Key result
Data-driven analysis of an H2S sensor database identified promising hydrogen sulfide scavengers based on a sulfonyl azide template, with demonstrated in vitro and in vivo efficiency.
Why the study?
Precise H2S down-regulation remains challenging due to a lack of potent and specific inhibitors for H2S-producing enzymes, prompting the development of H2S scavengers as an alternative approach.
A data-driven approach successfully identified novel hydrogen sulfide scavengers based on a sulfonyl azide template, providing a new tool for precise H2S down-regulation.
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H2S scavengers enable targeted down-regulation; leaves open therapeutic translation in cardiovascular disease pending in vivo and clinical validation.
Hydrogen sulfide (H2S) is an important signaling molecule whose up‐ and down‐regulation have specific biological consequences. Although significant advances in H2S up‐regulation, by the development of H2S donors, have been achieved in recent years, precise H2S down‐regulation is still challenging. The lack of potent/specific inhibitors for H2S‐producing enzymes contributes to this problem. We expect the development of H2S scavengers is an alternative approach to address this problem. Since chemical sensors and scavengers of H2S share the same criteria, we constructed a H2S sensor database, which summarizes key parameters of reported sensors. Data‐driven analysis led to the selection of 30 potential compounds. Further evaluation of these compounds identified a group of promising scavengers, based on the sulfonyl azide template. The efficiency of these scavengers in in vitro and in vivo experiments was demonstrated.
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Yang et al. (2019) studied this question. Hydrogen sulfide scavengers (sulfonyl azide template) was evaluated on Identification and efficiency of H2S scavengers. Data-driven analysis of an H2S sensor database identified promising hydrogen sulfide scavengers based on a sulfonyl azide template, with demonstrated in vitro and in vivo efficiency.
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