This work is licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 3.0 License.
ABDUL-WAHAB S., SAPPURD A., AL-DAMKHI A. 2011. Application of California Puff (CALPUFF) model: A case study for Oman. Clean Technologies and Environmental Policy 13: 177–189.ABDUL-WAHABS.SAPPURDA.AL-DAMKHIA.2011Application of California Puff (CALPUFF) model: A case study for OmanClean Technologies and Environmental Policy13177189Search in Google Scholar
BAKELS L., TATSII D. TIPKA A., THOMPSON R., DÜTSCH M., BLASCHEK M., SEIBERT P., BAIER K., BUCCI S., CASSIANI M. et al. 2024. FLEXPART version 11: Improved accuracy, efficiency, and flexibility. Geoscientific Model Development 17, 21: 7595–7627.BAKELSL.TATSIID.TIPKAA.THOMPSONR.DÜTSCHM.BLASCHEKM.SEIBERTP.BAIERK.BUCCIS.CASSIANIM.2024FLEXPART version 11: Improved accuracy, efficiency, and flexibilityGeoscientific Model Development172175957627Search in Google Scholar
BELLASIO R., BIANCONI R., MOSCA S., ZANNETTI P. 2017. Formulation of the Lagrangian particle model LAPMOD and its evaluation against Kincaid SF6 and SO2 datasets. Atmospheric Environment 163, Aug.: 87–98.BELLASIOR.BIANCONIR.MOSCAS.ZANNETTIP.2017Formulation of the Lagrangian particle model LAPMOD and its evaluation against Kincaid SF6 and SO2 datasetsAtmospheric Environment163Aug.8798Search in Google Scholar
BELLASIO R., BIANCONI R., MOSCA S., ZANNETTI P. 2018. Incorporation of numerical plume rise algorithms in the Lagrangian particle model LAPMOD and validation against the Indianapolis and Kincaid datasets. Atmosphere 9(10), 404.BELLASIOR.BIANCONIR.MOSCAS.ZANNETTIP.2018Incorporation of numerical plume rise algorithms in the Lagrangian particle model LAPMOD and validation against the Indianapolis and Kincaid datasetsAtmosphere910404Search in Google Scholar
BERCHET A., ZINK K., OETTL D., BRUNNER J., EMMENEGGER L., BRUNNER D. 2017. Evaluation of high-resolution GRAMM-GRAL (v15.12/v14.8) NOx simulations over the city of Zürich, Switzerland. Geoscientific Model Development 10, 9: 3441–3459.BERCHETA.ZINKK.OETTLD.BRUNNERJ.EMMENEGGERL.BRUNNERD.2017Evaluation of high-resolution GRAMM-GRAL (v15.12/v14.8) NOx simulations over the city of Zürich, SwitzerlandGeoscientific Model Development10934413459Search in Google Scholar
BRODE W.R. 2012. CALPUFF Near-field Validation. 10th Conference on Air Quality Modeling. Research Triangle Park, NC. March 13, 2012. https://www.epa.gov/scram/10th-conference-air-quality-modeling (Accessed 12/01/2025)BRODEW.R.2012CALPUFF Near-field Validation10th Conference on Air Quality ModelingResearch Triangle Park, NCMarch 13, 2012https://www.epa.gov/scram/10th-conference-air-quality-modeling (Accessed 12/01/2025)Search in Google Scholar
CIMORELLI A.J., PERRY S.G., VENKATRAM A., WEIL J.C., PAINE R. J., WILSON R.B., LEE R.F., PETERS W.D., BRODE R.W. 2005. AERMOD: A dispersion model for industrial source applications. Part I: General model formulation and boundary layer characterization. Journal of Applied Meteorology 44, 5: 682–693.CIMORELLIA.J.PERRYS.G.VENKATRAMA.WEILJ.C.PAINER. J.WILSONR.B.LEER.F.PETERSW.D.BRODER.W.2005AERMOD: A dispersion model for industrial source applications. Part I: General model formulation and boundary layer characterizationJournal of Applied Meteorology445682693Search in Google Scholar
