The phrase "aggregate morphology" is correct and usable in written English.
It can be used in contexts related to biology, geology, or materials science, where it refers to the overall structure or form of a collection of entities or particles.
Example: "The study focused on the aggregate morphology of the sediment samples collected from the riverbed."
Alternatives: "combined structure" or "overall form".
This includes several detailed studies of the individual and combined impacts of the flanking domains on aggregation kinetics and aggregate morphology.
However, according to the biochemical and biophysical analysis of the peptides by SDS-PAGE, SEC, NMR and CD spectroscopy, and to their aggregation propensity and aggregate morphology, the MAβ peptides faithfully recapitulate the properties of Aβ.
However, the aggregation process and resulting aggregate morphology of Arctic differed dramatically in comparison to Wild Type in the presence of the anionic surface of mica, pointing to the ability of surfaces to influence aggregate structure [51].
In cellular studies of mutant htt exon 1, the flanking domains modulate not only the aggregation propensity but also the aggregate morphology, recruitment of other proteins, and toxicity.
Commonly used methods to extrapolate information on the morphology of fine aggregate such as sand flow test (SFT) and Uncompacted Void Content Test (UVCT) give a general characterization of the aggregate morphology without allowing for differentiated conclusions regarding the respective morphological factors.
For strong interactions, a percolation phenomenon occurred, leading to a high reinforcement level (driven by interparticle contacts and aggregate morphology) whereas a simple linear modulus augmentation is observed, independently of the aggregation state, for softer interactions.
Significant covariation was observed among many of the 5 data sets (categories), namely soil aggregate morphology and soil macrofauna, as well as aggregate morphology and soil compaction.
These results indicate that cellular conditions and activities, including post-translational protein modifications and biological interactions, likely modulate in vivo aggregation kinetics and aggregate morphologies.
Figure 1 summarizes aggregate morphologies associated with each aggregation pathway and their kinetics signatures obtained using SLS and DLS as well as ThT fluorescence.
These amphiphiles assemble into aggregate morphologies that depend strongly on the stereochemistry of the carbohydrate.
The Thioflavin-T (ThT) results indicated their abilities to enhance ThT fluorescence intensity was possibly correlated with the amount of aggregates in solutions except for the aggregate morphologies.
