Interestingly, the bacterial PBPs show extensive ligand-binding properties and can transport small nutritional molecules such as amino acids and vitamins [ 15, 16].
Many cells have surface receptors for these cytokines, with high binding properties, and target cells and soluble receptors can trap cytokines.
In addition, labelling of the ligand can affect the binding properties and render the molecule unable to interact with the receptin.
The data reveal that the side chains in these bisanthracenyl receptors can indeed be tuned to enhance binding properties and adjust selectivity.
Microsatellites can also affect RNA secondary structure, altering their binding properties and stability (Riley and Krieger 2009; Meng et al. 2010; Kozlowski et al. 2010).
The HSA molecule can undergo various structural changes modifying its conformation and hence its binding properties and redox state.
In addition, the HLA peptide binding network can be analyzed and clustered into modules that may reveal specific binding properties and patterns to better understand HLA peptide interactions.
The macroscopic strength mostly results from the binding property of clays and can be increased with the addition of various additives as tannins from plants.
At the surface of human cells, the heparin/heparan sulphate binding property of RPL29 can regulate responses to growth factors (Rohde et al., 1996; Jacobs et al., 1997; Liu et al., 1997; Rohde et al., 1998; Lander and Selleck, 2000; D'Souza et al., 2008).
Moreover, physical, optical, and binding properties can be rationally tailored by varying the conjugated π-chain, the donor, and the acceptor groups 48, 60, 61.