COTE J., GRAVEL S., METHOT A., PATOINE A., ROCH M., STANIFORTH A. 1998. The operational CMC-MRB Global Environmental Multiscale (GEM) model. Part I: Design considerations and formulation. Monthly Weather Review 126, 6: 1373–1395.COTEJ.GRAVELS.METHOTA.PATOINEA.ROCHM.STANIFORTHA.1998The operational CMC-MRB Global Environmental Multiscale (GEM) model. Part I: Design considerations and formulationMonthly Weather Review126613731395Search in Google Scholar
DEGÓRSKA A. 2016. Źródła zanieczyszczenia powietrza pyłem. In: Juda-Rezler, K., Toczko, B. (eds), Fine particulate Matter in the atmosphere: A comprehensive guide to air pollution by suspended particulates in Poland (In Polish: Pyły drobne w atmosferze. Kompendium wiedzy o zanieczyszczeniu powietrza pyłem zawieszonym w Polsce). Warsaw: Chief Inspectorate of Environment Protection.DEGÓRSKAA.2016Źródła zanieczyszczenia powietrza pyłemIn:Juda-RezlerK.ToczkoB.(eds),Fine particulate Matter in the atmosphere: A comprehensive guide to air pollution by suspended particulates in Poland (In Polish: Pyły drobne w atmosferze. Kompendium wiedzy o zanieczyszczeniu powietrza pyłem zawieszonym w Polsce)WarsawChief Inspectorate of Environment ProtectionSearch in Google Scholar
DE HAAN, P., ROTACH M.W. 1998. A novel approach to atmospheric dispersion modelling: The puff-particle model. Quarterly Journal of the Royal Meteorological Society 124, 552: 2771–2792.DE HAANP.ROTACHM.W.1998A novel approach to atmospheric dispersion modelling: The puff-particle modelQuarterly Journal of the Royal Meteorological Society12455227712792Search in Google Scholar
FIJOŁEK M. PACIOREK, M., TRAPP W. 2003. Air Quality Modeling in 2002 in the Łódź Voivodeship and the Łódź Agglomeration (In Polish: Modelowanie jakości powietrza w 2002 roku w województwie łódzkim i aglomeracji łódzkiej). Gdańsk: Ekometria.FIJOŁEKM.PACIOREKM.TRAPPW.2003Air Quality Modeling in 2002 in the Łódź Voivodeship and the Łódź Agglomeration (In Polish: Modelowanie jakości powietrza w 2002 roku w województwie łódzkim i aglomeracji łódzkiej)GdańskEkometriaSearch in Google Scholar
FIJOŁEK M., TRAPP W. 2003. The Role of Modeling in Comprehensive Air Quality Assessment Systems (In Polish: Rola modelowania w kompleksowych systemach oceny jakości powietrza), [in:] Konferencja z okazji dziesięciolecia Fundacji ARMAAG, Gdańsk 2003.FIJOŁEKM.TRAPPW.2003The Role of Modeling in Comprehensive Air Quality Assessment Systems (In Polish: Rola modelowania w kompleksowych systemach oceny jakości powietrza)[in:]Konferencja z okazji dziesięciolecia Fundacji ARMAAGGdańsk2003Search in Google Scholar
FOREBACK B., MAHURA A., CLUSIUS P., XAVIER C., BAYKARA M., ZHOU P., NIEMINEN T., SINCLAIR V., KERMINEN V.-M., KOKKONEN T. V. et al. 2024. A new implementation of FLEXPART with Enviro-HIRLAM meteorological input, and a case study during a heavy air pollution event. Big Earth Data 8, 2: 397–434.FOREBACKB.MAHURAA.CLUSIUSP.XAVIERC.BAYKARAM.ZHOUP.NIEMINENT.SINCLAIRV.KERMINENV.-M.KOKKONENT. V.2024A new implementation of FLEXPART with Enviro-HIRLAM meteorological input, and a case study during a heavy air pollution eventBig Earth Data82397434Search in Google Scholar
CHIEF INSPECTORATE OF ENVIRONMENT PROTECTION (GIOS). 2023. Yearly Assessment of Air Quality in the Mazovian Voivodeship. Report for the Year 2022. Available online: https://powietrze.gios.gov.pl/pjp/rwms/publications/card/1861 (accessed on 05 November 2024). (In Polish)CHIEF INSPECTORATE OF ENVIRONMENT PROTECTION (GIOS)2023Yearly Assessment of Air Quality in the Mazovian VoivodeshipReport for the Year 2022. Available online: https://powietrze.gios.gov.pl/pjp/rwms/publications/card/1861 (accessed on 05 November 2024). (In Polish)Search in Google Scholar
