Nitrates and NO-NSAIDs in cancer chemoprevention and therapy: In vitro evidence querying the NO donor functionality

Properties of the NO-ASA family of NO-donating NSAIDs (NO-NSAIDs), notably NCX 4016 ( mNO-ASA) and NCX 4040 ( pNO-ASA), reported in more than one hundred publications, have included positive preclinical data in cancer chemoprevention and therapy. Evidence is presented that the antiproliferative, the...

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Veröffentlicht in:Nitric oxide 2008-09, Vol.19 (2), p.115-124
Hauptverfasser: Dunlap, Tareisha, Abdul-Hay, Samer O., Chandrasena, R. Esala P., Hagos, Ghenet K., Sinha, Vaishali, Wang, Zhiqiang, Wang, Huali, Thatcher, Gregory R.J.
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container_end_page 124
container_issue 2
container_start_page 115
container_title Nitric oxide
container_volume 19
creator Dunlap, Tareisha
Abdul-Hay, Samer O.
Chandrasena, R. Esala P.
Hagos, Ghenet K.
Sinha, Vaishali
Wang, Zhiqiang
Wang, Huali
Thatcher, Gregory R.J.
description Properties of the NO-ASA family of NO-donating NSAIDs (NO-NSAIDs), notably NCX 4016 ( mNO-ASA) and NCX 4040 ( pNO-ASA), reported in more than one hundred publications, have included positive preclinical data in cancer chemoprevention and therapy. Evidence is presented that the antiproliferative, the chemopreventive (antioxidant/electrophile response element (ARE) activation), and the anti-inflammatory activity of NO-ASA in cell cultures is replicated by X-ASA derivatives that are incapable of acting as NO donors. pBr-ASA and mBr-ASA are conisogenic with NO-ASA, but are not NO donors. The biological activity of pNO-ASA is replicated by pBr-ASA; and both pNO-ASA and pBr-ASA are bioactivated to the same quinone methide electrophile. The biological activity of mNO-ASA is replicated by mBr-ASA; mNO-ASA and mBr-ASA are bioactivated to different benzyl electrophiles. The observed activity is likely initiated by trapping of thiol biomolecules by the quinone and benzyl electrophiles, leading to depletion of GSH and modification of Cys-containing sensor proteins. Whereas all NO-NSAIDs containing the same structural “linker” as NCX 4040 and NCX 4016 are anticipated to possess activity resulting from bioactivation to electrophilic metabolites, this expectation does not extend to other linker structures. Nitrates require metabolic bioactivation to liberate NO bioactivity, which is often poorly replicated in vitro, and NO bioactivity provided by NO-NSAIDs in vivo provides proven therapeutic benefits in mitigation of NSAID gastrotoxicity. The in vivo properties of X-ASA drugs await discovery.
doi_str_mv 10.1016/j.niox.2008.04.013
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Whereas all NO-NSAIDs containing the same structural “linker” as NCX 4040 and NCX 4016 are anticipated to possess activity resulting from bioactivation to electrophilic metabolites, this expectation does not extend to other linker structures. Nitrates require metabolic bioactivation to liberate NO bioactivity, which is often poorly replicated in vitro, and NO bioactivity provided by NO-NSAIDs in vivo provides proven therapeutic benefits in mitigation of NSAID gastrotoxicity. 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Evidence is presented that the antiproliferative, the chemopreventive (antioxidant/electrophile response element (ARE) activation), and the anti-inflammatory activity of NO-ASA in cell cultures is replicated by X-ASA derivatives that are incapable of acting as NO donors. pBr-ASA and mBr-ASA are conisogenic with NO-ASA, but are not NO donors. The biological activity of pNO-ASA is replicated by pBr-ASA; and both pNO-ASA and pBr-ASA are bioactivated to the same quinone methide electrophile. The biological activity of mNO-ASA is replicated by mBr-ASA; mNO-ASA and mBr-ASA are bioactivated to different benzyl electrophiles. The observed activity is likely initiated by trapping of thiol biomolecules by the quinone and benzyl electrophiles, leading to depletion of GSH and modification of Cys-containing sensor proteins. Whereas all NO-NSAIDs containing the same structural “linker” as NCX 4040 and NCX 4016 are anticipated to possess activity resulting from bioactivation to electrophilic metabolites, this expectation does not extend to other linker structures. Nitrates require metabolic bioactivation to liberate NO bioactivity, which is often poorly replicated in vitro, and NO bioactivity provided by NO-NSAIDs in vivo provides proven therapeutic benefits in mitigation of NSAID gastrotoxicity. The in vivo properties of X-ASA drugs await discovery.</abstract><cop>United States</cop><pub>Elsevier Inc</pub><pmid>18485921</pmid><doi>10.1016/j.niox.2008.04.013</doi><tpages>10</tpages><oa>free_for_read</oa></addata></record>
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subjects Animals
Anti-Inflammatory Agents - pharmacology
Anti-Inflammatory Agents, Non-Steroidal - pharmacology
Anti-Inflammatory Agents, Non-Steroidal - therapeutic use
Antineoplastic Agents - pharmacology
Antioxidant response element
Aspirin - analogs & derivatives
Aspirin - pharmacology
Aspirin - therapeutic use
Cell Line
Cell Line, Tumor
Cell Proliferation - drug effects
Chemoprevention
Chemoprevention - methods
Humans
Hybrid drugs
Inflammation
Macrophages
Mice
Neoplasms - drug therapy
Neoplasms - prevention & control
Nitrates
Nitrates - metabolism
Nitric Oxide - metabolism
Nitric Oxide Donors - pharmacology
Nitric Oxide Donors - therapeutic use
Nitro Compounds - pharmacology
Nitro Compounds - therapeutic use
NO-ASA
NO-NSAID
Quinone methide
Quinone oxidoreductase
title Nitrates and NO-NSAIDs in cancer chemoprevention and therapy: In vitro evidence querying the NO donor functionality
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