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Development of the Novel Insecticide Spinetoram (DIANA ) Sumitomo Chemical Co., Ltd. Health & Crop Sciences Research Laboratory Yasutaka SHIMKAWATK Naoki SAT Environmental Health Science Laboratory Takafumi YAMAGUCHI Hitoshi TANAKA Spinetoram is a new chemical in the spinosyn class of insecticides. It is a semi-synthetic spinosyn discovered in modification studies of fermenting substances of Saccharopolyspora spinosa by Dow AgroSciences LLC. Spinetoram has good insecticidal properties such as broad insecticidal spectrum, rapid action and short preharvest interval. Sumitomo Chemical Co., Ltd. started its development in Japan from 2005. Its formulated products, DIANA SC, DIANA WDG and STUT DANTTSU DIANA box granule, have been registered since March 2011. Its insecticidal properties, the best application timing for the control of cabbage insect pests and the safety assessment of are introduced in this paper. Insecticide Resistance Action Committee IRAC Saccharopolyspora spinosa Dow AgroSciences 1) 2007 2) 3) 4) 2005 Dow 2012

AgroSciences 2006S-1947SC S-1947WDG S-8640 2011 3 29 SC WDG -J -L 2 Fig. 1 N N CH3 H H CH3 H H H H H H H H -J Common name <-J> IUPAC name (1S,2R,5R,7R,9R,10S,14R,15S,19S)-7-(6-deoxy-3--ethyl- = 2,4-di--methyl-α-L-mannopyranosyloxy)-15-[(2R,5S,6R)- = 5-(dimethylamino)tetrahydro-6-methylpyran-2-yloxy]-19-ethyl- = 14-methyl-20-oxatetracyclo[10.10.0.0 2,10.0 5,9 ]docosa-11-ene- = 13,21-dione Molecular formula C42H69N10 Molecular weight 748.02 Appearance White powder Log Pow 4.09±0.16(pH7) Solubility in water 10 mg/l (20 C) Vapor pressure 5.3 10 5 Pa (20 C) -L <-L> (1S,2S,5R,7S,9S,10S,14R,15S,19S)-7-(6-deoxy-3--ethyl- = 2,4-di--methyl-α-L-mannopyranosyloxy)-15-[(2R,5S,6R)- = 5-(dimethylamino)tetrahydro-6-methylpyran-2-yloxy]-19-ethyl- = 4,14-dimethyl-20-oxatetracyclo[10.10.0.0 2,10.0 5,9 ]docosa- = 3,11-diene-13,21-dione C43H69N10 760.03 White-Yellow solid 4.49±0.09 (ph7) 31.9 mg/l (20 C) 2.1 10 5 Pa (20 C) Fig. 1 Chemical and physical properties of Table 1 Insecticidal activity of on major pests rder Lepidoptera Thysanoptera Name Diamondback moth Common white looper Smaller tea tortrix riental tea tortrix Summer fruit tortrix Rice leafroller Melon thrips Yellow tea thrips Pests Scientific Name Plutella xylostella Spodoptera litura Pieris rapae crucivora Helicoverpa armigera Trichoplusia ni Adoxophyes honmai Homona magnanima Adoxophyes orana fasciata Cnaphalocrocis medinalis Thrips palmi Scirtothrips dorsalis Growth Stage 3rd instar larva 3rd instar larva mid instar larva 3rd instar larva 3rd instar larva mid instar larva 3rd instar larva 3rd instar larva late instar larva adult adult Crops Tea Tea Apple Rice Cucumber Tea Methods forliar spray bservation * 10DAT 3DAT 3DAT LC50 (ppm) 0.01ppm 1.17ppm 0.02ppm 0.08ppm 0.01ppm 0.94ppm 0.87ppm 0.11ppm 0.06ppm 0.019ppm 0.038ppm rder Diptera Hemiptera Name Tomato leafminer Pea leafminer Sweeto potato whitefly (biotype Q) Pests Scientific Name Liriomyza sativae Liriomyza huidobrensis Bemisia tabaci Growth Stage early instar larva early instar larva first instar nymph Crops Cucumber Cucumber Methods dipping (leaf & insect) bservation 3DAT 3DAT Mortality 23ppm: % 23ppm: % 47ppm: 98% * Days after treatment 2012

