Australia's Fungi Mapping Scheme
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Mushrooms Russia and History
MUSHROOMS RUSSIA AND HISTORY BY VALENTINA PAVLOVNA WASSON AND R.GORDON WASSON VOLUME I PANTHEON BOOKS • NEW YORK COPYRIGHT © 1957 BY R. GORDON WASSON MANUFACTURED IN ITALY FOR THE AUTHORS AND PANTHEON BOOKS INC. 333, SIXTH AVENUE, NEW YORK 14, N. Y. www.NewAlexandria.org/ archive CONTENTS LIST OF PLATES VII LIST OF ILLUSTRATIONS IN THE TEXT XIII PREFACE XVII VOLUME I I. MUSHROOMS AND THE RUSSIANS 3 II. MUSHROOMS AND THE ENGLISH 19 III. MUSHROOMS AND HISTORY 37 IV. MUSHROOMS FOR MURDERERS 47 V. THE RIDDLE OF THE TOAD AND OTHER SECRETS MUSHROOMIC 65 1. The Venomous Toad 66 2. Basques and Slovaks 77 3. The Cripple, the Toad, and the Devil's Bread 80 4. The 'Pogge Cluster 92 5. Puff balls, Filth, and Vermin 97 6. The Sponge Cluster 105 7. Punk, Fire, and Love 112 8. The Gourd Cluster 127 9. From 'Panggo' to 'Pupik' 138 10. Mucus, Mushrooms, and Love 145 11. The Secrets of the Truffle 166 12. 'Gripau' and 'Crib' 185 13. The Flies in the Amanita 190 v CONTENTS VOLUME II V. THE RIDDLE OF THE TOAD AND OTHER SECRETS MUSHROOMIC (CONTINUED) 14. Teo-Nandcatl: the Sacred Mushrooms of the Nahua 215 15. Teo-Nandcatl: the Mushroom Agape 287 16. The Divine Mushroom: Archeological Clues in the Valley of Mexico 322 17. 'Gama no Koshikake and 'Hegba Mboddo' 330 18. The Anatomy of Mycophobia 335 19. Mushrooms in Art 351 20. Unscientific Nomenclature 364 Vale 374 BIBLIOGRAPHICAL NOTES AND ACKNOWLEDGEMENTS 381 APPENDIX I: Mushrooms in Tolstoy's 'Anna Karenina 391 APPENDIX II: Aksakov's 'Remarks and Observations of a Mushroom Hunter' 394 APPENDIX III: Leuba's 'Hymn to the Morel' 400 APPENDIX IV: Hallucinogenic Mushrooms: Early Mexican Sources 404 INDEX OF FUNGAL METAPHORS AND SEMANTIC ASSOCIATIONS 411 INDEX OF MUSHROOM NAMES 414 INDEX OF PERSONS AND PLACES 421 VI LIST OF PLATES VOLUME I JEAN-HENRI FABRE. -
Major Clades of Agaricales: a Multilocus Phylogenetic Overview
Mycologia, 98(6), 2006, pp. 982–995. # 2006 by The Mycological Society of America, Lawrence, KS 66044-8897 Major clades of Agaricales: a multilocus phylogenetic overview P. Brandon Matheny1 Duur K. Aanen Judd M. Curtis Laboratory of Genetics, Arboretumlaan 4, 6703 BD, Biology Department, Clark University, 950 Main Street, Wageningen, The Netherlands Worcester, Massachusetts, 01610 Matthew DeNitis Vale´rie Hofstetter 127 Harrington Way, Worcester, Massachusetts 01604 Department of Biology, Box 90338, Duke University, Durham, North Carolina 27708 Graciela M. Daniele Instituto Multidisciplinario de Biologı´a Vegetal, M. Catherine Aime CONICET-Universidad Nacional de Co´rdoba, Casilla USDA-ARS, Systematic Botany and Mycology de Correo 495, 5000 Co´rdoba, Argentina Laboratory, Room 304, Building 011A, 10300 Baltimore Avenue, Beltsville, Maryland 20705-2350 Dennis E. Desjardin Department of Biology, San Francisco State University, Jean-Marc Moncalvo San Francisco, California 94132 Centre for Biodiversity and Conservation Biology, Royal Ontario Museum and Department of Botany, University Bradley R. Kropp of Toronto, Toronto, Ontario, M5S 2C6 Canada Department of Biology, Utah State University, Logan, Utah 84322 Zai-Wei Ge Zhu-Liang Yang Lorelei L. Norvell Kunming Institute of Botany, Chinese Academy of Pacific Northwest Mycology Service, 6720 NW Skyline Sciences, Kunming 650204, P.R. China Boulevard, Portland, Oregon 97229-1309 Jason C. Slot Andrew Parker Biology Department, Clark University, 950 Main Street, 127 Raven Way, Metaline Falls, Washington 99153- Worcester, Massachusetts, 01609 9720 Joseph F. Ammirati Else C. Vellinga University of Washington, Biology Department, Box Department of Plant and Microbial Biology, 111 355325, Seattle, Washington 98195 Koshland Hall, University of California, Berkeley, California 94720-3102 Timothy J. -
