NPTN Fact Sheet on Pyrethrins & Pyrethroids
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Restricted Use Product Summary Report
Page 1 of 17 Restricted Use Product Summary Report (January 19, 2016) Percent Active Registration # Name Company # Company Name Active Ingredient(s) Ingredient 4‐152 BONIDE ORCHARD MOUSE BAIT 4 BONIDE PRODUCTS, INC. 2 Zinc phosphide (Zn3P2) 70‐223 RIGO EXOTHERM TERMIL 70 VALUE GARDENS SUPPLY, LLC 20 Chlorothalonil 100‐497 AATREX 4L HERBICIDE 100 SYNGENTA CROP PROTECTION, LLC 42.6 Atrazine 100‐585 AATREX NINE‐O HERBICIDE 100 SYNGENTA CROP PROTECTION, LLC 88.2 Atrazine 100‐669 CURACRON 8E INSECTICIDE‐MITICIDE 100 SYNGENTA CROP PROTECTION, LLC 73 Profenofos 100‐817 BICEP II MAGNUM HERBICIDE 100 SYNGENTA CROP PROTECTION, LLC 33; 26.1 Atrazine; S‐Metolachlor 100‐827 BICEP LITE II MAGNUM HERBICIDE 100 SYNGENTA CROP PROTECTION, LLC 28.1; 35.8 Atrazine; S‐Metolachlor 100‐886 BICEP MAGNUM 100 SYNGENTA CROP PROTECTION, LLC 33.7; 26.1 Atrazine; S‐Metolachlor 100‐898 AGRI‐MEK 0.15 EC MITICIDE/INSECTICIDE 100 SYNGENTA CROP PROTECTION, LLC 2 Abamectin 100‐903 DENIM INSECTICIDE 100 SYNGENTA CROP PROTECTION, LLC 2.15 Emamectin benzoate 100‐904 PROCLAIM INSECTICIDE 100 SYNGENTA CROP PROTECTION, LLC 5 Emamectin benzoate 100‐998 KARATE 1EC 100 SYNGENTA CROP PROTECTION, LLC 13.1 lambda‐Cyhalothrin 100‐1075 FORCE 3G INSECTICIDE 100 SYNGENTA CROP PROTECTION, LLC 3 Tefluthrin Acetochlor; Carbamothioic acid, dipropyl‐ 100‐1083 DOUBLEPLAY SELECTIVE HERBICIDE 100 SYNGENTA CROP PROTECTION, LLC 16.9; 67.8 , S‐ethyl ester 100‐1086 KARATE EC‐W INSECTICIDE 100 SYNGENTA CROP PROTECTION, LLC 13.1 lambda‐Cyhalothrin 100‐1088 SCIMITAR GC INSECTICIDE 100 SYNGENTA CROP PROTECTION, -
Cypermethrin
International Environmental Health Criteria 82 Cypermethrin Published under the joint sponsorship of the United Nations Environment Programme, the International Labour Organisation, and the World Health Organization WORLD HEALTH ORGANIZATION GENEVA 1989 Other titles available in the ENVIRONMENTAL HEALTH CRITERIA series include: 1. Mercury 2. Polychlorinated Biphenyls and Terphenyls 3. Lead 4. Oxides of Nitrogen 5. Nitrates, Nitrites, and N-Nitroso Compounds 6. Principles and Methods for Evaluating the Toxicity of Chemicals, Part 1 7. Photochemical Oxidants 8. Sulfur Oxides and Suspended Particulate Matter 9. DDT and its Derivatives 10. Carbon Disulfide 11. Mycotoxins 12. Noise 13. Carbon Monoxide 14. Ultraviolet Radiation 15. Tin and Organotin Compounds 16. Radiofrequency and Microwaves 17. Manganese 18. Arsenic 19. Hydrogen Sulfide 20. Selected Petroleum Products 21. Chlorine and Hydrogen Chloride 22. Ultrasound 23. Lasers and Optical Radiation 24. Titanium 25. Selected Radionuclides 26. Styrene 27. Guidelines on Studies in Environmental Epidemiology 28. Acrylonitrile 29. 2,4-Dichlorophenoxyacetic Acid (2,4-D) 30. Principles for Evaluating Health Risks to Progeny Associated with Exposure to Chemicals during Pregnancy 31. Tetrachloroethylene 32. Methylene Chloride 33. Epichlorohydrin 34. Chlordane 35. Extremely Low Frequency (ELF) Fields 36. Fluorine and Fluorides 37. Aquatic (Marine and Freshwater) Biotoxins 38. Heptachlor 39. Paraquat and Diquat 40. Endosulfan 41. Quintozene 42. Tecnazene 43. Chlordecone 44. Mirex continued on p. 156 -
Exposure of Phlebotomus Argentipes to Alpha-Cypermethrin, Permethrin, and DDT Using CDC Bottle Bioassays to Assess Insecticide Susceptibility
