Massospora Fungal Mind Control
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(Fungi, Entomophthoromycota) Attacking Coleoptera with a Key for Their Identification
Entomophthorales (Fungi, Entomophthoromycota) attacking Coleoptera with a key for their identification Autor(en): Keller, Siegfried Objekttyp: Article Zeitschrift: Mitteilungen der Schweizerischen Entomologischen Gesellschaft = Bulletin de la Société Entomologique Suisse = Journal of the Swiss Entomological Society Band (Jahr): 86 (2013) Heft 3-4 PDF erstellt am: 05.10.2021 Persistenter Link: http://doi.org/10.5169/seals-403074 Nutzungsbedingungen Die ETH-Bibliothek ist Anbieterin der digitalisierten Zeitschriften. Sie besitzt keine Urheberrechte an den Inhalten der Zeitschriften. Die Rechte liegen in der Regel bei den Herausgebern. Die auf der Plattform e-periodica veröffentlichten Dokumente stehen für nicht-kommerzielle Zwecke in Lehre und Forschung sowie für die private Nutzung frei zur Verfügung. Einzelne Dateien oder Ausdrucke aus diesem Angebot können zusammen mit diesen Nutzungsbedingungen und den korrekten Herkunftsbezeichnungen weitergegeben werden. Das Veröffentlichen von Bildern in Print- und Online-Publikationen ist nur mit vorheriger Genehmigung der Rechteinhaber erlaubt. Die systematische Speicherung von Teilen des elektronischen Angebots auf anderen Servern bedarf ebenfalls des schriftlichen Einverständnisses der Rechteinhaber. Haftungsausschluss Alle Angaben erfolgen ohne Gewähr für Vollständigkeit oder Richtigkeit. Es wird keine Haftung übernommen für Schäden durch die Verwendung von Informationen aus diesem Online-Angebot oder durch das Fehlen von Informationen. Dies gilt auch für Inhalte Dritter, die über dieses Angebot zugänglich sind. Ein Dienst der ETH-Bibliothek ETH Zürich, Rämistrasse 101, 8092 Zürich, Schweiz, www.library.ethz.ch http://www.e-periodica.ch MITTEILUNGEN DER SCHWEIZERISCHEN ENTOMOLOGISCHEN GESELLSCHAFT BULLETIN DE LA SOCIÉTÉ ENTOMOLOGIQUE SUISSE 86: 261-279.2013 Entomophthorales (Fungi, Entomophthoromycota) attacking Coleoptera with a key for their identification Siegfried Keller Rheinweg 14, CH-8264 Eschenz; [email protected] A key to 30 species of entomophthoralean fungi is provided. -
Two New Species of Entomophthoraceae (Zygomycetes, Entomophthorales) Linking the Genera Entomophaga and Eryniopsis
ZOBODAT - www.zobodat.at Zoologisch-Botanische Datenbank/Zoological-Botanical Database Digitale Literatur/Digital Literature Zeitschrift/Journal: Sydowia Jahr/Year: 1993 Band/Volume: 45 Autor(en)/Author(s): Keller Siegfried, Eilenberg Jorgen Artikel/Article: Two new species of Entomophthoraceae (Zygomycetes, Entomophthorales) linking the genera Entomophaga and Eryniopsis. 264- 274 ©Verlag Ferdinand Berger & Söhne Ges.m.b.H., Horn, Austria, download unter www.biologiezentrum.at Two new species of Entomophthoraceae (Zygomycetes, Entomophthorales) linking the genera Entomophaga and Eryniopsis S. Keller1 & J. Eilenberg2 •Federal Research Station for Agronomy, Reckenholzstr. 191, CH-8046 Zürich, Switzerland 2The Royal Veterinary and Agricultural University, Department of Ecology and Molecular Biology, Bülowsvej 13, DK 1870 Frederiksberg C, Copenhagen, Denmark Keller, S. & Eilenberg, J. (1993). Two new species of Entomophthoraceae (Zygomycetes, Entomophthorales) linking the genera Entomophaga and Eryniopsis. - Sydowia 45 (2): 264-274. Two new species of the genus Eryniopsis from nematoceran Diptera are descri- bed; E. ptychopterae from Ptychoptera contaminala and E. transitans from Limonia tripunctata. Both produce primary conidia and two types of secondary conidia. The primary conidia of E. ptychopterae are 36-39 x 23-26 urn and those of E. transitans 32-43 x 22-29 um. The two species are very similar but differ mainly in the shape of the conidia and