Toxicological and Pharmacological Profile of Amanita Muscaria (L.) Lam
Pharmacia 67(4): 317–323 DOI 10.3897/pharmacia.67.e56112 Review Article Toxicological and pharmacological profile of Amanita muscaria (L.) Lam. – a new rising opportunity for biomedicine Maria Voynova1, Aleksandar Shkondrov2, Magdalena Kondeva-Burdina1, Ilina Krasteva2 1 Laboratory of Drug metabolism and drug toxicity, Department “Pharmacology, Pharmacotherapy and Toxicology”, Faculty of Pharmacy, Medical University of Sofia, Bulgaria 2 Department of Pharmacognosy, Faculty of Pharmacy, Medical University of Sofia, Bulgaria Corresponding author: Magdalena Kondeva-Burdina ([email protected]) Received 2 July 2020 ♦ Accepted 19 August 2020 ♦ Published 26 November 2020 Citation: Voynova M, Shkondrov A, Kondeva-Burdina M, Krasteva I (2020) Toxicological and pharmacological profile of Amanita muscaria (L.) Lam. – a new rising opportunity for biomedicine. Pharmacia 67(4): 317–323. https://doi.org/10.3897/pharmacia.67. e56112 Abstract Amanita muscaria, commonly known as fly agaric, is a basidiomycete. Its main psychoactive constituents are ibotenic acid and mus- cimol, both involved in ‘pantherina-muscaria’ poisoning syndrome. The rising pharmacological and toxicological interest based on lots of contradictive opinions concerning the use of Amanita muscaria extracts’ neuroprotective role against some neurodegenerative diseases such as Parkinson’s and Alzheimer’s, its potent role in the treatment of cerebral ischaemia and other socially significant health conditions gave the basis for this review. Facts about Amanita muscaria’s morphology, chemical content, toxicological and pharmacological characteristics and usage from ancient times to present-day’s opportunities in modern medicine are presented. Keywords Amanita muscaria, muscimol, ibotenic acid Introduction rica, the genus had an ancestral origin in the Siberian-Be- ringian region in the Tertiary period (Geml et al. -
Amanita Muscaria (Fly Agaric)
J R Coll Physicians Edinb 2018; 48: 85–91 | doi: 10.4997/JRCPE.2018.119 PAPER Amanita muscaria (fly agaric): from a shamanistic hallucinogen to the search for acetylcholine HistoryMR Lee1, E Dukan2, I Milne3 & Humanities The mushroom Amanita muscaria (fly agaric) is widely distributed Correspondence to: throughout continental Europe and the UK. Its common name suggests MR Lee Abstract that it had been used to kill flies, until superseded by arsenic. The bioactive 112 Polwarth Terrace compounds occurring in the mushroom remained a mystery for long Merchiston periods of time, but eventually four hallucinogens were isolated from the Edinburgh EH11 1NN fungus: muscarine, muscimol, muscazone and ibotenic acid. UK The shamans of Eastern Siberia used the mushroom as an inebriant and a hallucinogen. In 1912, Henry Dale suggested that muscarine (or a closely related substance) was the transmitter at the parasympathetic nerve endings, where it would produce lacrimation, salivation, sweating, bronchoconstriction and increased intestinal motility. He and Otto Loewi eventually isolated the transmitter and showed that it was not muscarine but acetylcholine. The receptor is now known variously as cholinergic or muscarinic. From this basic knowledge, drugs such as pilocarpine (cholinergic) and ipratropium (anticholinergic) have been shown to be of value in glaucoma and diseases of the lungs, respectively. Keywords acetylcholine, atropine, choline, Dale, hyoscine, ipratropium, Loewi, muscarine, pilocarpine, physostigmine Declaration of interests No conflicts of interest declared Introduction recorded by the Swedish-American ethnologist Waldemar Jochelson, who lived with the tribes in the early part of the Amanita muscaria is probably the most easily recognised 20th century. His version of the tale reads as follows: mushroom in the British Isles with its scarlet cap spotted 1 with conical white fl eecy scales. -