Table 1 γ - GABA Fig. 2 5) IRAC 28 Group5 Fig. 3 Plutella xylostella Adoxophyes honmai Fig. 4 Axon Fig. 2 Ach* Excitatory neurotransmission Postsynaptic membrane GABA Receptor Dendrite Excitatory neurotransmission Nicotinic Ach Receptor Presynaptic membrane * Ach: acetylcholine Mode of action of Activated receptor Abnormal neurotransmission 2 Fig. 5 Insecticide Nerve action Energy metabolism Growth regulation thers Acetylcholinesterase (AChE) inhibitors : Carbamates (1A), rganophosphates (1B) GABA-gated chloride channel antagonists : Phenylpyrazoles (2B) Sodium channel modulators : Pyrethroids, Pyrethrins (3A) Nicotinic acetylcholine receptor (nachr) agonists : Neonicotinoids (4A) Nicotinic acetylcholine receptor (nachr) allosteric activators : Spinosyns (5) Selective homopteran feeding blockers : pymetrozine (9B), flonicamid (9C) Nicotinic acetylcholine receptor (nachr) channel blockers : Nereistoxin analogues (14) Mitochondrial complex I electron transport Inhibitors : METI acaricides and insecticides (21A) Mitochondrial complex III electron transport inhibitors (21) Mitochondrial complex II electron transport inhibitors : Beta-ketonitrile derivatives (25) Juvenile hormone mimics : pyriproxyfen (7C) Inhibitors of chitin biosynthesis : Benzoylureas (15), buprofezin (16) Ecdysone receptor agonists : Diacylhydrazines (18) Microbial disruptors of insect midgut membranes : BT (11) Ryanodine receptor modulators : Diamides (28) Source : IRAC MoA Classification ver.7.1 6) Fig. 3 Major MoA of insecticides 2012

Mortality (%) 60 40 Mortality (%) 60 40 Susceptive strain Resistant strain 20 20 0 47ppm acephate 500ppm permethrin ppm chlorfluazuron 25ppm 0 47ppm tebufenozide 200ppm flubendiamide ppm Insect : Diamondback moth (Plutella xylostella) Plant : Method : feeding leaves dipped into diluted solution of insecticide Insect : Smaller tea tortrix (Adoxophyes honmai) Plant : Tea Method : feeding leaves dipped into diluted solution of insecticide Fig. 4 Insecticidal activity on lepidopteran insects resistant to various insecticides poisoned dead Mortality (%) 60 40 20 Mortality (%) 60 40 20 0 0 2 4 6 8 24 2 4 6 8 24 hours after treatment 47ppm hours after treatment chlorfenapyr 50ppm Insect : Diamondback moth (Plutella xylostella) Plant : Method : feeding leaves dipped into diluted solution of insecticide Fig. 5 Rapid action of on Plutella xylostella Feeding damage 47ppm chlorfenapyr 50ppm Untreated Check Insect : Diamondback moth (Plutella xylostella) Plant : Method : feeding leaves dipped into diluted solution of insecticide bservation : 24 hours after treatment Fig. 6 Suppression of feeding damage of Plutella xylostella Fig. 6 Adoxophes orana fasciata Table 2 2012