number of nuclei they contain. Both species closely resemble mem- bers of the Entomophaga grilly group and probably form the missing link between Eryniopsis and Entomophaga. Keywords: Insect pathogenic fungi, taxonomy, Diptera, Limoniidae, Ptychop- teridae. The Entomophthoraceae consists of mostly insect pathogenic fun- gi whose taxonomy has not been lully resolved. One controversial genus is Eryniopsis which is characterized by unitunicate, plurinucleate and elongate primary conidia usually produced on un- branched conidiophores and discharged by papillar eversion (Hum- ber, 1984). -
(Entomophthorales), Obligate Pathogens of Cicadas Angie M
MYCOLOGIA https://doi.org/10.1080/00275514.2020.1742033 Evolutionary relationships among Massospora spp. (Entomophthorales), obligate pathogens of cicadas Angie M. Macias a, David M. Geiserb, Jason E. Stajich c, Piotr Łukasik d,e, Claudio Velosof, DeAnna C. Bublitz e, Matthew C. Bergera, Greg R. Boycea, Kathie Hodgeg, and Matt T. Kasson a aDivision of Plant and Soil Sciences, West Virginia University, Morgantown, West Virginia 26506; bDepartment of Plant Pathology and Environmental Microbiology, The Pennsylvania State University, University Park, Pennsylvania 16802; cDepartment of Microbiology and Plant Pathology and Institute for Integrative Genome Biology, University of California, Riverside, California 92521; dInstitute of Environmental Sciences, Jagiellonian University, 30-387 Kraków, Poland; eDivision of Biological Sciences, University of Montana, Missoula, Montana 59812; fDepartment of Ecological Sciences, Science Faculty, University of Chile, Santiago, Chile; gPlant Pathology and Plant-Microbe Biology Section, School of Integrative Plant Science, Cornell University, Ithaca, New York 14853 ABSTRACT ARTICLE HISTORY The fungal genus Massospora (Zoopagomycota: Entomophthorales) includes more than a dozen Received 18 October 2019 obligate, sexually transmissible pathogenic species that infect cicadas (Hemiptera) worldwide. At Accepted 10 March 2020 least two species are known to produce psychoactive compounds during infection, which has KEYWORDS garnered considerable interest for this enigmatic genus. As with many Entomophthorales, the Diceroprocta; evolutionary relationships and host associations of Massospora spp. are not well understood. The Entomopathogen; acquisition of M. diceroproctae from Arizona, M. tettigatis from Chile, and M. platypediae from Entomophthoraceae; California and Colorado provided an opportunity to conduct molecular phylogenetic analyses and invertebrate pathology; morphological studies to investigate whether these fungi represent a monophyletic group and Magicicada; Okanagana; delimit species boundaries. -
Diversity of Entomopathogens Fungi: Which Groups Conquered
bioRxiv preprint doi: https://doi.org/10.1101/003756; this version posted April 4, 2014. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. Diversity of entomopathogens Fungi: Which groups conquered the insect body? João P. M. Araújoa & David P. Hughesb aDepartment of Biology, Penn State University, University Park, Pennsylvania, United States of America. bDepartment of Entomology and Department of Biology, Penn State University, University Park, Pennsylvania, United States of America. [email protected]; [email protected]; Abstract The entomopathogenic Fungi comprise a wide range of ecologically diverse species. This group of parasites can be found distributed among all fungal phyla and as well as among the ecologically similar but phylogenetically distinct Oomycetes or water molds, that belong to a different kingdom (Stramenopila). As a group, the entomopathogenic fungi and water molds parasitize a wide range of insect hosts from aquatic larvae in streams to adult insects of high canopy tropical forests. Their hosts are