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®Ottor of Pjilosopjjp ZOOLOGY
STUDIES ON THE EFFECT OF MODERN ORGANOPHOSPHATES AND CARBAMATES ON THE REPRODUCTIVE SYSTEM OF DYSDERCUS CINGULATUS AND DIACRISIA OBLIQUA ABSTRACT THESIS SUBMITTED FOR THE AWARD OF THE DEGREE OF ®ottor of PjilosopJjp IN ZOOLOGY BY KHOWAJA JAMAL M. Sc, M. Phil. DEPARTMENT OF ZOOLOGY ALIGARH MUSLIM UNIVERSITY ALIGARH (INDIA) 1996 STUDIES ON THE EFFECT OF MODERN ORGANOPHOSPHATES AND CARBAMATES ON THE REPRODUCTIVE SYSTEM OF DYSDERCUS CINGULATUS AND DIACRISIA OBLIQUA ABSTRACT THESIS SUBMITTED FOR THE AWARD OF THE DEGREE OP Sottor of ^Ijilotfopljp IN ZOOLOGY BY KHOWAJA JAMAL M. Sc, M. Phil. DEPARTMENT OF ZOOLOGY ALIGARH MUSLIM UNIVERSITY ALIGARH (INDIA) 1996 ABSTRACT Insects and plants have undergone constant, interaction from time immemorable and the struggle between man and insects also began long before the human civilization came into existence. It has continued without cessation to the present time and probably will continue as long as the human race persists. It is because of the fact that both man and certain insect species constantly want same things at the same time. To control these insect pests, man has evolved various methods and the most commonly used technique has been the application of chemicals (insecticides). The use of insecticides against the insect pests is not new, as man very likely employed chemicals for the control of insects before he learned to write. Since then, the magnitude of production of these chemicals is increasing day by day. Presently, the indiscriminate and extensive use of insecticides on one hand solves a problem but on the other hand it creates many crises such as their residual effects, possible hazards to non-target organisms, and most importantly the development of resistance against concerned insecticides. -
ISSN: 2320-5407 Int. J. Adv. Res. 4(8), 2099-2116
ISSN: 2320-5407 Int. J. Adv. Res. 4(8), 2099-2116 Journal Homepage: - www.journalijar.com Article DOI: Article DOI: 10.21474/IJAR01/1427 DOI URL: http://dx.doi.org/10.21474/IJAR01/1427 RESEARCH ARTICLE INSECT PESTS OF FORESTRY PLANTS AND THEIR MANAGEMENT. Meeta Sharma Arid Forest Research Institute, Jodhpur (Rajasthan)-342005. …………………………………………………………………………………………………….... Manuscript Info Abstract ……………………. ……………………………………………………………… Manuscript History Indian arid zone covers 31.7 million ha hot desert and 0.78 million ha cold desert, which is about 12 percent of the country‟s total Received: 12 June 2016 geographical area. The mean annual rainfall in the region varies from Final Accepted: 19 July 2016 100 mm in the north- western sector of Jaisalmer to 550 mm in eastern Published: August 2016 districts of Rajasthan, Gujarat and Haryana. The rainfall is highly erratic having 65 percent coefficient of variability. The vegetation in Key words:- the Indian arid zone is very sparse , scanty and thorny. However, the Forest, Bruchid, Parasitoid.. forests and trees like many other plants, suffer from attack by insect pests and diseases which cause a lot of damage, resulting in poor tree growth, poor timber quality, and in some cases, complete destruction and reduction of forest cover in Indian arid zone also. Thus, trees and forests need to be protected from these agents of destruction. With the ever increasing human and livestock population, the amount of forest per capita is declining particularly in the less industrialized or developing areas of the world. It is estimated that the land under forest in developing countries is about 2100 million hectares, or more than half of the forested land on earth. -
The Sphingidae (Lepidoptera) of the Philippines
©Entomologischer Verein Apollo e.V. Frankfurt am Main; download unter www.zobodat.at Nachr. entomol. Ver. Apollo, Suppl. 