Locust Swarms
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Locusts in Queensland
LOCUSTS Locusts in Queensland PEST STATUS REVIEW SERIES – LAND PROTECTION by C.S. Walton L. Hardwick J. Hanson Acknowledgements The authors wish to thank the many people who provided information for this assessment. Clyde McGaw, Kevin Strong and David Hunter, from the Australian Plague Locust Commission, are also thanked for the editorial review of drafts of the document. Cover design: Sonia Jordan Photographic credits: Natural Resources and Mines staff ISBN 0 7345 2453 6 QNRM03033 Published by the Department of Natural Resources and Mines, Qld. February 2003 Information in this document may be copied for personal use or published for educational purposes, provided that any extracts are fully acknowledged. Land Protection Department of Natural Resources and Mines GPO Box 2454, Brisbane Q 4000 #16401 02/03 Contents 1.0 Summary ................................................................................................................... 1 2.0 Taxonomy.................................................................................................................. 2 3.0 History ....................................................................................................................... 3 3.1 Outbreaks across Australia ........................................................................................ 3 3.2 Outbreaks in Queensland........................................................................................... 3 4.0 Current and predicted distribution ........................................................................ -
To Be Or Not to Be a Locust? a Comparative Analysis of Behavioral Phase Change in Nymphs of Schistocerca Americana and S
University of Nebraska - Lincoln DigitalCommons@University of Nebraska - Lincoln U.S. Department of Agriculture: Agricultural Publications from USDA-ARS / UNL Faculty Research Service, Lincoln, Nebraska 2003 To be or not to be a locust? A comparative analysis of behavioral phase change in nymphs of Schistocerca americana and S. gregaria Gregory A. Sword United States Department of Agriculture Follow this and additional works at: https://digitalcommons.unl.edu/usdaarsfacpub Part of the Agricultural Science Commons Sword, Gregory A., "To be or not to be a locust? A comparative analysis of behavioral phase change in nymphs of Schistocerca americana and S. gregaria" (2003). Publications from USDA-ARS / UNL Faculty. 381. https://digitalcommons.unl.edu/usdaarsfacpub/381 This Article is brought to you for free and open access by the U.S. Department of Agriculture: Agricultural Research Service, Lincoln, Nebraska at DigitalCommons@University of Nebraska - Lincoln. It has been accepted for inclusion in Publications from USDA-ARS / UNL Faculty by an authorized administrator of DigitalCommons@University of Nebraska - Lincoln. Journal of Insect Physiology 49 (2003) 709–717 www.elsevier.com/locate/jinsphys To be or not to be a locust? A comparative analysis of behavioral phase change in nymphs of Schistocerca americana and S. gregaria Gregory A. Sword ∗ United States Department of Agriculture, Agricultural Research Service, 1500 N. Central Avenue, Sidney, MT 59270, USA Received 4 December 2002; received in revised form 28 March 2003; accepted 2 April 2003 Abstract Phenotypic plasticity in behavior induced by high rearing density is often part of a migratory syndrome in insects called phase polyphen- ism. Among locust species, swarming and the expression of phase polyphenism are highly correlated. -
Potential Impact of Desert Locust to Nutrition Security in SOMALIA
