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Hyblaea Puera Cramer
www.gob.mx/conafor www.conabio.gob.mx www.biodiversidad.gob.mx/invasoras “Elaborado en el marco del proyecto GEF Especies Invasoras” Hyblaea puera Cramer 1. Descripción taxonómica 6.Hábitat y hospederos son depositados individualmente por las hembras en el envés de las hojas nuevas, Reino: Animalia Avicennia spp.; Callicarpa spp.; Rhizopho- a lo largo o cerca de las venas; cada hem- Phylum: Arthropoda ra spp.; Vitex spp.; Tectona grandis (FAO, bra deposita alrededor de 500 huevos, 2007). Clase: Insecta con máximos cercanos a 1000, requieren de 2-5 días para su incubación (Cibrián, Orden: Lepidoptera 7. Descripción y Ciclo biológico 2013). Familia: Hyblaeidae Huevo: Los huevos son puestos individ- Género: Hyblaea Las larvas pasan por cinco ínstares, con ualmente, al inicio son de color blanque- los dos primeros alimentándose de la Especie: Hyblaea puera Cramer. cino y luego toman una coloración rojiza superfcie foliar, generando parches de (Cibrián, 2013). 2. Nombre común tejido esqueletizado; es hasta el tercer ínstar que la larva puede cortar el borde Defoliador de la teca, teak defoliator. Larva: Madura mide hasta 4.5 cm de la hoja para hacer un refugio con tejido (FAO, 2007) longitud, de color variable, de gris claro a plegado en forma de media luna, el cual negro, con bandas longitudinales de color une con hilos de seda, desde aquí sale amarillo a naranja y laterales blancas (Ci- 3. Sinonimias para alimentarse. Este ínstar larvario es- brián, 2013). queletiza hojas viejas y consume comple- Phalaena puera; Noctua saga; Noctua tamente las hojas nuevas. Los ínstares IV unxia; Heliothis apricans (FAO, 2007) Pupa: La larva madura desciende al suelo y V también hacen su refugio doblado y, en un hilo de seda y pupa bajo una delga- de las hojas viejas solo dejan las venas da capa de hojas secas (Cibrián, 2013). -
Teak Defoliator (435)
Pacific Pests, Pathogens and Weeds - Online edition Teak defoliator (435) Common Name Teak defoliator Scientific Name Hyblaea purea. A moth in the Hyblaeidae. Distribution Asia, Africa, South and Central America, the Caribbean, Oceania. It is recorded from Australia, Fiji, Papua New Guinea, Samoa, and Solomon Islands. Photo 1. Larva and adult of the teak defoliator, Hyblaea puera. Note the triangular shape of Hosts the adult and that the hindwings are completely covered by the forewings. Teak (Tectona grandis), mangrove, Vitex, African tulip tree (Spathodea campanulata), and many more. Symptoms & Life Cycle A major pest, especially of teak where it is grown in plantations; the larvae do the damage by defoliating the trees (hence the name). Eggs are laid singly on the veins of young leaves, usually on the underside. There are five larval stages: the early stages are greenish with black heads, covered with silken threads, that feed on the leaf surface. Later stages up to 4.5 cm, either entirely black or dark grey to black with white lines along the sides and wide orange to ochre bands along the back, with long scattered Photo 2. Larva of the teak defoliator, Hyblaea hairs (Photos 1&2). They larvae cut folds at the leaf margin, secured them with silk, and eat puera. within them skeletonising the leaves and often leave only the main veins (Photo 3). When mature, the larvae descend to the ground on silken threads, construct cocoons from dry leaves or soil, and pupate. Adults have wingspans of 3-4 cm, and hindwings black with orange- yellow spots and greyish brown forewings (Photo 4). -
European Format of Cv
EUROPEAN FORMAT OF CV PERSONAL INFORMATION Name Kolarov Janko Angelov Address 236 Bulgaria Boul., 4000 Plovdiv, Bulgaria Tel. +359 32 261721 Fax +359 32 964 689 E-mail [email protected] Nationality Bulgarian Date of birth 20.06.1947 Length of service • Date (from-to) 2009-2014 Professor in Faculty of Pedagogy, University of Plovdiv 2000-2009 Associated professor in Faculty of Pedagogy, University of Plovdiv 1990-2000 Associated professor in Biological faculty, University of Sofia 1983-1990 A research worker of entomology in Institute of introduction and plant resources, Sadovo 1981-1983 Senior teacher of biology in Medical university, Plovdiv 1972-1981 Teacher Education and teaching 1996 Doctor of science 1980 PHD 1973 Magister of biology Mother tongue Bulgarian Other