Pesticides - Toxic Aspects
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(12) United States Patent (10) Patent No.: US 7,687,533 B2 Critcher Et Al
USOO7687533B2 (12) United States Patent (10) Patent No.: US 7,687,533 B2 Critcher et al. (45) Date of Patent: Mar. 30, 2010 (54) N-(1-ARYLPYRAZOL-4L) SULFONAMIDES EP 546391 6, 1993 AND THEIR USE AS PARASITICDES EP 59.4291 4f1994 EP 626.375 11, 1994 (75) Inventors: Douglas James Critcher, Sandwich EP 1319657 6, 2003 (GB); Nigel Derek Arthur Walshe, WO WO87,03781 7, 1987 Sandwich (GB); Christelle Lauret, WO WO91f11172 8, 1991 Sandwich (GB) WO WO93, 19053 9, 1993 WO WO93,25543 12/1993 (73) Assignees: Pfizer Inc., New York, NY (US); Pfizer WO WO94/O2518 2, 1994 Products Inc., Groton, CT (US) WO WO94, 15944 T 1994 - WO WO94,21606 9, 1994 (*) Notice: Subject to any disclaimer, the term of this WO WO95/22552 8, 1995 patent is extended or adjusted under 35 WO WO96, 11945 4f1996 U.S.C. 154(b) by 607 days. WO WO96, 15121 5, 1996 WO WO98,24767 6, 1998 (21) Appl. No.: 10/593,133 WO WO98.28278 7, 1998 WO WO98,55148 12/1998 (22) PCT Filed: Mar. 7, 2005 WO WO98,57937 12/1998 (86). PCT No.: PCT/B2005/000597 W WS 1 3. S 371 (c)(1) WO WOO1, 19798 3, 2001 (2), (4) Date: Nov.30, 2006 WO WOO2/O58690 8, 2002 WO WOO3,O37274 5, 2003 (87) PCT Pub. No.: WO2005/090313 WO WOO3,051833 6, 2003 WO WO2004/OOO318 12/2003 PCT Pub. Date: Sep. 29, 2005 WO WO2004/043951 5, 2004 WO WO2004/043951 A1 * 5, 2004 (65) Prior Publication Data WO WO2004/049797 6, 2004 US 2008/O26 1940 A1 Oct. -
2,4-Dichlorophenoxyacetic Acid
2,4-Dichlorophenoxyacetic acid 2,4-Dichlorophenoxyacetic acid IUPAC (2,4-dichlorophenoxy)acetic acid name 2,4-D Other hedonal names trinoxol Identifiers CAS [94-75-7] number SMILES OC(COC1=CC=C(Cl)C=C1Cl)=O ChemSpider 1441 ID Properties Molecular C H Cl O formula 8 6 2 3 Molar mass 221.04 g mol−1 Appearance white to yellow powder Melting point 140.5 °C (413.5 K) Boiling 160 °C (0.4 mm Hg) point Solubility in 900 mg/L (25 °C) water Related compounds Related 2,4,5-T, Dichlorprop compounds Except where noted otherwise, data are given for materials in their standard state (at 25 °C, 100 kPa) 2,4-Dichlorophenoxyacetic acid (2,4-D) is a common systemic herbicide used in the control of broadleaf weeds. It is the most widely used herbicide in the world, and the third most commonly used in North America.[1] 2,4-D is also an important synthetic auxin, often used in laboratories for plant research and as a supplement in plant cell culture media such as MS medium. History 2,4-D was developed during World War II by a British team at Rothamsted Experimental Station, under the leadership of Judah Hirsch Quastel, aiming to increase crop yields for a nation at war.[citation needed] When it was commercially released in 1946, it became the first successful selective herbicide and allowed for greatly enhanced weed control in wheat, maize (corn), rice, and similar cereal grass crop, because it only kills dicots, leaving behind monocots. Mechanism of herbicide action 2,4-D is a synthetic auxin, which is a class of plant growth regulators. -
Insecticides - Development of Safer and More Effective Technologies
INSECTICIDES - DEVELOPMENT OF SAFER AND MORE EFFECTIVE TECHNOLOGIES Edited by Stanislav Trdan Insecticides - Development of Safer and More Effective Technologies http://dx.doi.org/10.5772/3356 Edited by Stanislav Trdan Contributors Mahdi Banaee, Philip Koehler, Alexa Alexander, Francisco Sánchez-Bayo, Juliana Cristina Dos Santos, Ronald Zanetti Bonetti Filho, Denilson Ferrreira De Oliveira, Giovanna Gajo, Dejane Santos Alves, Stuart Reitz, Yulin Gao, Zhongren Lei, Christopher Fettig, Donald Grosman, A. Steven Munson, Nabil El-Wakeil, Nawal Gaafar, Ahmed Ahmed Sallam, Christa Volkmar, Elias Papadopoulos, Mauro Prato, Giuliana Giribaldi, Manuela Polimeni, Žiga Laznik, Stanislav Trdan, Shehata E. M. Shalaby, Gehan Abdou, Andreia Almeida, Francisco Amaral Villela, João Carlos Nunes, Geri Eduardo Meneghello, Adilson Jauer, Moacir Rossi Forim, Bruno Perlatti, Patrícia Luísa Bergo, Maria Fátima Da Silva, João Fernandes, Christian Nansen, Solange Maria De França, Mariana Breda, César Badji, José Vargas Oliveira, Gleberson