Flora of New Zealand Mosses
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Economic and Ethnic Uses of Bryophytes
Economic and Ethnic Uses of Bryophytes Janice M. Glime Introduction Several attempts have been made to persuade geologists to use bryophytes for mineral prospecting. A general lack of commercial value, small size, and R. R. Brooks (1972) recommended bryophytes as guides inconspicuous place in the ecosystem have made the to mineralization, and D. C. Smith (1976) subsequently bryophytes appear to be of no use to most people. found good correlation between metal distribution in However, Stone Age people living in what is now mosses and that of stream sediments. Smith felt that Germany once collected the moss Neckera crispa bryophytes could solve three difficulties that are often (G. Grosse-Brauckmann 1979). Other scattered bits of associated with stream sediment sampling: shortage of evidence suggest a variety of uses by various cultures sediments, shortage of water for wet sieving, and shortage around the world (J. M. Glime and D. Saxena 1991). of time for adequate sampling of areas with difficult Now, contemporary plant scientists are considering access. By using bryophytes as mineral concentrators, bryophytes as sources of genes for modifying crop plants samples from numerous small streams in an area could to withstand the physiological stresses of the modern be pooled to provide sufficient material for analysis. world. This is ironic since numerous secondary compounds Subsequently, H. T. Shacklette (1984) suggested using make bryophytes unpalatable to most discriminating tastes, bryophytes for aquatic prospecting. With the exception and their nutritional value is questionable. of copper mosses (K. G. Limpricht [1885–]1890–1903, vol. 3), there is little evidence of there being good species to serve as indicators for specific minerals. -
Evolutionary Implications of a Peroxidase with High Affinity For
plants Article Evolutionary Implications of a Peroxidase with High Affinity for Cinnamyl Alcohols from Physcomitrium patens, a Non-Vascular Plant Teresa Martínez-Cortés 1 , Federico Pomar 1 and Esther Novo-Uzal 2,* 1 Grupo de Investigación en Biología Evolutiva, Centro de Investigaciones Científicas Avanzadas, Universidade da Coruña, 15071 A Coruña, Spain; [email protected] (T.M.-C.); [email protected] (F.P.) 2 Instituto Gulbenkian de Ciência, 2780-156 Oeiras, Portugal * Correspondence: [email protected] Abstract: Physcomitrium (Physcomitrella) patens is a bryophyte highly tolerant to different stresses, allowing survival when water supply is a limiting factor. This moss lacks a true vascular system, but it has evolved a primitive water-conducting system that contains lignin-like polyphenols. By means of a three-step protocol, including ammonium sulfate precipitation, adsorption chromatography on phenyl Sepharose and cationic exchange chromatography on SP Sepharose, we were able to purify and further characterize a novel class III peroxidase, PpaPrx19, upregulated upon salt and H2O2 treatments. This peroxidase, of a strongly basic nature, shows surprising homology to angiosperm peroxidases related to lignification, despite the lack of true lignins in P. patens cell walls. Moreover, PpaPrx19 shows catalytic and kinetic properties typical of angiosperm peroxidases involved in Citation: Martínez-Cortés, T.; Pomar, F.; Novo-Uzal, E. Evolutionary oxidation of monolignols, being able to efficiently use hydroxycinnamyl alcohols as substrates. Our Implications of a Peroxidase with results pinpoint the presence in P. patens of peroxidases that fulfill the requirements to be involved in High Affinity for Cinnamyl Alcohols the last step of lignin biosynthesis, predating the appearance of true lignin. -
Distribution and Phylogenetic Significance of the 71-Kb Inversion
Annals of Botany 99: 747–753, 2007 doi:10.1093/aob/mcm010, available online at www.aob.oxfordjournals.org Distribution and Phylogenetic Significance of the 71-kb Inversion in the Plastid Genome in Funariidae (Bryophyta) BERNARD GOFFINET1,*, NORMAN J. WICKETT1 , OLAF WERNER2 , ROSA MARIA ROS2 , A. JONATHAN SHAW3 and CYMON J. COX3,† 1Department of Ecology and Evolutionary Biology, 75 North Eagleville Road, University of Connecticut, Storrs, CT 06269-3043, USA, 2Universidad de Murcia, Facultad de Biologı´a, Departamento de Biologı´a Vegetal, Campus de Espinardo, 30100-Murcia, Spain and 3Department of Biology, Duke University, Durham, NC 27708, USA Received: 31 October 2006 Revision