Amanita Muscaria: Ecology, Chemistry, Myths
Entry Amanita muscaria: Ecology, Chemistry, Myths Quentin Carboué * and Michel Lopez URD Agro-Biotechnologies Industrielles (ABI), CEBB, AgroParisTech, 51110 Pomacle, France; [email protected] * Correspondence: [email protected] Definition: Amanita muscaria is the most emblematic mushroom in the popular representation. It is an ectomycorrhizal fungus endemic to the cold ecosystems of the northern hemisphere. The basidiocarp contains isoxazoles compounds that have specific actions on the central nervous system, including hallucinations. For this reason, it is considered an important entheogenic mushroom in different cultures whose remnants are still visible in some modern-day European traditions. In Siberian civilizations, it has been consumed for religious and recreational purposes for millennia, as it was the only inebriant in this region. Keywords: Amanita muscaria; ibotenic acid; muscimol; muscarine; ethnomycology 1. Introduction Thanks to its peculiar red cap with white spots, Amanita muscaria (L.) Lam. is the most iconic mushroom in modern-day popular culture. In many languages, its vernacular names are fly agaric and fly amanita. Indeed, steeped in a bowl of milk, it was used to Citation: Carboué, Q.; Lopez, M. catch flies in houses for centuries in Europe due to its ability to attract and intoxicate flies. Amanita muscaria: Ecology, Chemistry, Although considered poisonous when ingested fresh, this mushroom has been consumed Myths. Encyclopedia 2021, 1, 905–914. as edible in many different places, such as Italy and Mexico [1]. Many traditional recipes https://doi.org/10.3390/ involving boiling the mushroom—the water containing most of the water-soluble toxic encyclopedia1030069 compounds is then discarded—are available. In Japan, the mushroom is dried, soaked in brine for 12 weeks, and rinsed in successive washings before being eaten [2]. -
Diversity of MSDIN Family Members in Amanitin-Producing Mushrooms
He et al. BMC Genomics (2020) 21:440 https://doi.org/10.1186/s12864-020-06857-8 RESEARCH ARTICLE Open Access Diversity of MSDIN family members in amanitin-producing mushrooms and the phylogeny of the MSDIN and prolyl oligopeptidase genes Zhengmi He, Pan Long, Fang Fang, Sainan Li, Ping Zhang and Zuohong Chen* Abstract Background: Amanitin-producing mushrooms, mainly distributed in the genera Amanita, Galerina and Lepiota, possess MSDIN gene family for the biosynthesis of many cyclopeptides catalysed by prolyl oligopeptidase (POP). Recently, transcriptome sequencing has proven to be an efficient way to mine MSDIN and POP genes in these lethal mushrooms. Thus far, only A. palloides and A. bisporigera from North America and A. exitialis and A. rimosa from Asia have been studied based on transcriptome analysis. However, the MSDIN and POP genes of many amanitin-producing mushrooms in China remain unstudied; hence, the transcriptomes of these speices deserve to be analysed. Results: In this study, the MSDIN and POP genes from ten Amanita species, two Galerina species and Lepiota venenata were studied and the phylogenetic relationships of their MSDIN and POP genes were analysed. Through