Publication of VSB – Technical University Oppava,

where Fluidyn has been introduced and cited


Jancík Petr: Dynamický model rozptylu znecištujících látek v ovzduší a GIS, GIS Oppava 99, Oppava, 1999, pp 229-243, ISSN 1211-4855

Dynamic Air Pollution Model and GIS

Annotation:

The interconnection of Computer Fluid Dynamic (CFD) model and GIS, the prototypical interconnection in 1998. Results comparison of the SYMOS 97 statistical model and the Fluidyn Panache dynamic model for flat terrain. The advantages of using GIS as a data source for border conditions in real terrain dynamic modeling.

 

Jancík Petr, Kozubková Milada, Drábková Sylva: Úloha GIS pri  numerickém modelování rozptylu lehkého a težkého plynu., Ovzduší 99, Brno, February 1999, ISBN 80-210-2018-0

The Role of GIS in Numerical Modeling of Heavy and Light Gases Dispersion.

Annotation:

The interconnection of CFD Fluidyn Panache S/W and GIS. Testing of chlorine and ammonia modeling. The comparison of the test results in GIS environment. The comparison of the test results with statistical modeling results. Differences in test results close to buildings.

 

Danihelka Pavel, Jancík Petr, Kozubková Milada, Drábková Sylva: Numerical Modeling of Toxic Cloud Dispersion and Geographic Information System, International Conference on Induppial Safety and Emergency Planning, Balatonfüred, Hungaria, May 1999

Modelování rozptylu toxického mraku a GIS

Annotation:

The use of modern information technologies for the prediction of accident consequences. Tests of the GIS and the dynamic model (Fluidyn Pnache) interconnection. The expression of dynamic release of air pollutant, the evolution of the polution with time, the influence of buildings.


Jancík Petr, Obroucka Karel:
Využití moderních informacních technologií pro ochranu životního prostredí v metalurgii, casopis Hutnické listy, rocník LIV - 1999,c. 7/8, pp.141-144., ISSN 0018-8069

Using of Modern Information Technologies for Environmental Protection in Metallurgy


Annotation
:

New top laboratory for exploitation of new information technologies for environmental protection on Department of Environmental Protection in Induppy. Geographic Information Systems (GIS). Statistic and dynamic air pollution models(Fluidyn Panache, Fluent). Using of Internet/Intranet for access to spatial data. Examples of solved projects.

 

Jancík Petr: GIS a dynamický model rozptylu znecištujících látek v ovzduší, casopis GEOinfo roc. 1999, 6, pp. 18 –21 ISSN 1212-4311

GIS and Dynamic Air Pollution Model


Annotation
:

The prototypical interconnection of the dynamic air pollution model(Fluidyn Panache) and GIS. The use of GIS as a data source for border conditions. GIS applications for the automated data preparation using the ZABAGED1 standard. GIS as a tool for 3D presentation of results of dynamic modeling in real terrain.

 

Jancík Petr: Možnosti modelování rozptylu znecištujících látek v ovzduší v komplexním terénu a v zástavbe, konference GIS Oppava 2000

Possibilities of Modeling of Air Pollution Spreading in Complex Terrain and in Urban Areas

Annotation:

Pri testování dynamického modelu se vyskytly se problémy s velikostí výpoctové síte (limity použité výpocetní techniky trídy PC) zpusobené clenitostí terénu. Ukázala se nutnost generalizace terénu. Prokázala se nutnost použití GIS jako zdroje dat pro okrajové podmínky dynamického modelování v reálném terénu.

There were problems during testing of dynamic model caused by size of computing network. The terrain generalization was needed. GIS was important as a data source for border conditions for dynamic modeling in real terrain.

 

Jancík Petr: Dynamické modelování šírení znecištujících látek v ovzduší a GIS, ESRI User Conference, San Diego 2000, USA

Dynamic Air Pollution Model and GIS

Annotation: 

GIS is a source of spatial data for border conditions for CFD (computer fluid dynamics). Automatic creation of those conditions for modeling is now possible thanks AML modules in ArcInfo. GIS can also automatically separate results of modeling from CFD output files(Fluidyn Panache) and convert them to ArcInfo coverages. Than is possible to show them in 3D (flow vectors) in real space using ArcView 3D analyst.