CHIEF INSPECTORATE OF ENVIRONMENT PROTECTION (GIOS). 2024. Yearly Assessment of Air Quality in the Mazovian Voivodeship. Report for the Year 2023. Available online: https://powietrze.gios.gov.pl/pjp/rwms/publications/card/2001 (accessed on 05 November 2024). (In Polish)CHIEF INSPECTORATE OF ENVIRONMENT PROTECTION (GIOS)2024Yearly Assessment of Air Quality in the Mazovian VoivodeshipReport for the Year 2023. Available online: https://powietrze.gios.gov.pl/pjp/rwms/publications/card/2001 (accessed on 05 November 2024). (In Polish)Search in Google Scholar
HENNE S., BRUNNER D., ONEY B., LEUENBERGER M., EUGSTER W., BAMBERGER I., MEINHARDT F., STEINBACHER M., EMMENEGGER L. 2016. Validation of the Swiss methane emission inventory by atmospheric observations and inverse modelling. Atmospheric Chemistry and Physics 16, 6: 3683–3710.HENNES.BRUNNERD.ONEYB.LEUENBERGERM.EUGSTERW.BAMBERGERI.MEINHARDTF.STEINBACHERM.EMMENEGGERL.2016Validation of the Swiss methane emission inventory by atmospheric observations and inverse modellingAtmospheric Chemistry and Physics16636833710Search in Google Scholar
HOLMES N.S., MORAWSKA L. 2006. A review of dispersion modelling and its application to the dispersion of particles: an overview of different dispersion models available. Atmospheric Environment 40, 30: 5902–5928.HOLMESN.S.MORAWSKAL.2006A review of dispersion modelling and its application to the dispersion of particles: an overview of different dispersion models availableAtmospheric Environment403059025928Search in Google Scholar
HOLNICKI P., KAŁUSZKO A. TRAPP W. 2015. An urban scale application and validation of the CALPUFF model. Atmospheric Pollution Research 7, 3: 393–402. doi:1016/j.apr.2015.10.016.HOLNICKIP.KAŁUSZKOA.TRAPPW.2015An urban scale application and validation of the CALPUFF modelAtmospheric Pollution Research73393402doi:1016/j.apr.2015.10.016.Search in Google Scholar
HOLNICKI P., KAŁUSZKO A., 2014. Supporting Management of air quality in an urban area. Research Report RB/5/2014. Warsaw: Systems Research Institute. http://www.ibspan.waw.pl/~kaluszko/Raport_RB_5_2014.pdf.HOLNICKIP.KAŁUSZKOA.2014Supporting Management of air quality in an urban areaResearch Report RB/5/2014.WarsawSystems Research Institutehttp://www.ibspan.waw.pl/~kaluszko/Raport_RB_5_2014.pdf.Search in Google Scholar
HOLNICKI P., KAŁUSZKO A., NAHORSKI Z. 2022. Scenario analysis of air quality improvement in Warsaw, Poland, by the end of the current decade. Atmosphere 13, 10: 1613.HOLNICKIP.KAŁUSZKOA.NAHORSKIZ.2022Scenario analysis of air quality improvement in Warsaw, Poland, by the end of the current decadeAtmosphere13101613Search in Google Scholar
JANICKE U. 2024. AUSTAL - Programmbeschreibung zu Version 3.3. Umweltbundesamt, Dessau-Roßlau, Ingenieurbüro Janicke, Überlingen https://www.umweltbundesamt.de/sites/default/files/medien/2338/dokumente/austal-3.3.0_en.pdf (accessed on 04.11.2024)JANICKEU.2024AUSTAL - Programmbeschreibung zu Version 3.3Umweltbundesamt, Dessau-Roßlau, Ingenieurbüro JanickeÜberlingenhttps://www.umweltbundesamt.de/sites/default/files/medien/2338/dokumente/austal-3.3.0_en.pdf (accessed on 04.11.2024)Search in Google Scholar
