Droplet size characteristics of selected nozzles for protection of spatial crops

This paper describes the emission droplet size spectra from agricultural nozzles under spatial operating conditions with respect to the spray proportion contained in droplets optimized for pesticide efficacy relative to the drift-prone droplets.

REFERENCES (50)

ASAE S572.1: Spray Nozzle Classification by Droplet Spectra. 4 s. 2009.

Google Scholar

Bartkowski J.: Praktyczne podstawy ochrony roślin. Krajowe Centrum Doradztwa Rozwoju Rolnictwa i Obszarów Wiejskich Oddział w Poznaniu. Opracowanie zbiorowe. ISBN – 83-86742-92-5. 212 s. 1999.

Google Scholar

Butler Ellis M.C., P.C.H. Miller, J.H. Orson: Minimising drift while maintaining efficacy – the role of air-induction nozzles. Aspects of Applied Biology 84, s. 59-66. 2008.

Google Scholar

Czaczyk Zb.: Potencjał znoszenia cieczy wybranych rozpylaczy płaskostrumieniowych mierzony w tunelu aerodynamicznym. Journal of Research Advances in Agricultural Engineering 2, przyjęte do druku. 2012.

Google Scholar

Czaczyk Zb., B. Gnusowski: Comparison of fungicide residues in apple flesh depending on spraying categories. Annales of the University of Cracovia, 2007, Vol. XXXVII/A-2007, s. 554-557.

Google Scholar

Czaczyk Zb., S. Kleisinger: Drift potential of boom-mounted antidrift nozzles measured in a wind tunnel. 10th IUPAC International Congress on the Chemistry of Crop Protection, Basel, August 4 – 9th. Book of abstracts Vol. 1, s. 415 & poster No. 4d.07. 2002.

Google Scholar

Derksen R.C., H.E. Ozkan, R.D. Fox, R.D. Brazee: Droplet Spectra and Wind Tunnel Evaluation of Venturi and Pre-orifice Nozzles. Transactions of the ASAE, 42 (6), s. 1573-1580. 1999.

Google Scholar

Doruchowski G., R. Hołownicki: Przewodnik Dobrej Organizacji Ochrony Roślin. Instytut Sadownictwa i Kwiaciarstwa, ISBN 978-83-60573-23-5, wyd. 2, 90 s. 2008.

Google Scholar

FAO: Guidelines on standards for agricultural pesticide application equipment and related test procedures, ISBN 92-5-104723-5, Vehicle-mounted and trailed sprayers. 50 s. 2001.

Google Scholar

10.

Ferreira M.C., P.C.H. Miller, C.R. Tuck: Measurements of the droplet size and velocity distributions in the sprays produced by a range of pressure nozzle designs operating with a range of spray liquids. Aspects of Applied Biology 99. s. 219-224. 2010.

Google Scholar

11.

Frießleben R., G. Kifferle, W. Stahli: The influence of application system on the biological effect in weed control by LL- maize. A Report from AgrEvo. 8 s. 2000.

Google Scholar

12.

Gajtkowski A.: Technika Ochrony Roślin. Wydawnictwo AR w Poznaniu, ISBN 83-7160-208-1, 257 s. 2000.

Google Scholar

13.

Guller H., H. Zhu, H.E. Ozkan, R.C. Derksen, Y. Yu, C.R. Krause: Spray characteristics and drift reduction potential with air induction and conventional flat-fan nozzles. Transactions of the ASABE 50 (3), s. 745-754. 2007.

Google Scholar

14.

Heijne B., M. Wenneker, J.C. Van de Zande: Air-inclusion nozzles don’t reduce pollution of surface water during orchard spraying in the Netherlands. Aspects of Applied Biology 66, s. 193-199. 2002.

Google Scholar

15.

Hewitt A.J.: The importance of droplet size in agricultural spraying. Atomization and Sprays 7 (3), s. 235-244, 1997.

Google Scholar

16.

Hewitt A.J.: Developments in international harmonization of pesticide drift management, Phytoparasitica 29 (2), s. 93-96. 2001.

Google Scholar

17.

Hilz E., A. W. P. Vermeer, F. A. M. Leermakers, M. A. Cohen Stuart: Spray drift: How emulsions influence the performance of agricultural sprays produced through a conventional flat fan nozzle. Aspects of Applied Biology 114, s. 71-78. 2012.

