:vb4399311
rdf:type
n2:Context
rdf:value
Topoisomerase II–DNA cleavage complexes normally are short-lived and readily reversible (5,8,76), and the DNA cleavage/ligation equilibrium of the enzyme greatly favors ligation (5,8,>>11<<,23,26,27,77,78). Under equilibrium conditions, ∼0.5–1% of topoisomerase II in a DNA scission reaction mixture exists as a cleavage complex (65–67,78,79).
n2:mentions
n3:8811192
Subject Item
_:vb4399312
rdf:type
n2:Context
rdf:value
Topoisomerase II–DNA cleavage complexes normally are short-lived and readily reversible (5,8,76), and the DNA cleavage/ligation equilibrium of the enzyme greatly favors ligation (5,8,11,>>23<<,26,27,77,78). Under equilibrium conditions, ∼0.5–1% of topoisomerase II in a DNA scission reaction mixture exists as a cleavage complex (65–67,78,79).
n2:mentions
n3:16246147
Subject Item
_:vb4399313
rdf:type
n2:Context
rdf:value
Topoisomerase II–DNA cleavage complexes normally are short-lived and readily reversible (5,8,76), and the DNA cleavage/ligation equilibrium of the enzyme greatly favors ligation (5,8,11,23,26,>>27<<,77,78). Under equilibrium conditions, ∼0.5–1% of topoisomerase II in a DNA scission reaction mixture exists as a cleavage complex (65–67,78,79).
n2:mentions
n3:8538787
Subject Item
_:vb4399314
rdf:type
n2:Context
rdf:value
Topoisomerase II–DNA cleavage complexes normally are short-lived and readily reversible (5,8,76), and the DNA cleavage/ligation equilibrium of the enzyme greatly favors ligation (5,8,11,23,26,27,>>77<<,78). Under equilibrium conditions, ∼0.5–1% of topoisomerase II in a DNA scission reaction mixture exists as a cleavage complex (65–67,78,79).
n2:mentions
n3:18403371
Subject Item
_:vb4399315
rdf:type
n2:Context
rdf:value
Topoisomerase II–DNA cleavage complexes normally are short-lived and readily reversible (5,8,76), and the DNA cleavage/ligation equilibrium of the enzyme greatly favors ligation (5,8,11,23,26,27,77,>>78<<). Under equilibrium conditions, ∼0.5–1% of topoisomerase II in a DNA scission reaction mixture exists as a cleavage complex (65–67,78,79).
n2:mentions
n3:2551368
Subject Item
_:vb4399316
rdf:type
n2:Context
rdf:value
Under equilibrium conditions, ∼0.5–1% of topoisomerase II in a DNA scission reaction mixture exists as a cleavage complex (65–>>67<<,78,79). Furthermore, when Mg2+ is utilized as the divalent metal ion, ∼1/2–3/4 of the complexes contain double-stranded breaks with the remainder containing single-stranded DNA breaks. The fact that a significant proportion of cleavage
n2:mentions
n3:6317692 n3:6305984 n3:2551367
Subject Item
_:vb4399317
rdf:type
n2:Context
rdf:value
Under equilibrium conditions, ∼0.5–1% of topoisomerase II in a DNA scission reaction mixture exists as a cleavage complex (65–67,>>78<<,79). Furthermore, when Mg2+ is utilized as the divalent metal ion, ∼1/2–3/4 of the complexes contain double-stranded breaks with the remainder containing single-stranded DNA breaks. The fact that a significant proportion of cleavage
n2:mentions
n3:18318502
Subject Item
_:vb4399318
rdf:type
n2:Context
rdf:value
Under equilibrium conditions, ∼0.5–1% of topoisomerase II in a DNA scission reaction mixture exists as a cleavage complex (65–67,78,>>79<<). Furthermore, when Mg2+ is utilized as the divalent metal ion, ∼1/2–3/4 of the complexes contain double-stranded breaks with the remainder containing single-stranded DNA breaks. The fact that a significant proportion of cleavage
n2:mentions
n3:2551368
Subject Item
_:vb4399319
rdf:type
n2:Context
rdf:value
The fact that a significant proportion of cleavage complexes contain single-stranded breaks was initially taken as an indication for poor coordination between the two protomer subunits of topoisomerase II (>>80<<). However, with hindsight, if the protomers cut the two strands of the double helix in a completely noncoordinated fashion, virtually no double-stranded DNA breaks would be generated (1% × 1% ≈ 0.01% cleavage complexes). These findings
n2:mentions
n3:12473657
Subject Item
_:vb4399320
rdf:type
n2:Context
rdf:value
These findings suggest that there must be a relatively high degree of coordination between the two protomer active sites of the enzyme, even if they do not act in complete concert with one another (>>78<<). To this point, once topoisomerase II cleaves the first strand, it is estimated that the enzyme cuts the second strand ∼20-fold faster (77,78).
n2:mentions
n3:18318502
Subject Item
_:vb4399321
rdf:type
n2:Context
rdf:value
To this point, once topoisomerase II cleaves the first strand, it is estimated that the enzyme cuts the second strand ∼20-fold faster (>>77<<,78).
n2:mentions
n3:18403371
Subject Item
_:vb4399322
rdf:type
n2:Context
rdf:value
To this point, once topoisomerase II cleaves the first strand, it is estimated that the enzyme cuts the second strand ∼20-fold faster (77,>>78<<).
n2:mentions
n3:18318502
Subject Item
_:vb4399323
rdf:type
n2:Context
rdf:value
The conversion of the terminal hydroxyl moiety to an oxyanion induces a nucleophilic attack on the phosphotyrosyl bond (>>11<<,23,26,27).
n2:mentions
n3:8811192
Subject Item
_:vb4399324
rdf:type
n2:Context
rdf:value
The conversion of the terminal hydroxyl moiety to an oxyanion induces a nucleophilic attack on the phosphotyrosyl bond (11,>>23<<,26,27). This action represents the reverse of the cleavage event and regenerates an intact DNA chain as well as the active site of topoisomerase II.
n2:mentions
n3:16246147
Subject Item
_:vb4399325
rdf:type
n2:Context
rdf:value
The conversion of the terminal hydroxyl moiety to an oxyanion induces a nucleophilic attack on the phosphotyrosyl bond (11,23,26,>>27<<). This action represents the reverse of the cleavage event and regenerates an intact DNA chain as well as the active site of topoisomerase II.
n2:mentions
n3:8538787
Subject Item
_:vb4399326
rdf:type
n5:Section
dc:title
topoisomerase ii as a cellular toxin
n5:contains
_:vb4399327 _:vb4399340 _:vb4399341 _:vb4399342 _:vb4399343 _:vb4399336 _:vb4399337 _:vb4399338 _:vb4399339 _:vb4399332 _:vb4399333 _:vb4399334 _:vb4399335 _:vb4399328 _:vb4399329 _:vb4399330 _:vb4399331
Subject Item
_:vb4399327
rdf:type
n2:Context
rdf:value
Proliferating cells cannot exist without type II topoisomerases (>>5<<,8,10). However, since these enzymes generate obligatory double-stranded DNA breaks as part of their reaction mechanism, they are intrinsically dangerous proteins.
n2:mentions
n3:10697411
Subject Item
_:vb4399328
rdf:type
n2:Context
rdf:value
Proliferating cells cannot exist without type II topoisomerases (5,>>8<<,10). However, since these enzymes generate obligatory double-stranded DNA breaks as part of their reaction mechanism, they are intrinsically dangerous proteins.
n2:mentions
n3:17681352
Subject Item
_:vb4399329
rdf:type
n2:Context
rdf:value
Proliferating cells cannot exist without type II topoisomerases (5,8,>>10<<). However, since these enzymes generate obligatory double-stranded DNA breaks as part of their reaction mechanism, they are intrinsically dangerous proteins.
n2:mentions
n3:12042765
Subject Item
_:vb4399330
rdf:type
n2:Context
rdf:value
Because of this dual persona, levels of cleavage complexes are maintained in a critical balance (>>5<<,8). When levels drop below threshold concentrations, daughter chromosomes remain entangled following replication. As a result, chromosomes cannot segregate properly during mitosis and cells die as a result of catastrophic mitotic failure
n2:mentions
n3:10697411
Subject Item
_:vb4399331
rdf:type
n2:Context
rdf:value
Because of this dual persona, levels of cleavage complexes are maintained in a critical balance (5,>>8<<). When levels drop below threshold concentrations, daughter chromosomes remain entangled following replication. As a result, chromosomes cannot segregate properly during mitosis and cells die as a result of catastrophic mitotic failure
n2:mentions
n3:17681352
Subject Item
_:vb4399332
rdf:type
n2:Context
rdf:value
intermediates are converted to permanent strand breaks when replication forks, transcription complexes or DNA tracking enzymes such as helicases attempt to traverse the covalently bound protein ‘roadblock’ in the genetic material (>>5<<,8,76,81). The resulting collision disrupts cleavage complexes and ultimately converts transient topoisomerase II-associated DNA breaks to permanent double-stranded breaks that are no longer tethered by proteinaceous bridges (5,8,76,81).