KAMINSKI J. W., NEARY L., STRUZEWSKA J., MCCONNELL J. C., LUPU A., JAROSZ J., TOYOTA K., GONG S. L., COTE J., LIU X., CHANCE K., RICHTER A. 2008. GEM-AQ, an on-line global multiscale chemical weather modelling system: model description and evaluation of gas phase chemistry processes. Atmospheric Chemistry and Physics 8, 12: 3255–3281.KAMINSKIJ. W.NEARYL.STRUZEWSKAJ.MCCONNELLJ. C.LUPUA.JAROSZJ.TOYOTAK.GONGS. L.COTEJ.LIUX.CHANCEK.RICHTERA.2008GEM-AQ, an on-line global multiscale chemical weather modelling system: model description and evaluation of gas phase chemistry processesAtmospheric Chemistry and Physics81232553281Search in Google Scholar
LANGNER C. H., KLEMM O. 2011. A comparison of model performance between AERMOD and AUSTAL2000. Journal of the Air & Waste Management Association 61, 6: 640–646.LANGNERC. H.KLEMMO.2011A comparison of model performance between AERMOD and AUSTAL2000Journal of the Air & Waste Management Association616640646Search in Google Scholar
LORENC H. [ed.]. 2005. Poland Climate Atlas (In Polish: Atlas Klimatu Polski). Warsaw: Institute of Meteorology and Water Management.LORENCH.[ed.].2005Poland Climate Atlas (In Polish: Atlas Klimatu Polski)WarsawInstitute of Meteorology and Water ManagementSearch in Google Scholar
ŁOBOCKI, L. 2003. Methodological Guidelines for Mathematical Modeling in the Air Quality Management System (In Polish: Wskazówki metodyczne dotyczące modelowania matematycznego w systemie zarządzania jakością powietrza). Warsaw: Ministry of the Environment Chief Inspectorate of Environmental Protection.ŁOBOCKIL.2003Methodological Guidelines for Mathematical Modeling in the Air Quality Management System (In Polish: Wskazówki metodyczne dotyczące modelowania matematycznego w systemie zarządzania jakością powietrza)WarsawMinistry of the Environment Chief Inspectorate of Environmental ProtectionSearch in Google Scholar
MAZUR M., MICHAŁOWSKI B. 2001. The impact of emissions from the Jaworzno III Power Plant on air quality (In Polish: Wpływ emisji zanieczyszczeń z Elektrowni Jaworzno III na jakość powietrza). Inżynieria Środowiska 6, 2: 333–357.MAZURM.MICHAŁOWSKIB.2001The impact of emissions from the Jaworzno III Power Plant on air quality (In Polish: Wpływ emisji zanieczyszczeń z Elektrowni Jaworzno III na jakość powietrza)Inżynieria Środowiska62333357Search in Google Scholar
NOWICKI M. 1976. Universal Atmospheric Diffusion Coefficients (In Polish: Uniwersalne współczynniki dyfuzji atmosfery). Prace Naukowe - Politechnika Warszawska. Budownictwo 53. Warsaw: Wydawnictwa Politechniki Warszawskiej.NOWICKIM.1976Universal Atmospheric Diffusion Coefficients (In Polish: Uniwersalne współczynniki dyfuzji atmosfery)Prace Naukowe - Politechnika Warszawska. Budownictwo 53.WarsawWydawnictwa Politechniki WarszawskiejSearch in Google Scholar
OETTL D. 2015a. Quality assurance of the prognostic, microscale wind-field model GRAL 14.8 using wind-tunnel data provided by the German VDI guideline 3783-9. Journal of Wind Engineering and Industrial Aerodynamics 142, July: 104–110.OETTLD.2015aQuality assurance of the prognostic, microscale wind-field model GRAL 14.8 using wind-tunnel data provided by the German VDI guideline 3783-9Journal of Wind Engineering and Industrial Aerodynamics142July104110Search in Google Scholar
OETTL D. 2015b. A multiscale modelling methodology applicable for regulatory purposes taking into account effects of complex terrain and buildings on pollutant dispersion: a case study for an inner Alpine basin. Environmental Science and Pollution Research 22, 22: 17860–17875.OETTLD.2015bA multiscale modelling methodology applicable for regulatory purposes taking into account effects of complex terrain and buildings on pollutant dispersion: a case study for an inner Alpine basinEnvironmental Science and Pollution Research22221786017875Search in Google Scholar