Guillen Piccinin, Alan Augusto Donel, Alessandro Braccini, Gabriel Loli Bazo, Keila Regina Hossa Regina Hossa, Fernanda Brunetta Godinho Brunetta Godinho, Lilian Gomes De Moraes Dan, Maria Lourdes Aldana Madrid, Maria Isabel Silveira, Fabiola-Gabriela Zuno-Floriano, Guillermo Rodríguez-Olibarría, Patrick Kareru, Zachaeus Kipkorir Rotich, Esther Wamaitha Maina, Taema Imo Published by InTech Janeza Trdine 9, 51000 Rijeka, Croatia Copyright © 2013 InTech All chapters are Open Access distributed under the Creative Commons Attribution 3.0 license, which allows users to download, copy and build upon published articles even for commercial purposes, as long as the author and publisher are properly credited, which ensures maximum dissemination and a wider impact of our publications. After this work has been published by InTech, authors have the right to republish it, in whole or part, in any publication of which they are the author, and to make other personal use of the work. -
View As Separate Document
Ecotao Enterprises cc [email protected] iTEM NO. Available microscope slides. Note that there is an administrative and freight fee with any order A MICRO-SPECIMENS A1 plant WM A 1-1 CELL AND TISSUE---micro-specimens BB-QP0001 Letter A Slide BB-QP0002 Letter B Slide BB-QP0003 Onion Epidermis W.M BB-QP0004 Pepper Epidermal (showing simple pit pair)W.M BB-QP0005 Piasmodesma(Persimmon sndosperm) BB-QP0006 Onion root tip L.S BB-QP0007 Onion chromosome W.M BB-QP0008 Hydrilla stem tips L.S( showing shoot apical meristem) BB-QP0009 Clove Bud S.L BB-QP0010 Corn stalk inter apical meristem L.S BB-QP0011 Hosta leaf lower epidermis W.M BB-QP0012 Wheat leaf lower epidermis W.M BB-QP0013 Broad bean leaf lower epidermis W.M BB-QP0014 Corn leaf lower epidermis W.M BB-QP0015 Chrysanthemum leaf lower epidermis W.M(showing stoma) BB-QP0016 Apple leaf lower epidermis W.M(showing epidermi cells) BB-QP0017 Sycamore branch-shaped down W.M BB-QP0018 Geranium leaf lower epidermis W.M(Showing glandular hair) BB-QP0019 Mintleaf leaf lower epidermis W.M(showing glandular scale) BB-QP0020 Sweet potato root W.M(showing storage tissue) BB-QP0021 Hydrilla stem C.S(showing aceration tissue) BB-QP0022 Myriophyllum spicatum stem C.S(showing aceration tissue) BB-QP0023 Waterlily leaf C.S(showing aceration tissue) BB-QP0024 Amaranthus stems (showing vascular) BB-QP0025 Pumpkin stem C.S(showing tracheid) BB-QP0026 Pumpkin stem L.S (showing vascular type) BB-QP0027 Pumpkin stem isolation W.M (showing vascular type) BB-QP0028 Sunflower stem L.S BB-QP0029 Gossypium hirsutum -
Transgenic Crops.Pdf
MICHEL TEMER President of the Republic ELISEU PADILHA Chief of Staff of the Presidency of the Republic JOSÉ RICARDO ROSENO Special Secretary for Family Farming and Agrarian Development JEFFERSON CORITEAC Deputy Executive Secretary of for Family Farming and Agrarian Development JOSÉ ROBERTO VIEIRA SANTOS Subsecretary of Planning and Management RAQUEL SANTORI Subsecretary of de Agrarian Reordering EVERTON AUGUSTO PAIVA FERREIRA Subsecretary of Family Farming MARCELO MARTINS Subsecretary of Rural Development SORRIVAL DE LIMA Subsecretary of Land Regularization in the Legal Amazon CARLOS EDUARDO BOVO Director of the Coordination of Strategic Management, Monitoring and Evaluation (CGMA / NEAD) WILLY DE LA PIEDRA MESONES Coordinator-General for Strategic Management, Monitoring and Evaluation (CGMA / NEAD) Copyright 2017 MDA mda.gov.br Series NEAD Debate 27 Agrarian Studies and Rural Development Centre/ Coordination of Strategic Management, Monitoring and Evaluation (NEAD) Esplanada dos Ministérios, Bloco C, 5º andar – sala 543 CEP 70.046-900 Brasília/DF Editorial staff Editorial production: Ana Carolina Fleury and Mariana Camargo Spelling and grammar review: Ana Carolina Fleury, Mariana Camargo and Grafica Ideal Graphic and editorial design: Aline Pereira - Ascom/MDA Transgenic Crops – hazards and uncertainties: More than 750 studies disregarded by the GMOs regulatory bodies / Gilles Ferment ... [ et al. ].– Brasília: Ministry of Agrarian Development, 2017. 450p. _ ( Nead debate ; 27 ) ISBN 978-85- 8354-015- 1 1. Trangenic plants. 2. Agrobiodiversity. -
