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Coleoptera: Chrysomelidae: Cassidinae: Leptispini) Kaniyarikkal Divakaran Prathapan1, Caroline S
Zoological Studies 48(5): 625-631 (2009) Natural History and Leaf Shelter Construction of the Asian Rice Leptispa Beetle Leptispa pygmaea Baly (Coleoptera: Chrysomelidae: Cassidinae: Leptispini) Kaniyarikkal Divakaran Prathapan1, Caroline S. Chaboo2,*, and Kolandaivelu Karthikeyan3 1Department of Entomology, Kerala Agricultural University, Vellayani P.O., Trivandrum 695 522, Kerala, India E-mail:[email protected] 2Division of Entomology, Natural History Museum, and Department of Ecology & Evolutionary Biology, 1501 Crestline Dr., Suite 140, University of Kansas, Lawrence, KS 66049-2811, USA. E-mail:[email protected] 3Regional Agricultural Research Station, Kerala Agricultural University, Pattambi, Palakkad 679 306, Kerala, India E-mail:[email protected] (Accepted January 15, 2009) Kaniyarikkal Divakaran Prathapan, Caroline S. Chaboo, and Kolandaivelu Karthikeyan (2009) Natural history and leaf shelter construction of the Asian rice leptispa beetle, Leptispa pygmaea Baly (Coleoptera: Chrysomelidae: Cassidinae: Leptispini). Zoological Studies 48(5): 625-631. The leaf-roll construction by the Asian rice leptispa beetle Leptispa pygmaea Baly (Cassidinae: Leptispini) was studied. Consistent adult feeding on the adaxial side of tender rice leaves Oryza sativa Linnaeus (Poaceae) induces partial upward rolling of the leaf lamina. Adult leaf rolls are ephemeral and not apparent, and they unfurl once the beetle leaves the leaf. Females oviposit clutches of up to 8 eggs mostly on the adaxial side of the leaf within such rolls. Neonate larvae migrate to the base of the leaf axil and feed by scraping, which induces formation of leaf rolls from the base where the leaf is already curled up. All 5 larval instars feed in this manner, migrating to new leaves and forming new leaf rolls. -
Thysanoptera: Terebrantia)
Zootaxa 4554 (1): 239–254 ISSN 1175-5326 (print edition) https://www.mapress.com/j/zt/ Article ZOOTAXA Copyright © 2019 Magnolia Press ISSN 1175-5334 (online edition) https://doi.org/10.11646/zootaxa.4554.1.8 http://zoobank.org/urn:lsid:zoobank.org:pub:63E90951-E624-4694-BFFB-BF1D43461704 Systematic significance of antennal segmentation and sense cones in Thripidae (Thysanoptera: Terebrantia) SHIMENG ZHANG1,2, LAURENCE A. MOUND2 & JINIAN FENG1,3 1Key Laboratory of Plant Protection Resources and Pest Management of the Ministry of Education; Entomological Museum, North- west A&F University, Yangling, Shaanxi, 712100, China 2Australian National Insect Collection, CSIRO, Canberra, Australia 3Corresponding author. E-mail: [email protected] Abstract Variation is discussed concerning the number of antennal segments in adults, and the number of their sense cones, among 182 of the 289 genera of Thripidae. Brief comments are also made concerning antennal structure and sensoria among the other seven terebrantian families. The plesiotypic condition for Thysanoptera is 9-segmented antennae, but fusion be- tween various segments leads to a reduction in number to as few as five segments, and such fusion occurs in unrelated species. In Thripidae, antennal segment III never bears more than one sense cone, but the distribution of sense cones on segments IV–VIII varies and is tabulated. On antennal segment IV, species in nearly all Panchaetothripinae genera and more than half of Thripinae genera have two sense cones, but genera of Dendrothripinae and Sericothripinae bear only one on this segment. The differing patterns of segmental fusion that occur in Thripidae are discussed in association with the number of sense cones on VI–VIII; species with 7, 8 or 9 segmented antennae almost always lack a sense cone on the terminal segment. -
Research Report 2016