Utah State University DigitalCommons@USU Undergraduate Honors Capstone Projects Honors Program 5-2020 Exposure of Phlebotomus Argentipes to Alpha-Cypermethrin, Permethrin, and DDT Using CDC Bottle Bioassays to Assess Insecticide Susceptibility Jacob Rex Andersen Utah State University Follow this and additional works at: https://digitalcommons.usu.edu/honors Part of the Biology Commons Recommended Citation Andersen, Jacob Rex, "Exposure of Phlebotomus Argentipes to Alpha-Cypermethrin, Permethrin, and DDT Using CDC Bottle Bioassays to Assess Insecticide Susceptibility" (2020). Undergraduate Honors Capstone Projects. 485. https://digitalcommons.usu.edu/honors/485 This Thesis is brought to you for free and open access by the Honors Program at DigitalCommons@USU. It has been accepted for inclusion in Undergraduate Honors Capstone Projects by an authorized administrator of DigitalCommons@USU. For more information, please contact [email protected]. © 2020 Jacob Rex Andersen All Rights Reserved i Abstract Background: Insecticide resistance for sand flies is a concern since sand flies are vectors for Leishmania spp. parasites which cause leishmaniasis affecting millions of people each year. The CDC bottle bioassay is used to assess resistance by comparing known insecticide diagnostic doses and diagnostic times from an insecticide-susceptible population. The objective of this study was to determine diagnostic doses and diagnostic times for α-cypermethrin and the lethal dose for 50% and 90% mortality for α- cypermethrin, permethrin, and DDT for Phlebotomus argentipes. Methods: The CDC bottle bioassays were performed in 1,000 mL glass bottles with 15- 25 sand flies from a laboratory strain of insecticide-susceptible P. argentipes. A range of concentrations of α-cypermethrin, permethrin, and DDT were evaluated. -
Toxicity of Pyrethorids Co-Administered with Sesame Oil Against Housefly Musca Domestica L
INTERNATIONAL JOURNAL OF AGRICULTURE & BIOLOGY 1560–8530/2007/09–5–782–784 http://www.fspublishers.org Toxicity of Pyrethorids Co-administered with Sesame Oil against Housefly Musca domestica L. SOHAIL AHMED1 AND MUHAMMAD IRFANULLAH Department of Agri-Entomology, University of Agriculture, Faisalabad–38040, Pakistan 1Corresponding author’s e-mail: [email protected] ABSTRACT The susceptibility of a laboratory reared strain of Musca domestica L. to cypermethrin 10 EC, fenpropathrin 20 EC, fenvalerate 20 EC and lambda cyhalothrin 2.5 EC, at different ranges of concentrations (250 to 2500 ppm) of the formulated insecticides in acetone alone and in combination with sesame oil in 1:1 and 1:2 ratio of insecticide: sesame oil was investigated. These concentrations in a volume of 5 mL were added to 25 g of granulated sugar in a petridish. House flies were fed on the insecticide coated sugar for 48 h. Knockdown and mortality data were recorded after 1, 2, 4, 6, 8, 12, 24 and 48 h and subjected to probit analysis. KD50 values of cypermethrin, lambda-cyhalothrin, fenpropathrin and fenvalerate in 1:1 ratio with sesame oil were 4297, 17188, 2324 and 8487 ppm, respectively as compared to 1915, 15034, 2608 and 4005 ppm respectively when these insecticides were applied alone. Similar fashion was seen in context of LC50 values. The pyrethroid + sesame oil combination in two ratios does not show the synergism in M. domestica. Key Words: M. domestica; Pyrethroids; Synergist; Sesame oil INTRODUCTION conventional insecticides as well as against cotton aphid (Aphis gossypii Glover) (Moore, 2005). Sesamin, a lignan Housefly (Musca domestica L.) causes a serious threat occurring in sesame’s seed oil has been reported as synergist to human and livestock health by transmitting many insecticide, antisseptic, bactericide (Bedigian et al., 1985). -
Routine Multipesticide Analysis Orbitrap
