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DOI: 10.1055/s-0037-1610006
From Natural to Artificial Antitumor Lipidic Alkynylcarbinols: Asymmetric Synthesis, Enzymatic Resolution, and Refined SARs
The Toulouse IDEX ‘Transversalité’ program 2015 is acknowledged for funding (Fishing-sponge project). The CNRS and the French Embassy in Kyiv (Ukraine) are acknowledged for their early contribution to the fellowship of D.L. P.R. is grateful to the ARC foundation for cancer research for postdoctoral funding.Publication History
Received: 07 April 2018
Accepted: 10 April 2018
Publication Date:
20 July 2018 (online)
Abstract
Among acetylenic natural products, chiral lipidic alkynylcarbinol (LAC) metabolites, mostly extracted from marine sponges, have revealed a broad spectrum of biological activities, in particular, remarkable antitumor cytotoxicity. With reference to one of the simplest natural representatives, [(S)-eicos-(4E)-en-1-yn-3-ol], and a given cancer cell line (HCT116), combined extensive efforts in chemical synthesis (relying on the use of a large chemical toolbox) and biological analysis (in vitro tests), have provided systematic structure–activity relationships (SARs) where the initially selected four structural parameters appear as independent principal components: (i) and (ii) the sp/sp2 content and extent of the terminal and internal unsaturations adjacent to the carbinol center, (iii) the absolute configuration of the latter, (iv) the length of the n-aliphatic backbone. Two key criteria have also been established regarding the functional alkynylcarbinol pharmacophore: the alkynylcarbinol unit must be both secondary and terminal (i.e., substituted by a short ethynyl or ethenyl C2 group). This review is intended to provide a further illustration of the value of a simple rational approach for drug design, and to act as a benchmark for future optimization of LACs as antitumor agents.
1 Introduction
2 2C2-Unsaturated Pharmacophore Candidates
2.1 Alkenylalkynylcarbinols (AACs)
2.2 Dialkynylcarbinols (DACs or DACys)
2.3 Alkynylalkenylcarbinols (iso-AACs) and Dialkenylcarbinols (DACes)
2.4 Oxidation-Protected Dialkynylcarbinols and Dialkynylketones
2.5 Fluorophore-Labeled Lipidic Dialkynylcarbinols
3 C2/C3-Unsaturated Pharmacophore Candidates
3.1 Cyclopropylalkynylcarbinols (CACs)
3.2 Allenylalkynylcarbinols (AllACs)
4 C2/C4- and 3C2-Unsaturated Pharmacophore Candidates
4.1 Butadiynylalkynylcarbinols (BACs)
4.2 Trialkynylcarbinols (TACs)
5 Double-AC-Headed Pharmacophore Candidates
6 Screening on the Lipidic Chain Length
7 Conclusion
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See for examples:
For natural product isolation, see:
For dideoxypetrosynol A, see:
For reviews on the synthesis and biological activities of butadiyne- and polyyne-containing natural products, see ref. 23 and