languages [RUSSIAN} [ENGLISH} [GERMAN} • reading excellent good middle • writing excellent good middle • conversation excellent good middle Participation in projects 2010-2012 Kuzeydoğu Anadolu Bölgesi’nin Cryptinae (Hymenoptera: Position Ichneumonidae) Altfamilyası üzerinde sistematik, sayısal taksonomi ve moleküler filogeni çalışmaları (Turkey) – member of team 2009-2011 Project Nr. 5362 entitled “State of Entomofauna Along the Pipeline Baku-Tbilisi-Jeyhan (Azerbaijan Territory)”, with leader I. A. Nuriyeva - – member of team 2006-2007 Investigation of the Ichneumonidae (Hymenoptera, Insecta) Fauna of Bulgaria – member of team 2004 A study of Ichneumonidae fauna of Isparta province, Turkey – member of team 2003 Fauna Еуропеа – member of team 1993 National strategy of protection of biological in Bulgaria – member of team Proffesional area Zoology Entomology Ecology Biogeography L I S T of the scientific works of Prof. DSc Janko Angelov Kolarov 1. Kolarov, J., 1977. Tryphoninae (Hymenoptera, Ichneumonidae) Genera and Species unknown in Bulgarian Fauna up to now. -
Hyblaea Puera Cramer (Lepidoptera: Hyblaeidae) Infestation on Tectona Grandis Linn F
© 2020 JETIR November 2020, Volume 7, Issue 11 www.jetir.org (ISSN-2349-5162) Hyblaea puera Cramer (Lepidoptera: Hyblaeidae) infestation on Tectona grandis Linn F. in Aizawl District, Mizoram Lalrinmawia1, Lalnuntluanga2 and Lalramliana3 1,2 Department of Environmental Science, School of Earth Sciences & Natural Resources Management Mizoram University , 3Deparment of Zoology, PUC. Abstract: Seasonal activity of Lepidopteran insect of Hyblaea puera Cramer conducted during three years during of 2016 - 2018 on two aspects of eastern and western sites of Aizawl District, Mizoram. Hyblaea puera Cramer is the most wide spread and serious pest. Outbreaks occur almost every year in India over extensive areas. During these outbreaks in the early flushing period of teak, trees usually suffer a total defoliation, sometimes there is partial defoliation later in the growth season. The present investigation revealed that for bringing out a systematic documentation regarding the damage caused by different insect pests attacking teak plantation in area as well as to find out the relationship of different climatic factors with their incidence. Keywords: Geographical bearing , Hyblaea puera Cramer, Insect Pests, Infestation, Tectona grandis Linn.F. Introduction Teak (Tectona grandis L.f.), a valuable timber species, is attacked by a number of insect pests Mathur,(1960); Mathur and Singh,(1960) ; Baksha,(1990), (1993); Chaiglom,(1975); Menon,(1963). But only one insects-teak defoliator, Hyblaea puera Cramer cause major defoliation of teak in Mizoram. About 187 insects species have been found feeding on living Teak tree in India, Hutacharern and Tubtim, (1995) Amongst the foliage feeders, the teak defoliator, Hyblaea puera Cramer (Hyblaeidae, Lepidoptera) and teak skeletonizer, Eutectona machaeralis Walker (Pyralidae: Lepidoptera) are the most widespread and serious pests. -
ALEXEY RESHCHIKOV the World Fauna of the Genus Lathrolestes
DISSERTATIONES ALEXEY RESHCHIKOV BIOLOGICAE UNIVERSITATIS TARTUENSIS 272 The world fauna of the genus ALEXEY RESHCHIKOV The world fauna of the genus Lathrolestes (Hymenoptera, Ichneumonidae) Lathrolestes (Hymenoptera, Ichneumonidae) Tartu 2015 ISSN 1024-6479 ISBN 978-9949-32-794-2 DISSERTATIONES BIOLOGICAE UNIVERSITATIS TARTUENSIS 272 DISSERTATIONES BIOLOGICAE UNIVERSITATIS TARTUENSIS 272 ALEXEY RESHCHIKOV The world fauna of the genus Lathrolestes (Hymenoptera, Ichneumonidae) Department of Zoology, Institute of Ecology and Earth Sciences Faculty of Science and Technology, University of Tartu Dissertation was accepted for the commencement of the degree of Doctor philosophiae in zoology at the University of Tartu on March 16, 2015 by the Scientific Council of the Institute of Ecology and Earth Sciences, University of Tartu. Supervisors: Tiit Teder, PhD, University of Tartu, Estonia Nikita Julievich Kluge, PhD, Saint Petersburg State University, Russia Opponent: Tommi Nyman, PhD, University of Eastern Finland, Finland Commencement: Room 301, 46 Vanemuise Street, Tartu, on May 26, 2015, at 10.15 a.m. Publication of this thesis is granted by the Institute of Ecology and Earth Sciences, and University of Tartu. Disclaimer: this dissertation is not issued for purpose of public and permanent scientific record, and remains unpublished for the purposes of zoological nomenclature (ICZN, 1999: 8.2.) ISSN 1024-6479 ISBN 978-9949-32-794-2 (print) ISBN 978-9949-32-795-9 (pdf) Copyright: Alexey Reshchikov, 2015 University of Tartu Press www.tyk.ee CONTENTS -