spread among 18 orders of insects, in all developmental stages such as: eggs, larvae, pupae, nymphs and adults exhibiting completely different ecologies. Such assortment of niches has resulted in these parasites evolving a considerable morphological diversity, resulting in enormous biodiversity, much of which remains unknown. Here we gather together a huge amount of records of these entomopathogens to comparing and describe both their morphologies and ecological traits. These findings highlight a wide range of adaptations that evolved following the evolutionary transition to infecting the most diverse and widespread animals on Earth, the insects. -
A Computer Model of the Gypsy Moth and Its Fungal Pathogen 5
Abstract A one-host generation computer model, with a time-step of 1 day, has been developed to simulate the interaction between the very effective fungal pathogen, Entomophaga maimaiga, and its host, the gypsy moth. This publication describes the structure of the validated model, the kinds of model inputs needed and the outputs produced, and gives examples of model results. The model can be used to construct scenarios of future gypsy moth-fungus interactions and to evaluate the effectiveness of the fungus as a biological control agent. A Computer Model of the Gyl--, Moth and its Fungal Pathogen By Ronald M. Weseloh The gypsy moth fungal pathogen, Entomophaga rroper weather conditions are very impoftant for the maimaiga, was first found to be established in North fungus to be effective. Moist soil during the gypsy moth America in 1989 (Andreadis and Weseloh 1990), and larval season and adequate rainfall at the times of conidial positively identified as a species from Japan (Hajek et al. sporulation must occur for the fungus to infect larvae. The 1990). Since 1989, the fungus has significantly suppressed number of resting spores in the soil (resting spore load) and the gypsy moth in the generally infested areas of North the number of gypsy moths available for infection probably America. Numerous scenarios have been proposed for how it also influence hngus activity. Using these inputs, colleagues became established (Hajek et at. 1995), but we probably will and I have developed a computer model that simulates the never know for sure. infection, growth, and death of the host and pathogen over a Fortunately, E. -
FUNGI ASSOCIATED with the GLASSY-WINGED SHARPSHOOTER, Homalodisca Coagulata, in ITS NATIVE RANGE
FUNGI ASSOCIATED WITH THE GLASSY-WINGED SHARPSHOOTER, Homalodisca coagulata, IN ITS NATIVE RANGE By S. ELIE BREAUX A THESIS PRESENTED TO THE GRADUATE SCHOOL OF THE UNIVERSITY OF FLORIDA IN PARTIAL FULFILLMENT OF THE REQUIREMENTS FOR THE DEGREE OF MASTER OF SCIENCE UNIVERSITY OF FLORIDA 2005 Copyright 2005 by S. Elie Breaux This document is dedicated to Stefanie, always there. ACKNOWLEDGMENTS I would like to thank the members of my committee for their support, perseverance, and knowledge. I consider myself lucky to have found in them the willingness to take a chance on a student. I would like to thank Dr. Linda Young for extensive assistance in the statistical analysis portion of this study. I would also like to thank my family. My father has always been a student of nature. Raised with his love of the outdoors, the choice to take this path was made without reservation. My mother has always provided every kind of support a son could ask for, free of expectation or judgment. I thank Nicholas and Silas for being so entertaining. They are so different in nature, but time spent with either of them makes one realize what is important. And finally, I would like to thank Stefanie. Always generous with encouragement and unwavering in support, there is no way I could have done this without her. iv TABLE OF CONTENTS page ACKNOWLEDGMENTS ................................................................................................. iv LIST OF TABLES........................................................................................................... -