requested: 21 November 2006 Accepted: 21 December 2006 Published electronically: 2 March 2007 † Background and Aims The recent assembly of the complete sequence of the plastid genome of the model taxon Physcomitrella patens (Funariaceae, Bryophyta) revealed that a 71-kb fragment, encompassing much of the large single copy region, is inverted. This inversion of 57% of the genome is the largest rearrangement detected in the plastid genomes of plants to date. Although initially considered diagnostic of Physcomitrella patens, the inversion was recently shown to characterize the plastid genome of two species from related genera within Funariaceae, but was lacking in another member of Funariidae. The phylogenetic significance of the inversion has remained ambiguous. † Methods Exemplars of all families included in Funariidae were surveyed. DNA sequences spanning the inversion break ends were amplified, using primers that anneal to genes on either side of the putative end points of the inver- sion. Primer combinations were designed to yield a product for either the inverted or the non-inverted architecture. -
Volume 1, Chapter 2-7: Bryophyta
Glime, J. M. 2017. Bryophyta – Bryopsida. Chapt. 2-7. In: Glime, J. M. Bryophyte Ecology. Volume 1. Physiological Ecology. Ebook 2-7-1 sponsored by Michigan Technological University and the International Association of Bryologists. Last updated 10 January 2019 and available at <http://digitalcommons.mtu.edu/bryophyte-ecology/>. CHAPTER 2-7 BRYOPHYTA – BRYOPSIDA TABLE OF CONTENTS Bryopsida Definition........................................................................................................................................... 2-7-2 Chromosome Numbers........................................................................................................................................ 2-7-3 Spore Production and Protonemata ..................................................................................................................... 2-7-3 Gametophyte Buds.............................................................................................................................................. 2-7-4 Gametophores ..................................................................................................................................................... 2-7-4 Location of Sex Organs....................................................................................................................................... 2-7-6 Sperm Dispersal .................................................................................................................................................. 2-7-7 Release of Sperm from the Antheridium..................................................................................................... -
Physcomitrium Patens Infection by Colletotrichum Gloeosporioides: Understanding the Fungal–Bryophyte Interaction by Microscopy, Phenomics and RNA Sequencing
Journal of Fungi Article Physcomitrium patens Infection by Colletotrichum gloeosporioides: Understanding the Fungal–Bryophyte Interaction by Microscopy, Phenomics and RNA Sequencing Adriana Otero-Blanca 1 , Yordanis Pérez-Llano 1 , Guillermo Reboledo-Blanco 2, Verónica Lira-Ruan 1 , Daniel Padilla-Chacon 3, Jorge Luis Folch-Mallol 4 , María del Rayo Sánchez-Carbente 4 , Inés Ponce De León 2 and Ramón Alberto Batista-García 1,* 1 Centro de Investigación en Dinámica Celular, Instituto de Investigación en Ciencias Básicas y Aplicadas, Universidad Autónoma del Estado de Morelos, Cuernavaca 62209, Mexico; [email protected] (A.O.-B.); [email protected] (Y.P.-L.); [email protected] (V.L.-R.) 2 Departamento de Biología Molecular, Instituto de Investigaciones Biológicas Clemente Estable, Montevideo 11600, Uruguay; [email protected] (G.R.-B.); [email protected] (I.P.D.L.) 3 Consejo Nacional de Ciencia y Tecnología (CONACyT), Colegio de Postgraduados de México, Campus Montecillo, Texcoco 56230, Mexico; [email protected] 4 Centro de Investigación en Biotecnología, Universidad Autónoma del Estado de Morelos, Cuernavaca 62209, Mexico; [email protected] (J.L.F.-M.); [email protected] (M.d.R.S.-C.) Citation: Otero-Blanca, A.; * Correspondence: [email protected] or [email protected]; Tel.: +52-777-3297020 Pérez-Llano, Y.; Reboledo-Blanco, G.; Lira-Ruan, V.; Padilla-Chacon, D.; Abstract: Anthracnose caused by the hemibiotroph fungus Colletotrichum gloeosporioides is a dev- Folch-Mallol, J.L.; Sánchez-Carbente, astating plant disease with an extensive impact on plant productivity. The process of colonization M.d.R.; Ponce De León, I.; and disease progression of C. -