17: 17-132 (1998) 17 The Sphingidae (Lepidoptera) of the Philippines Willem H o g e n e s and Colin G. T r e a d a w a y Willem Hogenes, Zoologisch Museum Amsterdam, Afd. Entomologie, Plantage Middenlaan 64, NL-1018 DH Amsterdam, The Netherlands Colin G. T readaway, Entomologie II, Forschungsinstitut Senckenberg, Senckenberganlage 25, D-60325 Frankfurt am Main, Germany Abstract: This publication covers all Sphingidae known from the Philippines at this time in the form of an annotated checklist. (A concise checklist of the species can be found in Table 4, page 120.) Distribution maps are included as well as 18 colour plates covering all but one species. Where no specimens of a particular spe cies from the Philippines were available to us, illustrations are given of specimens from outside the Philippines. In total we have listed 117 species (with 5 additional subspecies where more than one subspecies of a species exists in the Philippines). Four tables are provided: 1) a breakdown of the number of species and endemic species/subspecies for each subfamily, tribe and genus of Philippine Sphingidae; 2) an evaluation of the number of species as well as endemic species/subspecies per island for the nine largest islands of the Philippines plus one small island group for comparison; 3) an evaluation of the Sphingidae endemicity for each of Vane-Wright’s (1990) faunal regions. From these tables it can be readily deduced that the highest species counts can be encountered on the islands of Palawan (73 species), Luzon (72), Mindanao, Leyte and Negros (62 each). -
Eggplant Integrated Pest Management
Eggplant Integrated Pest Management AN ECOLOGICAL GUIDE TRAINING RESOURCE TEXT ON CROP DEVELOPMENT, MAJOR AGRONOMIC PRACTICES, DISEASE AND INSECT ECOLOGY, INSECT PESTS, NATURAL ENEMIES AND DISEASES OF EGGPLANT FAO Inter-Country Programme for Integrated Pest Management In Vegetables in South and Southeast Asia June 2003 TABLE OF CONTENTS ACKNOWLEDGEMENTS WHY THIS GUIDE? .................................................................................................................................... 1 1 INTRODUCTION ..................................................................................................................................... 2 1.1 INTEGRATED PEST MANAGEMENT: BEYOND BUGS….......................................................................... 2 1.2 THE VEGETABLE IPM PROGRAMME .................................................................................................. 2 1.3 DEVELOPING VEGETABLE IPM BASED ON RICE IPM ........................................................................... 3 1.4 EGGPLANT: A BIT OF HISTORY........................................................................................................... 3 2 EGGPLANT CROP DEVELOPMENT..................................................................................................... 4 2.1 EGGPLANT GROWTH STAGES............................................................................................................ 5 2.2 SUSCEPTIBILITY OF EGGPLANT GROWTH STAGES TO PESTS .............................................................. -
The Importance of Alternative Host Plants As Reservoirs of the Cotton Leaf Hopper, Amrasca Devastans, and Its Natural Enemies
1 The importance of alternative host plants as reservoirs of the 2 cotton leaf hopper, Amrasca devastans, and its natural enemies 3 4 Rabia Saeeda, Muhammad Razaqb and Ian C.W. Hardyc 5 6 aEntomology Department, Central Cotton Research Institute, Multan, Pakistan 7 bDepartment of Entomology, Faculty of Agricultural Sciences and Technology, Bahauddin 8 Zakariya University, Multan, Pakistan 9 cSchool of Biosciences, University of Nottingham, Sutton Bonington Campus, Loughborough, 10 UK 11 12 13 14 15 Correspondence to: 16 Dr Ian C.W. Hardy 17 School of Biosciences, University of Nottingham, Sutton Bonington Campus, 18 Loughborough, LE12 5RD, UK 19 20 Tel: +441159516052 21 Fax: +441159516261 22 Email: [email protected] 23 _____________________________________________ 24 Accepted 21-12-2-14 25 Saeed R, Razaq M & Hardy ICW 2015 The importance of alternative host plants as reservoirs 26 of the cotton leaf hopper, Amrasca devastans, and its natural enemies. Journal of Pest 27 Science 88:517-531 28 _____________________________________________ 29 1 30 31 Abstract 32 Many agricultural pests can be harboured by alternative host plants but these can also harbour 33 the pests’ natural enemies. We evaluated the capacity of non-cotton plant species (both 34 naturally growing and cultivated) to function as alternative hosts for the cotton leaf hopper 35 Amrasca devastans (Homoptera: Ciccadellidae) and its natural enemies. Forty eight species 36 harboured A. devastans. Twenty four species were true breeding hosts, bearing both nymphal 37 and adult A. devastans, the rest were incidental hosts. The crop Ricinus communis and the 38 vegetables Abelomoschus esculentus and Solanum melongena had the highest potential for 39 harbouring A. -