n2:mentions
n3:10697411
Subject Item
_:vb4399333
rdf:type
n2:Context
rdf:value
intermediates are converted to permanent strand breaks when replication forks, transcription complexes or DNA tracking enzymes such as helicases attempt to traverse the covalently bound protein ‘roadblock’ in the genetic material (5,>>8<<,76,81). The resulting collision disrupts cleavage complexes and ultimately converts transient topoisomerase II-associated DNA breaks to permanent double-stranded breaks that are no longer tethered by proteinaceous bridges (5,8,76,81).
n2:mentions
n3:17681352
Subject Item
_:vb4399334
rdf:type
n2:Context
rdf:value
are converted to permanent strand breaks when replication forks, transcription complexes or DNA tracking enzymes such as helicases attempt to traverse the covalently bound protein ‘roadblock’ in the genetic material (5,8,76,>>81<<). The resulting collision disrupts cleavage complexes and ultimately converts transient topoisomerase II-associated DNA breaks to permanent double-stranded breaks that are no longer tethered by proteinaceous bridges (5,8,76,81).
n2:mentions
n3:1698546
Subject Item
_:vb4399335
rdf:type
n2:Context
rdf:value
The resulting collision disrupts cleavage complexes and ultimately converts transient topoisomerase II-associated DNA breaks to permanent double-stranded breaks that are no longer tethered by proteinaceous bridges (>>5<<,8,76,81). The resulting damage and induction of recombination/repair pathways can trigger mutations, chromosomal translocations and other aberrations. When these permanent DNA breaks are present in sufficient numbers, they can overwhelm
n2:mentions
n3:10697411
Subject Item
_:vb4399336
rdf:type
n2:Context
rdf:value
The resulting collision disrupts cleavage complexes and ultimately converts transient topoisomerase II-associated DNA breaks to permanent double-stranded breaks that are no longer tethered by proteinaceous bridges (5,>>8<<,76,81). The resulting damage and induction of recombination/repair pathways can trigger mutations, chromosomal translocations and other aberrations. When these permanent DNA breaks are present in sufficient numbers, they can overwhelm the
n2:mentions
n3:17681352
Subject Item
_:vb4399337
rdf:type
n2:Context
rdf:value
The resulting collision disrupts cleavage complexes and ultimately converts transient topoisomerase II-associated DNA breaks to permanent double-stranded breaks that are no longer tethered by proteinaceous bridges (5,8,76,>>81<<). The resulting damage and induction of recombination/repair pathways can trigger mutations, chromosomal translocations and other aberrations. When these permanent DNA breaks are present in sufficient numbers, they can overwhelm the cell
n2:mentions
n3:1698546
Subject Item
_:vb4399338
rdf:type
n2:Context
rdf:value
When these permanent DNA breaks are present in sufficient numbers, they can overwhelm the cell and initiate death pathways in eukaryotes (>>4<<,5,7,8,13,76,81).
n2:mentions
n3:9748584
Subject Item
_:vb4399339
rdf:type
n2:Context
rdf:value
When these permanent DNA breaks are present in sufficient numbers, they can overwhelm the cell and initiate death pathways in eukaryotes (4,>>5<<,7,8,13,76,81).
n2:mentions
n3:10697411
Subject Item
_:vb4399340
rdf:type
n2:Context
rdf:value
When these permanent DNA breaks are present in sufficient numbers, they can overwhelm the cell and initiate death pathways in eukaryotes (4,5,>>7<<,8,13,76,81).
n2:mentions
n3:16857431
Subject Item
_:vb4399341
rdf:type
n2:Context
rdf:value
When these permanent DNA breaks are present in sufficient numbers, they can overwhelm the cell and initiate death pathways in eukaryotes (4,5,7,>>8<<,13,76,81).
n2:mentions
n3:17681352
Subject Item
_:vb4399342
rdf:type
n2:Context
rdf:value
When these permanent DNA breaks are present in sufficient numbers, they can overwhelm the cell and initiate death pathways in eukaryotes (4,5,7,8,>>13<<,76,81).
n2:mentions
n3:9748575
Subject Item
_:vb4399343
rdf:type
n2:Context
rdf:value
When these permanent DNA breaks are present in sufficient numbers, they can overwhelm the cell and initiate death pathways in eukaryotes (4,5,7,8,13,76,>>81<<).
n2:mentions
n3:1698546
Subject Item
_:vb4399344
rdf:type
n5:Section
dc:title
topoisomerase ii poisons
n5:contains
_:vb4399364 _:vb4399365 _:vb4399366 _:vb4399367 _:vb4399360 _:vb4399361 _:vb4399362 _:vb4399363 _:vb4399372 _:vb4399373 _:vb4399374 _:vb4399375 _:vb4399368 _:vb4399369 _:vb4399370 _:vb4399371 _:vb4399376 _:vb4399377 _:vb4399378 _:vb4399379 _:vb4399348 _:vb4399349 _:vb4399350 _:vb4399351 _:vb4399345 _:vb4399346 _:vb4399347 _:vb4399356 _:vb4399357 _:vb4399358 _:vb4399359 _:vb4399352 _:vb4399353 _:vb4399354 _:vb4399355
Subject Item
_:vb4399345
rdf:type
n2:Context
rdf:value
Chemicals in the first category decrease the overall activity of the enzyme and are known as catalytic inhibitors (>>5<<,8,76). Chemicals in the second category increase levels of topoisomerase II–DNA cleavage complexes. These latter compounds are said to ‘poison’ the type II enzyme and convert it to a cellular toxin that initiates the mutagenic and lethal
n2:mentions
n3:10697411
Subject Item
_:vb4399346
rdf:type
n2:Context
rdf:value
Chemicals in the first category decrease the overall activity of the enzyme and are known as catalytic inhibitors (5,>>8<<,76). Chemicals in the second category increase levels of topoisomerase II–DNA cleavage complexes. These latter compounds are said to ‘poison’ the type II enzyme and convert it to a cellular toxin that initiates the mutagenic and lethal
n2:mentions
n3:17681352
Subject Item
_:vb4399347
rdf:type
n2:Context
rdf:value
These latter compounds are said to ‘poison’ the type II enzyme and convert it to a cellular toxin that initiates the mutagenic and lethal consequences described above (>>5<<,8,76). Because of their actions, these compounds are referred to as ‘topoisomerase II poisons’ to distinguish them from inhibitors that do not affect enzyme-mediated DNA cleavage/ligation (5,8,76). Although some topoisomerase II poisons
n2:mentions
n3:10697411
Subject Item
_:vb4399348
rdf:type
n2:Context
rdf:value
These latter compounds are said to ‘poison’ the type II enzyme and convert it to a cellular toxin that initiates the mutagenic and lethal consequences described above (5,>>8<<,76). Because of their actions, these compounds are referred to as ‘topoisomerase II poisons’ to distinguish them from inhibitors that do not affect enzyme-mediated DNA cleavage/ligation (5,8,76). Although some topoisomerase II poisons
n2:mentions
n3:17681352
Subject Item
_:vb4399349
rdf:type
n2:Context
rdf:value
Because of their actions, these compounds are referred to as ‘topoisomerase II poisons’ to distinguish them from inhibitors that do not affect enzyme-mediated DNA cleavage/ligation (>>5<<,8,76). Although some topoisomerase II poisons also inhibit overall activity, the ‘gain of function’ induced by these compounds in the cell (i.e. increased levels of cleavage complexes) is a dominant phenotype (8,76).
n2:mentions
n3:10697411
Subject Item
_:vb4399350
rdf:type
n2:Context
rdf:value
Because of their actions, these compounds are referred to as ‘topoisomerase II poisons’ to distinguish them from inhibitors that do not affect enzyme-mediated DNA cleavage/ligation (5,>>8<<,76). Although some topoisomerase II poisons also inhibit overall activity, the ‘gain of function’ induced by these compounds in the cell (i.e. increased levels of cleavage complexes) is a dominant phenotype (8,76).
n2:mentions
n3:17681352
Subject Item
_:vb4399351
rdf:type
n2:Context
rdf:value
Although some topoisomerase II poisons also inhibit overall activity, the ‘gain of function’ induced by these compounds in the cell (i.e. increased levels of cleavage complexes) is a dominant phenotype (>>8<<,76).
n2:mentions
n3:17681352
Subject Item
_:vb4399352
rdf:type
n2:Context
rdf:value
Some compounds, such as the anticancer drug etoposide (see below), act by inhibiting the ability of the enzyme to ligate cleaved DNA molecules (>>5<<,8,76,78). Other poisons, such as abasic sites and other forms of DNA damage (see below) work primarily by enhancing the forward rate of scission (8,76,78). Because of the manner in which they act, abasic sites poison topoisomerase II
n2:mentions
n3:10697411
Subject Item
_:vb4399353
rdf:type
n2:Context
rdf:value
Some compounds, such as the anticancer drug etoposide (see below), act by inhibiting the ability of the enzyme to ligate cleaved DNA molecules (5,>>8<<,76,78). Other poisons, such as abasic sites and other forms of DNA damage (see below) work primarily by enhancing the forward rate of scission (8,76,78). Because of the manner in which they act, abasic sites poison topoisomerase II
n2:mentions
n3:17681352
Subject Item
_:vb4399354
rdf:type
n2:Context
rdf:value
Some compounds, such as the anticancer drug etoposide (see below), act by inhibiting the ability of the enzyme to ligate cleaved DNA molecules (5,8,76,>>78<<). Other poisons, such as abasic sites and other forms of DNA damage (see below) work primarily by enhancing the forward rate of scission (8,76,78). Because of the manner in which they act, abasic sites poison topoisomerase II without
n2:mentions
n3:18318502
Subject Item
_:vb4399355
rdf:type
n2:Context
rdf:value
Other poisons, such as abasic sites and other forms of DNA damage (see below) work primarily by enhancing the forward rate of scission (>>8<<,76,78). Because of the manner in which they act, abasic sites poison topoisomerase II without inhibiting overall catalytic activity.
