Topoisomerase II as a target for anticancer drugs: When enzymes stop being nice

Topoisomerase 11 is an essential enzyme that plays a role in virtually every cellular DNA process. This enzyme interconverts different topological forms of DNA by passing one nucleic acid segment through a transient double-stranded break generated in a second segment. By virtue of its double-strande...

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Published inProgress in Nucleic Acid Research and Molecular Biology Vol. 64; pp. 221 - 253
Main Authors Fortune, John M., Osheroff, Neil
Format Book Chapter Journal Article
LanguageEnglish
Published United States Elsevier Science & Technology 2000
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Online AccessGet full text
ISBN9780125400640
0125400640
ISSN0079-6603
DOI10.1016/S0079-6603(00)64006-0

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Abstract Topoisomerase 11 is an essential enzyme that plays a role in virtually every cellular DNA process. This enzyme interconverts different topological forms of DNA by passing one nucleic acid segment through a transient double-stranded break generated in a second segment. By virtue of its double-stranded DNA passage reaction, topoisomerase 11 is able to regulate DNA over- and underwinding, and can resolve knots and tangles in the genetic material. Beyond the critical physiological functions of the eukaryotic enzyme, topoisomerase 11 is the target for some of the most successful anticancer drugs used to treat human malignancies. These agents are referred to as topoisomerase 11 poisons, because they transform the enzyme into a potent cellular toxin. Topoisomerase 11 poisons act by increasing the concentration of covalent enzyme-cleaved DNA complexes that normally are fleeting intermediates in the catalytic cycle of topoisomerase 11. As a result of their action, these drugs generate high levels of enzyme-mediated breaks in the genetic material of treated cells and ultimately trigger cell death pathways. Topoisomerase 11 is also the target for a second category of drugs referred to as catalytic inhibitors. Compounds in this category prevent topoisomerase II from carrying out its required physiological functions. Drugs from both categories vary widely in their mechanisms of actions. This review focuses on topoisomerase 11 function and how drugs alter the catalytic cycle of this important enzyme.
AbstractList Topoisomerase 11 is an essential enzyme that plays a role in virtually every cellular DNA process. This enzyme interconverts different topological forms of DNA by passing one nucleic acid segment through a transient double-stranded break generated in a second segment. By virtue of its double-stranded DNA passage reaction, topoisomerase 11 is able to regulate DNA over- and underwinding, and can resolve knots and tangles in the genetic material. Beyond the critical physiological functions of the eukaryotic enzyme, topoisomerase 11 is the target for some of the most successful anticancer drugs used to treat human malignancies. These agents are referred to as topoisomerase 11 poisons, because they transform the enzyme into a potent cellular toxin. Topoisomerase 11 poisons act by increasing the concentration of covalent enzyme-cleaved DNA complexes that normally are fleeting intermediates in the catalytic cycle of topoisomerase 11. As a result of their action, these drugs generate high levels of enzyme-mediated breaks in the genetic material of treated cells and ultimately trigger cell death pathways. Topoisomerase 11 is also the target for a second category of drugs referred to as catalytic inhibitors. Compounds in this category prevent topoisomerase II from carrying out its required physiological functions. Drugs from both categories vary widely in their mechanisms of actions. This review focuses on topoisomerase 11 function and how drugs alter the catalytic cycle of this important enzyme.
Topoisomerase II is an essential enzyme that plays a role in virtually every cellular DNA process. This enzyme interconverts different topological forms of DNA by passing one nucleic acid segment through a transient double-stranded break generated in a second segment. By virtue of its double-stranded DNA passage reaction, topoisomerase II is able to regulate DNA over- and underwinding, and can resolve knots and tangles in the genetic material. Beyond the critical physiological functions of the eukaryotic enzyme, topoisomerase II is the target for some of the most successful anticancer drugs used to treat human malignancies. These agents are referred to as topoisomerase II poisons, because they transform the enzyme into a potent cellular toxin. Topoisomerase II poisons act by increasing the concentration of covalent enzyme-cleaved DNA complexes that normally are fleeting intermediates in the catalytic cycle of topoisomerase II. As a