Ventura County's Toxic Time Bomb
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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, -
A History of Mexican Workers on the Oxnard Plain 1930-1980
LABOR, MIGRATION, AND ACTIVISM: A HISTORY OF MEXICAN WORKERS ON THE OXNARD PLAIN 1930-1980 By Louie Herrera Moreno III A DISSERTATION Submitted to Michigan State University in partial fulfillment of the requirements for a degree of DOCTOR OF PHILOSOPHY Chicano/Latino Studies 2012 ABSTRACT LABOR, MIGRATION, AND ACTIVISM: A HISTORY OF MEXICAN WORKERS ON THE OXNARD PLAIN 1930-1980 By Louie Herrera Moreno III First and foremost, this dissertation focuses on the relationship between labor and migration in the development of the City of Oxnard and La Colonia neighborhood. Labor and migration on the Oxnard Plain have played an important part in shaping and constructing the Mexican working-class community and its relationship to the power structure of the city and the agri-business interests of Ventura County. This migration led to many conflicts between Mexicans and Whites. I focus on those conflicts and activism between 1930 and 1980. Secondly, this dissertation expands on early research conducted on Mexicans in Ventura County. The Oxnard Plain has been a key location of struggles for equality and justice. In those struggles, Mexican residents of Oxnard, the majority being working- class have played a key role in demanding better work conditions, housing, and wages. This dissertation continues the research of Tomas Almaguer, Frank P. Barajas, and Martha Menchaca, who focused on class, race, work, leisure, and conflict in Ventura County. Thirdly, this dissertation is connected to a broader history of Mexican workers in California. This dissertation is influenced by important research conducted by Carey McWilliams, Gilbert Gonzalez, Vicki Ruiz, and other historians on the relationship between labor, migration, and activism among the Mexican working-class community in Southern California. -
BIOGRAPHIES Fiona Ma, California State Treasurer
BIOGRAPHIES Fiona Ma, California State Treasurer Fiona Ma is California’s 34th State Treasurer. She was elected on November 6, 2018 with more votes (7,825,587) than any other candidate for treasurer in the state's history. She is the first woman of color and the first woman Certified Public Accountant (CPA) elected to the position. The State Treasurer’s Office was created in the California Constitution in 1849. It provides financing for schools, roads, housing, recycling and waste management, hospitals, public facilities, and other crucial infrastructure projects that better the lives of residents. California is the world’s fifth-largest economy and Treasurer Ma is the state’s primary banker. Her office processes more than $2 trillion in payments within a typical year and provides transparency and oversight for an investment portfolio of more than $90 billion, approximately $20 billion of which are local government funds. She also is responsible for $85 billion in outstanding general obligation and lease revenue bonds of the state. The Treasurer works closely with the State Legislature to ensure that its members know the state’s financial condition as they consider new legislation. She gives her own recommendations for the annual budget. Treasurer Ma was a member of the State Assembly from 2006-2012, serving as Speaker pro Tempore from 2010 to 2012. She built a reputation as a solution-oriented public servant and was adept at building unlikely coalitions to overcome California's most complex problems. Prior to serving as Speaker pro Tempore, she was Assembly Majority Whip and built coalitions during a state budget crisis to pass groundbreaking legislation that protected public education and the environment while also expanding access to health care. -
California Restricted Materials Requirements (English)
CALIFORNIA RESTRICTED MATERIALS REQUIREMENTS FEDERAL RESTRICTED USE PESTICIDES RESTRICTED USE PESTICIDE A (Included by reference as California Restricted Materials) DUE TO (reason for restricted use classification) Pesticides display the RESTRICTED USE PESTICIDE (RUP) statement on For retail sale to and use only by Certified Applicators or the pesticide container similar to the statement shown here. RUPs require an persons under their direct supervision and only for those RUP statement enclosed in a box, at the top of the front panel of the label. uses covered by the Certified Applicator's certification. Some product labels require a Certified Applicator be “physically present” at the use site. B CALIFORNIA RESTRICTED MATERIALS This section is written in a quick reference format; refer to Title 3, California Code of Regulations (3 CCR) section 6400 for complete text. Acrolein, labeled for use as an aquatic Chlorpyrifos, labeled for the Metam sodium, labeled for the Potassium n-methyldithiocarbamate herbicide production of an agricultural production of agricultural plant (metam-potassium), labeled for the Aldicarb – unregistered commodity commodities production of agricultural plant All dust (except products containing Dazomet, labeled for the production Methamidophos – unregistered commodities only exempt pesticides)** of agricultural plant commodities Methidathion Propanil (3,4-dichloropropionanilide) Aluminum phosphide Dicamba* Methomyl†† Sodium cyanide Any pesticide containing active 2,4-dichlorophenoxyacetic acid Methyl bromide Sodium -