n2:mentions
n3:17681352
Subject Item
_:vb4399356
rdf:type
n2:Context
rdf:value
Other poisons, such as abasic sites and other forms of DNA damage (see below) work primarily by enhancing the forward rate of scission (8,76,>>78<<). Because of the manner in which they act, abasic sites poison topoisomerase II without inhibiting overall catalytic activity.
n2:mentions
n3:18318502
Subject Item
_:vb4399357
rdf:type
n2:Context
rdf:value
Compounds in the first group are referred to as traditional, noncovalent, interfacial or redox-independent topoisomerase II poisons (>>8<<,46,76,82).
n2:mentions
n3:17681352
Subject Item
_:vb4399358
rdf:type
n2:Context
rdf:value
Compounds in the first group are referred to as traditional, noncovalent, interfacial or redox-independent topoisomerase II poisons (8,>>46<<,76,82). These chemicals form noncovalent interactions with topoisomerase II at the protein–DNA interface in the vicinity of the active site tyrosine (8,46,84–87). Because these compounds also interact with DNA within the ternary
n2:mentions
n3:12570766
Subject Item
_:vb4399359
rdf:type
n2:Context
rdf:value
Compounds in the first group are referred to as traditional, noncovalent, interfacial or redox-independent topoisomerase II poisons (8,46,76,>>82<<). These chemicals form noncovalent interactions with topoisomerase II at the protein–DNA interface in the vicinity of the active site tyrosine (8,46,84–87). Because these compounds also interact with DNA within the ternary
n2:mentions
n3:16101492
Subject Item
_:vb4399360
rdf:type
n2:Context
rdf:value
These chemicals form noncovalent interactions with topoisomerase II at the protein–DNA interface in the vicinity of the active site tyrosine (>>8<<,46,84–87).
n2:mentions
n3:17681352
Subject Item
_:vb4399361
rdf:type
n2:Context
rdf:value
These chemicals form noncovalent interactions with topoisomerase II at the protein–DNA interface in the vicinity of the active site tyrosine (8,>>46<<,84–87). Because these compounds also interact with DNA within the ternary enzyme–DNA–poison complex, they generally alter the DNA cleavage site specificity of the enzyme (88). Finally, their actions against topoisomerase II are not
n2:mentions
n3:12570766
Subject Item
_:vb4399362
rdf:type
n2:Context
rdf:value
These chemicals form noncovalent interactions with topoisomerase II at the protein–DNA interface in the vicinity of the active site tyrosine (8,46,84–>>87<<). Because these compounds also interact with DNA within the ternary enzyme–DNA–poison complex, they generally alter the DNA cleavage site specificity of the enzyme (88). Finally, their actions against topoisomerase II are not affected by
n2:mentions
n3:11264450 n3:11327821 n3:12094551 n3:10090731
Subject Item
_:vb4399363
rdf:type
n2:Context
rdf:value
Because these compounds also interact with DNA within the ternary enzyme–DNA–poison complex, they generally alter the DNA cleavage site specificity of the enzyme (>>88<<). Finally, their actions against topoisomerase II are not affected by reducing agents, such as dithiothreitol, and these compounds induce similar levels of enzyme-mediated DNA cleavage whether they are added to the binary topoisomerase
n2:mentions
n3:9582297
Subject Item
_:vb4399364
rdf:type
n2:Context
rdf:value
and these compounds induce similar levels of enzyme-mediated DNA cleavage whether they are added to the binary topoisomerase II–DNA complex or are incubated with the enzyme prior to the addition of nucleic acid substrates (>>8<<,82,83,89).
n2:mentions
n3:17681352
Subject Item
_:vb4399365
rdf:type
n2:Context
rdf:value
and these compounds induce similar levels of enzyme-mediated DNA cleavage whether they are added to the binary topoisomerase II–DNA complex or are incubated with the enzyme prior to the addition of nucleic acid substrates (8,>>82<<,83,89).
n2:mentions
n3:16101492
Subject Item
_:vb4399366
rdf:type
n2:Context
rdf:value
and these compounds induce similar levels of enzyme-mediated DNA cleavage whether they are added to the binary topoisomerase II–DNA complex or are incubated with the enzyme prior to the addition of nucleic acid substrates (8,82,>>83<<,89).
n2:mentions
n3:8910583
Subject Item
_:vb4399367
rdf:type
n2:Context
rdf:value
and these compounds induce similar levels of enzyme-mediated DNA cleavage whether they are added to the binary topoisomerase II–DNA complex or are incubated with the enzyme prior to the addition of nucleic acid substrates (8,82,83,>>89<<).
n2:mentions
n3:15182198
Subject Item
_:vb4399368
rdf:type
n2:Context
rdf:value
The redox-dependent poisons covalently adduct to the enzyme at amino acid residues outside of the active site (>>8<<,76,89–96) and generally enhance DNA cleavage at sites that are intrinsically cut by the enzyme (89,94).
n2:mentions
n3:17681352
Subject Item
_:vb4399369
rdf:type
n2:Context
rdf:value
The redox-dependent poisons covalently adduct to the enzyme at amino acid residues outside of the active site (8,76,89–>>96<<) and generally enhance DNA cleavage at sites that are intrinsically cut by the enzyme (89,94).
n2:mentions
n3:11258951 n3:17516663 n3:18293940 n3:17298034 n3:15035644 n3:16906772 n3:15833037 n3:15182198
Subject Item
_:vb4399370
rdf:type
n2:Context
rdf:value
The redox-dependent poisons covalently adduct to the enzyme at amino acid residues outside of the active site (8,76,89–96) and generally enhance DNA cleavage at sites that are intrinsically cut by the enzyme (>>89<<,94). Moreover, because these compounds require redox chemistry for activation, their ability to poison topoisomerase II is abrogated by reducing agents (89,91,94,97–99). Finally, compounds within this group enhance DNA cleavage when added
n2:mentions
n3:15182198
Subject Item
_:vb4399371
rdf:type
n2:Context
rdf:value
The redox-dependent poisons covalently adduct to the enzyme at amino acid residues outside of the active site (8,76,89–96) and generally enhance DNA cleavage at sites that are intrinsically cut by the enzyme (89,>>94<<). Moreover, because these compounds require redox chemistry for activation, their ability to poison topoisomerase II is abrogated by reducing agents (89,91,94,97–99). Finally, compounds within this group enhance DNA cleavage when added to
n2:mentions
n3:16906772
Subject Item
_:vb4399372
rdf:type
n2:Context
rdf:value
Moreover, because these compounds require redox chemistry for activation, their ability to poison topoisomerase II is abrogated by reducing agents (>>89<<,91,94,97–99).
n2:mentions
n3:15182198
Subject Item
_:vb4399373
rdf:type
n2:Context
rdf:value
Moreover, because these compounds require redox chemistry for activation, their ability to poison topoisomerase II is abrogated by reducing agents (89,>>91<<,94,97–99).
n2:mentions
n3:11258951
Subject Item
_:vb4399374
rdf:type
n2:Context
rdf:value
Moreover, because these compounds require redox chemistry for activation, their ability to poison topoisomerase II is abrogated by reducing agents (89,91,>>94<<,97–99). Finally, compounds within this group enhance DNA cleavage when added to the protein–DNA complex, but display the distinguishing feature of inhibiting topoisomerase II activity when incubated with the enzyme prior to the addition
n2:mentions
n3:16906772
Subject Item
_:vb4399375
rdf:type
n2:Context
rdf:value
Moreover, because these compounds require redox chemistry for activation, their ability to poison topoisomerase II is abrogated by reducing agents (89,91,94,97–>>99<<). Finally, compounds within this group enhance DNA cleavage when added to the protein–DNA complex, but display the distinguishing feature of inhibiting topoisomerase II activity when incubated with the enzyme prior to the addition of DNA
n2:mentions
n3:9044837 n3:9118913 n3:11468185
Subject Item
_:vb4399376
rdf:type
n2:Context
rdf:value
Finally, compounds within this group enhance DNA cleavage when added to the protein–DNA complex, but display the distinguishing feature of inhibiting topoisomerase II activity when incubated with the enzyme prior to the addition of DNA (>>89<<,91,94,97–99).
n2:mentions
n3:15182198
Subject Item
_:vb4399377
rdf:type
n2:Context
rdf:value
compounds within this group enhance DNA cleavage when added to the protein–DNA complex, but display the distinguishing feature of inhibiting topoisomerase II activity when incubated with the enzyme prior to the addition of DNA (89,>>91<<,94,97–99).
