Suggested national groundwater scenarios in Sweden

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Suggested national groundwater scenarios in Sweden To be used at registration of pesticide products in Sweden. 27.06.2002 1

Criteria for choice of scenarios Cover important agricultural regions Cover main crops Cover identified vulnerable soiltypes

Sold amounts of PPP Autumn 1987 and Spring 1998 kg a.s.per ha 0,67 till 1,69 (7) 0,52 till 0,67 (4) 0,46 till 0,52 (7) 0 till 0,46 (6) Ton a.s. 46 till 359 (5) 24 till 46 (6) 10 till 24 (5) 0 till 10 (8)

Amount pesticides per crop type kg active substance per hektare 6 5 4 3 2 1 0 Ley Pasture Grass for seed Brown beans Linseed Spring rape Cons. peas Oats Rye wheat Rye Winter wheat wheat Spring barley. Spring wheat Cook- & fodder peas Winter rape Sugar beets Starch potatoes Table potatoes

Vulnerable areas defined A. Moraine overlying crystalline bedrock 75% covered by unsorted glacially derived moraine materials Most common type of aquifers but often small private wells B. Eskers Important ground water supplies agriculture not common directly on the eskers, but possibly at the lighter slopes and at the edges C. Sand and gravel deposits large water supply capacity, vulnerable to contamination, quite common with agriculture e.g. potatoes D. Sedimentary bedrock - fractured soils water supplies for heavy populated areas, intensive agriculture

Choice of scenarios In Mälar valley- one scenario A: Krusenberg (near Uppsala) In Scania two scenarios chosen C: Önnestad (near Kristianstad) D: Näsbygård (near Vemmenhög)

Location of scenarios Ton a.s. 46 till 359 (5) 24 till 46 (6) 10 till 24 (5) 0 till 10 (8)

Soil characterisation at each of the three geographical locations For calibration of solute transport parameters: Soil cores were taken from the top soil and the upper subsoil Loose soil was sampled for soil physical and hydraulic properties.

Soil Properties Soil horizons Structure Clay / silt / sand OC % Bulk dens. g/cm 3 Näsbygård 0-20 cm 35-55 cm 55-65 cm Weak fine granular Single grain String fine blocky 10 / 12 / 78 4 / 6 / 90 56 / 32 / 12 1.02 0.30 0.33 1.34 1.54 1.44 Önnestad 0-20 cm 33-53 cm 57-77 cm 110-153 cm Single grain Single grain Single grain Single grain 5 / 4 / 91 2 / 2 / 96 2 / 4 / 94 2 / 2 / 96 1.87 0.16 0.06 0.03 1.44 1.58 1.63 - Krusenberg 0-25 cm 25-50 cm 50-75 cm 75-100 cm Weak med. blocky Mod. med. blocky Weak med. Blocky Weak coarse prism. 25 / 42 / 33 30 / 44 / 26 25 / 39 / 36 20 / 28 / 52 1.16 0.43 0.20 0.15 1.42 1.49 1.52 1.58

Soil Properties Hydraulic conductivity (mm h -1 ) Soil horizons Saturated 1 cm tension 10 cm tension Näsbygård 0-20 cm 35-55 cm 55-65 cm Önnestad 0-20 cm 33-53 cm 57-153 cm 95 104 295 52 12 42 34 4.7 3.1 8.6 6.9 Krusenberg 0-25 cm 25-100 cm 25 0.4

Daily weather data Weather from Sturup for Näsbygård and Önnestad Weather from Uppsala for Krusenberg

Weather Average Annual temperature deg C Average precipitation mm/year Average percolation mm/year min / max Näsbygård (Sturup) 7.5 698 101 Önnestad (Sturup) Krusenberg (Uppsala) 7.5 5.7 698 527 53 / 64 312 182 / 513 33 0 / 62

Crops Crops are chosen according to what is normal practice at the specific locations, which partly depends on the soil type but also on climate

Crops and locations Crops Scenarios Winter and spring cereals, legumes Winter oil seed rape, sugar beets, pome/stone fruit (i) N, Ö, K N, Ö Leafy vegetables Root vegetables (i), bulb vegetables (i), bush berries (i) N Ö, K Potatoes (i), spring oil seed rape, strawberries (i) Ö, K

Measured (mean, n=4) and simulated water outflows, Önnestad topsoil

Measured (mean, n=4) and simulated chloride leaching, Önestad topsoil

Model used MACRO in FOCUS ver. 3.3.1 Same criteria as in FOCUS groundwater Addition of Swedish scenarios of soils, crop data and weather data

