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. 2017 Nov 5;28(10):11716–11748. doi: 10.1007/s11356-017-0394-3

Table 2.

Residues of neonicotinoids and fipronil in environmental samples. Values indicate the range of concentrations (in ng/g or ng/L, depending on the matrix) and the frequency of detection (%)

Matrix Acetamiprid Clothianidin Dinotefuran Imidacloprid Guadipyr Thiacloprid Thiamethoxam Fipronil Reference
Dust (ng/g)
 Maize planting (Italy) 0.4–905* 11.9–2704* 3.0–940* 1.6–115* Biocca et al. (2017)
 Urban dust (California, USA) 1–6188** Richards et al. (2016)
 Maize planting (Canada) 0.05–8.41** Xue et al. (2015)
 Corn fields (Canada) 17.8–42.3 10.2–65.0 Limay-Rios et al. (2016)
Soil and sediment (ng/g d.w.)
 Canola fields (Midwest USA) 4.4–21.4 Xu et al. (2016)
 Cocoa plantation (Ghana) 9.8–23.1 (10%) 4.3–251 (54%) Dankyi et al. (2014)
 Corn field (Midwest USA) 2.0–11.2 de Perre et al. (2015)
 Corn fields (Canada) 0.16–0.2 4 ± 1.1 Schaafsma et al. (2015)
 Corn fields (Midwest USA) 6.4–20.3 Xu et al. (2016)
 Cotton fields (China) 40–650 Wu et al. (2017)
 Maize fields (Canada) 2.9–5.1 (100%) 0.3–1.8 (86%) Limay-Rios et al. (2016)
 Oilseed rape (UK) 5.1–28.6 (100%) 0.7–7.9 (100%) < 0.01–0.2 (43%) 0.5–9.7 (100%) Botias et al. (2015)
 Rice fields (China) 17–600 Li et al. (2014)
 Rice fields (Japan) 50–280 10–90 Boulange et al. (2016)
 Rice fields (Japan) 25–28 Yokoyama et al. (2015)
 Rice fields (Vietnam) 9 La et al. (2015)
 River sediment (China) 162 (62.5%) 141 (87.5%) Chen et al. (2015)
 Several crops (Canada) 5.6 ± 0.9 Schaafsma et al. (2016)
 Several crops (Central Europe) 72–98 Hilton et al. (2016)
 Wheat field margins (UK) 0.4–19.1 (100%) < 0.07–6.3 (75%) < 0.01–0.1 (25%) < 0.04–0.5 (50%) Botias et al. (2015)
Water (ng/L)
 Arade river (Portugal) 2.5–8.0 (100%) Gonzalez-Rey et al. (2015)
 Corn fields (Canada) 2.28–43.6 (100%) 1.12–16.5 (98%) Schaafsma et al. (2015)
 Drinking water (Iowa, USA) 3.9–57.3 (100%) 1.12–39.5 (100%) 0.2–4.1 (100%) Klarich et al. (2017)
 Ebro river (Spain) 1.1–15.0 (45%) Ccanccapa et al. (2016)
 Forest streams (N Carolina, USA) 29–379 (70%) Benton et al. (2016)
 Groundwater (Wisconsin, USA) 210–3340 (20%) 260–3340 (24%) 200–8930 (55%) Huseth and Groves (2014)
 Infiltration water (Midwest USA) 10–203 de Perre et al. (2015)
 Llobregat river (Spain) 2.1–66.5 (78%) Masiá et al. (2015)
 Mekong river (Vietnam) 630–950 (4%) 170–410 (83%) Chau et al. (2015)
 Pothole wetlands (Canada) 310–3500 (98%) 40–120 (48%) 290–6900 (54%) Evelsizer and Skopec (2016)
 Reservoir (Brazil) < 0.7–3.0 (31%) 1.1–2.0 (91%) López-Doval et al. (2017)
 Rice fields (China) 9.6–166 Li et al. (2014)
 Rice fields (China) 0.1–780 Liu et al. (2014)
 Rice fields (Japan) 290,000–720,000 Yokoyama et al. (2015)
 Rice fields (Japan) 5.0–30 1.3–2.5 Boulange et al. (2016)