Biology and Recent Developments in the Systematics of Phoma, a Complex Genus of Major Quarantine Significance Reviews, Critiques
Fungal Diversity Reviews, Critiques and New Technologies Reviews, Critiques and New Technologies Biology and recent developments in the systematics of Phoma, a complex genus of major quarantine significance Aveskamp, M.M.1*, De Gruyter, J.1, 2 and Crous, P.W.1 1CBS Fungal Biodiversity Centre, P.O. Box 85167, 3508 AD Utrecht, The Netherlands 2Plant Protection Service (PD), P.O. Box 9102, 6700 HC Wageningen, The Netherlands Aveskamp, M.M., De Gruyter, J. and Crous, P.W. (2008). Biology and recent developments in the systematics of Phoma, a complex genus of major quarantine significance. Fungal Diversity 31: 1-18. Species of the coelomycetous genus Phoma are ubiquitously present in the environment, and occupy numerous ecological niches. More than 220 species are currently recognised, but the actual number of taxa within this genus is probably much higher, as only a fraction of the thousands of species described in literature have been verified in vitro. For as long as the genus exists, identification has posed problems to taxonomists due to the asexual nature of most species, the high morphological variability in vivo, and the vague generic circumscription according to the Saccardoan system. In recent years the genus was revised in a series of papers by Gerhard Boerema and co-workers, using culturing techniques and morphological data. This resulted in an extensive handbook, the “Phoma Identification Manual” which was published in 2004. The present review discusses the taxonomic revision of Phoma and its teleomorphs, with a special focus on its molecular biology and papers published in the post-Boerema era. Key words: coelomycetes, Phoma, systematics, taxonomy. -
Identification Key to the Subfamilies of Ichneumonidae (Hymenoptera)
Identification key to the subfamilies of Ichneumonidae (Hymenoptera) Gavin Broad Dept. of Entomology, The Natural History Museum, Cromwell Road, London SW7 5BD, UK Notes on the key, February 2011 This key to ichneumonid subfamilies should be regarded as a test version and feedback will be much appreciated (emails to [email protected]). Many of the illustrations are provisional and more characters need to be illustrated, which is a work in progress. Many of the scanning electron micrographs were taken by Sondra Ward for Ian Gauld’s series of volumes on the Ichneumonidae of Costa Rica. Many of the line drawings are by Mike Fitton. I am grateful to Pelle Magnusson for the photographs of Brachycyrtus ornatus and for his suggestion as to where to include this subfamily in the key. Other illustrations are my own work. Morphological terminology mostly follows Fitton et al. (1988). A comprehensively illustrated list of morphological terms employed here is in development. In lateral views, the anterior (head) end of the wasp is to the left and in dorsal or ventral images, the anterior (head) end is uppermost. There are a few exceptions (indicated in figure legends) and these will rectified soon. Identifying ichneumonids Identifying ichneumonids can be a daunting process, with about 2,400 species in Britain and Ireland. These are currently classified into 32 subfamilies (there are a few more extralimitally). Rather few of these subfamilies are reconisable on the basis of simple morphological character states, rather, they tend to be reconisable on combinations of characters that occur convergently and in different permutations across various groups of ichneumonids. -
Deleterious Effects of Low Temperature Exposure on Learning Expression in a Parasitoid