Table 2 Insecticidal activity of on variou growth stage Pests Diamondback moth a) (Plutella xylostella) Summer fruit tortrix b) (Adoxophes orana fasciata) a) applied 47ppm b) applied 25ppm Egg 1) 88.2 93.1 1st instar Mortality (%) Larva 2) 3rd instar 1) dipped eggs into diluted water of for 10 sec. 2) feeding leaves dipped into diluted solution of for 60 sec. 3) foliar spray or dry film method 4) Diamondback moth : 4th instar, Summer fruit tortrix : 5th instar last instar 4) Adult 3) Liriomyza sativae Fig. 7 2 Spodoptera litura Table 3 Table 3 Dietary and contact toxicity of Chemicals LC50 (ppm) Dietary toxicity 1) 1.92 Contact toxicity 2) 3.65 Pest : (Spodoptera litura) Crop : Method : 1) feeding leaves dipped into diluted solution of 2) Insect body dipping Mortality (%) 60 40 20 0 Non-treated surface Treated surface Treated surface Non-treated surface Insect : Common Cutworm (Spodoptera litura) Plant : Method : painting diluted solution of (47ppm) on one surface of leaf with the brush Translaminar movement Mesophyll tissue Insect Cross-section of leaf Fig. 7 Non-translaminar movement Translaminar activity of on cabbage 2012

7) Fig. 8 Hellulla undalis Pieris rapae Thirps tabaci Fig. 8 11 1 2 Fig. 9 Fig. 10 Fig. 8 2012

Aug. late early September mid. late early ctober mid. late early November mid. late Trans-planting Growth Folding Harvesting Lepidoptera webworm (Hellulla undalis) Common white (Pieris rapae) (Spodoptera litura) Loopers (Autographa nigrisigna etc.) (Helicoverpa armigera) Thysanoptera nion thrips (Thrips tabaci) Infestaion timing of insect pests Fig. 8 Infestation timing of insect pests on cabbage in autumn 95 95 % Control 90 85 % Control 90 85 75 75 70 47ppm emamectin-benzoate 5ppm flubendiamide ppm chlorantraniliprole 25ppm 70 47ppm phenthoate 500ppm acetamiprid ppm tolfenpyrad 75ppm Fig. 9 Efficacy against Hellulla undalis on cabbage by foliar spray Fig. 10 Efficacy against Thrips tabaci on cabbage by foliar spray 1 25 WDG 11.7 SC 0.5 25 11.7 0.5 LLNA Local Lymph Node Assay 25 11.7 0.5 LLNA Buehler Table 4 2 Table 5 2012

Table 4 Acute toxicity summary of 25%WDG 11.7%SC 0.5%GR Test type Acute oral (LD50) Acute dermal (LD50) Inhalation (LC50) > 5000 mg/kg (rat) > 5000 mg/kg (rat) 5500 mg/m 3 of air (rat) (4-hour, nose only exposure) > 5000 mg/kg (rat) > 5000 mg/kg (rat) > 5000 mg/kg (rat) > 5000 mg/kg (rat) > 2000 mg/kg (rat) > 2000 mg/kg (rat) Eye irritation Skin irritation Skin sensitization Minimally irritant (rabbit) Non-irritant (rabbit) Weak sensitizer (mouse) Mildly irritant (rabbit) Minimally irritant (rabbit) Non-sensitizer (mouse) Mildly irritant (rabbit) Minimally irritant (rabbit) Non-sensitizer (mouse) Minimally irritant (rabbit) Minimally irritant (rabbit) Non-sensitizer (guinea pig) Table 5 Subacute and chronic toxicity summary of Species Administration route and duration Dose (ppm) NAEL (mg/kg/day) Rat ral (in diet), 13 weeks 120, 500, 0, 2000, 4000 Male: 32.4 (500ppm) Female: 9.5 (120ppm) Rat ral (in diet), 24 months 50, 250, 500, 750 Male: 10.8 (250ppm) Female: 13.2 (250ppm) No carcinogenicity Dog ral (in diet), 13 weeks 150, 300, 900 Male: 5.73 (150ppm) Female: 4.97 (150ppm) Dog Mouse ral (in diet), 12 months ral (in diet), 18 months 50,, 200 25,, 150, 300 Male: 2.96 (ppm) Female: 2.49 (ppm) Male: 18.8 (150ppm) Female: 23.9 (150ppm) No carcinogenicity Table 6 Developmental and reproductive toxicity summary of Study Species Administration route and duration Dose (mg/kg/day) NAEL (mg/kg/day) Developmental toxicity Two-generation reproductive toxicity Rat Rabbit Rat ral (gavage) Days 6-20 of gestation ral (gavage) Days 7-27 of gestation ral (in diet) 30,, 300 2.5, 10, 60 3, 10, 75 Maternal Fetal Maternal Fetal Parental ffsprings Systemic NAEL: Developmental NAEL: 300 300 Systemic NAEL: 10 Developmental NAEL: 60 60 Systemic NAEL: 10 Reproductive NAEL: 10 Systemic NAEL: 10 3 2 10 mg/kg/ Table 6 4 1 2012