result of their action, these drugs generate high levels of enzyme-mediated breaks in the genetic material of treated cells and ultimately trigger cell death pathways. Topoisomerase II is also the target for a second category of drugs referred to as catalytic inhibitors. Compounds in this category prevent topoisomerase II from carrying out its required physiological functions. Drugs from both categories vary widely in their mechanisms of actions. This review focuses on topoisomerase II function and how drugs alter the catalytic cycle of this important enzyme.Topoisomerase II is an essential enzyme that plays a role in virtually every cellular DNA process. This enzyme interconverts different topological forms of DNA by passing one nucleic acid segment through a transient double-stranded break generated in a second segment. By virtue of its double-stranded DNA passage reaction, topoisomerase II is able to regulate DNA over- and underwinding, and can resolve knots and tangles in the genetic material. Beyond the critical physiological functions of the eukaryotic enzyme, topoisomerase II is the target for some of the most successful anticancer drugs used to treat human malignancies. These agents are referred to as topoisomerase II poisons, because they transform the enzyme into a potent cellular toxin. Topoisomerase II poisons act by increasing the concentration of covalent enzyme-cleaved DNA complexes that normally are fleeting intermediates in the catalytic cycle of topoisomerase II. As a result of their action, these drugs generate high levels of enzyme-mediated breaks in the genetic material of treated cells and ultimately trigger cell death pathways. Topoisomerase II is also the target for a second category of drugs referred to as catalytic inhibitors. Compounds in this category prevent topoisomerase II from carrying out its required physiological functions. Drugs from both categories vary widely in their mechanisms of actions. This review focuses on topoisomerase II function and how drugs alter the catalytic cycle of this important enzyme.
Topoisomerase II is an essential enzyme that plays a role in virtually every cellular DNA process. This enzyme interconverts different topological forms of DNA by passing one nucleic acid segment through a transient double-stranded break generated in a second segment. By virtue of its double-stranded DNA passage reaction, topoisomerase II is able to regulate DNA over- and underwinding, and can resolve knots and tangles in the genetic material. Beyond the critical physiological functions of the eukaryotic enzyme, topoisomerase II is the target for some of the most successful anticancer drugs used to treat human malignancies. These agents are referred to as topoisomerase II poisons, because they transform the enzyme into a potent cellular toxin. Topoisomerase II poisons act by increasing the concentration of covalent enzyme-cleaved DNA complexes that normally are fleeting intermediates in the catalytic cycle of topoisomerase II. As a result of their action, these drugs generate high levels of enzyme-mediated breaks in the genetic material of treated cells and ultimately trigger cell death pathways. Topoisomerase II is also the target for a second category of drugs referred to as catalytic inhibitors. Compounds in this category prevent topoisomerase II from carrying out its required physiological functions. Drugs from both categories vary widely in their mechanisms of actions. This review focuses on topoisomerase II function and how drugs alter the catalytic cycle of this important enzyme.
Author Fortune, John M.
Osheroff, Neil
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Snippet Topoisomerase 11 is an essential enzyme that plays a role in virtually every cellular DNA process. This enzyme interconverts different topological forms of DNA...
Topoisomerase II is an essential enzyme that plays a role in virtually every cellular DNA process. This enzyme interconverts different topological forms of DNA...
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StartPage 221
SubjectTerms Animals
Antineoplastic Agents - chemistry
Antineoplastic Agents - pharmacology
Binding Sites
Biochemistry
Biological Evolution
Biophysics
DNA Topoisomerases, Type II - chemistry
DNA Topoisomerases, Type II - metabolism
DNA, Neoplasm - metabolism
Drug Resistance
Enzyme Inhibitors - chemistry
Enzyme Inhibitors - pharmacology
Humans
Isoenzymes - antagonists & inhibitors
Isoenzymes - metabolism
Microbiology (non-medical)
Models, Biological
Neoplasms - drug therapy
Neoplasms - metabolism
Substrate Specificity
Topoisomerase II Inhibitors
Title Topoisomerase II as a target for anticancer drugs: When enzymes stop being nice
URI https://dx.doi.org/10.1016/S0079-6603(00)64006-0
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Volume 64
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