Routine Multi-Pesticide Residue Analysis by Orbitrap MS Technology Osama Abu-Nimreh CMD Sales Support Specialist MECEC , Dubai The world leader in serving science Challenges of Pesticide-Residues Analysis • Sample variability (matrix) • Different compound characteristics • Large number of samples • Hundreds of analytes monitored • Low levels controlled • Baby food (MRL for all pesticides = 0.01 mg/kg) • Fast response required 2 Former Pesticide Multi-Residue Method Setup . Extraction Acetonitrile, Ethyl Mostly replaced acetate, Methanol... by QuEChERS today . Clean-up GPC, SPE, LLE, LC . Determination GC, LC, GC-MS, LC-MS, Thermo Scientific™ QuEChERS™ GC-MS/MS, LC-MS/MS... method 3 Simplified Extraction Procedure Applied 10 g of sample is weighed into Quechers extraction tube + 20 mL of water + 10 mL of ACN shaking 10 min Centrifugation 5 min @ 5000 rpm Injection to LC-HRAM 4 Consumables Used Consumables/Chemicals Part Number Acetonitrile A/0638/17 QuEChERS extraction tube, 50 mL, 250 pack 60105-216 QuEChERS pouches, 50 pack 60105-344 Apparatus/Columns Part Number Horizontal shaker 1069-3391 Horizontal shaker plate 1053-0102 Thermo Scientific™ Barnstead™ EASYpure™II water 3125753 Thermo Scientific™ Heraeus™ Fresco™ 17 micro centrifuge 3208590 Thermo Scientific™ Accucore™ aQ column 100x2.1, 2.6 µm 17326-102130 5 Improving QuEChERS Extraction Tips & Tricks: • Dry food (cereals/dried food, < 25 % water content): • Addition of water to enable adequate partitioning and reducing interaction of pesticides with matrix • Food containing fat/wax (avocado/oil): • After extraction step add a freezing out step and transfer supernatant to clean-up tube • More clean-up might be needed of raw extract (PSA+C18) • Food containing complex matrix (tea/spices) • Additional clean-up with GCB might be necessary (potential loss of planar structure pesticides like thiabendazole) • Acidic food (citrus): • Adjust pH (5-5.5) to increase recovery (e.g. -
Treatments for the Protection of Stored Southern-Grown Corn from Rice Weevil Attack — Exploratory Tests ~
Historic, archived document Do not assume content reflects current scientific l<nowledge, policies, or practices. C~1 ^^ i -»T f-W-t-^-m-—, y>/^ .'3 L i B R •:i;RPEin SERIAL KLUu.^. Marketing Research Report No.272 L- nr.T2 7lS58 '.' S. uEFARTMENT OF AGRICULTURE Treatments for the Protection of Stored Southern-Grown Corn from Rice Weevil Attack — Exploratory Tests ~ Marketing Research Division Agricultural Marketing Service U.S. DEPARTMENT OF AGRICULTURE WARNING No tolerances have been established for the use of lindane, methoxychlor, or ryania as insecticidal applications to the entire bulk of stored grain for the prevention of insect infestation. The tests reported herein were exploratory studies to develop information that could be used in considering the establishment of tolerances. Until such tolerances are announced, lindane, methoxychlor, or ryania protective treatments should not be used. A tolerance of 2 p. p.m. for methoxychlor in grain permits the spraying of bin walls and some surface applications, but is not high enough to cover protective treat- ments in the sense considered here. CONTENTS Page Summary 1 Introduction 2 Techniques 2 Tests with lindane 4 Tests with malathion 6 Tests with methoxychlor 8 Tests with synergized pyrethrum 12 Tests with ryania 16 Findings 19 Washington, D. C. September 1958 sale For by the Superintendent of Documents, U. S. Government Printing Office Washington 25, D. C. - Price 15 cents TREATMENTS FOR THE PROTECTION OF STORED SOUTHERN-GROWN CORN FROM RICE WEEVIL ATTACK—EXPLORATORY TESTS By D. W. La Hue, Herbert Womack, and B. W. Clements, Jr. Stored-Product Insects Laboratory- Georgia Coastal Plain Experiment Station Tifton, Ga.-"- SUMMARY Exploratory studies were made at Tifton, Ga. -
Characterization of Residential Pest Control Products Used in Inner City Communities in New York City
