Insight into the strong inhibitory action of salt on activity of neocarzinostatin

Severe inhibition (up to 85 ± 5%) by the presence of salt on the neocarzinostatin activity was found. Salt interference on the affinity of DNA binding was the main and sole cause of the severe salt inhibition. Enediyne anticancer drugs belong to one of the most potent category in inducing DNA damage...

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Veröffentlicht in:Bioorganic & medicinal chemistry 2010-03, Vol.18 (5), p.1980-1987
Hauptverfasser: Chin, Der-Hang, Li, Huang-Hsien, Sudhahar, Christopher G., Tsai, Pei-Yin
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container_end_page 1987
container_issue 5
container_start_page 1980
container_title Bioorganic & medicinal chemistry
container_volume 18
creator Chin, Der-Hang
Li, Huang-Hsien
Sudhahar, Christopher G.
Tsai, Pei-Yin
description Severe inhibition (up to 85 ± 5%) by the presence of salt on the neocarzinostatin activity was found. Salt interference on the affinity of DNA binding was the main and sole cause of the severe salt inhibition. Enediyne anticancer drugs belong to one of the most potent category in inducing DNA damage. We report 85 ± 5% inhibition on activity of neocarzinostatin by salt. As high sodium ion concentration is a known tumor cell feature, we explored the dynamic mechanism of inhibition. Using various analytical tools, we examined parameters involved in the four consecutive steps of the drug action, namely, drug releasing from carrier protein, drug–DNA binding, drug activating, and DNA damaging. Neither protein stability, nor drug release rate, was altered by salt. The salt inhibition level was similar in between the protein-bound and unbound enediyne chromophore. Salt did not quench the thiol-induced drug activation. The inhibition was independent of DNA lesion types and irrelevant with thiol structures. Collectively, no salt interaction was found in the releasing, activating, and DNA damaging step of the drug action. However, binding with DNA decreased linearly with salt and corresponded well with the salt-induced inhibition on the drug activity. Salt interference on the affinity of DNA binding was the main and sole cause of the severe salt inhibition. The inhibition factor should be carefully considered for all agents with similar DNA binding mode.
doi_str_mv 10.1016/j.bmc.2010.01.031
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source MEDLINE; ScienceDirect Journals (5 years ago - present)
subjects Antibiotics, Antineoplastic - metabolism
Antitumor
DNA - chemistry
DNA cleavage
Drug activity
Enediyne antibiotics
Neocarzinostatin
Sodium Chloride - chemistry
Sodium Chloride - metabolism
Zinostatin - metabolism
title Insight into the strong inhibitory action of salt on activity of neocarzinostatin
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