Kerala Agricultural University RESEARCH REPORT 2016 Edited by Dr. P. Indira Devi Kerala Agricultural University Vellanikkara, Thrissur, Kerala 1 ACKNOWLEDGEMENT The Directorate of Research acknowledges the following persons for their wholehearted support for the preparation of this report: The Honorable Vice Chancellor, KAU for the encouragement and support. All the respective Project Coordinators of the different PC groups of KAU. Mrs. Remisha Moideen, Skilled Assistant, Directorate of Research Mrs. Jeeshma.N.S, Skilled Assistant, Directorate of Research Dr.P.Indira Devi, Director of Research Dr.K.Krishnakumary, Associate Director of Research (Planning) Dr.Asha Shankar.M, Associate Director of Research (Farms & AR&T) Dr.C.Narayanankutty, Associate Director of Research (Seeds) Dr.Madhu Subramunnian, Associate Director of Research (M&E) 2 FOREWORD Kerala Agricultural University was established with a mission of meeting the challenges in agriculture sector by providing human resources, skills and technology for the sustainable development of state‟s agriculture. The University has set up its policy with the major goals of academic excellence, location specific and problem oriented research and revitalization of extension activities in agriculture and allied sectors. The technologies are generated in agriculture and allied areas by conducting basic, applied and adaptive research with special reference to socio-economic conditions of the farmers. The climatological and policy challenges in agriculture sector are more pronounced in the state of Kerala due to its location and cropping pattern. The research programmes are designed in addressing these challenges. The long term objectives aim to develop technologies that help to adapt as well as mitigate climate change impacts. With great pleasure, KAU is presenting the major research findings in the report which is a systematic compilation of the results of the several research programmes during 2015-16. -
Community Structure and Diversity of Arthropods in a Rice Agro-Ecosystem
Cey. J. Sci. (Bio. Sci.) 37 (1): 23-48, 2008 COMPOSITION, STRUCTURE AND DYNAMICS OF ARTHROPOD COMMUNITIES IN A RICE AGRO-ECOSYSTEM C.N.B. Bambaradeniya1* and J.P. Edirisinghe2 1IUCN – The World Conservation Union, Asia Regional Office, Sri Lanka 2 Department of Zoology, University of Peradeniya, Sri Lanka Accepted 12 June 2008 ABSTRACT The study on terrestrial arthropod communities in rice agro-ecosystems was conducted in Bathalagoda, Sri Lanka. A total of 342 arthropod species was documented comprising 282 species of insects in 90 families and 17 orders and 60 species of arachnids in 14 families. Eight taxa new to Sri Lanka are reported. Majority of the insects documented were hymenopterans, dominated by bees and ants. Based on feeding habits, majority of the arthropods recorded were predators (149 species), dominated by spiders. However, in the rice field proper, abundance of phytophagous rice pests was higher than that of predators. Density fluctuations of predators and parasitoids were positively correlated. Species richness and diversity of terrestrial arthropods increased gradually with crop age, but declined following application of pesticides. Species diversity (H’) of terrestrial arthropods during vegetative, reproductive and grain ripening stages and the fallow period were significantly different. Diversity of terrestrial arthropods in the field proper positively correlated with crop age and height of the rice plant, and in field bunds with the weed cover. Findings indicate that a stable relationship could be maintained between rice insect pests and their arthropod natural enemies through minimal biocide applications and manipulation of weed cover in the rice agroecosystem. Key Words: Rice fields, arthropods, diversity, species richness, pests, natural enemies INTRODUCTION (Gunatilleke and Somasiri, 1995). -
Appendix 1—Reviewers and Contributers
Appendix 1—Reviewers and Contributers The following individuals provided assistance, information, and review of this report. It could not have been completed without their cooperation. USDA APHIS-PPQ: D. Alontaga*, T. Culliney*, H. Meissner*, L. Newton* Hawai’i Department of Agriculture, Plant Industry Division: B. Kumashiro, C. Okada, N. Reimer University of Hawai’i: F. Brooks*, H. Spafford* USDA Forest Service: K. Britton*, S. Frankel* USDI Fish and Wildlife Service: D. Cravahlo Forest Research Institute Malaysia: S. Lee* 1 U.S. Department of the Interior, Geological Survey: L. Loope* Hawai’i Department of Land and Natural Resources, Division of Forestry and Wildlife: R. Hauff New Zealand Ministry for Primary Industries: S. Clark* Hawai’i Coordinating Group on Alien Pest Species: C. Martin* *Provided review comments on the draft report. 2 Appendix 2—Scientific Authorities for Chapters 1, 2, 3, and 5 Hypothenemus obscurus (F.) Kallitaxila granulatae (Stål) Insects Klambothrips myopori Mound & Morris Charaxes khasianus Butler Monema flavescens Walker Acizzia uncatoides (Ferris & Klyver) Neopithecops zalmora Butler Actias luna L. Nesopedronia dura Beardsley Adoretus sinicus (Burmeister) Nesopedronia hawaiiensis Beardsley Callosamia promethea Drury Odontata dorsalis (Thunberg) Ceresium unicolor White Plagithmysus bilineatus Sharp Chlorophorus annularis (F.) Quadrastichus erythrinae Kim Citheronia regalis Fabricus Scotorythra paludicola Butler Clastoptera xanthocephala Germ. Sophonia rufofascia Kuoh & Kuoh Cnephasia jactatana Walker Specularis -