Migrations of Dysdercus Spp. (Hemiptera : Pyrrhocoridae) Related to Movements OP the Inter-Tropical Convergence Zone in West Africa
Bull. ent. Res. 67, 185-204 185 Published 1977 .. Migrations of Dysdercus spp. (Hemiptera : Pyrrhocoridae) related to movements OP the Inter-Tropical Convergence Zone in West Africa DOMINIQ~DUVIARD * Laboratoire d'EntotnoZogie Agricole, Centre Orstom d'Adiopodoumé, B.P. V51, A bidjan, Zvory Coast Abstract The possibilities of migrations in the West African species of Dysdercus are discussed and a hypothesis of long-range migrations asso- ciated \with the Inter-TTopical Convergence Zone and its wind systems is proposed. Catches of adult Dysdercus in four light-traps distributed from south to north of the Ivory Coast showed that the phenology of assumed migratory activity in D. voelkeri Schmidt differs with latitude and may be correlated with particular types of weather; stainer migrations taking place during the warm, wet and sunny part of the year. The whole life cycle of the insects as well as their flight activity occur under these climatic conditions, prevailing in a belt of 600-900 km width, situated immediately to the south of the Inter-Tropical Front. Colonisation of newly available habitats is thus only possible when climatic factors allow: (i), migratory flight activity and (ii), survival in the colonised area. A close examination of the timing of both migrations in the two main species, D. voelkeri and D. mehoderes Karsch, and of annual movements of the I.T.F. leads to the only logical hypothesis that the transportation of migrating insects is effected by atmospheric convergence, prevailing wind currents and air mass displacements. Introduction Migration of adults of a new generation from one breeding site to another is an important feature of the biology of many insect species (Southwood, 1960; Johnson, 1969; Bowden, 1973; Dingle, 1974) and migrants must therefore be considered as active colonisers of every potential habitat, and not just as individuals leaving an unsuitable environment (Dingle, 1972). -
Cytochemical Studies on the Origin and Composition of Yolk in Chrysocoris Stollii (Hemiptera)
Cytologia 39: 619-631, 1974 Cytochemical Studies on the Origin and Composition of Yolk in Chrysocoris stollii (Hemiptera) G. P. Verma1 and A. K. Basiston Post-Graduate Department of Zoology, Berhampur University Orissa, India Received November 28, 1972 Broadly speaking two types of yolks (fatty and compound) have been found to be synthesized in the oocyte during vitellogenesis of different insects. However, these yolks vary from insect to insect in their origin and chemical composition. Whileorigin of fatty yolk has been attributed to mitochondria (Hsu 1953), to the dense bodies that arise within the mitochondrial aggregation (King 1960) and to nucleolarextrusions (Machida 1941), most of the workers agree with the fact that the Golgi elements get directly transformed into fatty yolk. The compound yolks have been recorded to originate from the nucleolar ex trusions (Nath and Mehta 1927, 1929, Nath and Mohan 1929, Bhandari and Nath 1930,Gresson 1931, Aggarwal 1964) on one hand, and possibly from mitochondria (King1960, Nath et al. 1958e, Sareen 1965) and from yolk precursors in the follicular epithelium(Nath et al. 1959d, Bonhag 1955, Aggarwal 1964) on the other hand. Similarlythe compound yolks also vary in their chemical nature in different insects. Thus, protein-carbohydrate nature of the yolk has been recorded by Nath et al. (1958a,c,1959 a,b,d), Gupta (1968), Verma and Das (1974); protein-phospholipid nature by King (1960); protein-acid mucopolysaccharide nature by Nath et al. (1959a, b), Aggarwal (1960, 1964) and King (1960). In order to ascertain the origin and chemical composition of different yolks in a bug Chrysocoris stollii, the present work was undertaken using cytochemical techniques. -
Hymenoptera: Ichneumonidae: Ophioninae) Newly Recorded from Japan