Table 7 Neurotoxicity summary of Species Administration route and duration Dose NAEL (mg/kg/day) Rat Rat Acute oral (gavage) ral (in diet), 12 months 200, 630, 2000 (mg/kg/day) 50, 250, 500, 750 (ppm) >2000 mg/kg/day Male: 36.7 (750ppm) Female: 44.3 (750ppm) Table 8 Mutagenicity summary of Study Study design Results S. typhimurium TA98, TA, TA1535 and TA1537 Reverse mutation /+S9 mix: 1.00 5000 μg/plate Negative (Ames test) E. coli WP2uvrA /+S9 mix: 33.3 5000 μg/plate Chinese hamster ovary cells Gene mutation Negative /+S9 mix: 10 320 μg/ml In vitro chromosomal Rat lymphocytes Negative aberration /+S9 mix: 10 μg/ml CD-1 mice Micronucleus Negative 500, 0, 2000 mg/kg Table 7 5 in vitro Table 8 1 14 C -J-L -J-L N- - -J-L 71 75 2 14 C 4 N- N- 1 14 C -J -L ph 5 7 ph 9 N- 25 -J -L 154 14 C- ph 7 ph 8.5 N- forosamine 2.2 0.94 -J 0.99 0.50-L 2 14 C -J-L 25 193 456 N- C2 14 C- 258 29 -J 3 17-L 14 C- 40 116 -J 18-L 3 0.55 kg/10 a 1 0.441 1.35 mg/kg 1 95 11.7 0 300 L/10 a 2 0.394 0.576 mg/kg 9 14 2012

4 KFoc(ads) 2290 ml/g -J 2690 ml/g -L 5 0.550 g/ 1 kg/10 a 0.0010 mg/l 6 11.7 2500 300 L/10 a 1 1.26 ppm 200 300 L/10 a 2 0.05 4.30 ppm 25 5000 300 500 L/10 a 72 (0.02 ppm) 0.14 ppm 0.550 g/ 1 kg/10 a1 0.02 ppm 7 0.550 g/ 1 kg/10 a 0.02 ppm 11.7 2500 300 L/10 a 72 0.02 ppm Table 9 1 LC50/EC50 3.9 > 3.17 1.060 mg/l 25 24 > 24 19 mg/l 11.7 > 54 530 mg/l 0.5 > 0 >0 > 0 mg/l Table 9 Eco-toxicological summary of on non-target organisms Test substance Test species Test type 25%WDG 11.7%SC 0.5%GR Aquatic organisms Honeybee Bird Aquatic organisms Honeybee Silkworm Aquatic organisms Honeybee Natural enemy insects Aquatic organisms Carp Daphnia magna Green alga* 1 Apis mellifera Bobwhite quail Carp Daphnia magna Green alga* 1 Apis mellifera Bombyx mori Carp Daphnia magna Green alga* 1 Apis mellifera Paederus fuscipes (adult) Harmonia axyridis (larvae) Chrysoperla carnea (larvae) Carp Daphnia magna Green alga* 1 Acute (96 hr) Acute (48 hr) Acute (72 hr) Acute contact (48 hr) Acute oral Acute (96 hr) Acute (48 hr) Acute (72 hr) Residual toxicity test* 2 Residual toxicity test* 3 Acute (96 hr) Acute (48 hr) Acute (72 hr) Residual toxicity test* 4 Acute contact (48 hr) Acute contact (48 hr) Acute contact (96 hr) Acute (96 hr) Acute (48 hr) Acute (72 hr) * * * * 1: Pseudokirchneriella subcapitata 2: Potted Catharanthus roseus plant sprayed with 50 mg a.i./l solution and aged under outdoor condition 3: Mulberry plant sprayed with 50 mg a.i./l solution 4: Potted strawberry plant sprayed with 50 mg a.i./l solution and aged in greenhouse Results LC50 = 3.9 mg/l EC50 > 3.17 mg/l ErC50 = 1.060 mg/l LD50 = 24.8 ng/bee LD50 > 2250 mg/kg LC50 = 24 mg/l EC50 > 24 mg/l ErC50 = 19 mg/l 3 days 31 days LC50 = mg/l EC50 > 54 mg/l ErC50 = 530 mg/l 7 days mortality 0% (at 50 mg a.i./l) mortality 3.3% (at 50 mg a.i./l) mortality 10% (at 50 mg a.i./l) LC50 > 0 mg/l EC50 > 0 mg/l ErC50 > 0 mg/l 2012