n2:mentions
n3:11258951
Subject Item
_:vb4399378
rdf:type
n2:Context
rdf:value
compounds within this group enhance DNA cleavage when added to the protein–DNA complex, but display the distinguishing feature of inhibiting topoisomerase II activity when incubated with the enzyme prior to the addition of DNA (89,91,>>94<<,97–99).
n2:mentions
n3:16906772
Subject Item
_:vb4399379
rdf:type
n2:Context
rdf:value
within this group enhance DNA cleavage when added to the protein–DNA complex, but display the distinguishing feature of inhibiting topoisomerase II activity when incubated with the enzyme prior to the addition of DNA (89,91,94,97–>>99<<).
n2:mentions
n3:9044837 n3:9118913 n3:11468185
Subject Item
_:vb4399380
rdf:type
n5:Section
dc:title
topoisomerase ii as a target for anticancer drugs
n5:contains
_:vb4399396 _:vb4399397 _:vb4399398 _:vb4399399 _:vb4399392 _:vb4399393 _:vb4399394 _:vb4399395 _:vb4399400 _:vb4399401 _:vb4399402 _:vb4399403 _:vb4399381 _:vb4399382 _:vb4399383 _:vb4399388 _:vb4399389 _:vb4399390 _:vb4399391 _:vb4399384 _:vb4399385 _:vb4399386 _:vb4399387
Subject Item
_:vb4399381
rdf:type
n2:Context
rdf:value
These drugs encompass a diverse group of natural and synthetic compounds that are commonly used to treat a variety of human malignancies (>>5<<,8,76,82,100,101).
n2:mentions
n3:10697411
Subject Item
_:vb4399382
rdf:type
n2:Context
rdf:value
These drugs encompass a diverse group of natural and synthetic compounds that are commonly used to treat a variety of human malignancies (5,>>8<<,76,82,100,101).
n2:mentions
n3:17681352
Subject Item
_:vb4399383
rdf:type
n2:Context
rdf:value
These drugs encompass a diverse group of natural and synthetic compounds that are commonly used to treat a variety of human malignancies (5,8,76,>>82<<,100,101). At the present time, six topoisomerase II-targeted anticancer agents are approved for use in the United States, and additional drugs are prescribed elsewhere in the world (101). These agents all act as traditional topoisomerase
n2:mentions
n3:16101492
Subject Item
_:vb4399384
rdf:type
n2:Context
rdf:value
These drugs encompass a diverse group of natural and synthetic compounds that are commonly used to treat a variety of human malignancies (5,8,76,82,>>100<<,101). At the present time, six topoisomerase II-targeted anticancer agents are approved for use in the United States, and additional drugs are prescribed elsewhere in the world (101). These agents all act as traditional topoisomerase II
n2:mentions
n3:16101488
Subject Item
_:vb4399385
rdf:type
n2:Context
rdf:value
These drugs encompass a diverse group of natural and synthetic compounds that are commonly used to treat a variety of human malignancies (5,8,76,82,100,>>101<<). At the present time, six topoisomerase II-targeted anticancer agents are approved for use in the United States, and additional drugs are prescribed elsewhere in the world (101). These agents all act as traditional topoisomerase II
n2:mentions
n3:16110609
Subject Item
_:vb4399386
rdf:type
n2:Context
rdf:value
At the present time, six topoisomerase II-targeted anticancer agents are approved for use in the United States, and additional drugs are prescribed elsewhere in the world (>>101<<). These agents all act as traditional topoisomerase II poisons and function primarily by inhibiting enzyme-mediated DNA ligation. Figure 5.
n2:mentions
n3:16110609
Subject Item
_:vb4399387
rdf:type
n2:Context
rdf:value
One of the first topoisomerase II-targeted agents to be discovered was etoposide, which is derived from podophyllotoxin (>>100<<,102). This natural product is found in Podophyllum peltatum, more commonly known as the mayapple or mandrake plant (100,102).
n2:mentions
n3:16101488
Subject Item
_:vb4399388
rdf:type
n2:Context
rdf:value
One of the first topoisomerase II-targeted agents to be discovered was etoposide, which is derived from podophyllotoxin (100,>>102<<). This natural product is found in Podophyllum peltatum, more commonly known as the mayapple or mandrake plant (100,102).
n2:mentions
n3:9893622
Subject Item
_:vb4399389
rdf:type
n2:Context
rdf:value
This natural product is found in Podophyllum peltatum, more commonly known as the mayapple or mandrake plant (>>100<<,102). Podophyllotoxin has been used as a folk remedy for over a 1000 years (100,102). The clinical use of this compound as an antineoplastic agent was prevented by high toxicity, but two synthetic analogs, etoposide and teniposide,
n2:mentions
n3:16101488
Subject Item
_:vb4399390
rdf:type
n2:Context
rdf:value
This natural product is found in Podophyllum peltatum, more commonly known as the mayapple or mandrake plant (100,>>102<<). Podophyllotoxin has been used as a folk remedy for over a 1000 years (100,102). The clinical use of this compound as an antineoplastic agent was prevented by high toxicity, but two synthetic analogs, etoposide and teniposide, displayed
n2:mentions
n3:9893622
Subject Item
_:vb4399391
rdf:type
n2:Context
rdf:value
Podophyllotoxin has been used as a folk remedy for over a 1000 years (>>100<<,102). The clinical use of this compound as an antineoplastic agent was prevented by high toxicity, but two synthetic analogs, etoposide and teniposide, displayed increased antineoplastic activity and decreased toxicity (100,102).
n2:mentions
n3:16101488
Subject Item
_:vb4399392
rdf:type
n2:Context
rdf:value
Podophyllotoxin has been used as a folk remedy for over a 1000 years (100,>>102<<). The clinical use of this compound as an antineoplastic agent was prevented by high toxicity, but two synthetic analogs, etoposide and teniposide, displayed increased antineoplastic activity and decreased toxicity (100,102).
n2:mentions
n3:9893622
Subject Item
_:vb4399393
rdf:type
n2:Context
rdf:value
The clinical use of this compound as an antineoplastic agent was prevented by high toxicity, but two synthetic analogs, etoposide and teniposide, displayed increased antineoplastic activity and decreased toxicity (>>100<<,102). Etoposide was approved for clinical use against cancer in the mid-1980s and for several years was the most widely prescribed anticancer drug in the world (100,102).
n2:mentions
n3:16101488
Subject Item
_:vb4399394
rdf:type
n2:Context
rdf:value
The clinical use of this compound as an antineoplastic agent was prevented by high toxicity, but two synthetic analogs, etoposide and teniposide, displayed increased antineoplastic activity and decreased toxicity (100,>>102<<). Etoposide was approved for clinical use against cancer in the mid-1980s and for several years was the most widely prescribed anticancer drug in the world (100,102).
n2:mentions
n3:9893622
Subject Item
_:vb4399395
rdf:type
n2:Context
rdf:value
Etoposide was approved for clinical use against cancer in the mid-1980s and for several years was the most widely prescribed anticancer drug in the world (>>100<<,102).
n2:mentions
n3:16101488
Subject Item
_:vb4399396
rdf:type
n2:Context
rdf:value
Etoposide was approved for clinical use against cancer in the mid-1980s and for several years was the most widely prescribed anticancer drug in the world (100,>>102<<).
n2:mentions
n3:9893622
Subject Item
_:vb4399397
rdf:type
n2:Context
rdf:value
Etoposide and other drugs such as doxorubicin (and its derivatives) are front-line therapy for a variety of systemic cancers and solid tumors, including leukemias, lymphomas, sarcomas and breast, lung and germline cancers (100–>>102<<). Mitoxantrone is used to treat breast cancer, and both it and amsacrine are used to treat relapsed acute myeloid leukemia (103,104).
n2:mentions
n3:16101488 n3:9893622 n3:16110609
Subject Item
_:vb4399398
rdf:type
n2:Context
rdf:value
Mitoxantrone is used to treat breast cancer, and both it and amsacrine are used to treat relapsed acute myeloid leukemia (>>103<<,104). Every form of cancer that is considered to be curable by chemotherapy utilizes treatment regimens that include topoisomerase II-targeted drugs (100–102,105). In addition to the use of mitoxantrone in anticancer regimens, it is used
n2:mentions
n3:18473961
Subject Item
_:vb4399399
rdf:type
n2:Context
rdf:value
Mitoxantrone is used to treat breast cancer, and both it and amsacrine are used to treat relapsed acute myeloid leukemia (103,>>104<<). Every form of cancer that is considered to be curable by chemotherapy utilizes treatment regimens that include topoisomerase II-targeted drugs (100–102,105). In addition to the use of mitoxantrone in anticancer regimens, it is used as a
n2:mentions
n3:18367336
Subject Item
_:vb4399400
rdf:type
n2:Context
rdf:value
Every form of cancer that is considered to be curable by chemotherapy utilizes treatment regimens that include topoisomerase II-targeted drugs (100–>>102<<,105). In addition to the use of mitoxantrone in anticancer regimens, it is used as a treatment for autoimmune diseases, such as multiple sclerosis (106).
n2:mentions
n3:16101488 n3:9893622 n3:16110609
Subject Item
_:vb4399401
rdf:type
n2:Context
rdf:value
Every form of cancer that is considered to be curable by chemotherapy utilizes treatment regimens that include topoisomerase II-targeted drugs (100–102,>>105<<). In addition to the use of mitoxantrone in anticancer regimens, it is used as a treatment for autoimmune diseases, such as multiple sclerosis (106).
