Self-Assembly-Directed Cancer Cell Membrane Insertion of Synthetic Analogues for Permeability Alteration
Author(s) -
E Du,
Xunwu Hu,
Guanying Li,
Shijin Zhang,
Dingze Mang,
Sona Rani Roy,
Toshio Sasaki,
Ye Zhang
Publication year - 2018
Publication title -
langmuir
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 1.042
H-Index - 333
eISSN - 1520-5827
pISSN - 0743-7463
DOI - 10.1021/acs.langmuir.8b02107
Subject(s) - membrane , chemistry , transmembrane protein , monomer , biophysics , membrane permeability , cancer cell , permeability (electromagnetism) , cytolysis , lysis , cell membrane , membrane protein , cytotoxicity , in vitro , biochemistry , cancer , polymer , organic chemistry , receptor , biology , genetics
Inspired by the metamorphosis of pore-forming toxins from soluble inactive monomers to cytolytic transmembrane assemblies, we developed self-assembly-directed membrane insertion of synthetic analogues for permeability alteration. An expanded π-conjugation-based molecular precursor with an extremely high rigidity and a long hydrophobic length that is comparable to the hydrophobic width of plasma membrane was synthesized for membrane-inserted self-assembly. Guided by the cancer biomarker expression in vitro, the soluble precursors transform into hydrophobic monomers forming assemblies inserted into the fluid phase of the membrane exclusively. Membrane insertion of rigid synthetic analogues destroys the selective permeability of the plasma membrane gradually. It eventually leads to cancer cell death, including drug resistant cancer cells.
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