POTENTIAL IMPACT OF DESERT LOCUST Emma Apo Ouma TO NUTRITION SECURITY IN SOMALIA WHAT IS THE CURRENT SITUATION? •Triple threat of Desert Locust, Gu flooding and COVID-19, •April and June 2020, an estimated 2.7 million people across Somalia are expected to face Crisis and deteriorate to 3.5 million between July and September 2020 WHAT DOES THIS MEAN FOR NUTRITION SECURITY? CROP AND PASTURE DAMAGE Threat to current Gu season crop production and may also threaten pasture availability and crop cultivation across Somalia through the following 2020 Deyr (October-December A swarm can eat enough food in one day to feed 34 million people. FALLING LIVESTOCK PRICES •Livestock diseases •Poor livestock nutrition; increased price of livestock feed •Reduced quality of livestock products eg milk, meat LOSS OF LIVELIHOODS •Disruption of food systems; critical value chains have been affected e.g. livestock, cereals such as sorghum, maize •Loss of wage and employment opportunities e.g. labor in the fields, value chain actors •Increase in livelihood based coping strategy: eg selling last breeding animal, spent savings, begging, reduced expenditure on livestock and agriculture •Reduced spending on non-food needs health care, education FOOD CONSUMPTION AND DIETARY DIVERSITY •With poor harvests, there is likelihood of poor food consumption at hhd level •Depletion of food stocks •Food Prices have increased •A majority if households rely on markets for food: increased reliance on purchased and processed foods •Compromise the nutrition of the most vulnerable: children less than 5, PLW, elderly, adolesents •Increased rates of acute malnutrition ONGOING EFFORTS Household Level Screening and referral of acute malnutrition cases Targeting of the most vulnerable (UCT) Community level ▪Burying locusts, setting fires, and making noise to scare them off. -
Diet-Based Sodium Regulation in Sixth-Instar Grasshoppers, Schistocerca Americana (Drury) (Orthoptera: Acrididae)
Diet-based Sodium Regulation in Sixth-Instar Grasshoppers, Schistocerca americana (Drury) (Orthoptera: Acrididae) Shelby Kerrin Kilpatrick and Spencer T. Behmer Texas A&M University, Department of Entomology Edited by Benjamin Rigby and Shelby Kerrin Kilpatrick Abstract: This study analyzed sodium intake by Schistocerca americana (Drury) (Orthoptera: Acrididae) grasshoppers using three different seedling wheatgrass based diet treatments to simulate a natural food source. Sodium is a key nutrient for grasshopper cells, nerves, and reproduction. Grasshoppers acquire sodium from plants that they consume. However, it is unclear if grasshoppers self-regulate their sodium intake. Additionally, if grasshoppers self-regulate their sodium intake, the extent to which they do is uncertain. Newly molted sixth-instar grasshoppers were fed one of three diets in which the level of sodium that they had access to was varied. The S. americana grasshoppers consumed significantly less of the 0.5 M added sodium only diet when presented with an option to choose between this diet and a no-sodium-added diet (t = 9.6026, df = 7, P < 0.0001). Grasshoppers in the 0.5 M added sodium only treatment consumed a significantly lower amount of food (P < 0.0001) and gained a significantly lower mean mass (P < 0.0001), compared to the grasshoppers in the no-sodium-added only treatment. Our results generally correlated with previous studies on Locusta migratoria (L.) (Orthoptera: Acrididae), and information about the ecological tolerances and nutritional requirements of grasshoppers. Our data suggests that S. americana grasshoppers are capable of self-regulating their sodium intake. Additionally, we show that high concentrations of sodium in grasshopper diets have a negative effect on body mass. -
Guidance for POP Pesticides
Guidance for POP pesticides 1. Background on POP pesticides POPs Pesticides originate almost entirely from anthropogenic sources and are associated largely with the manufacture, use and disposition of certain organic chemicals. Of the initial 12 POPs chemicals, eight are POPs pesticide. In the new POP list, five chemicals may be categorised as pesticides. These are alpha hexachlorocyclohexane (alpha-HCH), beta hexachlorocyclohexane (beta-HCH), Chlordecone, Lindane (gamma, 1,2,3,4,5,6- hexaclorocyclohexane) and Pentachlorobenzene. This module addresses baseline data gathering and assessment of POPs pesticides. Particular care is required to address DDT due to its use for vector control and Lindane due to its use for control of ecto-parasites in veterinary and human application, which may be under the responsibility of authorities other than those responsible for primarily agricultural chemicals. In addition, it is important that all uses of HCB, alpha hexachorocyclohexane, beta hexachlorocyclohexane and pentachlorobenzene (industrial as well as pesticide) be properly addressed. Specialists with knowledge of each of these areas might be included in the task teams. 2. Objective To review and summarize the production, use, import and export of the chemicals listed in Annex A and Annex B of the Convention (excluding other chemicals listed under Annex A and B which are not considered as pesticides). To gather information on stockpiles and wastes containing, or thought to contain, POPs pesticides. To assess the legal and institutional framework for control of the production, use, import, export and disposal of the chemicals listed in Annex A and Annex B (excluding other chemicals which are not classed as pesticides) of the Convention. -