n2:mentions
n3:9748545
Subject Item
_:vb4399402
rdf:type
n2:Context
rdf:value
In addition to the use of mitoxantrone in anticancer regimens, it is used as a treatment for autoimmune diseases, such as multiple sclerosis (>>106<<).
n2:mentions
n3:18317677
Subject Item
_:vb4399403
rdf:type
n2:Context
rdf:value
appreciably in quiescent cells, the actions of topoisomerase II-targeted agents against the β isoform in differentiated tissues, such as cardiac cells, most likely are responsible for much of the off-target toxicity of these drugs (107–>>109<<). Alternatively, since topoisomerase IIα and topoisomerase IIβ are involved in different cellular processes, it may be that cleavage complexes formed with one or the other isoform are more likely to be converted to permanent DNA strand
n2:mentions
n3:8394080 n3:16923961 n3:17578914
Subject Item
_:vb4399404
rdf:type
n5:Section
dc:title
dietary topoisomerase ii poisons
n5:contains
_:vb4399424 _:vb4399412 _:vb4399413 _:vb4399414 _:vb4399415 _:vb4399408 _:vb4399409 _:vb4399410 _:vb4399411 _:vb4399420 _:vb4399421 _:vb4399422 _:vb4399423 _:vb4399416 _:vb4399417 _:vb4399418 _:vb4399419 _:vb4399405 _:vb4399406 _:vb4399407
Subject Item
_:vb4399405
rdf:type
n2:Context
rdf:value
The most prominent natural products with activity against the mammalian type II enzymes are the bioflavonoids (i.e. phytoestrogens) (110–>>113<<). Bioflavonoids represent a broad group of polyphenolic compounds (including flavones, flavonols, isoflavones and catechins) that are components of many fruits, vegetables and plant leaves (114–117). These compounds affect human cells
n2:mentions
n3:10758153 n3:7769390 n3:11030085 n3:15223063
Subject Item
_:vb4399406
rdf:type
n2:Context
rdf:value
Bioflavonoids represent a broad group of polyphenolic compounds (including flavones, flavonols, isoflavones and catechins) that are components of many fruits, vegetables and plant leaves (114–>>117<<). These compounds affect human cells through a variety of pathways; they are strong antioxidants and efficient inhibitors of growth factor receptor tyrosine kinases (114–117). In addition, many bioflavonoids, especially genistein, are
n2:mentions
n3:16613577 n3:16425281 n3:7901532 n3:10837323
Subject Item
_:vb4399407
rdf:type
n2:Context
rdf:value
These compounds affect human cells through a variety of pathways; they are strong antioxidants and efficient inhibitors of growth factor receptor tyrosine kinases (114–>>117<<). In addition, many bioflavonoids, especially genistein, are potent topoisomerase II poisons (90,110–113,118–122). Figure 6.
n2:mentions
n3:16613577 n3:16425281 n3:7901532 n3:10837323
Subject Item
_:vb4399408
rdf:type
n2:Context
rdf:value
In addition, many bioflavonoids, especially genistein, are potent topoisomerase II poisons (>>90<<,110–113,118–122).
n2:mentions
n3:18293940
Subject Item
_:vb4399409
rdf:type
n2:Context
rdf:value
In addition, many bioflavonoids, especially genistein, are potent topoisomerase II poisons (90,110–>>113<<,118–122). Figure 6.
n2:mentions
n3:10758153 n3:7769390 n3:11030085 n3:15223063
Subject Item
_:vb4399410
rdf:type
n2:Context
rdf:value
In addition, many bioflavonoids, especially genistein, are potent topoisomerase II poisons (90,110–113,118–>>122<<). Figure 6.
n2:mentions
n3:2548712 n3:17458941 n3:7632161 n3:1313232 n3:18461976
Subject Item
_:vb4399411
rdf:type
n2:Context
rdf:value
Abbreviations used are epigallocatechin gallate (EGCG), N-acetyl-p-benzoquinone imine (NAPQI) and 2-(4-chloro-phenyl)-[>>1<<,4]benzoquinone (4′Cl-2,5pQ).
n2:mentions
n3:18626473
Subject Item
_:vb4399412
rdf:type
n2:Context
rdf:value
Abbreviations used are epigallocatechin gallate (EGCG), N-acetyl-p-benzoquinone imine (NAPQI) and 2-(4-chloro-phenyl)-[1,>>4<<]benzoquinone (4′Cl-2,5pQ).
n2:mentions
n3:9748584
Subject Item
_:vb4399413
rdf:type
n2:Context
rdf:value
Genistein, which is prominent in soy, is believed to be a chemopreventative agent in adults that contributes to the low incidence of breast and colorectal cancers in the Pacific Rim (Figure 6) (>>116<<,117). However, as discussed below, there also is evidence associating genistein consumption during pregnancy with the development of infant leukemias (111,123–126).
n2:mentions
n3:16425281
Subject Item
_:vb4399414
rdf:type
n2:Context
rdf:value
Genistein, which is prominent in soy, is believed to be a chemopreventative agent in adults that contributes to the low incidence of breast and colorectal cancers in the Pacific Rim (Figure 6) (116,>>117<<). However, as discussed below, there also is evidence associating genistein consumption during pregnancy with the development of infant leukemias (111,123–126).
n2:mentions
n3:16613577
Subject Item
_:vb4399415
rdf:type
n2:Context
rdf:value
However, as discussed below, there also is evidence associating genistein consumption during pregnancy with the development of infant leukemias (>>111<<,123–126). In addition, (–)-epigallocatechin gallate (EGCG), the most abundant and biologically active polyphenol in green tea, is a topoisomerase II poison (Figure 6) (90,116,121). Many of the therapeutic benefits of green tea have been
n2:mentions
n3:10758153
Subject Item
_:vb4399416
rdf:type
n2:Context
rdf:value
However, as discussed below, there also is evidence associating genistein consumption during pregnancy with the development of infant leukemias (111,123–>>126<<). In addition, (–)-epigallocatechin gallate (EGCG), the most abundant and biologically active polyphenol in green tea, is a topoisomerase II poison (Figure 6) (90,116,121). Many of the therapeutic benefits of green tea have been
n2:mentions
n3:10781030 n3:7966394 n3:8932918 n3:15767345
Subject Item
_:vb4399417
rdf:type
n2:Context
rdf:value
In addition, (–)-epigallocatechin gallate (EGCG), the most abundant and biologically active polyphenol in green tea, is a topoisomerase II poison (Figure 6) (>>90<<,116,121). Many of the therapeutic benefits of green tea have been attributed to this compound.
n2:mentions
n3:18293940
Subject Item
_:vb4399418
rdf:type
n2:Context
rdf:value
In addition, (–)-epigallocatechin gallate (EGCG), the most abundant and biologically active polyphenol in green tea, is a topoisomerase II poison (Figure 6) (90,>>116<<,121). Many of the therapeutic benefits of green tea have been attributed to this compound.
n2:mentions
n3:16425281
Subject Item
_:vb4399419
rdf:type
n2:Context
rdf:value
In addition, (–)-epigallocatechin gallate (EGCG), the most abundant and biologically active polyphenol in green tea, is a topoisomerase II poison (Figure 6) (90,116,>>121<<). Many of the therapeutic benefits of green tea have been attributed to this compound.
n2:mentions
n3:18461976
Subject Item
_:vb4399420
rdf:type
n2:Context
rdf:value
The ring structure of genistein is remarkably similar to that of quinolones (>>122<<). These latter compounds, which target the prokaryotic type II topoisomerases DNA gyrase and topoisomerase IV, represent the most active and broad-spectrum antibacterials currently in clinical use (127–129).
n2:mentions
n3:17458941
Subject Item
_:vb4399421
rdf:type
n2:Context
rdf:value
These latter compounds, which target the prokaryotic type II topoisomerases DNA gyrase and topoisomerase IV, represent the most active and broad-spectrum antibacterials currently in clinical use (127–>>129<<). Like the quinolones and the anticancer drugs discussed above, genistein increases levels of topoisomerase II–DNA cleavage complexes as a traditional topoisomerase II poison (122). In contrast, since many bioflavonoids undergo redox
n2:mentions
n3:12570763 n3:9748489 n3:11254893
Subject Item
_:vb4399422
rdf:type
n2:Context
rdf:value
Like the quinolones and the anticancer drugs discussed above, genistein increases levels of topoisomerase II–DNA cleavage complexes as a traditional topoisomerase II poison (>>122<<). In contrast, since many bioflavonoids undergo redox chemistry, several members of the class act as redox-dependent topoisomerase II points. EGCG and some related catechins poison topoisomerase II by this latter mechanism (90,121).
n2:mentions
n3:17458941
Subject Item
_:vb4399423
rdf:type
n2:Context
rdf:value
EGCG and some related catechins poison topoisomerase II by this latter mechanism (>>90<<,121).
n2:mentions
n3:18293940
Subject Item
_:vb4399424
rdf:type
n2:Context
rdf:value
EGCG and some related catechins poison topoisomerase II by this latter mechanism (90,>>121<<).