Ten Reasons Not to Use Pesticides
JOURNAL OF PESTICIDE REFORM/ SUMMER 2006 • VOL. 26, NO. 2 PESTICIDE BASICS contaminated with pesticides. They play in ways that in- crease their exposure. Also, their growing bodies can be Ten Reasons Not to Use particularly sensitive. EPA succinctly summarizes the reasons why children should not be Pesticides exposed to pesticides: • their internal organs are still BY CAROLINE COX has written, “the range of these adverse developing and maturing, health effects includes acute and persis- • in relation to their body weight, tent injury to the nervous system, lung infants and children eat and drink damage, injury to reproductive organs, more than adults, possibly increasing 1. Pesticides don’t solve pest dysfunction of the immune and endo- problems. They don’t change their exposure to pesticides in food crine [hormone] systems, birth defects, and water. the conditions that encourage and cancer.”3 pests. • certain behaviors--such as play- Pesticides that damage human ing on floors or lawns or putting Some pesticides are remarkably ef- health are used in staggering amounts. objects in their mouths—increase a ficient tools for killing pests, but almost Consider just the 27 most commonly 4 child’s exposure to pesticides used in all do nothing to solve pest problems. used pesticides. Fifteen of these have 8 5 homes and yards. To solve a pest problem, the most been classified as carcinogens by EPA Researchers continue to gather de- important step is to change the con- and their use totals about 300 million 4 tailed evidence that EPA’s concerns ditions that have allowed the pest to pounds every year. -
AP-42, CH 9.2.2: Pesticide Application
9.2.2PesticideApplication 9.2.2.1General1-2 Pesticidesaresubstancesormixturesusedtocontrolplantandanimallifeforthepurposesof increasingandimprovingagriculturalproduction,protectingpublichealthfrompest-bornediseaseand discomfort,reducingpropertydamagecausedbypests,andimprovingtheaestheticqualityofoutdoor orindoorsurroundings.Pesticidesareusedwidelyinagriculture,byhomeowners,byindustry,andby governmentagencies.Thelargestusageofchemicalswithpesticidalactivity,byweightof"active ingredient"(AI),isinagriculture.Agriculturalpesticidesareusedforcost-effectivecontrolofweeds, insects,mites,fungi,nematodes,andotherthreatstotheyield,quality,orsafetyoffood.Theannual U.S.usageofpesticideAIs(i.e.,insecticides,herbicides,andfungicides)isover800millionpounds. AiremissionsfrompesticideusearisebecauseofthevolatilenatureofmanyAIs,solvents, andotheradditivesusedinformulations,andofthedustynatureofsomeformulations.Mostmodern pesticidesareorganiccompounds.EmissionscanresultdirectlyduringapplicationorastheAIor solventvolatilizesovertimefromsoilandvegetation.Thisdiscussionwillfocusonemissionfactors forvolatilization.Thereareinsufficientdataavailableonparticulateemissionstopermitemission factordevelopment. 9.2.2.2ProcessDescription3-6 ApplicationMethods- Pesticideapplicationmethodsvaryaccordingtothetargetpestandtothecroporothervalue tobeprotected.Insomecases,thepesticideisapplieddirectlytothepest,andinotherstothehost plant.Instillothers,itisusedonthesoilorinanenclosedairspace.Pesticidemanufacturershave developedvariousformulationsofAIstomeetboththepestcontrolneedsandthepreferred -
Advances in Enzyme-Based Biosensors for Pesticide Detection
biosensors Review Advances in Enzyme-Based Biosensors for Pesticide Detection Bogdan Bucur 1 ID , Florentina-Daniela Munteanu 2 ID , Jean-Louis Marty 3,* and Alina Vasilescu 4 ID 1 National Institute of Research and Development for Biological Sciences, Centre of Bioanalysis, 296 Splaiul Independentei, 060031 Bucharest, Romania; [email protected] 2 Faculty of Food Engineering, Tourism and Environmental Protection, “Aurel Vlaicu” University of Arad, Elena Dragoi, No. 2, 310330 Arad, Romania; fl[email protected] 3 BAE Laboratory, Université de Perpignan via Domitia, 52 Avenue Paul Alduy, 66860 Perpignan, France 4 International Centre of Biodynamics, 1B Intrarea Portocalelor, 060101 Bucharest, Romania; [email protected] * Correspondence: [email protected]; Tel.: +33-468-66-1756 Received: 28 February 2018; Accepted: 20 March 2018; Published: 22 March 2018 Abstract: The intensive use of toxic and remanent pesticides in agriculture has prompted research into novel performant, yet cost-effective and fast analytical tools to control the pesticide residue levels in the environment and food. In this context, biosensors based on enzyme inhibition have been proposed as adequate analytical devices with the added advantage of using the toxicity of pesticides for detection purposes, being more “biologically relevant” than standard chromatographic methods. This review proposes an overview of recent advances in the development of biosensors exploiting the inhibition of cholinesterases, photosynthetic system II, alkaline phosphatase, cytochrome P450A1, peroxidase, tyrosinase, laccase, urease, and aldehyde dehydrogenase. While various strategies have been employed to detect pesticides from different classes (organophosphates, carbamates, dithiocarbamates, triazines, phenylureas, diazines, or phenols), the number of practical applications and the variety of environmental and food samples tested remains limited. -