Periodical Cicadas SP 341 3/21 21-0190 Programs in Agriculture and Natural Resources, 4-H Youth Development, Family and Consumer Sciences, and Resource Development
SP 341 Periodical Cicadas Frank A. Hale, Professor Originally developed by Harry Williams, former Professor Emeritus and Jaime Yanes Jr., former Assistant Professor Department of Entomology and Plant Pathology The periodical cicada, Magicicada species, has the broods have been described by scientists and are longest developmental period of any insect in North designated by Roman numerals. There are three 13-year America. There is probably no insect that attracts as cicada broods (XIX, XXII and XXIII) and 12 17-year much attention in eastern North America as does the cicada broods (I-X, XIII, and XIV). Also, there are three periodical cicada. Their sudden springtime emergence, distinct species of 17-year cicadas (M. septendecim, filling the air with their high-pitched, shrill-sounding M. cassini, and M. septendecula) and three species of songs, excites much curiosity. 13-year cicadas (M. tredecim, M. tredecassini, and M. tredecula). Two races of the periodical cicada exist. One race has a life cycle of 13 years and is common in the southeastern In Tennessee, Brood XIX of the 13-year cicada had a United States. The other race has a life cycle of 17 years spectacular emergence in 2011 (Map 1). In 2004 and and is generally more northern in distribution. Due 2021, Brood X of the 17-year cicada primarily emerged to Tennessee’s location, both the 13-year and 17-year in East Tennessee (Map 2). Brood X has the largest cicadas occur in the state. emergence of individuals for the 17-year cicada in the United States. Brood XXIII of the 13-year cicada last Although periodical cicadas have a 13- or 17-year cycle, emerged in West Tennessee in 2015 (Map 3). -
Grasshoppered: America's Response to the 1874
Nebraska History posts materials online for your personal use. Please remember that the contents of Nebraska History are copyrighted by the Nebraska State Historical Society (except for materials credited to other institutions). The NSHS retains its copyrights even to materials it posts on the web. For permission to re-use materials or for photo ordering information, please see: http://www.nebraskahistory.org/magazine/permission.htm Nebraska State Historical Society members receive four issues of Nebraska History and four issues of Nebraska History News annually. For membership information, see: http://nebraskahistory.org/admin/members/index.htm Article Title: Grasshoppered: America’s Response to the 1874 Rocky Mountain Locust Invasion Full Citation: Alexandra M Wagner, “Grasshoppered: America’s Response to the 1874 Rocky Mountain Locust Invasion,” Nebraska History 89 (2008): 154-167 URL of article: http://www.nebraskahistory.org/publish/publicat/history/full-text/NH2008Grasshoppered.pdf Date: 2/11/2014 Article Summary: It was a plague of biblical proportions, influencing generations of federal agricultural policy . and foreshadowing today’s expectations about the government’s role during natural disasters. Cataloging Information: Names: Swain Finch, Solomon Butcher, H Westermann, Robert W Furnas, Thomas A Osborn, E O C Ord, N A M Dudley, Jeffrey Lockwood, John S Pillsbury, John L Pennington Keywords: Swain Finch, H Westermann, Robert W Furnas, Thomas A Osborn, Rocky Mountain locust (Melanoplus spretus), Nebraska Relief and Aid Association, -
A Time-Course Analysis of Behavioral Plasticity and Differential Gene Expression Patterns in Response to Density in Schistocerca Americana (Orthoptera: Acrididae)
