Thus, power laws are powerful tools for searching self-similar properties in biological structures and processes and for quantifying the scaling properties of information contents.
Knowledge of these trends is important for providing insight into the MLT coupling processes and also for quantifying the consequences of unique equatorial geophysical phenomena, such as the equatorial electrojet and counter-electrojet.
Even if light had such an important role in the design process, new methods for quantifying more precisely lighting levels have been discovered just in the last decade.
Ordinary sensitivity analysis was used for the quantification of potential confounding effects while a simulation-based process was employed for quantifying misclassification bias.
We synthesize current literature to illustrate the importance of understanding the ecohydrological processes for accurately quantifying ecosystem services under different environmental and socioeconomic settings and scales.
The first review paper by (Sun et al. 2017) provides a synthesis of current literature on water-related ecosystem service studies and illustrates the importance of understanding the ecohydrological processes for accurately quantifying ecosystem services under different environmental and socioeconomic settings and scales.
The combination of these techniques to quantify remodeling of mineralized protein films shows promise for quantifying processes related to mineralized surfaces.
X-ray microtomographic imaging is a non-destructive technique for quantifying these processes in three dimensions within individual pores, and as we report here, with rapidly increasing spatial and temporal resolution.
These differences can affect algorithms for quantifying ecological processes, such as those that rely on red, green, and blue intensity values for assessing phenological changes (Kurc and Benton, 2010).
Methods for quantifying the process are problematic, variability in activity is high, and temporal and spatial scaling challenges are extreme.