n2:mentions
n3:18461976
Subject Item
_:vb4399425
rdf:type
n5:Section
dc:title
environmental topoisomerase ii poisons
n5:contains
_:vb4399426 _:vb4399427 _:vb4399428 _:vb4399429 _:vb4399430 _:vb4399431 _:vb4399432 _:vb4399433 _:vb4399434 _:vb4399435 _:vb4399436 _:vb4399437 _:vb4399438 _:vb4399439 _:vb4399440 _:vb4399441 _:vb4399442 _:vb4399443 _:vb4399444 _:vb4399445
Subject Item
_:vb4399426
rdf:type
n2:Context
rdf:value
The toxic metabolites of some drugs and industrial chemicals are topoisomerase II poisons (Figure 6) (>>92<<,93,95,130,131). In all cases described to date, these chemicals include quinones (aromatic rings that feature ketone groups) as part of their structures (132–135).
n2:mentions
n3:17516663
Subject Item
_:vb4399427
rdf:type
n2:Context
rdf:value
The toxic metabolites of some drugs and industrial chemicals are topoisomerase II poisons (Figure 6) (92,>>93<<,95,130,131). In all cases described to date, these chemicals include quinones (aromatic rings that feature ketone groups) as part of their structures (132–135).
n2:mentions
n3:17298034
Subject Item
_:vb4399428
rdf:type
n2:Context
rdf:value
The toxic metabolites of some drugs and industrial chemicals are topoisomerase II poisons (Figure 6) (92,93,>>95<<,130,131). In all cases described to date, these chemicals include quinones (aromatic rings that feature ketone groups) as part of their structures (132–135).
n2:mentions
n3:15833037
Subject Item
_:vb4399429
rdf:type
n2:Context
rdf:value
The toxic metabolites of some drugs and industrial chemicals are topoisomerase II poisons (Figure 6) (92,93,95,>>130<<,131). In all cases described to date, these chemicals include quinones (aromatic rings that feature ketone groups) as part of their structures (132–135).
n2:mentions
n3:11086940
Subject Item
_:vb4399430
rdf:type
n2:Context
rdf:value
The toxic metabolites of some drugs and industrial chemicals are topoisomerase II poisons (Figure 6) (92,93,95,130,>>131<<). In all cases described to date, these chemicals include quinones (aromatic rings that feature ketone groups) as part of their structures (132–135).
n2:mentions
n3:15935817
Subject Item
_:vb4399431
rdf:type
n2:Context
rdf:value
In all cases described to date, these chemicals include quinones (aromatic rings that feature ketone groups) as part of their structures (132–>>135<<). Quinones commonly are produced in the body as a result of detoxification or metabolism pathways (132–135). These compounds are highly reactive and often damage cells by generating oxidative radicals and by covalently modifying proteins
n2:mentions
n3:8735467 n3:10220568 n3:11405442 n3:11888901
Subject Item
_:vb4399432
rdf:type
n2:Context
rdf:value
Quinones commonly are produced in the body as a result of detoxification or metabolism pathways (132–>>135<<). These compounds are highly reactive and often damage cells by generating oxidative radicals and by covalently modifying proteins and (to a lesser extent) nucleic acids (132–135).
n2:mentions
n3:8735467 n3:10220568 n3:11405442 n3:11888901
Subject Item
_:vb4399433
rdf:type
n2:Context
rdf:value
These compounds are highly reactive and often damage cells by generating oxidative radicals and by covalently modifying proteins and (to a lesser extent) nucleic acids (132–>>135<<).
n2:mentions
n3:8735467 n3:10220568 n3:11405442 n3:11888901
Subject Item
_:vb4399434
rdf:type
n2:Context
rdf:value
acetaminophen is the most widely utilized analgesic in the world, the second most prevalent cause of toxic drug admissions to emergency departments in the United States is overdosage (both accidental and intentional) of this drug (>>136<<). The toxic metabolite of acetaminophen, N-acetyl p-benzoquinone imine (NAPQI), is a potent topoisomerase II poison that produces liver failure (96).
n2:mentions
n3:11319582
Subject Item
_:vb4399435
rdf:type
n2:Context
rdf:value
The toxic metabolite of acetaminophen, N-acetyl p-benzoquinone imine (NAPQI), is a potent topoisomerase II poison that produces liver failure (>>96<<). Benzene is an industrial solvent that is associated with the development of human leukemias (130,132–135). One of the most prevalent metabolites of benzene, 1,4-benzoquinone, is a highly reactive topoisomerase II poison
n2:mentions
n3:15035644
Subject Item
_:vb4399436
rdf:type
n2:Context
rdf:value
Benzene is an industrial solvent that is associated with the development of human leukemias (>>130<<,132–135). One of the most prevalent metabolites of benzene, 1,4-benzoquinone, is a highly reactive topoisomerase II poison (92,93,95,130,131). Finally, polychlorinated biphenyls (PCBs), which have multiple industrial uses, have been
n2:mentions
n3:11086940
Subject Item
_:vb4399437
rdf:type
n2:Context
rdf:value
Benzene is an industrial solvent that is associated with the development of human leukemias (130,132–>>135<<). One of the most prevalent metabolites of benzene, 1,4-benzoquinone, is a highly reactive topoisomerase II poison (92,93,95,130,131). Finally, polychlorinated biphenyls (PCBs), which have multiple industrial uses, have been linked to a
n2:mentions
n3:8735467 n3:10220568 n3:11405442 n3:11888901
Subject Item
_:vb4399438
rdf:type
n2:Context
rdf:value
One of the most prevalent metabolites of benzene, 1,4-benzoquinone, is a highly reactive topoisomerase II poison (>>92<<,93,95,130,131).
n2:mentions
n3:17516663
Subject Item
_:vb4399439
rdf:type
n2:Context
rdf:value
One of the most prevalent metabolites of benzene, 1,4-benzoquinone, is a highly reactive topoisomerase II poison (92,>>93<<,95,130,131).
n2:mentions
n3:17298034
Subject Item
_:vb4399440
rdf:type
n2:Context
rdf:value
One of the most prevalent metabolites of benzene, 1,4-benzoquinone, is a highly reactive topoisomerase II poison (92,93,>>95<<,130,131). Finally, polychlorinated biphenyls (PCBs), which have multiple industrial uses, have been linked to a variety of human health issues (94). The quinone metabolites of these compounds display activity against human type II
n2:mentions
n3:15833037
Subject Item
_:vb4399441
rdf:type
n2:Context
rdf:value
One of the most prevalent metabolites of benzene, 1,4-benzoquinone, is a highly reactive topoisomerase II poison (92,93,95,>>130<<,131). Finally, polychlorinated biphenyls (PCBs), which have multiple industrial uses, have been linked to a variety of human health issues (94). The quinone metabolites of these compounds display activity against human type II
n2:mentions
n3:11086940
Subject Item
_:vb4399442
rdf:type
n2:Context
rdf:value
One of the most prevalent metabolites of benzene, 1,4-benzoquinone, is a highly reactive topoisomerase II poison (92,93,95,130,>>131<<). Finally, polychlorinated biphenyls (PCBs), which have multiple industrial uses, have been linked to a variety of human health issues (94). The quinone metabolites of these compounds display activity against human type II topoisomerases.
n2:mentions
n3:15935817
Subject Item
_:vb4399443
rdf:type
n2:Context
rdf:value
Finally, polychlorinated biphenyls (PCBs), which have multiple industrial uses, have been linked to a variety of human health issues (>>94<<). The quinone metabolites of these compounds display activity against human type II topoisomerases. Consistent with their highly active redox chemistry, all quinone-based topoisomerase II poisons act in a redox-dependent manner that
n2:mentions
n3:16906772
Subject Item
_:vb4399444
rdf:type
n2:Context
rdf:value
Consistent with their highly active redox chemistry, all quinone-based topoisomerase II poisons act in a redox-dependent manner that involves covalent attachment to the enzyme (91–>>93<<,97).
n2:mentions
n3:17516663 n3:17298034 n3:11258951
Subject Item
_:vb4399445
rdf:type
n2:Context
rdf:value
Consistent with their highly active redox chemistry, all quinone-based topoisomerase II poisons act in a redox-dependent manner that involves covalent attachment to the enzyme (91–93,>>97<<).
n2:mentions
n3:9044837
Subject Item
_:vb4399446
rdf:type
n5:Section
dc:title
dna damage as topoisomerase ii poisons
n5:contains
_:vb4399460 _:vb4399461 _:vb4399462 _:vb4399456 _:vb4399457 _:vb4399458 _:vb4399459 _:vb4399452 _:vb4399453 _:vb4399454 _:vb4399455 _:vb4399448 _:vb4399449 _:vb4399450 _:vb4399451 _:vb4399447
Subject Item
_:vb4399447
rdf:type
n2:Context
rdf:value
Several forms of nucleic acid damage enhance topoisomerase II-mediated DNA cleavage (Figure 6) (>>69<<,78,137–144). The type II enzymes are particularly sensitive to abasic sites, alkylated bases that contain exocyclic rings, and other lesions that distort the double helix.
n2:mentions
n3:15751973
Subject Item
_:vb4399448
rdf:type
n2:Context
rdf:value
Several forms of nucleic acid damage enhance topoisomerase II-mediated DNA cleavage (Figure 6) (69,>>78<<,137–144). The type II enzymes are particularly sensitive to abasic sites, alkylated bases that contain exocyclic rings, and other lesions that distort the double helix.