University of Central Florida STARS Electronic Theses and Dissertations, 2004-2019 2014 A Time-Course Analysis of Behavioral Plasticity and Differential Gene Expression Patterns in Response to Density in Schistocerca americana (Orthoptera: Acrididae) Steven Gotham University of Central Florida Part of the Biology Commons Find similar works at: https://stars.library.ucf.edu/etd University of Central Florida Libraries http://library.ucf.edu This Doctoral Dissertation (Open Access) is brought to you for free and open access by STARS. It has been accepted for inclusion in Electronic Theses and Dissertations, 2004-2019 by an authorized administrator of STARS. For more information, please contact [email protected]. STARS Citation Gotham, Steven, "A Time-Course Analysis of Behavioral Plasticity and Differential Gene Expression Patterns in Response to Density in Schistocerca americana (Orthoptera: Acrididae)" (2014). Electronic Theses and Dissertations, 2004-2019. 1216. https://stars.library.ucf.edu/etd/1216 A TIME-COURSE ANALYSIS OF BEHAVIORAL PLASTICITY AND DIFFERENTIAL GENE EXPRESSION PATTERNS IN RESPONSE TO DENSITY IN SCHISTOCERCA AMERICANA (ORTHOPTERA: ACRIDIDAE) by STEVEN GOTHAM JR B.S. University of Central Florida, 2012 A thesis submitted in partial fulfillment of the requirements for the degree of Master of Science in the Department of Biology in the College of Sciences at the University of Central Florida Orlando, Florida Fall Term 2014 © 2014 Steven E. Gotham ii ABSTRACT Phenotypic plasticity is the ability of the genotype to express alternative phenotypes in response to different environmental conditions and this is considered to be an adaptation in which a species can survive and persist in a rapidly changing environment. -
John Lowell Capinera
JOHN LOWELL CAPINERA EDUCATION: Ph.D. (entomology) University of Massachusetts, 1976 M.S. (entomology) University of Massachusetts, 1974 B.A. (biology) Southern Connecticut State University, 1970 EXPERIENCE: 2015- present, Emeritus Professor, Department of Entomology and Nematology, University of Florida. 1987-2015, Professor and Chairman, Department of Entomology and Nematology, University of Florida. 1985-1987, Professor and Head, Department of Entomology, Colorado State University. 1981-1985, Associate Professor, Department of Zoology and Entomology, Colorado State University. 1976-1981, Assistant Professor, Department of Zoology and Entomology, Colorado State University. RESEARCH INTERESTS Grasshopper biology, ecology, distribution, identification and management Vegetable insects: ecology and management Terrestrial molluscs (slugs and snails): identification, ecology, and management RECOGNITIONS Florida Entomological Society Distinguished Achievement Award in Extension (1998). Florida Entomological Society Entomologist of the Year Award (1998). Gamma Sigma Delta (The Honor Society of Agriculture) Distinguished Leadership Award of Merit (1999). Elected Fellow of the Entomological Society of America (1999). Elected president of the Florida Entomological Society (2001-2002; served as vice president and secretary in previous years). “Handbook of Vegetable Pests,” authored by J.L. Capinera, named an ”Outstanding Academic Title for 2001” by Choice Magazine, a reviewer of publications for university and research libraries. “Award of Recognition” by the Entomological Society of America Formal Vegetable Insect Conference for publication of Handbook of Vegetable Pests (2002) “Encyclopedia of Entomology” was awarded Best Reference by the New York Public Library (2004), and an Outstanding Academic Title by CHOICE (2003). “Field Guide to Grasshoppers, Katydids, and Crickets of the United States” co-authored by J.L. Capinera received “Starred Review” book review in 2005 from Library Journal, a reviewer of library materials. -
Grasshoppers
