Improving cellular uptake of therapeutic entities through interaction with components of cell membrane

Drug Deliv. 2019 Dec;26(1):328-342. doi: 10.1080/10717544.2019.1582730.

Abstract

Efficient cellular delivery of biologically active molecules is one of the key factors that affect the discovery and development of novel drugs. The plasma membrane is the first barrier that prevents direct translocation of chemic entities, and thus obstructs their efficient intracellular delivery. Generally, hydrophilic small molecule drugs are poor permeability that reduce bioavailability and thus limit the clinic application. The cellular uptake of macromolecules and drug carriers is very inefficient without external assistance. Therefore, it is desirable to develop potent delivery systems for achieving effective intracellular delivery of chemic entities. Apart from of the types of delivery strategies, the composition of the cell membrane is critical for delivery efficiency due to the fact that cellular uptake is affected by the interaction between the chemical entity and the plasma membrane. In this review, we aimed to develop a profound understanding of the interactions between delivery systems and components of the plasma membrane. For the purpose, we attempt to present a broad overview of what delivery systems can be used to enhance the intracellular delivery of poorly permeable chemic entities, and how various delivery strategies are applied according to the components of plasma membrane.

Keywords: Cellular uptake; delivery systems; disulfide exchange; plasma membrane; pro-drugs.

Publication types

  • Review

MeSH terms

  • Animals
  • Biological Availability
  • Biological Transport
  • Cell Membrane / metabolism*
  • Drug Carriers / chemistry
  • Drug Delivery Systems*
  • Humans
  • Hydrophobic and Hydrophilic Interactions
  • Pharmaceutical Preparations / administration & dosage*
  • Pharmaceutical Preparations / chemistry
  • Pharmaceutical Preparations / metabolism

Substances

  • Drug Carriers
  • Pharmaceutical Preparations

Grants and funding

This work was supported by China Postdoctoral Science Foundation [No. 2017M621737]; Natural Science Foundation of Shandong province [No. ZR2018LB013].