Integrated Phylogenomic Analyses Reveal Recurrent Ancestral Large
bioRxiv preprint doi: https://doi.org/10.1101/603191; this version posted April 10, 2019. 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. 1 Integrated phylogenomic analyses reveal recurrent ancestral large-scale 2 duplication events in mosses 3 4 Bei Gao1,2, Moxian Chen2,3, Xiaoshuang Li4, Yuqing Liang4,5, Daoyuan Zhang4, Andrew J. Wood6, Melvin J. Oliver7*, 5 Jianhua Zhang2,3,8* 6 7 1School of Life Sciences, The Chinese University of Hong Kong, Hong Kong, China. 8 2State Key Laboratory of Agrobiotechnology, The Chinese University of Hong Kong, Hong Kong, China. 9 3Shenzhen Research Institute, The Chinese University of Hong Kong, Shenzhen, China. 10 4Key Laboratory of Biogeography and Bioresources, Xinjiang Institute of Ecology and Geography, Chinese Academy of 11 Sciences, Urumqi 830011, China. 12 5University of Chinese Academy of Sciences, Beijing 100049, China. 13 6Department of Plant Biology, Southern Illinois University-Carbondale, Carbondale, IL 62901-6509, USA. 14 7USDA-ARS-Plant Genetic Research Unit, University of Missouri, Columbia, MO 65211, USA. 15 8Department of Biology, Faculty of Science, Hong Kong Baptist University, Hong Kong, China. 16 17 *Correspondence: Jianhua Zhang: [email protected] and Melvin J. Oliver: [email protected] 18 19 20 Summary 21 • Mosses (Bryophyta) are a key group occupying important phylogenetic position for understanding land plant 22 (embryophyte) evolution. The class Bryopsida represents the most diversified lineage and contains more than 95% of the 23 modern mosses, whereas the other classes are by nature species-poor. -
Format Mitteilungen
9 Mitt. dtsch. malakozool. Ges. 86 9 – 12 Frankfurt a. M., Dezember 2011 Under Threat: The Stability of Authorships of Taxonomic Names in Malacology RUUD A. BANK Abstract: Nomenclature must be constructed in accordance with agreed rules. The International Commission on Zoological Nomenclature was founded in Leiden in September 1895. It not only produced a Code of nomencla- ture, that was refined over the years, but also provided arbitration and advice service, all with the aim of ensur- ing that every animal has one unique and universally accepted name. Name changes reduce the efficiency of biological nomenclature as a reference system. The Code was established to precisely specify the circumstances under which a name must be changed, and in what way. Name changes are only permitted if it is necessitated by a correction of nomenclatural error, by a change in classification, or by a correction of a past misidentification. Also authorships are regulated by the Code, mainly by Article 50. In a recent paper by WELTER-SCHULTES this Article is interpreted in a way that is different from previous interpretations by the zoological (malacological) community, leading to major changes in authorships. It is here argued that his alternative interpretations (1) are not in line with the spirit of the Code, and (2) will not serve the stability of nomenclature. It is important that interpretation and application of the existing rules be objective, consistent, and clear. Keywords: authorships, malacology, nomenclature, Code, ICZN, Article 50, Pisidium Zusammenfassung: In der Nomenklatur müssen übereinstimmende Regeln gelten. Die Internationale Kommis- sion für Zoologische Nomenklatur (ICZN) wurde im September 1895 in Leiden gegründet. -
Physcomitrium Schummii Sp. Nov. from Karnataka, India with a Synopsis of the Funariaceae in India
Physcomitrium schummii sp. nov. from Karnataka, India … 1 Physcomitrium schummii sp. nov. from Karnataka, India with a synopsis of the Funariaceae in India 1 UWE SCHWARZ 1 Uwe Schwarz, Hohenstaufenstrasse 9, 70794 Filderstadt, Germany, [email protected] Abstract: Schwarz, U. (2016): Physcomitrium schummii sp. nov. from Karnataka, India with a synopsis of the Funariaceae in India. Frahmia 13:1-19. During the exploration of the bryoflora of Karnataka, India one new species of Physcomitrium was discovered and described as new species. Furthermore a synopsis of the family in India, represented by 4 genera, including 13 species of Entosthodon, 7 species of Funaria, 1 species of Loiseaubryum and 12 species of Physcomitrium is given. Funaria excurrentinervis, F. sinuatolimbata, F. subimmarginata, and F. pulchra are transferred to the genus Entosthodon. 