Grasshoppers Orthoptera: Acrididae Plains Lubber Pictured grasshoppers Great crested grasshopper Snakeweed grasshoppers Primary Pest Grasshoppers • Migratory grasshopper • Twostriped grasshopper • Differential grasshopper • Redlegged grasshopper • Clearwinged grasshopper Twostriped Grasshopper, Melanoplus bivittatus Redlegged Grasshopper, Melanoplus femurrubrum Differential Grasshopper, Melanoplus differentialis Migratory Grasshopper, Melanoplus sanguinipes Clearwinged Grasshopper Camnula pellucida Diagram courtesy of Alexandre Latchininsky, University of Wyoming Photograph courtesy of Jean-Francoise Duranton, CIRAD Grasshoppers lay pods of eggs below ground Grasshopper Egg Pods Molting is not for wimps! Grasshopper Nymphs Some grasshoppers found in winter and early spring Velvet-striped grasshopper – a common spring species Grasshopper Controls • Weather (rainfall mediated primarily) • Natural enemies – Predators, diseases • Treatment of breeding areas • Biological controls • Row covers Temperature and rainfall are important mortality factors Grasshoppers and Rainfall Moisture prior to egg hatch generally aids survival – Newly hatched young need succulent foliage Moisture after egg hatch generally reduces problems – Assists spread of diseases – Allows for plenty of food, reducing competition for rangeland and crops Grasshopper predators Robber Flies Larvae of many blister beetles develop on grasshopper egg pods Blister beetle larva Fungus-killed Grasshoppers Pathogen: Entomophthora grylli Mermis nigrescens, a nematode parasite of grasshoppers -
The Future of Biopesticides in Desert Locust Management
THE FUTURE OF BIOPESTICIDES IN DESERT LOCUST MANAGEMENT REPORT OF THE INTERNATIONAL WORKSHOP HELD IN SALY, SENEGAL 12-15 FEBRUARY 2007 i The workshop was organized with support from: International Fund for Agricultural Development International Organization of the Francophonie World Bank Rapporteur: Joyce Magor FAO/AGPP Documents: The workshop documents are available on CD. The CD’s as well as hardcopies of the report can de obtained from FAO/AGPP Please send your requests to: James Everts FAO/AGPP. Via delle terme di Carracalla 00150 Rome, Italy e-mail: [email protected] tel: +39 5705 3477 Correspondence on the workshop and the report should be directed at James Everts The opinions expressed in this document represent those of the participants of the Workshop and do not necessarily reflect an official position of the FAO, the Worldbank, OIF, IFAD or the Government of Senegal. ii The Future of Biopesticides Acronyms and abbreviations AGRHYMET Centre de formation et d'information en agro-hydro-météorologie Centre for Training and information on Agrometeorology and Hydrology APLC Australian Plague Locust Commission BCP Biological Control Products SA (Pty) Ltd CABI CAB International CERES-Locustox Centre for Ecotoxicological Research in the Sahel CFA Coopération financière d'Afrique CILSS Comité permanent Inter-états de Lutte contre la Sécheresse dans le Sahel Permanent Interstate Committee for Drought Control in the Sahel CLCPRO Commission de lutte contre le Criquet Pèlerin dans la Région Occidentale Commission for controlling the Desert -
ENTOMOPHAGY OUTLINE I. What Is It (SLIDE 2) II. Brief History Of
ENTOMOPHAGY OUTLINE I. What is it (SLIDE 2) II. Brief History of Entomophagy (SLIDE 3) a. In the Middle East, as far back as the 8th century BC, servants were thought to have carried locusts arranged on sticks to royal banquets in the palace of Asurbanipal (Ninivé). b. The first reference to entomophagy in Europe was in Greece (SLIDE 4), where eating cicadas was considered a delicacy. Literature from ancient China also cites the practice of entomophagy. Li Shizhen’s Compendium of Materia Medica, one of the largest and most comprehensive books on Chinese medicine during the Ming Dynasty in China (1368– 1644), displays an impressive record of all foods, including a large number of insects. The compendium also highlights the medicinal benefits of the insects. c. The practice of eating insects (SLIDE 5) is cited throughout religious literature in the Christian, Jewish and Islamic faiths. d. The Bible speaks of locusts as food in the book of Leviticus, most probably in reference to the desert locust, Schistocerca gregaria. (SLIDE 6) Yet these may ye eat of every flying creeping thing that goeth upon all four, which have legs above their feet, to leap withal upon the earth (Leviticus 11: 21) 1 Even these of them ye may eat; the locust after his kind, and the bald locust after his kind, and the beetle after his kind, and the grasshopper after his kind (Leviticus 11: 22) e. (SLIDE 7) There are 8 species of flying insects permitted to be eaten in the Torah … 2 grasshoppers, 2 crickets, and 4 locust.