International Journal of Comparative Psychology, 2006, 19 , 368-385. Copyright 2006 by the International Society for Comparative Psychology Deleterious Effects of Low Temperature Exposure on Learning Expression in a Parasitoid Joan van Baaren Université de Rennes I, France Guy Boivin Centre de Recherche et de Développement en Horticulture Agriculture et Agroalimentaire, Canada Yannick Outreman UMR INRA/Agrocampus Rennes BiO3P, France In this paper, we review the learning capacities of insect parasitoids. We present data on the learning capacity of the parasitoid wasp, Anaphes victus (Hymenoptera: Mymaridae), in the host (egg) dis- crimination process. In addition, we examine the effect of low temperature exposure on the wasp’s learning. Our results showed that A. victus females learned rapidly to recognize their own chemical cues that they left on the host eggs, and retained this learning from patch to patch. Conspecific chemical cues left on the eggs took more time to be learned, but two learning trials induced a pro- longed memory for the cues. Our results also showed that the use of learned, conspecific chemical cues was more affected by cold exposure than was the use of learned personal cues. Learning in Parasitoids Insect parasitoids develop on or in a single host and kill it (Eggleton & Gaston, 1990). More than 100,000 species of insect parasitoids are known and while 75% of these species are Hymenoptera, the parasitoid lifestyle has evolved also in Diptera (flies), Coleoptera (beetles), Neuroptera (lacewings), Lepidoptera (butterflies) and Trichoptera (caddisflies). Learning in parasitoids was demon- strated as early as 1937 by Thorpe and Jones, but research on the topic did not flourish until the end of the 1980s. -
FHP Condition Rept 2002.Indd
United States Department of Agriculture Forest Health Forest Service Alaska Region R10-TP-113 Protection Report February 2003 State of Alaska Department of Natural Resources Forest Insect and Disease Division of Forestry Conditions in Alaska—2002 Alaska Forest Health Specialists Anchorage Forest Health Protection Jerry Boughton, Assistant Director, State & Private Forestry–FHP USDA Forest Service e-mail: [email protected] State and Private Forestry Edward H. Holsten, Entomologist 3301 ‘C’ Street, Suite 202 e-mail: [email protected] Anchorage, AK 99503-3956 Michael Shepard, Ecologist Phone: (907) 743-9455 e-mail: [email protected] FAX (907) 743-9479 Lori Trummer, Pathologist e-mail: [email protected] Kenneth P. Zogas, Biotechnician e-mail: [email protected] Cynthia L. Snyder, Biotechnician e-mail: [email protected] State of Alaska Roger E. Burnside, Program Coordinator, Entomologist Department of Natural Resources e-mail: [email protected] Division of Forestry Central Offi ce 550 W 7th Avenue, Suite 1450 Anchorage, AK 99501-3566 Phone: (907) 269-8460 FAX (907) 269-8902 / 8931 Alaska Cooperative Extension Corlene Rose, Integrated Pest Management 2221 E. Northern Lights, Suite 118 Program Management Coordinator Anchorage, AK 99508 e-mail: [email protected] Phone: (907) 786-6311 Juneau Forest Health Protection Paul E. Hennon, Pathologist USDA Forest Service e-mail: [email protected] State and Private Forestry Mark Schultz, Entomologist 2770 Sherwood Lane, Suite 2A e-mail: [email protected] Juneau, AK 99801 Dustin Wittwer, Aerial -
Hymenoptera, Ichneumonidae, Ctenopelmatinae)
JHR 31: 97–104 (2013) Biology of Seleucus cuneiformis Holmgren 97 doi: 10.3897/JHR.31.4204 RESEARCH ARTICLE www.pensoft.net/journals/jhr Notes on the biology of Seleucus cuneiformis Holmgren (Hymenoptera, Ichneumonidae, Ctenopelmatinae) Cornelis van Achterberg1, Ewald Altenhofer2 1 Department of Terrestrial Zoology, Naturalis Biodiversity Center, Postbus 9517, 2300 RA Leiden, The Netherlands 2 Etzen 39, 3920 Gross Gerungs, Austria Corresponding author: Cornelis van Achterberg ([email protected]) Academic editor: G. Broad | Received 28 October 2012 | Accepted 21 January 2013 | Published 20 March 2013 Citation: Achterberg C van, Altenhofer E (2013) Notes on the biology of Seleucus cuneiformis Holmgren (Hymenoptera, Ichneumonidae, Ctenopelmatinae). Journal of Hymenoptera Research 31: 97–104. doi: 10.3897/JHR.31.4204 Abstract The biology of the monotypic genus Seleucus Holmgren, 1860 (Ichneumonidae: Ctenopelmatinae) is re- ported for the first time. Seleucus cuneiformis Holmgren, 1860, was reared from Blasticotoma filiceti Klug, 1834 (Hymenoptera: Blasticotomidae). Seleucus cuneiformis Holmgren is new to the fauna of Austria. Keywords Seleucus, Blasticotoma, biology, distribution Introduction The second author reared for the first time a species of Ichneumonidae from the fern sawfly Blasticotoma filiceti Klug, 1834 (Tenthredinoidea: Blasticotomidae) in Austria. Blasticotomidae form a small and rarely collected family of small wasps (6-9 mm) main- ly restricted to the Palaearctic region and the border with the Oriental region (Taeger et al. 2010), with only one European species, Blasticotoma filiceti Klug, 1834. The family is considered to be one of the oldest extant families of Tenthredinoidea (Rasnitsyn 1988, 2002) and the blasticotomid lineage probably separated from the rest of Tenthredi- noidea as early as 280 Ma (Ronquist et al. -