OETTL D. 2024. Documentation of the Lagrangian particle model GRAL (Graz Lagrangian Model) Vs. 24.04. Landhausgasse 7, 8010 Graz, Austria.OETTLD.2024Documentation of the Lagrangian particle model GRAL (Graz Lagrangian Model) Vs. 24.04Landhausgasse 7, 8010 Graz, AustriaSearch in Google Scholar
OETTL D., KUKKONEN J., ALMBAUER R. A., STURM P. J., POHJOLA M., HÄRKÖNEN, J. 2001. Evaluation of a Gaussian and a Lagrangian model against a roadside data set, with emphasis on low wind speed conditions. Atmospheric Environment 35, 12: 2123–2132.OETTLD.KUKKONENJ.ALMBAUERR. A.STURMP. J.POHJOLAM.HÄRKÖNENJ.2001Evaluation of a Gaussian and a Lagrangian model against a roadside data set, with emphasis on low wind speed conditionsAtmospheric Environment351221232132Search in Google Scholar
OLESEN H.R. 1995. Datasets and protocol for model validation. International Journal of Environment and Pollution 5, 4–6: 693–701.OLESENH.R.1995Datasets and protocol for model validationInternational Journal of Environment and Pollution54–6693701Search in Google Scholar
PATIÑO W. R., VLČEK O., BAUEROVÁ P., BELDA M., BUREŠ M., EBEN K., FUKA V., GELETIČ J., JAREŠ R., KAREL J., KEDER J., KRČ P., RADOVIĆ J., ŘEZNÍČEK H., ŠINDELÁŘOVÁ A., RESLER J. 2024. On the suitability of dispersion models of varying degree of complexity for air quality assessment and urban planning. Building and Environment 264: 111892.PATIÑOW. R.VLČEKO.BAUEROVÁP.BELDAM.BUREŠM.EBENK.FUKAV.GELETIČJ.JAREŠR.KARELJ.KEDERJ.KRČP.RADOVIĆJ.ŘEZNÍČEKH.ŠINDELÁŘOVÁA.RESLERJ.2024On the suitability of dispersion models of varying degree of complexity for air quality assessment and urban planningBuilding and Environment264111892Search in Google Scholar
PERNIGOTTI D., GERBOLES M., BELIS C., THUNIS P. 2013. Model quality objectives based on measurement uncertainty. Part II: NO2 and PM10. Atmospheric Environment 79: 869–878.PERNIGOTTID.GERBOLESM.BELISC.THUNISP.2013Model quality objectives based on measurement uncertainty. Part II: NO2 and PM10Atmospheric Environment79869878Search in Google Scholar
PETROV A., GEORGIEVA E., HRISTOVA E. 2024. Sensitivity analysis of modelled air pollutant distribution around buildings under different meteorological conditions. Atmosphere 15, 6: 638.PETROVA.GEORGIEVAE.HRISTOVAE.2024Sensitivity analysis of modelled air pollutant distribution around buildings under different meteorological conditionsAtmosphere156638Search in Google Scholar
PISSO I., SOLLUM E., GRYTHE H., KRISTIANSEN N. I., CASSIANI M., ECKHARDT S., ARNOLD D., MORTON D., THOMPSON R. L., GROOT Z., CHRISTINE D. et al. 2019. The Lagrangian particle dispersion model FLEXPART version 10.4. Geoscientific Model Development 12, 1:, 4955–4997.PISSOI.SOLLUME.GRYTHEH.KRISTIANSENN. I.CASSIANIM.ECKHARDTS.ARNOLDD.MORTOND.THOMPSONR. L.GROOTZ.CHRISTINED.2019The Lagrangian particle dispersion model FLEXPART version 10.4Geoscientific Model Development12149554997Search in Google Scholar
ROLLINGS D. 2022. Just because we have more data doesn’t mean we should always use it: An analysis of the scale of data used to assess complex environments with the GRAL dispersion model. Air Quality and Climate Change 56, 3: 31–37. https://search.informit.org/doi/10.3316/informit.683377186302061ROLLINGSD.2022Just because we have more data doesn’t mean we should always use it: An analysis of the scale of data used to assess complex environments with the GRAL dispersion modelAir Quality and Climate Change5633137https://search.informit.org/doi/10.3316/informit.683377186302061Search in Google Scholar
