The Delft3D model provided environmental drivers including salinity, temperature, Chl a, total suspended solids, and change in wetland cover as a result of simulated river diversions over decadal model runs.
It aims to verify the capacity of the model to provide environmental insights to stakeholder's issues related to future trends influencing the system (e.g., evolution of water demand, increasing water scarcity) or policy responses (e.g., choices of water resources and technologies).
The application of these projections in a fine-scale regional hydrologic model provides simulations of environmental conditions that occur at the hillslope scale that reflects energy-loading processes and changes in soil conditions that influence the presence and distribution of vegetation types.
The authors therefore adopted a two-stage hierarchical process where the IO-LCI model provided the environmental outputs, which are then fed to the DEA model to evaluate the SPI of each sub-sector.
The model provides comprehensive analyses of 18 environmental impact categories at the midpoint and endpoint levels.
This model provides a comprehensive view of the environmental impacts of municipal solid waste management systems.
Because mitochondrial function and integrity decline over time and are influenced by changes in the cellular environment (e.g., stress induced by behavioral and/or environmental factors), this model provides a means for explaining the increasing risk of disease development associated with age and exposure to known risk factors.
The conceptual model provides a flexible way of specifying an environmental application without being concerned with the low-level implementation details.
The model provides a guideline for the government to implement environmental regulations and a reference for firms to effectively fulfill their environmental responsibility.
Our model provides predictions of phytoplankton chlorophyll biomass based on environmental parameters that can be incorporated into models of future ocean environments.
