The phrase "abundant interactions" is correct and usable in written English.
It can be used to describe a situation or environment where there are many exchanges or communications occurring, often in a positive or enriching context.
Example: "The conference was a success, fostering abundant interactions among participants from various fields."
Alternatives: "plentiful exchanges" or "rich interactions".
Binding selectivity and cross-reactivity within one of the largest and most abundant interaction domain families, the PDZ family, has long been enigmatic.
However, because the formation schemes of heterodimers are extremely diverse, a single scoring function does not seem to be sufficient to describe the fitness of the predicted models other than the most abundant interaction mode.
Scoring functions based on statistical analyses of heterodimers are usually designed to select the complex model with the most abundant interaction mode found among the known complexes, as the correct model.
In contrast, the scoring functions based on the statistical analysis of heterodimer interactions are usually designed to select the complex models with the most abundant interaction mode in the known complexes, and thus a single scoring function will not be enough to evaluate the diverse protein protein interfaces.
In these complexes hydrogen bonds provide additional assembly forces, giving 3D hydrogen bonding networks for 1 and 3, and 2D layers for 2 and 4. Abundant weak interactions, such as Ag Ag interactions in 1 3, Ag π interactions in 1 4, π π interactions in 1, 3 4, and C H···π interactions in 3 4, also can be found.
Moreover, 2 shows abundant nonvalent interactions, such as lp(Ocarboxyl)⋯π, π⋯π, C H⋯π interactions and hydrogen-bonding simultaneously. 1 and 2 also exhibit diverse structure motifs due to the effects of substituent methyl groups.
This indicates that despite the abundant multivalent interactions in the integrin adhesome network, its cytosolic complexes are considerably confined due to mutual-exclusiveness between protein interactions and allosteric regulations.
After billions of years of evolution, natural materials, such as bamboo, bone, and nacre, show unique mechanical properties, due to their intrinsic hierarchical micro/nanoscale architecture and abundant interfacial interactions.