SCIRE J. S., STRIMAITIS D. G., YAMARTINO R. J. et al. 2000. A user’s guide for the CALPUFF dispersion model. Earth Tech, Inc.SCIREJ. S.STRIMAITISD. G.YAMARTINOR. J.2000A user’s guide for the CALPUFF dispersion modelEarth Tech, Inc.Search in Google Scholar
SZCZYGŁOWSKI P., MAZUR M. 2005: Application of the Calmet/Calpuff Model for Calculating Pollution Concentration Levels from Elevated Point Sources. (In Polish: Zastosowanie modelu Calmet/Calpuff do obliczeń poziomu stężeń zanieczyszczeń pochodzących z wysokich emitorów punktowych). Inżynieria Środowiska, Akademia Górniczo-Hutnicza im. S. Staszica w Krakowie 10.SZCZYGŁOWSKIP.MAZURM.2005Application of the Calmet/Calpuff Model for Calculating Pollution Concentration Levels from Elevated Point Sources. (In Polish: Zastosowanie modelu Calmet/Calpuff do obliczeń poziomu stężeń zanieczyszczeń pochodzących z wysokich emitorów punktowych)Inżynieria Środowiska, Akademia Górniczo-Hutnicza im. S. Staszica w Krakowie10Search in Google Scholar
SCHENK R. 2020. Integral sentences and numerical comparative calculations for the validity of the dispersion model for air pollutants AUSTAL2000. Environmental Systems Research 9: 1–28.SCHENKR.2020Integral sentences and numerical comparative calculations for the validity of the dispersion model for air pollutants AUSTAL2000Environmental Systems Research9128Search in Google Scholar
STOHL A., HITTENBERGER M., WOTAWA G. 1998. Validation of the Lagrangian particle dispersion model FLEXPART against large-scale tracer experiment data. Atmospheric Environment, 32, 24: 4245–4264.STOHLA.HITTENBERGERM.WOTAWAG.1998Validation of the Lagrangian particle dispersion model FLEXPART against large-scale tracer experiment dataAtmospheric Environment322442454264Search in Google Scholar
STOHL A., FORSTER C., FRANK A., SEIBERT P., WOTAWA G. 2005. Technical note: The Lagrangian particle dispersion model FLEXPART version 6.2. Atmospheric Chemistry and Physics 5, 9: 2461–2474.STOHLA.FORSTERC.FRANKA.SEIBERTP.WOTAWAG.2005Technical note: The Lagrangian particle dispersion model FLEXPART version 6.2Atmospheric Chemistry and Physics5924612474Search in Google Scholar
SYKES R.I., PARKER S.F., HENN D.S., CERASOLI C.P., SANTOS L.P. 1998. PC-SCIPUFF Version 1.2PD. Technical Documentation. ARAP Report No. 718. Titan Corporation, Titan Research & Technology Division, ARAP Group, Princeton, NJ.SYKESR.I.PARKERS.F.HENND.S.CERASOLIC.P.SANTOSL.P.1998PC-SCIPUFF Version 1.2PD. Technical Documentation. ARAP Report No. 718Titan Corporation, Titan Research & Technology Division, ARAP GroupPrinceton, NJSearch in Google Scholar
THUNIS P., PEDERZOLI A., PERNIGOTTI D. 2012. Performance criteria to evaluate air quality modelling applications. Atmospheric Environment 59: 476–482.THUNISP.PEDERZOLIA.PERNIGOTTID.2012Performance criteria to evaluate air quality modelling applicationsAtmospheric Environment59476482Search in Google Scholar
THYKIER-NIELSEN S., DEME S., MIKKELSEN T.K., 1999. Description of the atmospheric dispersion module RIMPUFF. RODOS(WG2)-TN(98)-02THYKIER-NIELSENS.DEMES.MIKKELSENT.K.1999Description of the atmospheric dispersion module RIMPUFFRODOS(WG2)-TN(98)-02Search in Google Scholar