transcriptome sequencing and PCR cloning, 19 POP genes and 151 MSDIN genes predicted to encode 98 non- duplicated cyclopeptides, including α-amanitin, β-amanitin, phallacidin, phalloidin and 94 unknown peptides, were found in these species. Phylogenetic analysis showed that (1) MSDIN genes generally clustered depending on the taxonomy of the genus, while Amanita MSDIN genes clustered depending on the chemical substance; and (2) the POPA genes of Amanita, Galerina and Lepiota clustered and were separated into three different groups, but the POPB genes of the three distinct genera were clustered in a highly supported monophyletic group. -
Mitochondrial Genome in Hypsizygus Marmoreus and Its Evolution In
Wang et al. BMC Genomics (2019) 20:765 https://doi.org/10.1186/s12864-019-6133-z RESEARCH ARTICLE Open Access Mitochondrial genome in Hypsizygus marmoreus and its evolution in Dikarya Gang Wang1,2†, Jingxian Lin3†, Yang Shi3, Xiaoguang Chang2, Yuanyuan Wang2, Lin Guo2, Wenhui Wang3, Meijie Dou3, Youjin Deng1,2, Ray Ming1,4 and Jisen Zhang1* Abstract Background: Hypsizygus marmoreus, a high value commercialized edible mushroom is widely cultivated in East Asia, and has become one of the most popular edible mushrooms because of its rich nutritional and medicinal value. Mitochondria are vital organelles, and play various essential roles in eukaryotic cells. Results: In this study, we provide the Hypsizygus marmoreus mitochondrial (mt) genome assembly: the circular sequence is 102,752 bp in size and contains 15 putative protein-coding genes, 2 ribosomal RNAs subunits and 28 tRNAs. We compared the mt genomes of the 27 fungal species in the Pezizomycotina and Basidiomycotina subphyla, with the results revealing that H. marmoreus is a sister to Tricholoma matsutake and the phylogenetic distribution of this fungus based on the mt genome. Phylogenetic analysis shows that Ascomycetes mitochondria started to diverge earlier than that of Basidiomycetes and supported the robustness of the hyper metric tree. The fungal sequences are highly polymorphic and gene order varies significantly in the dikarya data set, suggesting a correlation between the gene order and divergence time in the fungi mt genome. To detect the mt genome variations in H. marmoreus, we analyzed the mtDNA sequences of 48 strains. The phylogeny and variation sited type statistics of H. -
Testing Spore Amyloidity in Agaricales Under Light Microscope: the Case Study of Tricholoma Alfredo Vizzini1*, Giovanni Consiglio2 and Ledo Setti3
Vizzini et al. IMA Fungus (2020) 11:24 https://doi.org/10.1186/s43008-020-00046-8 IMA Fungus RESEARCH Open Access Testing spore amyloidity in Agaricales under light microscope: the case study of Tricholoma Alfredo Vizzini1*, Giovanni Consiglio2 and Ledo Setti3 Abstract Although species of the genus Tricholoma are currently considered to produce inamyloid spores, a novel standardized method to test sporal amyloidity (which involves heating the sample in Melzer’s reagent) showed evidence that in the tested species of this genus, which belong in all 10 sections currently recognized from Europe, the spores are amyloid. In two species, T. josserandii and T. terreum, the spores are also partly dextrinoid. This result provides strong indication that a positive reaction of the spores in Melzer’s reagent could be a character shared by all genera in Tricholomataceae s. str. Keywords: Agaricomycetes, Basidiomycota, Iodine, Melzer’s reagent, nrITS sequences, Pre-heating, Taxonomy of Tricholomataceae Introduction of the starch–iodine interaction is extremely complex It has been known for about 150 years that some asco- and still remains imperfectly known (Bluhm and Zugen- mycete and basidiomycete sporomata may contain maier 1981; Immel and Lichtenthaler 2000; Shen et al. elements which stain grey to blue-black with iodine- 2013; Du et al. 2014; Okuda et al. 2020). containing solutions. Such a staining was termed amyl- An overview of the historical use of Melzer’s was pro- oid reaction, sometimes written as I+ or J+ (the term vided by Leonard (2006). Iodine was used in Mycology “amyloid” being derived from the Latin amyloideus, i.e. -