Runs, examples Dose g/ha Date DT 50 days Koc 1/n Conv. Factor Dummy C Spring cereals, pre-em Metabolite dummy C Dummy X Winter cereals, pre-em Metabolite dummy X 1000 114 20 172 0.9 - - - 100 52 0.9 0.50 10 284 13 32 0.9 - - - 74 157 0.9 0.59

Concentration in leachate at reference depth, 80%-ile Scenario Krusenberg Näsbygård Önnestad Refere. depth 1.3 m µg/l 1.5 m µg/l 1.6 m µg/l Dummy C 0.0086 1.02 0.011 Metabolite 40-60 24 37 dummy C Dummy X 0.043 0.13 0.088 Metabolite dummy X 0.13 0.16 0.095

Karin Hanze June 2002 National Chemicals Inspectorate Solna, Sweden karinhz@kemi.se A Presentation of Preliminary Standard Swedish Scenarios for Simulation of Pesticides Leaching to Groundwater Aim of model simulations The use of model to simulate leaching of pesticides to groundwater can be used for at least two reasons. As one of the tools in the national registration of pesticides, which has been put on the Annex 1 list of the PPP directive 91/414/EEC or such substances that are under evaluation in EU and can be given provisional registration in a member state. It can of cause also be used as a comparative tool to access possible leaching differences between different pesticides to be used for substitution. Comparative assessment and substitution has been tools used in Sweden in our re-registration work during the 1990 s. Simulations can also be used to identify substances, which should not be used in certain vulnerable areas. Swedish hydrogeology Sweden has together with some other northern countries in Europe a very specific geology dated back to the time of melting of the inland ice. We also have a fairly cold climate, where pesticides are used more frequently, with a mean yearly temperature in the Scania of about 7.5 C to less than 5 C. These circumstances taken together constitute a somewhat different approach to define scenarios than was done for mid Europe. Besides in Sweden the catchments are usually quite small and in many cases well defined. The formation of ground water differs from that in main Europe. Use of the 9 FOCUS scenarios in national registration in Sweden There are two FOCUS-scenarios that may be of interest in Swedish national registration, mainly based on the geographical positions of these scenarios. One is Jokkioinen, which is situated at about the same latitude as for example the agriculture area of the lake regions (east Vänern, Mälaren and Hjälmaren). However the soil types in these regions differ from the one in Jokkionen. Few Swedish soils of greater interest have this large organic content as the Jokkioinen soil and a majority of the Swedish clay soils can be characterised to have macro pore flow. The other scenario is the Hamburg scenario, which has a sandy soil. This type of soil is fairly common in Sweden. However, the mean yearly temperature in Sweden differs with maybe 2 3 degrees. Together with Nick Jarvis at SLU, Uppsala, National Chemicals Inspectorate (KemI), which is the Registration Authority for PPP in Sweden, has decided to define specific national scenarios for Sweden, using the MACRO model, which can simulate macro pore flow. As we can see it this model comes closer to a more realistic prediction of leaching of pesticides under Swedish hydro/geological and climatic conditions than the models which are based on chromatographic flow.

Identification of Swedish scenarios KemI has decided that the scenarios should include agricultural areas, which can be classified as vulnerable to groundwater contamination. The identification of such areas was carried out by a hydro/geological consultant (Geosigma AB). The areas should be typical agriculture areas also including major crops. Agriculture is carried out also far north in the country along the main larger rivers and coastal areas in the north of Sweden. However, for the time being, we have developed three scenarios. Two of them are situated in the very south of Sweden at a latitude ca. 56 N, and one is situated at a latitude of ca. 60 N. The reason for this choice is partly from the fact that the agriculture areas between these two latitudes correspond to the major use of pesticides in Sweden. One or two more scenarios may be developed or may substitute any of these three preliminary scenarios if there is a reason for this. MACRO-model version to be used KemI has decided to use the same MACRO shell and version as the one used in FOCUS and the model will be downloaded from JRC, Ispra. The Swedish scenarios will be delivered by KemI. The FOCUS criteria in MACROin Focus are kept the same with an exception regarding reference depth, which are set below root depth and is approximately 1.3 to 1.6 meters below soil surface in the defined scenarios. Status of the national leaching scenarios in Sweden The soils of all three scenarios have been calibrated by Nick Jarvis and his institution at SLU, Uppsala, Sweden. The scenarios have been tested at KemI with proper pesticide input data as well as GAP data for each respective scenario and crop. There is a further need to make test runs and to discuss the results with Nick Jarvis. We plan to have the scenarios ready for use in early autumn and also to have a contract with the institute who has delivered the weather data as to be able to make it possible for, in first hand industry and maybe also interested universities to use the Swedish scenarios. When everything is ready we plan either send a message to industry or to write about it on our home page, www.kemi.se. There we will present the scenarios and give guidance how to download the scenarios.