Journal of Exposure Science and Environmental Epidemiology (2010), 1–11 r 2010 Nature America, Inc. All rights reserved 1559-0631/10 www.nature.com/jes Characterization of residential pest control products used in inner city communities in New York City MEGAN K. HORTONa, J. BRYAN JACOBSONb, WENDY MCKELVEYb, DARRELL HOLMESa, BETTY FINCHERc, AUDREY QUANTANOc, BEINVENDIDA PAEZ DIAZc, FAYE SHABBAZZc, PEGGY SHEPARDc, ANDREW RUNDLEa AND ROBIN M. WHYATTa aColumbia Center for Children’s Environmental Health, Mailman School of Public Health, Columbia University, New York, New York, USA bNew York City Department of Health and Mental Hygiene, New York, New York, USA cWest Harlem Environmental Action, New York, New York, USA The Columbia Center for Children’s Environmental Health (CCCEH) previously reported widespread residential insecticide use in urban communities in New York City. Research suggests that pyrethroids are replacing organophosphates (OPs) in response to 2000–2001 US EPA pesticide regulations restricting OP use. A systematic assessment of active ingredients used for residential pest control is lacking. We queried a database of pesticide applications reported by licensed applicators between 1999 and 2005 and surveyed pest control products available in 145 stores within 29 zip codes in the CCCEH catchment area including Northern Manhattan and the South Bronx. Pyrethroids, pyrethrins, piperonyl butoxide, and hydramethylnon were the most common insecticide active ingredients reported as used by licensed pesticide applicators within the 29 zip codes of the CCCEH catchment area between 1999 and 2005. Use of certain pyrethroids and some non-spray insecticides such as fipronil and boric acid increased significantly by year (logistic regression, OR41.0, Po0.05), whereas use of OPs, including chlorpyrifos and diazinon decreased significantly by year (logistic regression, ORo1.0, Po0.05). -
Evaluation of Fluralaner and Afoxolaner Treatments to Control Flea
Dryden et al. Parasites & Vectors (2016) 9:365 DOI 10.1186/s13071-016-1654-7 RESEARCH Open Access Evaluation of fluralaner and afoxolaner treatments to control flea populations, reduce pruritus and minimize dermatologic lesions in naturally infested dogs in private residences in west central Florida USA Michael W. Dryden1*, Michael S. Canfield2, Kimberly Kalosy1, Amber Smith1, Lisa Crevoiserat1, Jennifer C. McGrady1, Kaitlin M. Foley1, Kathryn Green2, Chantelle Tebaldi2, Vicki Smith1, Tashina Bennett1, Kathleen Heaney3, Lisa Math3, Christine Royal3 and Fangshi Sun3 Abstract Background: A study was conducted to evaluate and compare the effectiveness of two different oral flea and tick products to control flea infestations, reduce pruritus and minimize dermatologic lesions over a 12 week period on naturally infested dogs in west central FL USA. Methods: Thirty-four dogs with natural flea infestations living in 17 homes were treated once with a fluralaner chew on study day 0. Another 27 dogs living in 17 different homes were treated orally with an afoxolaner chewable on day 0, once between days 28–30 and once again between days 54–60. All products were administered according to label directions by study investigators. Flea populations on pets were assessed using visual area counts and premise flea infestations were assessed using intermittent-light flea traps on days 0, 7, 14, 21, and once between days 28–30, 40–45, 54–60 and 82–86. Dermatologic assessments were conducted on day 0 and once monthly. Pruritus assessments were conducted by owners throughout the study. No concurrent treatments for existing skin disease (antibiotics, anti-inflammatories, anti-fungals) were allowed. -
Pesticide Safety & Pesticide Categories