Japanese Journal of Systematic Entomology, 22 (2): 203–207. November 30, 2016. Three Oriental Species of the Genus Enicospilus Stephens (Hymenoptera: Ichneumonidae: Ophioninae) Newly Recorded from Japan So SHIMIZU 1), 2) and Kaoru MAETO 1) 1) Laboratory of Insect Biodiversity and Ecosystem Science, Graduate School of Agricultural Science, Kobe University, Rokkodaicho 1–1, Nada, Kobe, Hyogo 657–8501, Japan. 2) Corresponding author: [email protected] Abstract Three species of the ophionine genus Enicospilus Stephens, 1835 collected in the Ryukyu Islands, E. abdominalis (Szépligeti, 1906), E. nigronotatus Cameron, 1903, and E. xanthocephalus Cameron, 1905, were newly recorded from Japan. E. abdominalis and E. xanthocephalus are widely distributed in the Oriental region and its neighbouring areas, however E. nigronota- tus is endemic to the Oriental region. Most of the specimens were collected in light traps, and thus the species are presumed to be nocturnal. Introduction (SMZ1500, Nikon, Tokyo, Japan) was used for morphological observation. Multi-focus photographs for figure 1 were taken The genus Enicospilus Stephens, belonging to the tribe using a single-lens reflex camera (D90, Nikon, Tokyo, Japan) Enicospilini Townes of the ichneumonid subfamily Ophioninae and were stacked by using Zeren Stacker. Figure 2 was taken Shuckard (Townes, 1971; Rousse et al., 2016), comprises over using a digital microscope (VHX-600, Keyence, Osaka, 700 species that are distributed in all biogeographical regions Japan). All figures were edited by Adobe Photoshop© CS5. except for the Arctic (e.g., Yu et al., 2012; Broad & Shaw, 2016). The morphological terminology mainly follows Gauld It is the solitary koinobiont endoparasitoid of middle- to large- (1991) and Gauld & Mitchell (1981). -
Selection of Housekeeping Genes and Demonstration of Rnai in Cotton Leafhopper
University of Kentucky UKnowledge Entomology Faculty Publications Entomology 1-12-2018 Selection of Housekeeping Genes and Demonstration of RNAi in Cotton Leafhopper, Amrasca biguttula biguttula (Ishida) Satnam Singh Punjab Agricultural University, India Mridula Gupta Punjab Agricultural University, India Suneet Pandher Punjab Agricultural University, India Gurmeet Kaur Punjab Agricultural University, India Pankaj Rathore Punjab Agricultural University, India See next page for additional authors Right click to open a feedback form in a new tab to let us know how this document benefits oy u. Follow this and additional works at: https://uknowledge.uky.edu/entomology_facpub Part of the Entomology Commons, and the Genetics and Genomics Commons Repository Citation Singh, Satnam; Gupta, Mridula; Pandher, Suneet; Kaur, Gurmeet; Rathore, Pankaj; and Palli, Subba Reddy, "Selection of Housekeeping Genes and Demonstration of RNAi in Cotton Leafhopper, Amrasca biguttula biguttula (Ishida)" (2018). Entomology Faculty Publications. 155. https://uknowledge.uky.edu/entomology_facpub/155 This Article is brought to you for free and open access by the Entomology at UKnowledge. It has been accepted for inclusion in Entomology Faculty Publications by an authorized administrator of UKnowledge. For more information, please contact [email protected]. Authors Satnam Singh, Mridula Gupta, Suneet Pandher, Gurmeet Kaur, Pankaj Rathore, and Subba Reddy Palli Selection of Housekeeping Genes and Demonstration of RNAi in Cotton Leafhopper, Amrasca biguttula biguttula (Ishida) Notes/Citation Information Published in PLOS ONE, v. 13, no. 1, e0191116, p. 1-21. This is an open access article, free of all copyright, and may be freely reproduced, distributed, transmitted, modified, built upon, or otherwise used by anyone for any lawful purpose. -
Crop and Stored Grain Pest and Their Management. (ENTO-4311)
Lec. 1(p.1 – 2): Introduction of Economic Entomology and Economic Classification of Insect Pests Lec. 2-5 (p.3- 15) Rice: Yellow stem borer, gallmidge, brown planthopper, green leafhopper, hispa, leaf folder, ear head bug, grasshoppers, root weevil, swarming caterpillar, climbing cutworm, case worm, whorl maggot, leaf mite, panicle mite, IPM practices in rice. Lec. 6-8 (p.16- 25) Sorghum and other millets: Sorghum shoot fly, stem borer, pink borer, sorghum midge, ear head bug, red hairy caterpillar, deccan wingless grasshopper, aphids, maize shoot bug, flea beetle, blister beetles, ragi cutworm, ragi root aphid, army worm. Wheat: Ghujia weevil, ragi pink borer, termites. Lec. 9-11 (p. 26- 33) Sugarcane: Early shoot borer, internodal borer, top shoot borer, scales, leafhoppers, white grub, mealy bugs, termites, whiteflies, woolly aphid, yellow mite. Lec 12- 14 (p.34- 47) Cotton: Spotted bollworm, american bollworm, pink bollworm, tobacco caterpillar, leafhopper, whiteflies, aphid, mites , thrips, red cotton bug, dusky cotton bug, leaf roller, stem weevil, grasshoppers, mealybug, IPM in cotton. Lec. 15 (p.48 - 51) Jute: jute semilooper, jute stem weevil, jute stem girdler, Bihar hairy caterpillar Mesta: Hairy caterpillars, stem weevil, mealy bugs, leafhopper, aphid. Sunhemp: Hairy caterpillars, stem borer, flea beetle. Lec. 16-17 (p.52- 59) Pulses: Gram caterpillar, plume moth, pod fly, stem fly, spotted pod borer, cowpea aphid, cow bug, pod bug, leafhopper, stink bug, green pod boring caterpillar, blue butterflies, redgram mite. Pea: pea leaf miner and pea stem fly Soyabean: Stem fly, ragi cutworm, leaf miner, whitefly. Lec. 18 (p.60- 63) Castor: Semilooper, shoot and capsule borer, tobacco caterpillar, leafhopper, butterfly, whitefly, thrips, castor slug, mite. -