Crop Production Guide)
Organic Farming (Crop Production Guide) Editors N. Ravisankar A.S. Panwar Kamta Prasad Vipin Kumar S. Bhaskar Network Project on Organic Farming ICAR-Indian Institute of Farming Systems Research Modipuram, Meerut- 250 110 (Uttar Pradesh) www.iifsr.res.in Organic Farming Crop Production Guide NPOF, ICAR-IIFSR, Modipuram Citation: Ravisankar, N., A.S. Panwar, Kamta Prasad, Vipin Kumar and S. Bhaskar. 2017. Organic Farming Crop Production Guide, Network Project on Organic Farming, ICAR- Indian Institute of Farming Systems Research, Modipuram, Meerut-250 110, Uttar Pradesh, India. p. 586. ISBN No. 978-81-928993-3-6 Edited and compiled by N. Ravisankar, A.S. Panwar, Kamta Prasad, Vipin Kumar and S. Bhaskar Concept, layout and graphics N. Ravisankar, Principal Scientist and National PI, NPOF Kamta Prasad, Former Principal Scientist Technical Assistance Vipin Kumar, CTO (NPOF) Cover design and maps Shri Manoj Kumar, RA, CU Published by Director ICAR-Indian Institute of Farming Systems Research Modipuram, Meerut-250 110, Uttar Pradesh, India © Director, ICAR-Indian Institute of Farming Systems Research, Modipuram, Meerut-250 110, Uttar Pradesh, India Printed at M/s Yugantar Prakashan Pvt. Ltd., WH-23 Mayapuri Industrial Area, Phase-I, New Delhi-64 Phones: 011-28115949, 28116018; Mobile: 09811349619, 09953134595 ii Organic Farming Crop Production Guide NPOF, ICAR-IIFSR, Modipuram f=ykspu egkik=] ih,p-Mh- Hkkjr ljdkj ,Q-,u-,] ,Q-,u-,-,llh-] ,Q-,u-,-,-,l- Ñf"k vuqla/kku vkSj f’k{kk foHkkx ,oa lfpo ,oa egkfuns’kd Hkkjrh; Ñf"k vuqla/kku ifj"kn Trilochan Mohapatra, Ph.D. Ñf"k ,oa fdlku dY;k.k ea=ky;] Ñf"k Hkou] FNA, FNASc, FNAAS Secretary & Director General ubZ fnYyh 110 001 Government of India Department of Agricultural Research & Education and Indian Council of Agricultural Research Minsitry of Agriculture and Farmers Welfare Krishi Bhawan, New Delhi-110 001 Tel.: 23382629; 23386711 Fax: 91-11-23384773 E-mail: [email protected] FOREWORD Organic agriculture is practiced in 170 countries with total area of 78 million ha (both in the form of cultivated and wild harvest). -
Terebrantia: Thripidae -..::Egyptian Journal of Plant Protection
Egypt. J. Plant Prot. Res. Inst. (2021), 4 (1): 64 –83 Egyptian Journal of Plant Protection Research Institute www.ejppri.eg.net Revision of the thysanopterous (Terebrantia: Thripidae) in Egypt Maaly, E. Wafy; Iman, I. El- Sebaey and Mahmoud, Y. H. Henaish Plant Protection Research Institute, Agricultural Research Center, Dokki, Giza, Egypt. ARTICLE INFO Abstract: Article History The updated checklist of order Thysanoptera, family Received: 5 / 1 /2021 Thripdiae are given. More than 70 species and 37 genera are Accepted: 22 / 3 /2021 recorded in Egypt belonging to four subfamilies (Panchaetothripinae, Thripinae, Dendrothripinae and Keywords Sericothripinae). Synonyms, geographical distribution and host plants are given. Thysanoptera, Thripdiae, checklist, host plants, geographical distribution and Egypt. Introduction (Family Merothripidae and Subfamily Thrips (Thysanoptera: Idolothripinae). Other species are Thripidae) is widespread around the phytophagous inhabiting flowers and world especially in tropical region. leaves; they attack many parts of plant About 6246 species in 782 genera as buds, leaves, flowers, fruits and stem. were identified, derived from two They cause damage by sucking the suborders: the Terebrantia, whereas are contents of plant cell resulting leaf and classified into eight families: flower defoliation; fruit scarring in Aeolothripidae, Adiheterothripidae, some fruit trees and often reduce its Fauriellidae, Heterothripidae, market value, also fruits become Melanthripidae, Merothripidae, smaller than normal ones. Thripidae and Uzelothripidae and the Some species of Family tubulifera includes a single family, Phlaeothripidae cause rolled leaf galls Phlaeothripidae. Thrips are small or in some oriental trees. Furthermore, minute slender-bodied insects (0.5- some species are known as tospoviruses 15mm). Antenna are short, 6-10 (Family Bunyaviridae) transmitted as segments. -