n2:mentions
n3:18318502
Subject Item
_:vb4399449
rdf:type
n2:Context
rdf:value
Several forms of nucleic acid damage enhance topoisomerase II-mediated DNA cleavage (Figure 6) (69,78,137–>>144<<). The type II enzymes are particularly sensitive to abasic sites, alkylated bases that contain exocyclic rings, and other lesions that distort the double helix.
n2:mentions
n3:10514448 n3:10756196 n3:14523238 n3:9748592 n3:9054451 n3:9166762 n3:10569932 n3:8995415
Subject Item
_:vb4399450
rdf:type
n2:Context
rdf:value
DNA damage increases cleavage at naturally occurring sites of topoisomerase II action (>>69<<,78,137–144). In order to enhance cleavage, lesions must be located within the four-base stagger that separates the two scissile bonds (69,78,137–144).
n2:mentions
n3:15751973
Subject Item
_:vb4399451
rdf:type
n2:Context
rdf:value
DNA damage increases cleavage at naturally occurring sites of topoisomerase II action (69,>>78<<,137–144). In order to enhance cleavage, lesions must be located within the four-base stagger that separates the two scissile bonds (69,78,137–144).
n2:mentions
n3:18318502
Subject Item
_:vb4399452
rdf:type
n2:Context
rdf:value
DNA damage increases cleavage at naturally occurring sites of topoisomerase II action (69,78,137–>>144<<). In order to enhance cleavage, lesions must be located within the four-base stagger that separates the two scissile bonds (69,78,137–144).
n2:mentions
n3:10514448 n3:10756196 n3:14523238 n3:9748592 n3:9054451 n3:9166762 n3:10569932 n3:8995415
Subject Item
_:vb4399453
rdf:type
n2:Context
rdf:value
In order to enhance cleavage, lesions must be located within the four-base stagger that separates the two scissile bonds (>>69<<,78,137–144).
n2:mentions
n3:15751973
Subject Item
_:vb4399454
rdf:type
n2:Context
rdf:value
In order to enhance cleavage, lesions must be located within the four-base stagger that separates the two scissile bonds (69,>>78<<,137–144). Unlike the traditional and redox-dependent topoisomerase II poisons discussed above, DNA damage has no obvious effect on rates of topoisomerase II-mediated ligation and appears to act primarily by enhancing the forward rate of
n2:mentions
n3:18318502
Subject Item
_:vb4399455
rdf:type
n2:Context
rdf:value
In order to enhance cleavage, lesions must be located within the four-base stagger that separates the two scissile bonds (69,78,137–>>144<<). Unlike the traditional and redox-dependent topoisomerase II poisons discussed above, DNA damage has no obvious effect on rates of topoisomerase II-mediated ligation and appears to act primarily by enhancing the forward rate of scission
n2:mentions
n3:10514448 n3:10756196 n3:14523238 n3:9748592 n3:9054451 n3:9166762 n3:10569932 n3:8995415
Subject Item
_:vb4399456
rdf:type
n2:Context
rdf:value
Unlike the traditional and redox-dependent topoisomerase II poisons discussed above, DNA damage has no obvious effect on rates of topoisomerase II-mediated ligation and appears to act primarily by enhancing the forward rate of scission (>>69<<,78,137–144).
n2:mentions
n3:15751973
Subject Item
_:vb4399457
rdf:type
n2:Context
rdf:value
the traditional and redox-dependent topoisomerase II poisons discussed above, DNA damage has no obvious effect on rates of topoisomerase II-mediated ligation and appears to act primarily by enhancing the forward rate of scission (69,>>78<<,137–144).
n2:mentions
n3:18318502
Subject Item
_:vb4399458
rdf:type
n2:Context
rdf:value
traditional and redox-dependent topoisomerase II poisons discussed above, DNA damage has no obvious effect on rates of topoisomerase II-mediated ligation and appears to act primarily by enhancing the forward rate of scission (69,78,137–>>144<<).
n2:mentions
n3:10514448 n3:10756196 n3:14523238 n3:9054451 n3:9748592 n3:9166762 n3:10569932 n3:8995415
Subject Item
_:vb4399459
rdf:type
n2:Context
rdf:value
However, human topoisomerase IIα and topoisomerase IIβ both appear to play roles in fragmenting genomic DNA and releasing chromosomal loops during apoptosis (>>145<<,146). It has been suggested that the apoptotic activities of topoisomerase II are enhanced (or perhaps triggered) by DNA lesions that are generated following the release of oxidative radicals from permeable mitochondria in apoptotic cells
n2:mentions
n3:11940566
Subject Item
_:vb4399460
rdf:type
n2:Context
rdf:value
However, human topoisomerase IIα and topoisomerase IIβ both appear to play roles in fragmenting genomic DNA and releasing chromosomal loops during apoptosis (145,>>146<<). It has been suggested that the apoptotic activities of topoisomerase II are enhanced (or perhaps triggered) by DNA lesions that are generated following the release of oxidative radicals from permeable mitochondria in apoptotic cells
n2:mentions
n3:16304768
Subject Item
_:vb4399461
rdf:type
n2:Context
rdf:value
It has been suggested that the apoptotic activities of topoisomerase II are enhanced (or perhaps triggered) by DNA lesions that are generated following the release of oxidative radicals from permeable mitochondria in apoptotic cells (>>145<<,146).
n2:mentions
n3:11940566
Subject Item
_:vb4399462
rdf:type
n2:Context
rdf:value
has been suggested that the apoptotic activities of topoisomerase II are enhanced (or perhaps triggered) by DNA lesions that are generated following the release of oxidative radicals from permeable mitochondria in apoptotic cells (145,>>146<<).
n2:mentions
n3:16304768
Subject Item
_:vb4399463
rdf:type
n5:Section
dc:title
topoisomerase ii and leukemia
n5:contains
_:vb4399480 _:vb4399481 _:vb4399482 _:vb4399483 _:vb4399484 _:vb4399485 _:vb4399486 _:vb4399487 _:vb4399472 _:vb4399473 _:vb4399474 _:vb4399475 _:vb4399476 _:vb4399477 _:vb4399478 _:vb4399479 _:vb4399464 _:vb4399465 _:vb4399466 _:vb4399467 _:vb4399468 _:vb4399469 _:vb4399470 _:vb4399471 _:vb4399488 _:vb4399489 _:vb4399490 _:vb4399491
Subject Item
_:vb4399464
rdf:type
n2:Context
rdf:value
Despite the importance of topoisomerase II in cancer chemotherapy, evidence suggests that DNA cleavage mediated by the enzyme can trigger chromosomal translocations that lead to specific types of leukemia (Figure 4) (5–>>8<<,76,147,148). To this point, 2–3% of patients who receive regimens that include etoposide or other topoisomerase II-targeted drugs eventually develop acute myeloid leukemias (AMLs).
n2:mentions
n3:10697411 n3:16857431 n3:17681352 n3:11340607
Subject Item
_:vb4399465
rdf:type
n2:Context
rdf:value
Despite the importance of topoisomerase II in cancer chemotherapy, evidence suggests that DNA cleavage mediated by the enzyme can trigger chromosomal translocations that lead to specific types of leukemia (Figure 4) (5–8,76,>>147<<,148). To this point, 2–3% of patients who receive regimens that include etoposide or other topoisomerase II-targeted drugs eventually develop acute myeloid leukemias (AMLs).
n2:mentions
n3:7756657
Subject Item
_:vb4399466
rdf:type
n2:Context
rdf:value
Despite the importance of topoisomerase II in cancer chemotherapy, evidence suggests that DNA cleavage mediated by the enzyme can trigger chromosomal translocations that lead to specific types of leukemia (Figure 4) (5–8,76,147,>>148<<). To this point, 2–3% of patients who receive regimens that include etoposide or other topoisomerase II-targeted drugs eventually develop acute myeloid leukemias (AMLs).
n2:mentions
n3:9748598
Subject Item
_:vb4399467
rdf:type
n2:Context
rdf:value
Most of these leukemias are accompanied by translocations with breakpoints in the MLL (mixed lineage leukemia) gene at chromosomal band 11q23 (>>6<<,7,76). The MLL protein is a histone methyltransferase that regulates the Hox genes, which control proliferation in hematopoietic cells (6,7,76). Several breakpoints in MLL have been identified and are located in close proximity to
n2:mentions
n3:11340607
Subject Item
_:vb4399468
rdf:type
n2:Context
rdf:value
Most of these leukemias are accompanied by translocations with breakpoints in the MLL (mixed lineage leukemia) gene at chromosomal band 11q23 (6,>>7<<,76). The MLL protein is a histone methyltransferase that regulates the Hox genes, which control proliferation in hematopoietic cells (6,7,76). Several breakpoints in MLL have been identified and are located in close proximity to
n2:mentions
n3:16857431
Subject Item
_:vb4399469
rdf:type
n2:Context
rdf:value
The MLL protein is a histone methyltransferase that regulates the Hox genes, which control proliferation in hematopoietic cells (>>6<<,7,76). Several breakpoints in MLL have been identified and are located in close proximity to topoisomerase II–DNA cleavage sites (6,7,76).