Effects of Metabolic Inhibitors on the Translocation of Auxins
EFFECTS OF METABOLIC INHIBITORS ON THE TRANSLOCATION OF AUXINS By DAMELIS DIAZ DE CEQUEA q Licenciado in Biology Universidad of Oriente Cumana, Venezuela 1976 Submitted to the Faculty of the Graduate College of the Oklahoma State University in partial fulfillment of the requirements for the Degree of MASTER OF SCIENCE May, 1986 -rkto~~~ I 1:{ (; 0 5'/Je Cop " EFFECTS OF METABOLIC INHIBITORS ON THE TRANSLOCATION OF AUXINS Thesis Approved: 1251232 ~ ii ACKNOWLEDGMENTS I wish to express my most sincere gratitude to Dr. Eddie Basler for his guidance, time and training during the course of this research. I wish to thank Dr. Glenn W. Todd and Dr. Becky Johnson for being members of my graduate committee. I also want to thank Jean Pittman Winters, Trina Wheless, and Roberto Machado for their valuable help received during experiment preparations, and Bobby Winters for his time dedicated to preparing some of the computer programs. Special acknowledgement is due to my husband Hernan, my son Hernan Alejandro, and my family for their constant love and support during my graduate career, without them I would not have been able to achieve this goal. I want to express my gratitude to Dr. John Vitek, Assistant Dean of the Graduate Collage, and Dr. Glenn Todd, Botany Department Head, for giving me the opportunity to study in this University. Finally, I want to recognize the financial support received from Universidad de Oriente Cumana, Venezuela during my time in the U.S.A. iii TABLE OF CONTENTS Chapter Page I. INTRODUCTION. • . • • . • 1 II. MATERIALS AND METHODS....................................... 8 III. RESULTS ..•....•.................................•..........• 11 Comparison of the Effect of DCCD and1RIDS on the Tray~location of 2,4,5-T-1- C and IAA -1- C. -
Author's Blurb
Author’s Blurb TK Lim (Tong Kwee Lim) obtained his bachelor’s and plant products into and out of Australia from and master’s degrees in Agricultural Science and for the Middle East and Asian region. During from the University of Malaya and his PhD his time with ACIAR, he oversaw and managed (Botanical Sciences) from the University of international research and development programs Hawaii. He worked in the Agricultural University in plant protection and horticulture, covering a of Malaysia for 20 years as a Lecturer and wide array of crops that included fruit, plantation Associate Professor; as Principal Horticulturist crops, vegetables, culinary and medicinal herbs for 9 years for the Department of Primary and spices mainly in southeast Asia and the Industries and Fisheries, Darwin, Northern Pacifi c. In the course of his four decades of work- Territory; for 6 years as Manager of the Asia and ing career, he has travelled extensively world- Middle East Team in Plant Biosecurity Australia, wide to many countries in South Asia, East Asia, Department of Agriculture, Fisheries and Southeast Asia, Middle East, Europe, the Pacifi c Forestry, Australia, and for 4 years as Research Islands, USA and England and also throughout Program Manager with the Australian Centre for Malaysia and Australia. Since his tertiary educa- International Agriculture Research (ACIAR), tion days, he always had a strong passion for Department of Foreign Affairs and Trade, crops and took an avid interest in edible and Australia, before he retired from public service. medicinal -
Landscaping Near Black Walnut Trees
Selecting juglone-tolerant plants Landscaping Near Black Walnut Trees Black walnut trees (Juglans nigra) can be very attractive in the home landscape when grown as shade trees, reaching a potential height of 100 feet. The walnuts they produce are a food source for squirrels, other wildlife and people as well. However, whether a black walnut tree already exists on your property or you are considering planting one, be aware that black walnuts produce juglone. This is a natural but toxic chemical they produce to reduce competition for resources from other plants. This natural self-defense mechanism can be harmful to nearby plants causing “walnut wilt.” Having a walnut tree in your landscape, however, certainly does not mean the landscape