S41467-021-25308-W.Pdf
ARTICLE https://doi.org/10.1038/s41467-021-25308-w OPEN Phylogenomics of a new fungal phylum reveals multiple waves of reductive evolution across Holomycota ✉ ✉ Luis Javier Galindo 1 , Purificación López-García 1, Guifré Torruella1, Sergey Karpov2,3 & David Moreira 1 Compared to multicellular fungi and unicellular yeasts, unicellular fungi with free-living fla- gellated stages (zoospores) remain poorly known and their phylogenetic position is often 1234567890():,; unresolved. Recently, rRNA gene phylogenetic analyses of two atypical parasitic fungi with amoeboid zoospores and long kinetosomes, the sanchytrids Amoeboradix gromovi and San- chytrium tribonematis, showed that they formed a monophyletic group without close affinity with known fungal clades. Here, we sequence single-cell genomes for both species to assess their phylogenetic position and evolution. Phylogenomic analyses using different protein datasets and a comprehensive taxon sampling result in an almost fully-resolved fungal tree, with Chytridiomycota as sister to all other fungi, and sanchytrids forming a well-supported, fast-evolving clade sister to Blastocladiomycota. Comparative genomic analyses across fungi and their allies (Holomycota) reveal an atypically reduced metabolic repertoire for sanchy- trids. We infer three main independent flagellum losses from the distribution of over 60 flagellum-specific proteins across Holomycota. Based on sanchytrids’ phylogenetic position and unique traits, we propose the designation of a novel phylum, Sanchytriomycota. In addition, our results indicate that most of the hyphal morphogenesis gene repertoire of multicellular fungi had already evolved in early holomycotan lineages. 1 Ecologie Systématique Evolution, CNRS, Université Paris-Saclay, AgroParisTech, Orsay, France. 2 Zoological Institute, Russian Academy of Sciences, St. ✉ Petersburg, Russia. 3 St. -
Abiotic and Pathogen Factors of Entomophaga Grylli (Fresenius) Batko Pathotype 2 Infections in Melanoplus Differentialis (Thomas)
Abiotic and Pathogen Factors of Entomophaga grylli (Fresenius) Batko Pathotype 2 Infections in Melanoplus differentialis (Thomas) by DWIGHT KEITH TILLOTSON B.S., Kansas State University, 1973 A MASTER'S THESIS submitted in partial fulfillment of the requirements for the degree MASTER OF SCIENCE Department of Entomology KANSAS STATE UNIVERSITY Manhattan, Kansas 1988 Approved: David C. Margolies Major Professor ^O ' AllSQfl 130711 FMTrT) 'X.V TABLE OF CONTENTS 75M List of Figures ii c, 2- Acknowledgements ^^^ Background and Literature Review 1- Part I Effects of temperature and photoperiod on percent mortality, time to mortality and mature resting spore production in Melanoplus differentialis infected by Entomophaga grvlli pathotype 2 Introduction o Materials and Methods 10 Results 15 Discussion i7 Part II Effect of cadaver age on cryptoconidia production in Melanoplus differentialis infected by Entomophaga grylli pathotype 2 Introduction 21 Materials and Methods 24 Results 27 Discussion 28 Summary and Conclusion 29 Figures 32 Literature Cited 50 LIST OF FIGURES Fig. 1 Graph of mortality data grouped by temperature 33 Fig. 2 Graph of mortality data grouped by photoperiod 33 Fig. 3 Graph of disease length data grouped by temperature 35 Fig. 4 Graph of disease length data grouped by photoperiod 35 Fig. 5 Graph of mature resting spore proportion data grouped by temperature 37 Fig. 6 Graph of mature resting spore proportion data grouped by photoperiod 37 Fig. 7 Hourly cryptoconidia production 39 Fig. 8 Number of mature resting spores 41 Fig. 9 Number of hyphal bodies + immature resting spores 43 Fig. 10 Number of cryptoconidia 45 Fig. 11 Cryptoconidia as percentage of number of hyphal bodies + immature resting spores on agar plate 47 Fig. -
