CANARINA:
DISPER:
Commands Algorithms I Algorithms II Algorithms III Algorithms IV Algorithms V Emissions
In the center of the program window, we will draw and we will calculate the different polluting processes. We can draw using two different planes: parallel to the ground surface (XY) and perpendicular to the ground surface (XZ). There is a grid in the XY-plane. The coordinate origin is on the left bottom corner (X=0, Y=0) in XY-planes (parallel to the ground surface). In addition, the coordinate origin is on the left bottom corner (X=0, Z=0) in XZ-planes (perpendicular to the ground surface).
XY-Planes (parallel to ground surface):
In such a case, the program window is a XY-plane (parallel to the ground surface). A pollutant point source (stack) is represented by a small square. In the Status bar at the bottom, we have X,Y and Z coordinate values in meters and data on our environmental system. Point the mouse where you want in the program window and the X,Y and Z values will be shown in the status bar at the bottom. If you select XY-Plane, a grid appears. On the left bottom corner, two different text boxes appear: The position of the XY-plane with respect to the ground surface (XY-plane height) and the pollutant concentration value (micrograms per cubic meter, ug/m3). Point the mouse where you want in the program window and the concentration value will be shown in the text box. The pollutant concentrations will be calculated in a parallel plane to the ground surface (XY-Plane). The plane height will be determined by the user (zr).
All the points of the XY-plane will be to a zr height. The zr value is chosen by the user before the calculation. We will be able to make many calculations considering different plane heights. The different plane heights will be determined by the user (zr values). In this way, the physical form of the pollutant plume can be studied.
XZ-Planes (perpendicular to ground surface):
In such a case, the program window is a XZ-plane (perpendicular to the ground surface). A pollutant point source (stack) is represented by a small square. In the Status bar at the bottom, we have X,Y and Z coordinate values in meters and data on our environmental system. Point the mouse where you want in the program window and the X,Y and Z values will be shown in the status bar at the bottom. On the left bottom corner, a text box appears: the pollutant concentration value (micrograms per cubic meter, ug/m3). Point the mouse where you want in the program window and the concentration value will be shown in the text box. The pollutant concentrations will be calculated in a perpendicular plane to the ground surface (XZ-Plane). The plane height will be determined by the user (yr).
All the points of the XZ-Plane will be to a yr height. The yr value is chosen by the user before the calculation. We will be able to make many calculations considering different plane heights. The different plane heights will be determined by the user (yr values). In this way, the physical form of the pollutant plume can be studied.
Canarina Algoritmos Numéricos, S.L.
Environmental software · environmental software solutions
Canary Islands, Spain
e-mail: Contact us
European Union · network on Pollution
Member of MAPO: European network on Marine Pollution.
Project funded by the European Commission
through the 6th Framework Programme for Research and Development
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DISPER software solutions: This application has been used in great number of environmental reports and air pollution courses. We currently have users in more than 10 countries. Air quality reports in Ecuador:
Guayaquil: air quality study - air quality guidelines report - air quality modeling near roads study - air quality report in schools - NOx air quality dispersion modeling - Cl2 air quality dispersion modeling - SOx air quality dispersion modeling - PM air quality dispersion modeling - NH3 air quality dispersion modeling - HNO3 air quality dispersion modeling - ISC3 type calculation - dispersion of pollutants near chemical complex - ozone and industrial hygienists - mixing height calculation
Quito: indoor air quality study - air quality standards in cities study - air quality modeling near roads study - air quality report in schools - NOx air quality dispersion modeling - Cl2 air quality dispersion modeling - SOx air quality dispersion modeling - PM air quality dispersion modeling - NH3 air quality dispersion modeling - HNO3 air quality dispersion modeling - smog air quality modeling - particulate air quality modeling - nitrogen oxides air quality modeling - carbon monoxide air quality modeling - environmental impact and toxic waste air quality modeling - atmospheric environmental issues - gaussian plume calculation - chlorofluorocarbon air quality modeling - photochemical air quality modeling - biomonitoring of air quality plants - indoor air quality
Santo Domingo: air quality modelling - air quality model study - air quality modeling near roads study - air quality report in schools - NOx air quality dispersion modeling - Cl2 air quality dispersion modeling - SOx air quality dispersion modeling - PM air quality dispersion modeling - NH3 air quality dispersion modeling - HNO3 air quality dispersion modeling - stack downwash modelization - particulates air quality modeling - photochemical smog air dispersion - ozone air quality modeling
Durán: acceptable indoor air quality report - software for air quality management - air quality modeling near roads study - air quality report in schools - NOx air quality dispersion modeling - Cl2 air quality dispersion modeling - SOx air quality dispersion modeling - PM air quality dispersion modeling - NH3 air quality dispersion modeling - HNO3 air quality dispersion modeling - volatile organic compounds air quality modeling - emissions and environmental degradation - atmospheric environment report
Ambato: air quality monitoring - ambient air quality standards - air quality modeling near roads study - air quality report in schools - Cl2 air quality dispersion modeling - SOx air quality dispersion modeling - PM air quality dispersion modeling - NH3 air quality dispersion modeling - HNO3 air quality dispersion modeling - NOx air quality dispersion modeling - CO2 air quality modeling - chlorofluorocarbons air quality modeling - acid raid air quality modeling
Loja: study of air quality problems near hospitals - air quality modeling near roads study - air quality report in schools - NH3 air quality dispersion modeling - HNO3 air quality dispersion modeling - NOx air quality dispersion modeling - Cl2 air quality dispersion modeling - SOx air quality dispersion modeling - PM air quality dispersion modeling - iscst type simulation - pm10 air quality modeling - atmospheric - particulate matter air quality modeling - carbon dioxide air quality modeling
Santa Rosa: software for air quality management - air quality guidelines near highways - NOx air quality dispersion modeling - Cl2 air quality dispersion modeling - SOx air quality dispersion modeling - PM air quality dispersion modeling - NH3 air quality dispersion modeling - HNO3 air quality dispersion modeling - formaldehyde air quality modeling - acid rain air quality modeling - ISCST3 type modelization
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