The model presented here is the first realistic, interactive mathematical model of the propagation of animal sounds across a landscape, and uses a gis interface to display the effect of habitat and caller position on animal communication.
That study (Tong et al. 2001) was the first to use GIS techniques to display the variation of the detailed spatio-temporal distribution of RRV disease.
Then mainframe computers allowed the development of geographic information system software (GIS), which was able to display and organise geographic information in new ways.
An important requirement in Geographic Information Systems (GISs) is the ability to display numerous geometric objects swiftly onto the display window.
People have been really resourceful and creative in writing custom programs to pass spatial data from GIS to a model, later covert the results back to display and further examined in GIS, using models such as AGNPS, HEC-2, WASP4, SHE and many others.
While easy to display and analyze within a GIS, proximity is at best a crude surrogate of exposure since it incompletely accounts for the nature of emission sources, effects of meteorology, orographic features and other factors that affect pollutant emissions, transport, fate and exposure.
In the case of OSM there exist several systems to display and investigate OSM data, for example, the OSM web platform, GIS systems such as QGIS (open source), and ArcGIS.
Such software packages use geographic information systems (GIS) to map unused spaces throughout big cities.
Several countries have also used GIS to track diseases.
To some extent, you might consider that one would use GIS to create a workflow.