Discovery of Entomophaga Maimaiga in North American Gypsy Moth, Lymantria Dispar (Entomophthorales/Epizootic/Lymantriidae) THEODORE G
Proc. Natl. Acad. Sci. USA Vol. 87, pp. 2461-2465, April 1990 Population Biology Discovery of Entomophaga maimaiga in North American gypsy moth, Lymantria dispar (Entomophthorales/epizootic/Lymantriidae) THEODORE G. ANDREADIS AND RONALD M. WESELOH Department of Entomology, The Connecticut Agricultural Experiment Station, P.O. Box 1106, New Haven, CT 06504 Communicated by Paul E. Waggoner, January 9, 1990 ABSTRACT An entomopathogenic fungus, Entomophaga reported occurrence of this fungus in North American gypsy maimaiga, was found causing an extensive epizootic in outbreak moths. In this report we present a full description of the populations of the gypsy moth, Lymantia dispar, throughout fungus and its disease in native gypsy moths and further many forested and residential areas of the northeastern United recount its distribution, epizootiology, and impact on the States. This is the first recognized occurrence of this or any population. entomophthoralean fungus in North American gypsy moths, and its appearance was coincident with an abnormally wet MATERIALS AND METHODS spring. Most fungal-infected gypsy moth larvae were killed in mass during the fourth and fifth stadium and were character- Identification and Characterization of the Fungus. Charac- istically found clinging to the trunks of trees with their heads terization of the fungus was made from microscopic exami- pointed downward. The fungus produces thick-walled resistant nation of naturally infected L. dispar larvae collected from resting spores within dried gypsy moth cadavers and infectious several different locations in Connecticut during June and conidia when freshly killed larvae are held in a wet environ- July 1989. Observations were made from living host larvae ment. -
The University of Kansas Field Station and Ecological Reserves
The University of Kansas Field Station and Ecological Reserves A HALF CENTURY OF RESEARCH AND EDUCATION THE MISSION OF THE UNIVERSITY OF KANSAS FIELD STATION AND ECOLOGICAL RESERVES IS TO FOSTER SCHOLARLY RESEARCH, ENVIRONMENTAL EDUCATION, AND SCIENCE-BASED STEWARDSHIP OF NATURAL RESOURCES. CONTENTS From the Director 1 Overview 2 Robinson Tract 36 Research Management Plan 7 Geohydrologic Experimental and Monitoring Site 37 Summaries of Tracts 9 Hall Nature Reserve 38 Research 13 Breidenthal Biological Reserve 39 Rice Woodland 41 Land Management and Stewardship 21 Wall Woods 41 Teaching and Outreach 22 Fitch Natural History Reservation 42 Research Support 24 University of Kansas Support, Affiliate Administration 24 Programs, and Other Resources 45 Global Perspective 25 Organizational Chart 47 Tracts and Facilities 26 Resident Faculty and Staff Investigators 48 Nelson Environmental Study Area 26 Externally Funded Research: 1985–2000 52 Frank B. Cross Reservoir 29 Kansas Aquatic Mesocosm Program 30 Theses and Dissertations: 1949–2000 54 Biotic Succession/Habitat Publications: 1949–2000 58 Fragmentation Facility 32 Credits 68 Rockefeller Experimental Tract 34 From the Director The University of Kansas Field Station and Ecological Reserves Woods, which was designated in 1980 as a National Natural Landmark, (KSR) recently celebrated its 50th anniversary. It seems fitting at this time and provides opportunities to study native plants and animals within a to summarize the growth and development of the field station during its minimally disturbed setting. first half century, and to recognize the contributions of the many dedicated The 44-hectare (108-acre) Robinson Tract, another portion of the people whose efforts have produced a rich tradition of research, education original farm of Governor Robinson, was added in 1970 and in addition to and stewardship. -