Google Scholar

18.

Hoffmann C.: Optimizing citrus sprayer operational parameters based on droplet size criteria. SuProFruit 2011, 11th Workshop 8-10th June, Ctifl Lanxade, France, Book of Abstracts, s. 40-41. 2011.

Google Scholar

19.

Hołownicki R., G. Doruchowski: Nowoczesna technika opryskiwania upraw sadowniczych. Wydawnictwo Plantpress, ISBN 83-85982-54-X. 44 s. 2001.

Google Scholar

20.

Hołownicki R.: Technika Opryskiwania Roślin dla Praktyków. ISBN 83-89874-50-4, Plantpress, 211 s. 2006.

Google Scholar

21.

Hołownicki R., G. Doruchowski, W. Świechowski, A. Godyń: Influence of nozzle type and headwind on spray distribution within the tree canopy. Review of Agricultural Engineering: Proceedings of International Conference on Environmentally Friendly Spray Application Techniques, Warsaw, s. 237-243. 2005.

Google Scholar

22.

ISO 10625: Equipment for crop protection. Sprayer nozzles. Colour coding for identification. International Standardization Organization. 12 s. 2005.

Google Scholar

23.

JKI: The list of drift reduced equipment: Offizielles Verzeichnis Verlustmindernde Geraete): http://www.jki.bund.de/no_cach... /de/start seite/institute/anwendungstechnik/geraete listen/verlustminderndepflanzenschutzgeraete. html, dostęp 25.05.2012.

Google Scholar

24.

Klein R., J. Golus, A. Cox: Spray droplets size and how it is affected by pesticide formulation, concentrations, carriers, nozzle tips, pressure and additives. Aspects of Applied Biology 84, s. 231-237. 2008.

Google Scholar

25.

Koch H., H. Knewitz, G. Fleischer: Untersuchungen zur Abdriftreduzierung und biologischen Wirksamkeit im Obstbau bei grobtropfiger Applikation. Gesunde Pflanzen 53 (4), s. 120-125. 2001.

Google Scholar

26.

Lešnik M., C. Pintar, A. Lobnik, M. Kolar: Comparison of the effectiveness of standard and drift-reducing nozzles for control of some pest of apple. Crop Protection, 24. s. 93-100. 2005.

Google Scholar

27.

Lodeman E.G.: The spraying of plants. Edited by L.H. Bailey, The Rural Science Series, 399 s. 1908.

Google Scholar

28.

Mathews G.A.: Pesticide Applications Methods. 3rd edn. Blackwell Science, Oxford, England, 432 s. 2000.

Google Scholar

29.

McArtney S.J., J.D. Obermiller: Comparative performance of airinduction and conventional nozzles on an axial fan sprayer in medium density apple orchards. HortTechnology, 18 (3) s. 365-371. 2008.

Google Scholar

30.

Miller P.C.H., C.R. Tuck: Factors influencing the performance of spray delivery systems: A Review of recent developments. Journal of ASTM, June, Vol.: 2, No. 6, Paper ID JAI12900, 13 s. 2005.

Google Scholar

31.

Miller P.C.H., C.R. Tuck, S. Murphy, M. da Costa Ferreira: Measurements of the droplet velocities in sprays produced by different designs of agricultural spray nozzle. European Conference on Liquid Atomization and Spray Systems, Como Lake, Italy, 8-10 September. Paper ID ILASS08-8-5, 8 s. 2008.

Google Scholar

32.

MRiRW: Krajowy Plan Działania na rzecz ograniczenia ryzyka związanego ze stosowaniem środków ochrony roślin na lata 2013-2017, 72 s. 2012.

Google Scholar

33.

OECD: Report of the Seminar on pesticide Risk Reduction Through Spray Drift Reduction Strategies as Part of National Risk Management. Joint meeting of the chemicals committee and the working party on chemicals, pesticides and biotechnology, Paris, 12 June 2008, Paper ID: ENV/JM/MONO(2009)36, 23 s. 2009.

Google Scholar

34.

Panneton B., M. Piché: Interaction Between Application Volume, Airflow, and Spray Quality in Air-Assisted Spraying. Transactions of ASAE 48 (1), s. 37-44. 2005.

Google Scholar

35.

PIMR: Wyniki badań rozpylaczy dla sprzętu polowego i sadowniczego. 49 s. 2004.

