Herein, we designed, synthesized and evaluated the binding affinity of a series of bitopic ligands: arypiperazine-phenyl-1,2,4-oxadiazoles.
On the basis of the results obtained in docking simulations as described in the Materials and methods section, we evaluated the affinity of MIBE for the ligand binding pockets of both ERα and GPER with respect to E2 and G-1, respectively.
Furthermore, we evaluated the affinity of aggrecan for gelatin by atomic force microscopy and radiolabeling experiments.
To determine if the activity of ALN was retained following polymer-conjugation, we evaluated the affinity of the conjugate to bone mineral by in vitro HA binding assay.
We evaluated the affinity of Cu-E4-Fl 6 to GLP-1R using an I-exendin-4 (9–39) competitive binding assay.
To further explore the scaffold we synthesized a series of (3′,5′-dichloro-2,6-dihydroxy-biphenyl-4-yl -aryl/alkyl-methanone analogs and evaluated the CB1 and CB2 affinity, potency, and efficacy.
Since the structural dynamics were completely neglected in such naïve analysis, Roux and coworkers then conducted MD simulations on the KcsA channel and evaluated the difference between ion binding affinities using the free energy perturbation (FEP) method (Noskov et al., 2004).
ZYD developed the protocol of affinity precipitation and evaluated the data.
Finally, we evaluated the affinities of the fragmented regions of TGV using QC and found a clue for its further optimization.
This approach involves three steps: finding a potential binding site, designing the recognition and structural parts of the aptamers and evaluating the experimental affinity.
The aim of this study was to characterize the polymer chain microstructure and surface properties of a set of five aliphatic polyesters recently synthesized with the use of zirconium acetylacetonate and to evaluate the affinity of human chondrocytes to these materials.