will be barren. Not all plants are sensitive to juglone. Many trees, vines, shrubs, ground covers, annuals and perennials will grow and even thrive in close proximity to a walnut tree. Production and Effect of Juglone Toxicity Juglone, which occurs in all parts of the black walnut tree, can affect other plants by several means: Stems Through root contact Leaves Through leakage or decay in the soil Through falling and decaying leaves When rain leaches and drips juglone from leaves Nuts and hulls and branches onto plants below. Juglone is most concentrated in the buds, nut hulls and All parts of the black walnut tree produce roots and, to a lesser degree, in leaves and stems. Plants toxic juglone to varying degrees. located beneath the canopy of walnut trees are most at risk. In general, the toxic zone around a mature walnut tree is within 50 to 60 feet of the trunk, but can extend to 80 feet. -
Black Walnut Toxicity
General Horticulture • HO-193-W Department of Horticulture Purdue University Cooperative Extension Service • West Lafayette, IN BLACK WALNUT TOXICITY Michael N. Dana and B. Rosie Lerner Black walnut (Juglans nigra L.) is a valuable hardwood to be a respiration inhibitor which deprives sensitive lumber tree and Indiana native. In the home landscape, plants of needed energy for metabolic activity. black walnut is grown as a shade tree and, occasionally, for its edible nuts. While many plants grow well in The largest concentrations of juglone and hydrojuglone proximity to black walnut, there are certain plant species (converted to juglone by sensitive plants) occur in the whose growth is hindered by this tree. The type of walnut’s buds, nut hulls, and roots. However, leaves and relationship between plants in which one produces a stems do contain a smaller quantity. Juglone is only substance which affects the growth of another is know poorly soluble in water and thus does not move very far as “allelopathy.” in the soil. Awareness of black walnut toxicity dates back at least to Since small amounts of juglone are released by live Roman times, when Pliny noted a poisoning effect of roots, particularly juglone-sensitive plants may show walnut trees on “all” plants. More recent research has toxicity symptoms anywhere within the area of root determined the specific chemical involved and its mode growth of a black walnut tree. However, greater quanti of action. Many plants have been classified through ties of juglone are generally present in the area immedi observation as either sensitive or tolerant to black ately under the canopy of a black walnut tree, due to walnuts. -
July-December 2012 ISSN 0115‐8724
July-December 2012 ISSN 0115‐8724 PHILIPPINE SCIENCE AND TECHNOLOGY ABSTRACTS Classified abstracts of the latest Philippine publications in the field of science and technology Published by: Information Resources and Analysis Division SCIENCE AND TECHNOLOGY INFORMATION INSTITUTE Department of Science and Technology DOST Compound, General Santos Avenue Bicutan, Taguig City, Philippines July - December 2012 TABLE OF CONTENTS AGRICULTURE 0001-0019 ANTHROPOLOGY 0020 BIOLOGY 0021-0034 BOTANY 0035-0055 CHEMISTRY 0056-0067 COMMUNICATIONS 0068 COMPUTER SCIENCE 0069 ECOLOGY 0070-0072 ENGINEERING 0073-0083 ENVIRONMENTAL SCIENCE 0084-0093 FISHERIES 0094-0104 FOOD SCIENCE AND TECHNOLOGY 0105-0148 FORESTRY 0149-0151 GEOLOGY 0152-0156 HEALTH AND WELLNESS 0157-0169 HYDROLOGY 0170 INFORMATION AND COMMUNICATIONS TECHNOLOGY 0171-0188 LIVELIHOOD 0189 MARINE SCIENCE 0190-0197 MATHEMATICS 0198 MEDICINE 0199-0346 PHYSICS 0347 SCIENCE AND TECHNOLOGY 0348-0350 SOCIAL SCIENCES 0351-0352 VETERINARY MEDICINE 0353-0354 ZOOLOGY 0355-0373 AGRICULTURE 0001 Application of the improved embryo culture protocol for commercial production of makapuno seedlings. Areza-Ubaldo, Maria Buena B., Rillo, Erlinda P., Cueto, Cristeta A.. Philippine Journal of Science, 2005, 132(1):1-11 The improved basal medium for coconut embryo culture was verified for the mass propagation of Makapuno seedlings. Results confirmed earlier findings that coconut zygotic embryos develop satisfactorily in the improved embryo culture medium. This medium consists of Eeuwens (Y3) (1976) and various additives. The entire cycle to produce one embryo cultured makapuno seedling costs P265.45 (as of Feb 2002) compared with the original PCA-Albay Research Center protocol (ARC) (P301.84). This improved embryo culture technology is now adapted to mass produce Makapuno seedlings nationwide. -