Pesticide Safety & Pesticide Categories Janet Hurley, & Don Renchie Texas A&M AgriLife Extension Service School IPM What is a pesticide • Any substance or mixture of substances intended for preventing, destroying, repelling, or mitigating any pest. • Any substance or mixture of substances intended for use as a plant regulator, defoliant, or desiccant. • Any nitrogen stabilizer. • A product is likely to be a pesticide if the labeling or advertising: • Makes a claim to prevent, kill, destroy, mitigate, remove, repel or any other similar action against any pest. • Indirectly states or implies an action against a pest. • Draws a comparison to a pesticide. • Pictures a pest on the label. Not considered pesticides Drugs used to control the diseases of humans or animals, which are regulated by the FDA Fertilizers and soil nutrients Certain low-risk substances such as cedar chips, garlic and mint oil are exempted from regulation by EPA (requires license) • 25b classification requires no signal word (mostly food-safe compounds) Pest control devices (i.e., mousetraps) are not pesticides, but subject to labeling requirements There are many kinds of pesticides How insecticides work: Modes of action • Nervous system poisons • Acts on the nerve • Metabolic inhibitors • Affect ability of target to process food • Hormone mimics • Disrupt normal growth & reproduction • Physical poisons • Physically damage insect • Repellents & attractants • All products have been assigned to groups based on their mode of Mode of action: • i.e. pyrethroids are Group 3; Action Neonicotinoids are Group 4A, Spinosad is Group 5, Diamides Classification are Group 28 • Product labels include the number corresponding to the mode of action group. -
Historical Perspectives on Apple Production: Fruit Tree Pest Management, Regulation and New Insecticidal Chemistries
Historical Perspectives on Apple Production: Fruit Tree Pest Management, Regulation and New Insecticidal Chemistries. Peter Jentsch Extension Associate Department of Entomology Cornell University's Hudson Valley Lab 3357 Rt. 9W; PO box 727 Highland, NY 12528 email: [email protected] Phone 845-691-7151 Mobile: 845-417-7465 http://www.nysaes.cornell.edu/ent/faculty/jentsch/ 2 Historical Perspectives on Fruit Production: Fruit Tree Pest Management, Regulation and New Chemistries. by Peter Jentsch I. Historical Use of Pesticides in Apple Production Overview of Apple Production and Pest Management Prior to 1940 Synthetic Pesticide Development and Use II. Influences Changing the Pest Management Profile in Apple Production Chemical Residues in Early Insect Management Historical Chemical Regulation Recent Regulation Developments Changing Pest Management Food Quality Protection Act of 1996 The Science Behind The Methodology Pesticide Revisions – Requirements For New Registrations III. Resistance of Insect Pests to Insecticides Resistance Pest Management Strategies IV. Reduced Risk Chemistries: New Modes of Action and the Insecticide Treadmill Fermentation Microbial Products Bt’s, Abamectins, Spinosads Juvenile Hormone Analogs Formamidines, Juvenile Hormone Analogs And Mimics Insect Growth Regulators Azadirachtin, Thiadiazine Neonicotinyls Major Reduced Risk Materials: Carboxamides, Carboxylic Acid Esters, Granulosis Viruses, Diphenyloxazolines, Insecticidal Soaps, Benzoyl Urea Growth Regulators, Tetronic Acids, Oxadiazenes , Particle Films, Phenoxypyrazoles, Pyridazinones, Spinosads, Tetrazines , Organotins, Quinolines. 3 I Historical Use of Pesticides in Apple Production Overview of Apple Production and Pest Management Prior to 1940 The apple has a rather ominous origin. Its inception is framed in the biblical text regarding the genesis of mankind. The backdrop appears to be the turbulent setting of what many scholars believe to be present day Iraq. -