Phd. Thesis Sana Jabeen.Pdf
ECTOMYCORRHIZAL FUNGAL COMMUNITIES ASSOCIATED WITH HIMALAYAN CEDAR FROM PAKISTAN A dissertation submitted to the University of the Punjab in partial fulfillment of the requirements for the degree of DOCTOR OF PHILOSOPHY in BOTANY by SANA JABEEN DEPARTMENT OF BOTANY UNIVERSITY OF THE PUNJAB LAHORE, PAKISTAN JUNE 2016 TABLE OF CONTENTS CONTENTS PAGE NO. Summary i Dedication iii Acknowledgements iv CHAPTER 1 Introduction 1 CHAPTER 2 Literature review 5 Aims and objectives 11 CHAPTER 3 Materials and methods 12 3.1. Sampling site description 12 3.2. Sampling strategy 14 3.3. Sampling of sporocarps 14 3.4. Sampling and preservation of fruit bodies 14 3.5. Morphological studies of fruit bodies 14 3.6. Sampling of morphotypes 15 3.7. Soil sampling and analysis 15 3.8. Cleaning, morphotyping and storage of ectomycorrhizae 15 3.9. Morphological studies of ectomycorrhizae 16 3.10. Molecular studies 16 3.10.1. DNA extraction 16 3.10.2. Polymerase chain reaction (PCR) 17 3.10.3. Sequence assembly and data mining 18 3.10.4. Multiple alignments and phylogenetic analysis 18 3.11. Climatic data collection 19 3.12. Statistical analysis 19 CHAPTER 4 Results 22 4.1. Characterization of above ground ectomycorrhizal fungi 22 4.2. Identification of ectomycorrhizal host 184 4.3. Characterization of non ectomycorrhizal fruit bodies 186 4.4. Characterization of saprobic fungi found from fruit bodies 188 4.5. Characterization of below ground ectomycorrhizal fungi 189 4.6. Characterization of below ground non ectomycorrhizal fungi 193 4.7. Identification of host taxa from ectomycorrhizal morphotypes 195 4.8. -
2 the Numbers Behind Mushroom Biodiversity
15 2 The Numbers Behind Mushroom Biodiversity Anabela Martins Polytechnic Institute of Bragança, School of Agriculture (IPB-ESA), Portugal 2.1 Origin and Diversity of Fungi Fungi are difficult to preserve and fossilize and due to the poor preservation of most fungal structures, it has been difficult to interpret the fossil record of fungi. Hyphae, the vegetative bodies of fungi, bear few distinctive morphological characteristicss, and organisms as diverse as cyanobacteria, eukaryotic algal groups, and oomycetes can easily be mistaken for them (Taylor & Taylor 1993). Fossils provide minimum ages for divergences and genetic lineages can be much older than even the oldest fossil representative found. According to Berbee and Taylor (2010), molecular clocks (conversion of molecular changes into geological time) calibrated by fossils are the only available tools to estimate timing of evolutionary events in fossil‐poor groups, such as fungi. The arbuscular mycorrhizal symbiotic fungi from the division Glomeromycota, gen- erally accepted as the phylogenetic sister clade to the Ascomycota and Basidiomycota, have left the most ancient fossils in the Rhynie Chert of Aberdeenshire in the north of Scotland (400 million years old). The Glomeromycota and several other fungi have been found associated with the preserved tissues of early vascular plants (Taylor et al. 2004a). Fossil spores from these shallow marine sediments from the Ordovician that closely resemble Glomeromycota spores and finely branched hyphae arbuscules within plant cells were clearly preserved in cells of stems of a 400 Ma primitive land plant, Aglaophyton, from Rhynie chert 455–460 Ma in age (Redecker et al. 2000; Remy et al. 1994) and from roots from the Triassic (250–199 Ma) (Berbee & Taylor 2010; Stubblefield et al. -
