The phrase "artificial loads" is correct and usable in written English.
It can be used in contexts related to engineering, physics, or any field discussing simulated or non-natural forces or weights applied to a system.
Example: "The engineers tested the structure's integrity by applying artificial loads to simulate real-world conditions."
Alternatives: "simulated loads" or "synthetic loads".
The mixed results of these studies could be partly influenced by the artificial nature of their loading regimes, for example differences in load position and the stress associated with the addition of artificial loads.
The application of artificial loads to mammals and birds has been used to provide insight into the mechanics and energetic cost of terrestrial locomotion.
This mechanism has been the subject of a number of in vivo studies in animals in which artificial loads have been applied to the bones on one side and the modelling and remodelling responses in the loaded bones compared with those in the non-loaded contra-lateral pair [2 29].
Load can be provided by the building itself or by an artificial load bank comprising many electrical heaters.
In contrast to the semi-honest case, however, it may try to send many artificial load profile forecasts.
The synthetic load pattern consists of two artificial load peaks, while the realistic load pattern is based on real world data.
Skahen et al. [75] demonstrated a relevant increase in strain in the IL of the IM after resection of the radial head and artificial loading.
It is an artificial load generator for different interfaces, and it is capable of producing realistic network traffic with different characteristics in a very simple and flexible manner.
Reducing the background level of the naturally engendered strain environment allows adaptive responses to artificial loading to be demonstrated at lower loads.
To avoid nodal instability, the nominal force method is adopted, which introduces artificial loading cases to simulate the effect of geometric imperfections.
It is axiomatic that bones will only show an adaptive response if the applied artificial loading environment differs in a significant way from that to which the bones have been habituated by normal functional loading.