1. Introduction First records of Funariaceae data back to 1842 where GRIFFITH (1842) reported Funaria hygrometrica from Upper Assam. He also described Funaria leptopoda, Gymnostomum repandum (= Physcomitrium repandum), and Gymnostomum pulchellum (= Physcomitrium pulchellum) from the same area. Besides the common Funaria hygrometrica MONTAGNE (1842) described in the same year Funaria physcomitrioides (= Entosthodon pulchellum) and Physcomitrium perrottetii (= Entosthodon perrottetii) form the Nilgiri Mountains in Southern India. Three more species, Entosthodon diversinervis and Entosthodon submarginatus, were added by MÜLLER (1853) and finally Funaria connivens (= Funaria hygrometrica var. calvescens) by MÜLLER (1855) to the flora of this area. MITTEN (1859) summarized the knowledge of the bryophytes of the Indian subcontinent which included records of 19 species, of which Physcomitrium cyathicarpum (= Physcomitrium immersum), Entosthodon wallichii (= Entosthodon buseanus), Entosthodon pilifer (= Funaria wijkii), Entosthodon nutans (= Loiseaubryum nutans) and Funaria orthocarpa were described new to science. -
12. FUNARIACEAE Schwägrichen
12. FUNARIACEAE Schwägrichen Terry T. McIntosh Plants minute to medium-sized, gregarious to forming open tufts, light- to yellow-green, annual to biennial. Stems short, erect, simple or with a few branches, central strand present, basal rhizoids few. Leaves usually larger and more crowded distally, often comose, reduced proximally, usually contorted when dry, spreading when wet, broadly elliptic to obovate, usually concave, margins plane to somewhat incurved, entire to serrate, sometimes limbate, apex acute to acuminate, rarely somewhat blunt, costa single, percurrent to excurrent; distal and median cells usually irregular-rhombic to hexagonal or rectangular, smooth and rather thin-walled, often lax, weakly chlorophyllose, proximal cells usually longer, oblong to rectangular, sometimes weakly inflated at proximal angles, differentiated alar cells absent. Specialized asexual reproduction absent. Sexual condition autoicous, sometimes polygamous, rarely synoicous or paroicous. Perigonia terminal on short basal branches, bud-like, paraphyses yellowish and club-shaped. Perichaetia terminal, paraphyses usually absent and filiform when present, perichaetial leaves often somewhat enlarged. Seta terminal, solitary, short to elongate, erect to somewhat curved, smooth or rarely papillose. Capsule stegocarpous or cleistocarpous, immersed to exserted, globose or pyriform to cupulate, sometimes flaring, symmetric and nearly smooth to asymmetric and striate when dry, usually with a neck; exothecial cells thick- to thin-walled; stomata restricted to neck, consisting of a slit in a rounded guard cell, superficial or immersed, annulus present or absent, revoluble, revoluble in fragments, or not; operculum present or absent, flat, conic- rounded, to rostrate; peristome double, single, rudimentary, or absent, exostome teeth 16, erect to incurved, papillose-striolate or striate, trabeculate on adaxial surface, endostome segments 16 and opposite the exostome teeth, cilia absent, represented only by the exostome when single. -
Liverworts, Mosses and Hornworts of Afghanistan - Our Present Knowledge
ISSN 2336-3193 Acta Mus. Siles. Sci. Natur., 68: 11-24, 2019 DOI: 10.2478/cszma-2019-0002 Published: online 1 July 2019, print July 2019 Liverworts, mosses and hornworts of Afghanistan - our present knowledge Harald Kürschner & Wolfgang Frey Liverworts, mosses and hornworts of Afghanistan ‒ our present knowledge. – Acta Mus. Siles. Sci. Natur., 68: 11-24, 2019. Abstract: A new bryophyte checklist for Afghanistan is presented, including all published records since the beginning of collection activities in 1839 ‒1840 by W. Griffith till present. Considering several unidentified collections in various herbaria, 23 new records for Afghanistan together with the collection data can be added to the flora. Beside a new genus, Asterella , the new records include Amblystegium serpens var. serpens, Brachythecium erythrorrhizon, Bryum dichotomum, B. elwendicum, B. pallens, B. weigelii, Dichodontium palustre, Didymodon luridus, D. tectorum, Distichium inclinatum, Entosthodon muhlenbergii, Hygroamblystegium fluviatile subsp. fluviatile, Oncophorus virens, Orthotrichum rupestre var. sturmii, Pogonatum urnigerum, Pseudocrossidium revolutum, Pterygoneurum ovatum, Schistidium rivulare, Syntrichia handelii, Tortella inflexa, T. tortuosa, and Tortula muralis subsp. obtusifolia . Therewith the number of species increase to 24 liverworts, 246 mosses and one hornwort. In addition, a historical overview of the country's exploration and a full biogeography of Afghan bryophytes is given. Key words: Bryophytes, checklist, flora, phytodiversity. Introduction Recording, documentation, identification and classification of organisms is a primary tool and essential step in plant sciences and ecology to obtain detailed knowledge on the flora of a country. In many countries, such as Afghanistan, however, our knowledge on plant diversity, function, interactions of species and number of species in ecosystems is very limited and far from being complete. -