Survey of Fungi in the South Coast Natural Resource Management Region 2006-2007
BIODIVERSITY INVENTORY SSUURRVVEEYY OOFF FFUUNNGGII IINN TTHHEE SSOOUUTTHH CCOOAASSTT NNAATTUURRAALL RREESSOOUURRCCEE MMAANNAAGGEEMMEENNTT RREEGGIIOONN 22000066--22000077 Katrina Syme 1874 South Coast Hwy Denmark WA 6333 [email protected] Survey of Fungi in the South Coast NRM Region 2006-7 Final Report 2 Biodiversity Inventory Survey of Fungi in the South Coast Natural Resource Management Region of Western Australia, 2006-2007 Contents 1 Summary ................................................................................................................................. 1 2 Background.............................................................................................................................. 3 2.1 Region............................................................................................................................... 4 2.2 Project and objectives ....................................................................................................... 4 2.3 Current knowledge of fungi and challenges in gaining knowledge................................... 5 3 Methodology ............................................................................................................................ 6 3.1 Survey locations................................................................................................................6 3.2 Preparation and identification.......................................................................................... 12 3.3 Data analysis...................................................................................................................13 -
Journal of Threatened Taxa
PLATINUM The Journal of Threatened Taxa (JoTT) is dedicated to building evidence for conservaton globally by publishing peer-reviewed artcles OPEN ACCESS online every month at a reasonably rapid rate at www.threatenedtaxa.org. All artcles published in JoTT are registered under Creatve Commons Atributon 4.0 Internatonal License unless otherwise mentoned. JoTT allows unrestricted use, reproducton, and distributon of artcles in any medium by providing adequate credit to the author(s) and the source of publicaton. Journal of Threatened Taxa Building evidence for conservaton globally www.threatenedtaxa.org ISSN 0974-7907 (Online) | ISSN 0974-7893 (Print) Short Communication Two new records of gilled mushrooms of the genus Amanita (Agaricales: Amanitaceae) from India R.K. Verma, V. Pandro & G.R. Rao 26 January 2020 | Vol. 12 | No. 1 | Pages: 15194–15200 DOI: 10.11609/jot.4822.12.1.15194-15200 For Focus, Scope, Aims, Policies, and Guidelines visit htps://threatenedtaxa.org/index.php/JoTT/about/editorialPolicies#custom-0 For Artcle Submission Guidelines, visit htps://threatenedtaxa.org/index.php/JoTT/about/submissions#onlineSubmissions For Policies against Scientfc Misconduct, visit htps://threatenedtaxa.org/index.php/JoTT/about/editorialPolicies#custom-2 For reprints, contact <[email protected]> The opinions expressed by the authors do not refect the views of the Journal of Threatened Taxa, Wildlife Informaton Liaison Development Society, Zoo Outreach Organizaton, or any of the partners. The journal, the publisher, the host, and the part-