Developmental Ramifications of Dithiocarbamate Pesticide Exposure in Zebrafish
AN ABSTRACT OF THE DISSERTATION OF Fred Tilton for the degree of Doctor of Philosophy in Toxicology presented on May 24, 2006. Title:Developmental Ramifications of Dithiocarbamate Pesticide Exposure in Zebrafish. Redacted for Privacy Abstract approved Robert Dithiocarbamates are widely used agricultural pesticides, industrial chemicals and effluent additives. DTCs and their related compounds have historical and current relevance in clinical and experimental medicine. DTC developmental toxicity is well established, but poorly understood. Dithiocarbamates according to the U.S. EPA have a mechanism of action involving, "the inhibition of metal-dependent and sulfhydryl enzyme systems in fungi, bacteria, plants, as well as mammals." We hypothesized that by using the zebrafish development model we could better define the mechanism of action of DTCs and for the first time establish a molecular understanding of DTC developmental toxicity in vertebrates. We have established that all types of dithiocarbamate pesticides and some degradation products have the potential to elicit a common toxic effect on development resulting in a distorted notochord and a significant impact to the body axis. We provide evidence to support the hypothesis that metal chelation is not the primary mechanism of action by which DTCs impact the developing vertebrate. By manipulating the exposure window of zebrafish we hypothesized that somitogenesis was the targeted developmental process. We tested this by using the Affymetrix microarray to observe gene expression induced by the N-methyl dithiocarbamate, metam sodium (NaM). Throughout this process it is clear that genes related to muscle development are perturbed. These gene signatures are consistent with the morphological changes observed in larval and adult animals and that somitogenesis is the developmental target. -
AP-42, Vol. 1, Final Background Document for Pesticide Application
Emission Factor Documentation for AP-42 Section 9.2.2 Pesticide Application Final Report For U.S. Environmental Protection Agency Office of Air Quality Planning and Standards Emission Inventory Branch EPA Contract No. 68-D2-0159 Work Assignment No. I-08 MRI Project No. 4601-08 September 1994 Emission Factor Documentation for AP-42 Section 9.2.2 Pesticide Application Final Report For U.S. Environmental Protection Agency Office of Air Quality Planning and Standards Emission Inventory Branch Research Triangle Park, NC 27711 Attn: Mr. Dallas Safriet (MD-14) Emission Factor and Methodology EPA Contract No. 68-D2-0159 Work Assignment No. I-08 MRI Project No. 4601-08 September 1994 NOTICE The information in this document has been funded wholly or in part by the United States Environmental Protection Agency under Contract No. 68-D2-0159 to Midwest Research Institute. It has been subjected to the Agency's peer and administrative review, and it has been approved for publication as an EPA document. Mention of trade names or commercial products does not constitute endorsement or recommendation for use. iii iv PREFACE This report was prepared by Midwest Research Institute (MRI) for the Office of Air Quality Planning and Standards (OAQPS), U.S. Environmental Protection Agency (EPA), under Contract No. 68-D2-0159, Assignment No. 005 and I-08. Mr. Dallas Safriet was the EPA work assignment manager for this project. Approved for: MIDWEST RESEARCH INSTITUTE Roy M. Neulicht Program Manager Environmental Engineering Department Jeff Shular Director, Environmental Engineering Department September 29, 1994 v vi CONTENTS LIST OF FIGURES ................................................ viii LIST OF TABLES ................................................ -
Recommended Classification of Pesticides by Hazard and Guidelines to Classification 2019 Theinternational Programme on Chemical Safety (IPCS) Was Established in 1980
