When the ring molecules were used as starting materials, the synthesis rate was higher than that when the linear molecules were used.
To simplify the possible routes, starting materials categorized as linear or ring molecules were used.
Dynamical alterations of these molecules were used to trigger phenotypic changes at the cellular level.
Two probe molecules were used to perform the evaluation of catalytic activity, CH3OH and CO.
Surfaces treated with these adhesion molecules were used as substrates for culturing dorsal root ganglion neurons.
Illumina mate-pair reads with insert size of 2, 6, and 10 Kb, and optical molecules were used to distinguish redundant sequences from true tandem repeated sequences.
Explicit water molecules were used with the double goal of simulating aqueous environment and keeping the system from falling apart.
Various enzymatic treatments, antibodies and invasion inhibitory molecules were used to successfully demonstrate the utility of this method.
The molecules were used to probe surface structure and to study surface reactivity spatially at the atomic level.
When the linear molecules were used as starting materials, the synthesis rates were smaller than those of ring molecules and the products were more crystalline than those of ring molecules.
Here, different surfactants acting as capping molecules were used to assist the aqueous chemical growth of zinc oxide (ZnO) nanostructures on Au coated glass substrates.