2 LD50 24.8 ng/ 3 7 31 0 10 3 LD50 > 2250 mg/kg Table 10 Domestic registration of 11.7% SC Target Crops Target Pests Dilution rate Spray volume (L/10a) PHI* 1 Maximum number of applications* 2 Application method Tomato Grape tomato Leafminer flies Whiteflies 2500 ~ 5000 Thrips 2500 Whiteflies Egg plant Thrips Leafminer flies Diamondback moth Common white webworm ~ 300 1 day 2 armyworm Loopers Thrips Welsh onion Thrips Beet armyworm Foliar spray Stone leek leafminer Lettuce Leaf lettuce Leafminer flies 2500~5000 Strawberry Thrips Yellow tea thrips Smaller tea tortrix Tea riental tea tortrix Tea leafroller 200 ~ 400 7 day 1 Mugwort looper Camellia spiny whitefly Thrips Chrysanthemum Leafminer flies ~ 300 2 rnamentals (not included chrysanthemum) Leafminer flies Registration situation as of February 22nd, 2012 * 1 Pre-harvesting interval * 2 per one cropping period 2012

Table 11 Domestic registration of 25% WDG Target Crops Apple Peach Pear Target Pests Apple leafminer Fruits moth Tortrix Mugwort looper Woolly worm Fruits moth Peach leafminer Tortrix Fruits moth Pear psyllid Dilution rate 5000~00 5000 Spray volume (L/10a) 200 ~ 700 PHI* 1 1 day Maximum number of applications* 2 2 Application method Foliar spray Registration situation as of March 7th, 2012 * 1 Pre-harvesting interval * 2 per one year Table 12 Domestic registration of 0.5% - clothianidin 0.8% - isotianil 2.0% GR Target Crops rice (nursery box) Target pests & diseases Blast Bacterial leaf blight Bacterial grain rot Brown spot Rice leaf beetle Planthoppers Green rice leafhopper Rice skipper Green rice caterpillar Rice stem borer Rice leafroller Rice water weevil Registration situation as of March 7th, 2012 * per one cropping preiod Application weight 50g/box Application timing Three days before transplanting ~ Transplanting Maximum number of applications* 1 Application method Drop granule uniformly from above in a nursery box 2012 3 7 Table 10, 11, 12 1) J. Dripps, B. lson, T. Sparks and G. Crouse, Plant Health Progress, doi: 10.1094/PHP-2008-0822-01- PS, (2008). 2) Agrow, 526, 21 (2007). 2012

3) Agrow, 548, 23 (2008). 4) Agrow, 550, 22 (2008). 5) Dow AgroSciences LLC, SPINETRAM Technical Bulletin. 6) Insecticide Resistance Action Committee, IRAC MoA Classification Scheme ver.7.1, (2011). 7), 22, (2011). PRFILE Yasutaka SHIMKAWATK Takafumi YAMAGUCHI Naoki SAT Hitoshi TANAKA 2012