The phrase "artificial climates" is correct and usable in written English.
It can be used to refer to environments that are created or controlled by human intervention, often in the context of agriculture, architecture, or climate control technologies.
Example: "The research focused on how plants thrive in artificial climates, such as greenhouses and controlled indoor environments."
Alternatives: "man-made environments" or "engineered climates".
lecoqii was investigated in three different artificial climates over 2·5 years.
The four taxa were compared here by subjecting seeds from southern Sweden to three different artificial climates and two different times for dispersal.
Clearly, major challenges exist in creating artificial climates; however, there is also a long record of studies using small mammals in semi-natural enclosures or on islands that suggest experimental transplants are possible.
The temperature outdoors in Sweden was between the cold and the intermediate artificial climates (cf. Fig. 3 and Fig. 5), with the last summer during the study at a mean daily temperature close to the cold artificial climate.
Daniell's Essay on Artificial Climate Considered in Its Applications to Horticulture showed the importance of humidity in greenhouses.
The anti-icing performance in "glaze ice" was investigated in an artificial climate chamber.
Fly ash concrete was placed in an artificial climate chamber to achieve different degrees of pore water saturation.
The static and dynamic anti-icing behaviors of the superhydrophobic surface in different conditions were systematically investigated using a self-made device and artificial climate laboratory.
Rillig, M. C., Wright, S. F., Shaw, M. R. & Field, C. B. Artificial climate warming positively affects arbuscular mycorrhizae but decreases soil aggregate water stability in an annual grassland.
A high-temperature energy-saving electric resistance furnace and an artificial climate chamber were used to achieve different high temperature and micro-environment relative humidity in specimens, respectively, and the thermal conductivity of specimens were test by thermophysical properties analyzer.
A comparison was made regarding the effect of different accelerated corrosion techniques, i.e., galvanic method and artificial climate exposure method, on the corrosion characteristics and structural performance of loaded RC beams.