Canopy-Associated Arthropods in Acacia Koa and Metrosideros Tree Communities Along an Altitudinal Transect on Hawaii Island1
Pacific Insects Vol. 21, no. 1: 56-82 30 August 1979 © 1979 by the Bishop Museum CANOPY-ASSOCIATED ARTHROPODS IN ACACIA KOA AND METROSIDEROS TREE COMMUNITIES ALONG AN ALTITUDINAL TRANSECT ON HAWAII ISLAND1 By Wayne C. Gagne2 Abstract. The spatial distribution and zonation of canopy-associated arthropods of Acacia koa and Metrosideros tree communities along an altitudinal transect on the SE flank of Mauna Loa and Kilauea volcanoes, Hawaii I was determined by insecticidal fogging ofthe canopy with pyrethrum. Eight sites were samples on the Mauna Loa Transect. Transect zones were determined on the basis of arthropod distribution. The influence of ecological factors, plant community structure and climate are interpreted according to distribution patterns. The distribution of arthropod groups coincided quite closely with vascular plant communities of the transect, as defined by other studies. The composition, spatial distribution, and environmental relationships of arthropod can opy-communities along the Mauna Loa Transect are compared with the situation pertaining along other lower elevational transects to sea level in Hawaii Volcanoes National Park as well as other ecosystems, in order to further characterize the arthropod canopy-community. Host specificity, vegetation structure, competition between ecological homologs, and climate appear to have the most important influence on population density and spatial distribution patterns of the arthropod taxa studied. The Island Ecosystems Integrated Research Program was initiated in 1970 in Ha waii as part of the International Biological Program (IBP). This multidisciplinary team approach to ecosystem studies focused on integrated sampling along altitudinal transects on Mauna Loa and Kilauea volcanoes within Hawaii Volcanoes National Park. The 2 principal transects are diagrammed in FIG. -
All Genera of the World: Order Thysanoptera (Animalia: Arthropoda: Insecta)
Megataxa 006 (1): 002–069 ISSN 2703-3082 (print edition) https://www.mapress.com/j/mt/ MEGATAXA Copyright © 2021 Magnolia Press Article ISSN 2703-3090 (online edition) https://doi.org/10.11646/megataxa.6.1.2 http://zoobank.org/urn:lsid:zoobank.org:pub:E4423D96-48BB-4928-BF54-AD3805321637 All genera of the world: Order Thysanoptera (Animalia: Arthropoda: Insecta) LAURENCE A. MOUND1 & ANDREA HASTENPFLUG-VESMANIS2 1CSIRO Australian National Insect Collection, PO Box 1700, Canberra, ACT 2601 �[email protected], https://orcid.org/0000-0002-6019-4762 2Senckenberg Research Institute and Natural History Museum, Senckenberganlage 25, 60325 Frankfurt am Main, Germany �[email protected], https://orcid.org/0000-0002-0978-1160 Abstract genera plus 141 synonyms. Partial lists of names in this Order are also available in Bhatti (1993) and a series There are 1270 genus-group names available in the Insect of seven citation-indices including Jacot-Guillarmod Order Thysanoptera by the end of 2020. Of these, 850 refer (1974, 1975). The list presented here is almost double in to currently accepted genera, including 65 genera of fossils. size to that of Priesner, with 1270 genus- group names A further 420 genus-group names are placed in synonymy. comprising 850 currently accepted genera, of which 65 Of the currently accepted genera 474 have been described refer only to fossils, plus 420 names in synonymy. The since 1950. Despite this descriptive activity, the supra- increase in the proportion of recognised generic synonyms generic classification of Thysanoptera genera remains poorly since 1950, from 21% to 33%, represents an increasing structured with relationships largely obscure and 50% of the emphasis on the systematic relationships between taxa. -
Key to Genera of the Subfamily Thripinae (Thysanoptera: Thripidae) Associated with Japanese Plant Quarantine