A Groundnut Insect Identification Handbook for India. Information Bulletin No
Abstract Citation: Wightman, J.A. and Ranga Rao, G.V. 1993. A Groundnut Insect Identification Handbook for India. Information Bulletin no. 39. (In En. Summaries in En, Fr.) Patancheru, A.P. 502 324, India: Interna- tional Crops Research Institute for the Semi-Arid Tropics. 64 pp. ISBN 92-9066-275-1. Order code IBE 039. Groundnut or peanut (Arachis hypogaea L.) is an important oilseed crop in India. It is attacked by many insects throughout the country at different stages of plant growth, but only a few of the over 100 insects associated with this crop are economically important. This bulletin pro- vides short descriptions of the most important species, their biology, distribution, and damage symptoms. Color photographs are provided for easy identification of the pests, and appropriate control measures are suggested. Cover: Red hairy caterpillar (Amsacta albistriga) on a groundnut leaf. A Groundnut Insect Identification Handbook for India J.A. Wightman and G.V. Ranga Rao ICRISAT Information Bulletin no. 39 International Crops Research Institute for the Semi-Arid Tropics Patancheru, Andhra Pradesh 502 324, India 1993 Copyright© 1993 by the International Crops Research Institute for the Semi-Arid Tropics (ICRISAT). All rights reserved. Except for quotations of short passages for the purpose of criticism and review, no part of this publication may be reproduced, stored in retrieval systems, or transmitted in any form or by any means, electronic, mechanical, photo- copying, recording, or otherwise, without prior permission from ICRISAT. The Institute does not require payment for the non- commercial use of its published works, and hopes that this Copyright declaration will not diminish the bona fide use of its research findings in agricultural research and development. -
Australian Sphingidae – DNA Barcodes Challenge Current Species Boundaries and Distributions
Australian Sphingidae – DNA Barcodes Challenge Current Species Boundaries and Distributions Rodolphe Rougerie1*¤, Ian J. Kitching2, Jean Haxaire3, Scott E. Miller4, Axel Hausmann5, Paul D. N. Hebert1 1 University of Guelph, Biodiversity Institute of Ontario, Guelph, Ontario, Canada, 2 Natural History Museum, Department of Life Sciences, London, United Kingdom, 3 Honorary Attache´, Muse´um National d’Histoire Naturelle de Paris, Le Roc, Laplume, France, 4 National Museum of Natural History, Smithsonian Institution, Washington, DC, United States of America, 5 Bavarian State Collection of Zoology, Section Lepidoptera, Munich, Germany Abstract Main Objective: We examine the extent of taxonomic and biogeographical uncertainty in a well-studied group of Australian Lepidoptera, the hawkmoths (Sphingidae). Methods: We analysed the diversity of Australian sphingids through the comparative analysis of their DNA barcodes, supplemented by morphological re-examinations and sequence information from a nuclear marker in selected cases. The results from the analysis of Australian sphingids were placed in a broader context by including conspecifics and closely related taxa from outside Australia to test taxonomic boundaries. Results: Our results led to the discovery of six new species in Australia, one case of erroneously synonymized species, and three cases of synonymy. As a result, we establish the occurrence of 75 species of hawkmoths on the continent. The analysis of records from outside Australia also challenges the validity of current taxonomic boundaries in as many as 18 species, including Agrius convolvuli (Linnaeus, 1758), a common species that has gained adoption as a model system. Our work has revealed a higher level of endemism than previously recognized. Most (90%) Australian sphingids are endemic to the continent (45%) or to Australia, the Pacific Islands and the Papuan and Wallacean regions (45%).