40 CFR Ch. I (7–1–18 Edition) § 455.61
§ 455.61 40 CFR Ch. I (7–1–18 Edition) from: the operation of employee show- § 455.64 Effluent limitations guidelines ers and laundry facilities; the testing representing the degree of effluent of fire protection equipment; the test- reduction attainable by the applica- ing and emergency operation of safety tion of the best available tech- showers and eye washes; or storm nology economically achievable water. (BAT). (d) The provisions of this subpart do Except as provided in 40 CFR 125.30 not apply to wastewater discharges through 125.32, any existing point from the repackaging of microorga- source subject to this subpart must nisms or Group 1 Mixtures, as defined achieve effluent limitations rep- under § 455.10, or non-agricultural pes- resenting the degree of effluent reduc- ticide products. tion attainable by the application of the best available technology economi- § 455.61 Special definitions. cally achievable: There shall be no dis- Process wastewater, for this subpart, charge of process wastewater pollut- means all wastewater except for sani- ants. tary water and those wastewaters ex- § 455.65 New source performance cluded from the applicability of the standards (NSPS). rule in § 455.60. Any new source subject to this sub- § 455.62 Effluent limitations guidelines part which discharges process waste- representing the degree of effluent water pollutants must meet the fol- reduction attainable by the applica- lowing standards: There shall be no dis- tion of the best practicable pollut- charge of process wastewater pollut- ant control technology (BPT). ants. Except as provided in 40 CFR 125.30 through 125.32, any existing point § 455.66 Pretreatment standards for existing sources (PSES). -
Follow-Up Studies After Withdrawal of Deltamethrin Spraying Against Anopheles Culicifacies and Malaria Incidence
Journal of the American Mosquito contror Association, 2o(4):424-42g,2004 Copyright @ 2OO4 by the American Mosquito Control Association, Inc. FOLLOW-UP STUDIES AFTER WITHDRAWAL OF DELTAMETHRIN SPRAYING AGAINST ANOPHELES CULICIFACIES AND MALARIA INCIDENCE MUSHARRAF ALI ANSARI eNo RAMA KRISHNA RAZDAN Malaria Research Centre (ICMR), 2}-Madhuban, Delhi_ll0 092, India ABSTRACT. Follow-up studies were carried out from 1989 to 1998 after withdrawal of deltamethrin indoor spraying to evaluate the-recovery rate of a population of Anopheles culicifacies resistant to dichlorodiphenyltri- chloroethane (DDT) and hexachlorocyclohexane (HCH) in selected villages in Uttar pradesh State, I;dia. The study revealed 82.4-96.5Ea reduction in adult density of An. culicifacies and 72.7-967o reduction in malaria incidence in the area sprayed with deltamethrin at 20 mg/m, as compared to a control area sprayed with HCH, for 5 successive years even after withdrawal of deltamethrin spray. The impact was very clear when the annual falciparum incidence was compared with that of the control area. The vector population gradually started re- covering after 5 years. However, the slide falciparum rate remained below 4 even after 10 years of withdrawal of spraying. The study revealed that indoor residual spraying of deltamethrin would be cost-effective, at least in areas where malaria is transmitted by An. culicifacies, which is primarily a zoophilic species and associated with malaria epidemics. In view of this, a review of the insecticide policy and strategy of vector control is urgently needed because of the possible risks associated with the presence of nonbiodegradable insecticide in the environment, as well as to minimize the costs of operation and to enhance the useful life of insecticides.