n2:mentions
n3:11340607
Subject Item
_:vb4399470
rdf:type
n2:Context
rdf:value
The MLL protein is a histone methyltransferase that regulates the Hox genes, which control proliferation in hematopoietic cells (6,>>7<<,76). Several breakpoints in MLL have been identified and are located in close proximity to topoisomerase II–DNA cleavage sites (6,7,76).
n2:mentions
n3:16857431
Subject Item
_:vb4399471
rdf:type
n2:Context
rdf:value
Several breakpoints in MLL have been identified and are located in close proximity to topoisomerase II–DNA cleavage sites (>>6<<,7,76).
n2:mentions
n3:11340607
Subject Item
_:vb4399472
rdf:type
n2:Context
rdf:value
Several breakpoints in MLL have been identified and are located in close proximity to topoisomerase II–DNA cleavage sites (6,>>7<<,76).
n2:mentions
n3:16857431
Subject Item
_:vb4399473
rdf:type
n2:Context
rdf:value
Patients with these leukemias display translocations between the PML (promyelocytic leukemia) gene on chromosome 15 and the RARA (retinoic acid receptor α) gene on chromosome 17 (>>149<<,150).
n2:mentions
n3:18650449
Subject Item
_:vb4399474
rdf:type
n2:Context
rdf:value
Patients with these leukemias display translocations between the PML (promyelocytic leukemia) gene on chromosome 15 and the RARA (retinoic acid receptor α) gene on chromosome 17 (149,>>150<<).
n2:mentions
n3:15829534
Subject Item
_:vb4399475
rdf:type
n2:Context
rdf:value
In addition to treatment-related leukmias, ∼80% of infants with AML or acute lymphoblastic leukemia (ALL) display translocations that involve the MLL gene (>>6<<,7,111,123–125,147,148,151). The chromosomal translocations associated with these cancers have been observed in utero, indicating that infant leukemias are initiated during pregnancy.
n2:mentions
n3:11340607
Subject Item
_:vb4399476
rdf:type
n2:Context
rdf:value
In addition to treatment-related leukmias, ∼80% of infants with AML or acute lymphoblastic leukemia (ALL) display translocations that involve the MLL gene (6,>>7<<,111,123–125,147,148,151). The chromosomal translocations associated with these cancers have been observed in utero, indicating that infant leukemias are initiated during pregnancy.
n2:mentions
n3:16857431
Subject Item
_:vb4399477
rdf:type
n2:Context
rdf:value
In addition to treatment-related leukmias, ∼80% of infants with AML or acute lymphoblastic leukemia (ALL) display translocations that involve the MLL gene (6,7,>>111<<,123–125,147,148,151). The chromosomal translocations associated with these cancers have been observed in utero, indicating that infant leukemias are initiated during pregnancy.
n2:mentions
n3:10758153
Subject Item
_:vb4399478
rdf:type
n2:Context
rdf:value
In addition to treatment-related leukmias, ∼80% of infants with AML or acute lymphoblastic leukemia (ALL) display translocations that involve the MLL gene (6,7,111,123–>>125<<,147,148,151). The chromosomal translocations associated with these cancers have been observed in utero, indicating that infant leukemias are initiated during pregnancy.
n2:mentions
n3:10781030 n3:7966394 n3:8932918
Subject Item
_:vb4399479
rdf:type
n2:Context
rdf:value
In addition to treatment-related leukmias, ∼80% of infants with AML or acute lymphoblastic leukemia (ALL) display translocations that involve the MLL gene (6,7,111,123–125,>>147<<,148,151). The chromosomal translocations associated with these cancers have been observed in utero, indicating that infant leukemias are initiated during pregnancy.
n2:mentions
n3:7756657
Subject Item
_:vb4399480
rdf:type
n2:Context
rdf:value
In addition to treatment-related leukmias, ∼80% of infants with AML or acute lymphoblastic leukemia (ALL) display translocations that involve the MLL gene (6,7,111,123–125,147,>>148<<,151). The chromosomal translocations associated with these cancers have been observed in utero, indicating that infant leukemias are initiated during pregnancy.
n2:mentions
n3:9748598
Subject Item
_:vb4399481
rdf:type
n2:Context
rdf:value
studies indicate that the risk of developing these infant leukemias is increased >3-fold by the maternal consumption of foods that are high in naturally occurring topoisomerase II poisons such as genistein or other bioflavonoids (>>111<<,123–126).
n2:mentions
n3:10758153
Subject Item
_:vb4399482
rdf:type
n2:Context
rdf:value
indicate that the risk of developing these infant leukemias is increased >3-fold by the maternal consumption of foods that are high in naturally occurring topoisomerase II poisons such as genistein or other bioflavonoids (111,123–>>126<<).
n2:mentions
n3:15767345 n3:10781030 n3:7966394 n3:8932918
Subject Item
_:vb4399483
rdf:type
n2:Context
rdf:value
If the concentration of enzyme-associated DNA breaks is sufficient, DNA recombination/repair pathways can be overwhelmed and cells will die (>>5<<,8,76). However, if the levels of breaks are not adequate to induce death, pathways that promote cell survival can lead to the formation of stable chromosomal translocations that ultimately lead to cancerous growth (Figure 4) (5,8,76).
n2:mentions
n3:10697411
Subject Item
_:vb4399484
rdf:type
n2:Context
rdf:value
If the concentration of enzyme-associated DNA breaks is sufficient, DNA recombination/repair pathways can be overwhelmed and cells will die (5,>>8<<,76). However, if the levels of breaks are not adequate to induce death, pathways that promote cell survival can lead to the formation of stable chromosomal translocations that ultimately lead to cancerous growth (Figure 4) (5,8,76).
n2:mentions
n3:17681352
Subject Item
_:vb4399485
rdf:type
n2:Context
rdf:value
However, if the levels of breaks are not adequate to induce death, pathways that promote cell survival can lead to the formation of stable chromosomal translocations that ultimately lead to cancerous growth (Figure 4) (>>5<<,8,76).
n2:mentions
n3:10697411
Subject Item
_:vb4399486
rdf:type
n2:Context
rdf:value
However, if the levels of breaks are not adequate to induce death, pathways that promote cell survival can lead to the formation of stable chromosomal translocations that ultimately lead to cancerous growth (Figure 4) (5,>>8<<,76).
n2:mentions
n3:17681352
Subject Item
_:vb4399487
rdf:type
n2:Context
rdf:value
However, evidence suggests that (with at least some drugs) topoisomerase IIα plays a more important role in cytotoxicity (>>107<<,152), while topoisomerase IIβ may play a greater role in triggering drug-induced cancers (107).
n2:mentions
n3:17578914
Subject Item
_:vb4399488
rdf:type
n2:Context
rdf:value
However, evidence suggests that (with at least some drugs) topoisomerase IIα plays a more important role in cytotoxicity (107,>>152<<), while topoisomerase IIβ may play a greater role in triggering drug-induced cancers (107).
n2:mentions
n3:10570059
Subject Item
_:vb4399489
rdf:type
n2:Context
rdf:value
However, evidence suggests that (with at least some drugs) topoisomerase IIα plays a more important role in cytotoxicity (107,152), while topoisomerase IIβ may play a greater role in triggering drug-induced cancers (>>107<<). Although no isoform-specific topoisomerase II-targeted drugs are available at the present time, it may be possible to preferentially target topoisomerase IIα by scheduling. In this regard, topoisomerase IIα–DNA cleavage complexes
n2:mentions
n3:17578914
Subject Item
_:vb4399490
rdf:type
n2:Context
rdf:value
In this regard, topoisomerase IIα–DNA cleavage complexes induced by etoposide persist approximately three to four times longer than those formed with topoisomerase IIβ (153,>>154<<). Therefore, it has been suggested that the use of pulsed chemotherapeutic regimens, in which patients receive cycles of drug treatment followed by recovery, may maintain higher levels of topoisomerase IIα as compared to topoisomerase IIβ
n2:mentions
n3:18922022
Subject Item
_:vb4399491
rdf:type
n2:Context
rdf:value
pulsed chemotherapeutic regimens, in which patients receive cycles of drug treatment followed by recovery, may maintain higher levels of topoisomerase IIα as compared to topoisomerase IIβ cleavage complexes over the course of therapy (>>154<<).
n2:mentions
n3:18922022
Subject Item
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n2:RelevantBibliographicResource
n2:RelevantScore
37
n2:hasRelevantPaperId
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26
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25
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n3:19377505
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22
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n3:11395412
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22
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n3:12042765
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18
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n3:23259582
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n2:RelevantBibliographicResource
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16
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n3:21778401
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n2:RelevantBibliographicResource
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13
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n3:22108601
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n2:RelevantBibliographicResource
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13
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n3:27649880
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13
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n3:16794079
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n2:RelevantBibliographicResource
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12
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n3:17578914
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12
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12
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n3:19794497
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11
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n3:9651360
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n2:RelevantBibliographicResource
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11
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n3:23104132
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10
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n3:20802486
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10
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n3:23505375
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10
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n3:20601956
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10
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n3:20485342
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10
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n3:18755053
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9
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n3:24495080
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9
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9
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n3:26052046
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9
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9
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n3:22841979
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9
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n3:23495937
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9
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n3:8538787
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9
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9
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9
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8
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