Res.25 Bull. Pl. Prot. Japan No. 46: 25~59 (2010) Res. Bull. Pl. Prot. Japan No. 46 Key to Genera of the Subfamily Thripinae (Thysanoptera: Thripidae) Associated with Japanese Plant Quarantine Masami MASUMOTO Narita Substation, Yokohama Plant Protection Station, Tennamino 2159, Komaino, Narita, Chiba 282-0021, Japan Abstract: Genera of Thripinae associated with Japanese plan t quarantine were reviewed. Illustrated keys are pro- vided to the four subfamilies of Thripidae and to 62 genera of Thripinae with comments on each genus. Several gen- era included in the key have never been intercepted at Japanese plant quarantine but these are important economi- cally or have been intercepted at plant quarantine of other countries. Key words: Thripinae, Thripidae, Thysanoptera, plant quarantine, intercept, Japan Introduction Transportation technology for the trade in living plants has changed considerably in recent decades. Air transport now moves large quantities of living plants, vegetables, and fruits door-to-door around the world, often in large con- tainers. Transportation of living plants between countries is now possible with minimum damage, but this has greatly increased the opportunities for plant pests, including insects, nematodes, and diseases, to become widespread. Under- standing insect fauna, including those pests found on imported plants, is important for pest-invasion risk management. MASUMOTO et al. (2001) indicated the annual and quantitative trends in imported plants and insect pest fauna inter- cepted during plant quarantine activities for the ten years from 1989, based on the statistics of the Plant Protection Sta- tion of Japan. According to that report, quantities of fresh plants such as nursery plants, bulbs, cut flowers, and vegeta- bles had increased, and the frequency of detection of insects associated with them had also increased. -
Table of Contents
Table of Contents Table of Contents Authors, Reviewers, Draft Log ........................................................................................ 4 Introduction to Reference ................................................................................................ 5 Introduction to Corn ....................................................................................................... 10 Arthropods ................................................................................................................... 12 Primary Pests of Corn (Full Pest Datasheet) ............................................................... 12 Autographa gamma ................................................................................................ 12 Chilo suppressalis .................................................................................................. 21 Diabrotica speciosa ................................................................................................ 30 Helicoverpa armigera ............................................................................................. 39 Heteronychus arator ............................................................................................... 52 Ostrinia furnacalis .................................................................................................. 61 Spodoptera littoralis ............................................................................................... 73 Spodoptera litura ................................................................................................... -
A Key to the Second Instar Larvae of the Thripidae of the Western Palaearctic Region (Thysanoptera)
A key to the second instar larvae of the Thripidae of the Western Palaearctic region (Thysanoptera) G. (Bert) Vierbergen, Halina Kucharczyk & William D. J. Kirk A key to the second instar larvae of 130 species of Thripidae occurring in the Western Palaearctic Region is presented, covering 40% of the total number of Thripidae species from that region. Additionally some species of quarantine interest are included in the key: Scirtothrips aurantii Faure, S. citri Moulton, S. dorsalis Hood, Selenothrips rubrocinctus (Giard), Stenchaetothrips spinalis Reyes, Taeniothrips eucharii (Whetzel) and Thrips parvispinus Karny. Sampling and preparation techniques of second instar larvae of Thysanoptera are given. In contrast with adults, second instar larvae provide reliable distribution and host plant data for species. Additionally, larvae are often encountered during import inspections of plant products and their identification enhances the efficiency of quarantine measures for harmful species. G. (Bert) Vierbergen*, Department of Entomology, Reference Laboratory for Phytosanitary Diagnostics, Plant Protection Service, 6700 HC Wageningen, P.O. Box 9102, The Netherlands. [email protected] Halina Kucharczyk, Department of Zoology, Maria Curie-Skłodowska University, Akademicka 19 Str., 20–033 Lublin, Poland. [email protected] William D. J. Kirk, School of Life Sciences, Keele University, Staffordshire ST5 5BG, U.K. [email protected] Introduction quiescent immature stages, known as propupa, pupa When studying Thysanoptera,