Omics Methods for Probing the Mode of Action of Natural and Synthetic Phytotoxins
J Chem Ecol DOI 10.1007/s10886-013-0240-0 REVIEW ARTICLE Omics Methods for Probing the Mode of Action of Natural and Synthetic Phytotoxins Stephen O. Duke & Joanna Bajsa & Zhiqiang Pan Received: 31 October 2012 /Revised: 20 December 2012 /Accepted: 31 December 2012 # The Author(s) 2013. This article is published with open access at Springerlink.com Abstract For a little over a decade, omics methods (tran- Introduction scriptomics, proteomics, metabolomics, and physionomics) have been used to discover and probe the mode of action of Understanding the modes of action of natural compounds as both synthetic and natural phytotoxins. For mode of action toxicants is important for at least two reasons. From an eco- discovery, the strategy for each of these approaches is to logical and evolutionary standpoint, knowing the mode of generate an omics profile for phytotoxins with known mo- action of such compounds is critical to understanding the lecular targets and to compare this library of responses to the function of the compound in nature. For example, the high responses of compounds with unknown modes of action. activity of phytotoxins from plant pathogens on specific mo- Using more than one omics approach enhances the proba- lecular targets found in green plants, but not in fungi, provides bility of success. Generally, compounds with the same mode strong evidence that the compounds have evolved as virulence of action generate similar responses with a particular omics factors for the pathogens (Duke and Dayan, 2011). From a method. Stress and detoxification responses to phytotoxins more practical standpoint, natural compounds often have been can be much clearer than effects directly related to the target the source of pesticides with new modes of action (Dayan et site. -
Final Screening Assessment of Bacillus Thuringiensis Strain ATCC 13367
Final Screening Assessment of Bacillus thuringiensis strain ATCC 13367 Environment and Climate Change Canada Health Canada March 2018 Synopsis Pursuant to paragraph 74(b) of the Canadian Environmental Protection Act, 1999 (CEPA), the Minister of the Environment and the Minister of Health have conducted a screening assessment of Bacillus thuringiensis strain ATCC1 13367 (B. thuringiensis strain ATCC 13367). B. thuringiensis strain ATCC 13367 is a facultative anaerobic Gram-positive bacterium. As a species, Bacillus thuringiensis (B. thuringiensis) is generally considered ubiquitous and commonly found in terrestrial and aquatic habitats. B. thuringiensis is able to form spores which can withstand harsh environmental conditions and survive under conditions of nutrient depletion. Various characteristics of B. thuringiensis make it suitable for use as an active ingredient in commercial and consumer products, including degreasers, detergents, and additives in bioremediation and biodegradation and in various industrial processes. B. thuringiensis is known particularly for the production of crystal proteins (Cry toxins) which are toxic for various Orders of insects (mainly lepidopterans, dipterans and coleopterans). In particular, B. thuringiensis strain ATCC 13367 is known to produce a Cry 1B (Cry1Ba) toxin, which is known to be selectively toxic towards insect species of the Order Lepidoptera, and towards a few species of the Orders Diptera and Coleoptera. Despite the ubiquity and abundant use of various B. thuringiensis subspecies, , there are no known adverse population– level effects on target species in the ecosystems where it is used, and no adverse effects on non-target terrestrial or aquatic plants, vertebrates or invertebrates B. thuringiensis is not considered a human pathogen and to date no mammalian pathogenicity and toxicity study has demonstrated that commercial spore preparations of any B.