 Rice fields (Vietnam) 53–83 La et al. (2015)
 River (Japan) 10,000 Yokoyama et al. (2015)
 Rivers (California, USA) 30–13,800 (100%) Sengupta et al. (2014)
 Runoff water (Midwest USA) <LOD–850 de Perre et al. (2015)
 Rural streams (Germany) 2–20 (32%) 20–44 (10%) Münze et al. (2015)
 Rural streams (Iowa, USA) 8.2–257 (75%) < 2–42.7 (23%) < 2–185 (47%) Hladik et al. (2014)
 San Francisco Bay (USA) 13.5–1462 (80%) 1.1–27.4 (81%) Weston et al. (2015)
 Soybean crops (Canada) 3.0–40 (100%) 3.0–1090 (100%) Chrétien et al. (2017)
 Stream (Brazil) 1230–1580 (100%) Rocha et al. (2015)
 Streams (Indiana, USA) 6–671 (96%) 2–177 (90%) 15–2568 (98%) Miles et al. (2017)
 Streams (USA) 1–40 (3%) 34–64 (24%) 4–134 (13%) 5.7–143 (37%) 7–190 (21%) 0.1–10 (84%) Bradley et al. (2017)
 Streams (USA) 2.5–45.6 (7.5%) 1.7–62 (56%) 1.6–4.1 (10%) 2.1–65.9 (87%) 5.6–35.9 (44%) Hladik and Kolpin (2016)
 Sugarbeet crops (Switzerland) 1290 2830 Wettstein et al. (2016)
 Wetlands (Canada) 0.6–54.4 (1.5%) 59.7–3110 (76%) 7.1–256 (12%) 40.3–1490 (52%) Main et al. (2015)
 WTP effluent (N Carolina, USA) 10–500 (100%) McMahen et al. (2016)
Plants (ng/g)
 Cotton seedlings 48–646 Wu et al. (2017)
 Foliage (oilseed rape) 1.3–8.7 (100%) < 0.2–3.1 (2%) < 0.1–2.6 (100%) Botías et al. (2016)
 Guttation fluid (turfgrass) 23–88 Larson et al. (2015)
 Guttation fluid (oilseed rape) 10–132 3.2–12.9 Reetz et al. (2016)
 Nectar (canola) 0.3–2.4 Xu et al. (2016)
Nectar (clover) mowed 6.2–18 8.4–26 Larson et al. (2015)
 Nectar (clover) sprayed 2882–2992 5493–6588 Larson et al. (2015)
 Nectar (oilseed rape) < 0.17–13.2 (31%) < 0.03–1.2 (54%) < 0.1–13.3 (54%) Botias et al. (2015)
 Nectar (oilseed rape) 6.7–16 Rundlöf et al. (2015)
 Nectar (oilseed rape) 0.7–0.8 Rolke et al. (2016)
 Pollen (beans) 0.2 ± 0.3 David et al. (2015)
 Pollen (corn) 1.2–5.7 Xu et al. (2016)
 Pollen (oilseed rape) 6.6–23 Rundlöf et al. (2015)
 Pollen (oilseed rape) 0.5–0.97 Rolke et al. (2016)
 Pollen (oilseed rape) < 0.12–14.5 (90%) < 0.04–7.3 (86%) 1.0–11.1 (100%) Botias et al. (2015)
 Pollen (oilseed rape) < 0.72–11 (73%) < 0.22–78 (100%) 2.4–11 (100%) David et al. (2016)
 Pollen (raspberries) 6.0 ± 5.9 9.4 ± 2.1 23 ± 38 David et al. (2015)
 Pollen (strawberries) 8.9 ± 1.3 3.1 ± 5.4 5.9 ± 0.7 1.5 ± 0.3 David et al. (2015)
 Pollen (wildflowers) < 0.36–1.1 (13%) < 0.07–4 (63%) < 0.12–21 (50%) David et al. (2016)
 Pollen collected by honeybees < 0.07 (4%) < 0.72 (8%) < 0.36–3.5 (12%) < 0.07–10 (48%) < 0.12–1.6 (64%) David et al. (2016)
 Pollen in apiaries—treated maize fields 0.04–4.7 (28%) 0.64–9.37 (22%) 4.5 (3%) 0.25 (3%) 0.07–0.95 (22%) Long and Krupke (2016)
 Pollen in apiaries—nontreated land 4.7 (3%) 4.8–6.3 (10%) 0.9–1.1 (7%) 0.5–1.7 (10%) Long and Krupke (2016)

*Units: microgram per cubic meter

**Total residues of parent compound and metabolites