Sentence examples for encapsulation of proteins from inspiring English sources

The encapsulation of proteins within the BMC is mediated by the presence of targeting sequences.

In recent years, the encapsulation of proteins into micro- and nanoparticles has gained wide attention due to the broad application potential of such materials as biosensors [1] or bioreactors [2], and further in the fields of controlled protein delivery [3], intracellular protein delivery [4] and tissue engineering [5].

In the case of cell encapsulation, a variety of cytocompatible photopolymerization conditions have been identified that proceed at physiological temperature and osmolarity, but conditions for encapsulation of proteins while maintaining activity are more stringent.

We expect that the noncovalent encapsulation of proteins using nanoparticles and their photo triggered release using an external light would provide opportunities for achieving intracellular release of molecular therapeutics for on-demand requirements.

Interestingly, over 3 orders of magnitude in LAP concentration range, the thiol ene reaction can be utilized to form hydrogels with lower irradiation doses than that required to form similar PEG diacrylate networks, suggesting the thiol ene polymerization may be advantageous for encapsulation of proteins or cells with known radical susceptibility.

Although encapsulation of protein in liposomes has high celluar transport efficiency, the amount of encapsulated protein remains a challenge.

Due to the high encapsulation efficiency of proteins under physiological conditions and the simplicity of the protocol, it has been widely used to prepare various cell models.

This result indicated that the encapsulation of model proteins into the dextran nanoparticle did not cause protein aggregation during the preparation step.

Furthermore, encapsulation of recombinant proteins into physiologically inert organelles can function to insulate the protein from normal cellular mechanisms, thus limiting unnecessary stress to the host cell.

However, while encapsulation of recombinant proteins within vaults has allowed for exploitation of novel functionalities, the ability to successfully incorporate and retain small molecules of therapeutic value has been relatively unexplored.

Hydrogel formation using photoinitiated polymerization of (meth)acrylated PEG monomers is particularly favorable for the encapsulation of cells, proteins, and other biologically relevant molecules, as this approach allows for cytocompatible reaction temperature and facile maintenance of sterile conditions.