1 Naming Names: the Etymology of Fungal Entomopathogens
Research Signpost 37/661 (2), Fort P.O., Trivandrum-695 023, Kerala, India Use of Entomopathogenic Fungi in Biological Pest Management, 2007: 1-11 ISBN: 978-81-308-0192-6 Editors: Sunday Ekesi and Nguya K. Maniania Naming names: The etymology 1 of fungal entomopathogens Fernando E. Vega Sustainable Perennial Crops Laboratory, USDA, ARS, Bldg. 011A, BARC-W Beltsville Maryland 20705, USA Abstract This chapter introduces the reader to the etymology of the generic names given to 26 fungal entomopathogens. Possessing some knowledge on how a name originates sometimes provides us with information on a fungal characteristic that might help us identify the organism, e.g., Conidiobolus, Cordyceps, Pandora, Regiocrella, Orthomyces, etc. In other cases, the name won’t tell us what the fungus looks like, but serves to honor those for whom the fungus was named, e.g., Aschersonia, Batkoa, Beauveria, Nomuraea, Strongwellsea, etc. Correspondence/Reprint request: Dr. Fernando E. Vega, Sustainable Perennial Crops Laboratory, USDA ARS, Bldg. 011A, BARC-W, Beltsville, Maryland 20705, USA. E-mail: [email protected] 2 Fernando E. Vega 1. Introduction One interesting aspect in the business of science is the naming of taxonomic species: the reasons why organisms are baptized with a certain name, which might or might not change as science progresses. Related to this topic, the scientific illustrator Louis C. C. Krieger (1873-1940) [1] self-published an eight- page long article in 1924, entitled “The millennium of systematic mycology: a phantasy” where the main character is a “... systematic mycologist, who, from too much “digging” in the mighty “scrapheap” of synonymy, fell into a deep coma.” As he lies in this state, he dreams about being in Heaven, and unable to leave behind his collecting habits, picks up an amanita and upon examining it finds a small capsule hidden within it. -
And Mushroom-Associated Alkaloids from Two Behavior Modifying Cicada Pathogens*
Fungal Ecology 41 (2019) 147e164 Contents lists available at ScienceDirect Fungal Ecology journal homepage: www.elsevier.com/locate/funeco Psychoactive plant- and mushroom-associated alkaloids from two behavior modifying cicada pathogens* Greg R. Boyce a, Emile Gluck-Thaler b, Jason C. Slot b, Jason E. Stajich c, William J. Davis d, Tim Y. James d, John R. Cooley e, Daniel G. Panaccione a, Jørgen Eilenberg f, Henrik H. De Fine Licht f, Angie M. Macias a, Matthew C. Berger a, Kristen L. Wickert a, Cameron M. Stauder a, Ellie J. Spahr a, Matthew D. Maust a, Amy M. Metheny a, Chris Simon g, Gene Kritsky h, Kathie T. Hodge i, Richard A. Humber i, j, Terry Gullion k, * Dylan P.G. Short l, Teiya Kijimoto a, Dan Mozgai m, Nidia Arguedas n, Matt T. Kasson a, a Division of Plant and Soil Sciences, West Virginia University, Morgantown, WV, 26506, USA b Department of Plant Pathology, The Ohio State University, Columbus, OH, 43210, USA c Department of Microbiology and Plant Pathology and Institute for Integrative Genome Biology, University of California, Riverside, CA, 92521, USA d Department of Ecology and Evolution, University of Michigan, Ann Arbor, MI, 48109, USA e Department of Ecology and Evolutionary Biology, University of Connecticut, Hartford, CT, 06103, USA f Department of Plant and Environmental Science, University of Copenhagen, Denmark g Department of Ecology and Evolutionary Biology, University of Connecticut, Storrs, Connecticut, 06269, USA h Department of Biology, Mount St. Joseph University, Cincinnati, OH, 45233, USA i Plant Pathology