Models, or computer projections of future climate trends, can indirectly represent clouds by taking into account relative humidity measurements, which are readily available and bypass much of the complexity that bogs down cloud dynamics.
Projecting future climate trends is a complex endeavor.
Current CO2 production is outstripping the best estimates used by modelers to predict future climate trends.
In this paper, potential future climate trends were predicted based on CMIP5 simulations in this region.
Results show that future climate trends can cause dynamic evolution and dissipation of transient groundwater flow systems, and the characteristic flow system hierarchy can change from nested flow systems to a set of single flow cells.
For this to change, information about past and future climate trends must be more widely and easily accessible to scientists and, moreover, the climate-change information scientists are producing must be communicated to planners, managers, and the general public.
The current practice of designing buildings has lacked a clear method to incorporate future climate change trends.
The revision involves extrapolation of the design rainfall statistics, taking into account the current knowledge on future climate change trends till 2100.
Writing in the journal, the scientists warn: "If current patterns and rates of phenological change are indicative of future trends, future climate warming may exacerbate trophic mismatching, further disrupting the functioning, persistence and resilience of major ecosystems and having a major impact on ecosystem services".
With regard to future climate, the results show clear trends of reduced rainfall over the catchment.
Trends in future climate indicate an increase in temperatures greater than 1.0 °Celsius and a slight decrease in precipitation by 2080.