The WHO Recommended Classi cation of Pesticides by Hazard and Guidelines to Classi cation 2019 cation Hazard of Pesticides by and Guidelines to Classi The WHO Recommended Classi The WHO Recommended Classi cation of Pesticides by Hazard and Guidelines to Classi cation 2019 The WHO Recommended Classification of Pesticides by Hazard and Guidelines to Classification 2019 TheInternational Programme on Chemical Safety (IPCS) was established in 1980. The overall objectives of the IPCS are to establish the scientific basis for assessment of the risk to human health and the environment from exposure to chemicals, through international peer review processes, as a prerequisite for the promotion of chemical safety, and to provide technical assistance in strengthening national capacities for the sound management of chemicals. This publication was developed in the IOMC context. The contents do not necessarily reflect the views or stated policies of individual IOMC Participating Organizations. The Inter-Organization Programme for the Sound Management of Chemicals (IOMC) was established in 1995 following recommendations made by the 1992 UN Conference on Environment and Development to strengthen cooperation and increase international coordination in the field of chemical safety. The Participating Organizations are: FAO, ILO, UNDP, UNEP, UNIDO, UNITAR, WHO, World Bank and OECD. The purpose of the IOMC is to promote coordination of the policies and activities pursued by the Participating Organizations, jointly or separately, to achieve the sound management of chemicals in relation to human health and the environment. WHO recommended classification of pesticides by hazard and guidelines to classification, 2019 edition ISBN 978-92-4-000566-2 (electronic version) ISBN 978-92-4-000567-9 (print version) ISSN 1684-1042 © World Health Organization 2020 Some rights reserved. -
A Pest Management Strategic Plan for Garlic Production in California
A Pest Management Strategic Plan for Garlic Production in California February 21, 2007 California Garlic & Onion Research Advisory Board (CGORAB) California Specialty Crops Council (CSCC) Assistance was obtained from the Western Region IPM Center at UC Davis for the development of this strategic plan. TABLE OF CONTENTS EXECUTIVE SUMMARY 3 Stakeholder Recommendations 4 Research Priorities 4 Regulatory Priorities 4 Educational Priorities 5 A PEST MANAGEMENT STRATEGIC PLAN FOR CALIFORNIA GARLIC PRODUCTION 7 California Garlic Production Overview 7 California Garlic Production Summary 8 Stages of Crop Development 9 Major Pests of Garlic in California 9 Garlic Production Areas in California 10 Historical Perspective on California Garlic: Production Trends and Pest Management 11 FOUNDATION FOR A PEST MANAGEMENT STRATEGIC PLAN 12 Field Selection and Crop Rotation 12 Seed Selection and Seed Quality 13 Pre-Plant/Bed Preparation 13 Planting to Early Vegetative Development 15 Field Maintenance and Vegetative Development 22 Water Pull/Pre-harvest 24 Harvest 25 Post Harvest Issues 26 Food Safety Issues 27 CRITICAL ISSUES FOR THE CALIFORNIA GARLIC INDUSTRY 28 REFERENCES 29 APPENDICES 30 Appendix 1: 2005 Statewide Garlic Production Statistics 31 Appendix 2: Cultural Practices and Pest Management Activities 32 Appendix 3: Seasonal Pest Occurrence 33 Appendix 4: Efficacy of Insect/Mite Management Tools 34 Appendix 5: Efficacy of Weed Management Tools 35 Appendix 6: Efficacy of Disease Management Tools 36 Appendix 7: Efficacy of Nematode Management Tools 37 Appendix 8: Primary Pesticides Used in California Garlic (2004 DPR) 38 Appendix 9: California Garlic Industry – Contact Information 39 Appendix 10: Photographs 41 2 EXECUTIVE SUMMARY California ranks first in the U.S. -
Assessment of the Potential of a Reduced Dose of Dimethyl Disulfide
www.nature.com/scientificreports OPEN Assessment of the potential of a reduced dose of dimethyl disulfde plus metham sodium on soilborne pests and cucumber growth Liangang Mao, Hongyun Jiang*, Lan Zhang, Yanning Zhang, Muhammad Umair Sial, Haitao Yu & Aocheng Cao Methyl bromide (MB), a dominant ozone-depleting substance, is scheduled to be completely phased out for soil fumigation by December 30th 2018, in China. The combined efects of dimethyl disulfde (DMDS) plus metham sodium (MNa) were assessed in controlling soilborne pests for soil fumigation. A study was designed in laboratory for the evaluation of the efcacy of DMDS + MNa to control major soilborne pests. At the same time, two trials were conducted in cucumber feld located in Tongzhou (in 2012) and Shunyi (in 2013), respectively, in order to assess the potential of DMDS + MNa in controlling soilborne pests. Laboratory studies disclosed positive synergistic efects of almost all four used combinations on Meloidogyne spp., Fusarium spp., Phytophthora spp., Abutilon theophrasti and Digitaria sanguinalis. Field trials found that DMDS + MNa (30 + 21 g a. i. m−2), both at a 50% reduced dose, efectively suppressed Meloidogyne spp. with a low root galling index (2.1% and 11.7%), signifcantly reduced the levels of Phytophthora and Fusarium spp. with a low root disease index (7.5% and 15.8%), gave very high cucumber yields (6.75 kg m−2 and 10.03 kg m−2), and increased income for cucumber growers with the highest economic benefts (20.91 ¥ m−2 and 23.58 ¥ m−2). The combination treatment provided similar results as MB standard dose treatment (40 g a.