UL HAQ A., NADEEM Q., FAROOQ A., IRFAN N., AHMAD M., ALI M. R. 2019. Assessment of Lagrangian particle dispersion model “LAPMOD” through short range field tracer test in complex terrain. Journal of Environmental Radioactivity 205–206: 34–41.UL HAQA.NADEEMQ.FAROOQA.IRFANN.AHMADM.ALIM. R.2019Assessment of Lagrangian particle dispersion model “LAPMOD” through short range field tracer test in complex terrainJournal of Environmental Radioactivity205–2063441Search in Google Scholar
ULIASZ M. 1990a. Development of the mesoscale dispersion modeling system using personal computers. Part I: Models and computer implementation. Zeitschrift für Meteorologie 40: 104–114.ULIASZM.1990aDevelopment of the mesoscale dispersion modeling system using personal computers. Part I: Models and computer implementationZeitschrift für Meteorologie40104114Search in Google Scholar
ULIASZ M. 1990b. Development of the mesoscale dispersion modeling system using personal computers. Part II: Numerical simulations. Zeitschrift für Meteorologie 40: 285–298.ULIASZM.1990bDevelopment of the mesoscale dispersion modeling system using personal computers. Part II: Numerical simulationsZeitschrift für Meteorologie40285298Search in Google Scholar
ULIASZ M. 1993. The atmospheric mesoscale dispersion modelling system. Journal of Applied Meteorology and Climatology 32, 1: 139–149.ULIASZM.1993The atmospheric mesoscale dispersion modelling systemJournal of Applied Meteorology and Climatology321139149Search in Google Scholar
ULIASZ M., BARTOCHOWSKA M., MADANY A., PIWKOWSKI H., PARFINIEWICZ J., ROZKRUT M. 1994. Application of the mesoscale dispersion modelling system to investigation of air pollution transport in Southern Poland. In: Air pollution modelling and its Application X, p. 27–34. NATO · Challenges of Modern Society, vol 18. Boston: Springer.ULIASZM.BARTOCHOWSKAM.MADANYA.PIWKOWSKIH.PARFINIEWICZJ.ROZKRUTM.1994Application of the mesoscale dispersion modelling system to investigation of air pollution transport in Southern PolandIn:Air pollution modelling and its Application X2734NATO · Challenges of Modern Society, vol 18.BostonSpringerSearch in Google Scholar
ULIASZ M., STOCKER R. A., PIELKE R. A. 1996. Regional modelling of air pollution transport in the southwestern United States. Environmental Modeling, 145–182.ULIASZM.STOCKERR. A.PIELKER. A.1996Regional modelling of air pollution transport in the southwestern United StatesEnvironmental Modeling145182Search in Google Scholar
ULIASZ M, OLENDRZYNSKI K. 1997. Modelling of atmospheric transport and deposition of heavy metals in the Katowice province of Southern Poland - Project METKAT. https://core.ac.uk/download/pdf/33896374.pdf (accessed on 04.11.2024).ULIASZMOLENDRZYNSKIK.1997Modelling of atmospheric transport and deposition of heavy metals in the Katowice province of Southern Poland - Project METKAThttps://core.ac.uk/download/pdf/33896374.pdf (accessed on 04.11.2024).Search in Google Scholar
WARD J., ROLLINGS D. 2021: A comparison between the performance of GRAL and CALPUFF in a complex urban environment. Air Quality and Climate Change 55, 2: 23–31.WARDJ.ROLLINGSD.2021A comparison between the performance of GRAL and CALPUFF in a complex urban environmentAir Quality and Climate Change5522331Search in Google Scholar
WEIL J. C., BROWER R. P. 1984. An updated Gaussian plume model for tall stacks. Journal of the Air Pollution Control Association 34, 8: 818–827.WEILJ. C.BROWERR. P.1984An updated Gaussian plume model for tall stacksJournal of the Air Pollution Control Association348818827Search in Google Scholar