Sites of Importance for Nature Conservation Wales Guidance (Pdf)
Wildlife Sites Guidance Wales A Guide to Develop Local Wildlife Systems in Wales Wildlife Sites Guidance Wales A Guide to Develop Local Wildlife Systems in Wales Foreword The Welsh Assembly Government’s Environment Strategy for Wales, published in May 2006, pays tribute to the intrinsic value of biodiversity – ‘the variety of life on earth’. The Strategy acknowledges the role biodiversity plays, not only in many natural processes, but also in the direct and indirect economic, social, aesthetic, cultural and spiritual benefits that we derive from it. The Strategy also acknowledges that pressures brought about by our own actions and by other factors, such as climate change, have resulted in damage to the biodiversity of Wales and calls for a halt to this loss and for the implementation of measures to bring about a recovery. Local Wildlife Sites provide essential support between and around our internationally and nationally designated nature sites and thus aid our efforts to build a more resilient network for nature in Wales. The Wildlife Sites Guidance derives from the shared knowledge and experience of people and organisations throughout Wales and beyond and provides a common point of reference for the most effective selection of Local Wildlife Sites. I am grateful to the Wales Biodiversity Partnership for developing the Wildlife Sites Guidance. The contribution and co-operation of organisations and individuals across Wales are vital to achieving our biodiversity targets. I hope that you will find the Wildlife Sites Guidance a useful tool in the battle against biodiversity loss and that you will ensure that it is used to its full potential in order to derive maximum benefit for the vitally important and valuable nature in Wales. -
О Систематическом Положении Рода Discelium (Bryophyta) Michael S
Arctoa (2016) 25: 278–284 doi: 10.15298/arctoa.25.21 ON THE SYSTEMATIC POSITION OF DISCELIUM (BRYOPHYTA) О СИСТЕМАТИЧЕСКОМ ПОЛОЖЕНИИ РОДА DISCELIUM (BRYOPHYTA) MICHAEL S. IGNATOV1,2, VLADIMIR E. FEDOSOV1, ALINA V. F EDOROVA3 & ELENA A. IGNATOVA1 МИХАИЛ С. ИГНАТОВ1,2, ВЛАДИМИР Э. ФЕДОСОВ1, АЛИНА В. ФЕДОРОВА3, ЕЛЕНА А. ИГНАТОВА1 Abstract Results of molecular phylogenetic analysis support the position of the genus Discelium in the group of diplolepideous opposite mosses, Funariidae; however, its affinity is stronger with Encalyptales than with Funariales, where it is currently placed. A number of neglected morphological characters also indicate that Discelium is related to Funariales no closer than to Encalyptales, and thus new order Disceliales is proposed. Within the Encalyptaceae a case of strong sporophyte reduction is revealed. Bryobartramia appeared to be nested in Encalypta sect. Rhabdotheca, thus this genus is synonymized with Encalypta. Резюме Молекулярно-филогенетический анализ подтвердил положение рода Discelium в группе диплолепидных мхов с перистомом с супротивным расположением его элементов, или подклассе Funariidae, однако указал на родство с порядком Encalyptales, а не с Funariales, в который его обычно относили. Ряд редко учитываемых морфологических признаков также свидетельствует в пользу лишь отдаленного родства с Funariaceae. Предложено выделение Discelium в отдельный порядок Disceliales. В Encalyptaceae выявлен случай сильной редукции спорофита. Выявлено положение Bryobartramia в пределах рода Encalypta, в котором он имеет близкое родство с терминальными группами видов с гетерополярными спорами. Таким образом, Bryobartramia отнесена в синонимы к роду Encalypta. KEYWORDS: mosses, taxonomy, molecular phylogenetics, new order INTRODUCTION observation revealed the peristomial formula of Discelium The genus Discelium Brid. represents a small moss is 4:2(–4):4 with opposite position of exostome and with a strongly reduced gametophore.