Google Scholar

36.

PN-EN 12761-2: Maszyny rolnicze i leśne – Opryskiwacze oraz maszyny do nawożenia płynnymi nawozami mineralnymi – Ochrona środowiska – Część 2: Opryskiwacze polowe. Polska Norma. Polski Komitet Normalizacyjny. 30 s. 2001.

Google Scholar

37.

Pruszyński S., S. Wolny: Przewodnik dobrej praktyki ochrony roślin. Wydawnictwo IOR, ISBN 978-83-89867-85-8, 80 s. 2007.

Google Scholar

38.

Ratajkiewicz H., R. Kierzek: Effect of water hardness on droplet spectrum of spray solution including selected fungicides. Annual Review of Agricultural Engineering, ISSN 1429-303X, Vol. 4/1, s. 333-340. 2005.

Google Scholar

39.

Rozporządzenie Ministra Rolnictwa i Rozwoju Wsi z dnia 4 października 2001 r. (Dz. U. Nr 121, poz. 1303) i z dnia 15 listopada 2001 r. (Dz. U. Nr 137, poz. 1544). 2001.

Google Scholar

40.

Salyani M., W.C. Hoffmann: Air and spray distribution from an aircarried sprayer. Applied Engineering in Agriculture 12 (5). s. 539-545. 1996.

Google Scholar

41.

Southcombe E.S.E., P.C.H. Miller, H. Ganzelmeier, J.C. van de Zande, A. Miralles, A.J. Hewitt: The International (BCPC) spray classification system including a drift potential factor. Proceedings of the BCPC Crop Protection Conference-Weeds, s. 371-380. 1997.

Google Scholar

42.

Spillman J.J.: Spray impaction, retention and adhesion: an introduction to basic characteristics. Pestic. Sci. 15, s. 97-106. 1984.

Google Scholar

43.

Strutyńska K.: Badania rozpylaczy (Przyczynek do opracowania metodyki badań opryskiwaczy). Instytut Mechanizacji i Elektryfikacji Rolnictwa. Roczniki Nauk Rolniczych, Tom 66-C-3, s. 51-74. 1953.

Google Scholar

44.

SPISE – European Workshop on Standardized Procedure for the Inspection of Sprayers in Europe, Lana, Italy – 27-29 March. 2012. (http://spise.jki.bund.de/).

Google Scholar

45.

Teske M.E., A.J. Hewitt, D.L. Valcore: Drift and nozzle classification issues with ASAE standards S572 Aug99 Boundaries. Paper Number: AA03-001, written for presentation at the 2003 ASAE/NAAA Technical Session sponsored by ASAE Technical Committee PM23/6/2, 37th Annual National Agricultural Aviation Association Convention Silver Legacy Reno, NV, December 8., 9 s. 2003.

Google Scholar

46.

Triloff P.: Verlustreduzierter Pflanzenschutz im Baumobstbau – Abdriftminimierung und Effizienzsteigerung durch baumformabhängige Dosierung und optimierte Luftführung. Dissertation, Universität Hohenheim, Ed. Ulrich E. Grauer Stuttgart, ISBN 978-3-86186-563-6. 351 s. 2011.

Google Scholar

47.

Van den Berg F., R. Kubiak, W.G. Benjey, M.S. Majewski, S.R. Yates, G.L. Reeves, J.H. Smelt, A.M.A. Van der Linden: Emission of pesticides into the air. Water, Air, and Soil Pollution 115. s. 195-218. 1999.

Google Scholar

48.

Webb D.A.: Spreading of spray droplets on foliage. Aspects of Applied Biology 84, s. 239-244. 2008.

Google Scholar

49.

Wenneker M., J.C. Van de Zande, M. Poulsen, P. Balsari, G. Doruchowski, P. Marucco: Pesticide residues in apples sprayed with different application techniques (CASA sprayer – ISAFRUIT), Su-ProFruit 2011, 11th Workshop 8-10th June, Ctifl Lanxade, France, Book of Abstracts, s. 142-143. 2011.

Google Scholar

50.

Zande J.C. van de, M. Wenneker: Nozzle classification for drift reduction in orchard spraying: implementation in regulation. Su-ProFruit 2011, 11th Workshop 8-10th June, Ctifl Lanxade, France, Book of Abstracts, s. 138-139. 2011.

Google Scholar

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