YANG L., FANG S., ZHUANG S., CHEN Y., LI X., ZHANG, Q. 2024. Atmospheric 137Cs dispersion following the Fukushima Daiichi nuclear accident: Local-scale simulations using CALMET and LAPMOD. Annals of Nuclear Energy 195: 110137.YANGL.FANGS.ZHUANGS.CHENY.LIX.ZHANGQ.2024Atmospheric 137Cs dispersion following the Fukushima Daiichi nuclear accident: Local-scale simulations using CALMET and LAPMODAnnals of Nuclear Energy195110137Search in Google Scholar
ZHU C., KANAYA Y., TAKIGAWA M., IKEDA K., TANIMOTO H., TAKETANI F., MIYAKAWA T., KOBAYASHI H., PISSO I. 2020. FLEXPART v10.1 simulation of source contributions to Arctic black carbon. Atmospheric Chemistry and Physics 20, 3: 1641–1656.ZHUC.KANAYAY.TAKIGAWAM.IKEDAK.TANIMOTOH.TAKETANIF.MIYAKAWAT.KOBAYASHIH.PISSOI.2020FLEXPART v10.1 simulation of source contributions to Arctic black carbonAtmospheric Chemistry and Physics20316411656Search in Google Scholar
ENVIRONMENT PROTECTION ACT OF APRIL 27TH, 2001 (Ustawa z dnia 27 kwietnia 2001 r. - Prawo ochrony środowiska). Dziennik Ustaw. 2001 (62) poz. 627.ENVIRONMENT PROTECTION ACT OF APRIL 27TH, 2001 (Ustawa z dnia 27 kwietnia 2001 r. - Prawo ochrony środowiska). Dziennik Ustaw. 2001 (62) poz. 627.Search in Google Scholar
REGULATION OF THE MINISTER OF THE ENVIRONMENT OF JANUARY 26, 2010, ON REFERENCE VALUES FOR CERTAIN SUBSTANCES IN THE AIR (Rozporządzenie Ministra Środowiska z dnia 26 stycznia 2010 r. w sprawie wartości odniesienia dla niektórych substancji w powietrzu), Dziennik Ustaw, 2010 (16) poz. 87.REGULATION OF THE MINISTER OF THE ENVIRONMENT OF JANUARY 26, 2010, ON REFERENCE VALUES FOR CERTAIN SUBSTANCES IN THE AIR (Rozporządzenie Ministra Środowiska z dnia 26 stycznia 2010 r. w sprawie wartości odniesienia dla niektórych substancji w powietrzu), Dziennik Ustaw, 2010 (16) poz. 87.Search in Google Scholar
TA LUFT 2021: REVISED VERSION OF THE FIRST GENERAL ADMINISTRATIVE REGULATION ON THE FEDERAL IMMISSION CONTROL ACT (Neufassung der Ersten Allgemeinen Verwaltungsvorschrift zum Bundes-Immissionsschutzgesetz (Technische Anleitung zur Reinhaltung der Luft-TA Luft). GMBl 2021 Nr. 48–54, S. 1050 (https://www.verwaltungsvorschriften-im-internet.de/bsvwvbund_18082021_IGI25025005.htm, accessed on 04.11.2024)TA LUFT 2021: REVISED VERSION OF THE FIRST GENERAL ADMINISTRATIVE REGULATION ON THE FEDERAL IMMISSION CONTROL ACT (Neufassung der Ersten Allgemeinen Verwaltungsvorschrift zum Bundes-Immissionsschutzgesetz (Technische Anleitung zur Reinhaltung der Luft-TA Luft). GMBl 2021 Nr. 48–54, S. 1050 (https://www.verwaltungsvorschriften-im-internet.de/bsvwvbund_18082021_IGI25025005.htm, accessed on 04.11.2024)Search in Google Scholar
VDI Guideline 3945, Part 1. Environmental Meteorology—Atmospheric Dispersion Models—Particle Model (Verein Deutscher Ingenieure: Düsseldorf, Germany, 2000).VDI Guideline 3945, Part 1. Environmental Meteorology—Atmospheric Dispersion Models—Particle ModelVerein Deutscher IngenieureDüsseldorf, Germany2000Search in Google Scholar
VDI Guideline 3783, Part 9, Environmental meteorology—Prognostic microscale win field models—Evaluation for flow around buildings and obstacles (Verein Deutscher Ingenieure: Beuth Verlag, Berlin, Germany, 2017).VDI Guideline 3783, Part 9, Environmental meteorology—Prognostic microscale win field models—Evaluation for flow around buildings and obstaclesVerein Deutscher IngenieureBeuth Verlag, Berlin, Germany2017Search in Google Scholar