Phytomyza Vitalbae, Phoma Clematidina, and Insect-Plant
Phytomyza vitalbae, Phoma clematidina, and insect–plant pathogen interactions in the biological control of weeds R.L. Hill,1 S.V. Fowler,2 R. Wittenberg,3 J. Barton,2,5 S. Casonato,2 A.H. Gourlay4 and C. Winks2 Summary Field observations suggested that the introduced agromyzid fly Phytomyza vitalbae facilitated the performance of the coelomycete fungal pathogen Phoma clematidina introduced to control Clematis vitalba in New Zealand. However, when this was tested in a manipulative experiment, the observed effects could not be reproduced. Conidia did not survive well when sprayed onto flies, flies did not easily transmit the fungus to C. vitalba leaves, and the incidence of infection spots was not related to the density of feeding punctures in leaves. Although no synergistic effects were demonstrated in this case, insect–pathogen interactions, especially those mediated through the host plant, are important to many facets of biological control practice. This is discussed with reference to recent literature. Keywords: Clematis vitalba, insect–plant pathogen interactions, Phoma clematidina, Phytomyza vitalbae, tripartite interactions. Introduction Hatcher & Paul (2001) have succinctly reviewed the field of plant pathogen–herbivore interactions. Simple, Biological control of weeds is based on the sure knowl- direct interactions between plant pathogens and insects edge that both pathogens and herbivores can influence (such as mycophagy and disease transmission) are well the fitness of plants and depress plant populations understood (Agrios 1980), as are the direct effects of (McFadyen 1998). We seek suites of control agents that insects and plant pathogens on plant performance. Very have combined effects that are greater than those of the few fungi are dependent on insects for the transmission agents acting alone (Harris 1984). -
Taxonomy and Multigene Phylogenetic Evaluation of Novel Species in Boeremia and Epicoccum with New Records of Ascochyta and Didymella (Didymellaceae)
Mycosphere 8(8): 1080–1101 (2017) www.mycosphere.org ISSN 2077 7019 Article Doi 10.5943/mycosphere/8/8/9 Copyright © Guizhou Academy of Agricultural Sciences Taxonomy and multigene phylogenetic evaluation of novel species in Boeremia and Epicoccum with new records of Ascochyta and Didymella (Didymellaceae) Jayasiri SC1,2, Hyde KD2,3, Jones EBG4, Jeewon R5, Ariyawansa HA6, Bhat JD7, Camporesi E8 and Kang JC1 1 Engineering and Research Center for Southwest Bio-Pharmaceutical Resources of National Education Ministry of China, Guizhou University, Guiyang, Guizhou Province 550025, P.R. China 2Center of Excellence in Fungal Research, Mae Fah Luang University, Chiang Rai 57100, Thailand 3World Agro forestry Centre East and Central Asia Office, 132 Lanhei Road, Kunming 650201, P. R. China 4Botany and Microbiology Department, College of Science, King Saud University, Riyadh, 1145, Saudi Arabia 5Department of Health Sciences, Faculty of Science, University of Mauritius, Reduit, Mauritius 6Department of Plant Pathology and Microbiology, College of BioResources and Agriculture, National Taiwan University, No.1, Sec.4, Roosevelt Road, Taipei 106, Taiwan, ROC. 7No. 128/1-J, Azad Housing Society, Curca, P.O. Goa Velha, 403108, India 89A.M.B. Gruppo Micologico Forlivese “Antonio Cicognani”, Via Roma 18, Forlì, Italy; A.M.B. CircoloMicologico “Giovanni Carini”, C.P. 314, Brescia, Italy; Società per gliStudiNaturalisticidella Romagna, C.P. 144, Bagnacavallo (RA), Italy *Correspondence: [email protected] Jayasiri SC, Hyde KD, Jones EBG, Jeewon R, Ariyawansa HA, Bhat JD, Camporesi E, Kang JC 2017 – Taxonomy and multigene phylogenetic evaluation of novel species in Boeremia and Epicoccum with new records of Ascochyta and Didymella (Didymellaceae).