Ginkgo Biloba (Maidenhair Tree)
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Zusammenfassung Systematische Biologie: Pflanzen
Zusammenfassung Systematische Biologie: Pflanzen - FS18 v0.2 Gleb Ebert 6. M¨arz 2018 Vorwort Diese Zusammenfassung soll den gesamten Stoff der Vorlesung Systematische Biologie: Pflanzen (Stand Fruhjahrssemester¨ 2018) in kompakter Form zusammenfassen. Ich kann leider weder Vollst¨andigkeit noch die Abwesenheit von Fehlern garan- tieren. Fur¨ Fragen, Anregungen oder Verbesserungsvorschl¨agen kann ich unter [email protected] erreicht werden. Die neuste Version dieser Zusammenfassung kann stets unter https://n.ethz.ch/˜glebert/ gefunden werden. 1 1 Landpflanzen 1.2 Stammbaum 2.4 Systematik (nur vervorgehobene Taxa prufungsrelevant)¨ 1.1 Entwicklung • Klasse: Marchantiopsida (Lebermoose) – Bebl¨atterte Lebermoose – Thallose Lebermoose • Klasse: Antheceropsida (Hornmoose) • Klasse: Bryopsida (Laubmoose) – Sphaginidae (Torfmoose) → Deckel ohne Peristom – Andreaeidae (Klaffmoose) → Spalten + Kolumella – Bryidae (Echte Laubmoose) 2 Bryophyta (Moose) → Deckel mit Peristom – Einteilung nach Wuchsform 2.1 Allgemeine Merkmale ∗ Akrokarpe Moose (Gipfelmoose) ∗ Pleuokarpe Moose (Astmoose) • ¨alteste Landpflanzen • Verbreitung durch Sporen (Kryptogamen) • Generationswechsel mit dominantem Gametophyt 2.5 Wuchsformen • Vielzellige Gametangien, Embryobildung • Organisationsstufe: – keine Leitgef¨asse – St¨ammchen, Bl¨attchen – Rhizoiden 2.2 Vorkommen / Eigenschaften • Artenzahl: 25’000 • an Orten mit hoher Luftfeuchtigkeit 1.1.1 Charophyceen vs. Landpflanzen • Lichtbedarf (0.1%) • Trockenheitstoleranz Gemeinsamkeiten neu in Landpflanzen • Temperatur (-30 -
Ginkgo Biloba Maidenhair Tree1 Edward F
Fact Sheet ST-273 November 1993 Ginkgo biloba Maidenhair Tree1 Edward F. Gilman and Dennis G. Watson2 INTRODUCTION Ginkgo is practically pest-free, resistant to storm damage, and casts light to moderate shade (Fig. 1). Young trees are often very open but they fill in to form a denser canopy. It makes a durable street tree where there is enough overhead space to accommodate the large size. The shape is often irregular with a large branch or two seemingly forming its own tree on the trunk. But this does not detract from its usefulness as a city tree unless the tree will be growing in a restricted overhead space. If this is the case, select from the narrow upright cultivars such as ‘Princeton Sentry’ and ‘Fairmont’. Ginkgo tolerates most soil, including compacted, and alkaline, and grows slowly to 75 feet or more tall. The tree is easily transplanted and has a vivid yellow fall color which is second to none in brilliance, even in the south. However, leaves fall quickly and the fall color show is short. GENERAL INFORMATION Scientific name: Ginkgo biloba Pronunciation: GINK-go bye-LOE-buh Common name(s): Maidenhair Tree, Ginkgo Family: Ginkgoaceae Figure 1. Middle-aged Maidenhair Tree. USDA hardiness zones: 3 through 8A (Fig. 2) Origin: not native to North America Uses: Bonsai; wide tree lawns (>6 feet wide); drought are common medium-sized tree lawns (4-6 feet wide); Availability: generally available in many areas within recommended for buffer strips around parking lots or its hardiness range for median strip plantings in the highway; specimen; sidewalk cutout (tree pit); residential street tree; tree has been successfully grown in urban areas where air pollution, poor drainage, compacted soil, and/or 1. -
Curitiba, Southern Brazil
data Data Descriptor Herbarium of the Pontifical Catholic University of Paraná (HUCP), Curitiba, Southern Brazil Rodrigo A. Kersten 1,*, João A. M. Salesbram 2 and Luiz A. Acra 3 1 Pontifical Catholic University of Paraná, School of Life Sciences, Curitiba 80.215-901, Brazil 2 REFLORA Project, Curitiba, Brazil; [email protected] 3 Pontifical Catholic University of Paraná, School of Life Sciences, Curitiba 80.215-901, Brazil; [email protected] * Correspondence: [email protected]; Tel.: +55-41-3721-2392 Academic Editor: Martin M. Gossner Received: 22 November 2016; Accepted: 5 February 2017; Published: 10 February 2017 Abstract: The main objective of this paper is to present the herbarium of the Pontifical Catholic University of Parana’s and its collection. The history of the HUCP had its beginning in the middle of the 1970s with the foundation of the Biology Museum that gathered both botanical and zoological specimens. In April 1979 collections were separated and the HUCP was founded with preserved specimens of algae (green, red, and brown), fungi, and embryophytes. As of October 2016, the collection encompasses nearly 25,000 specimens from 4934 species, 1609 genera, and 297 families. Most of the specimens comes from the state of Paraná but there were also specimens from many Brazilian states and other countries, mainly from South America (Chile, Argentina, Uruguay, Paraguay, and Colombia) but also from other parts of the world (Cuba, USA, Spain, Germany, China, and Australia). Our collection includes 42 fungi, 258 gymnosperms, 299 bryophytes, 2809 pteridophytes, 3158 algae, 17,832 angiosperms, and only one type of Mimosa (Mimosa tucumensis Barneby ex Ribas, M. -
Pteridofitas Y Gimnospermas”
UNIVERSIDAD MICHOACANA DE SAN NICOLÁS DE HIDALGO FACULTAD DE BIOLOGÍA MANUAL DE PRÁCTICAS DE LABORATORIO “Helechos y Gimnospermas” CICLO 2019 “PTERIDOFITAS Y GIMNOSPERMAS” Pinus ayacahuite var. brachyptera Shaw. PROFESORES DEL CURSO 2019: Biol. Leticia Díaz López Dra. Gabriela Domínguez Vázquez Biol. Rosa Isabel Fuentes Chávez Biol. Federico Hernández Valencia Dr. Juan Carlos Montero Castro Dr. Juan Manuel Ortega Rodríguez Polypodium madrense Mickel Biól. Norma Patricia Reyes Martínez M.C. Patricia Silva Sáenz PRESENTACIÓN. En el plan de estudios de la carrera de biología de la Universidad Michoacana de San Nicolás de Hidalgo, la materia de Botánica II (pteridofitas y gimnospermas), contempla dentro de sus contenidos el estudio tanto de la morfología, ciclos de vida, las relaciones evolutivas como la taxonomía de estos grupos de vegetales, que representan una gran importancia evolutiva pues corresponden tanto a las primeras plantas vasculares como a las primeras plantas productoras de semillas, por lo que el presente manual constituye una herramienta didáctica útil para el estudiante. En el presente manual se incluyen los aspectos antes mencionados, por lo que las diferentes prácticas intentan que el alumno relacione la morfología con la evolución que han tenido estos grupos de vegetales. Las prácticas incluidas, con excepción de la denominada “Evolución de las plantas vasculares” y la titulada “Herbario”, fueron implementadas originalmente como parte de la materia de Botánica III del plan de estudios de 1976 por el Prof. Biol. José L. Magaña Mendoza; y a partir del semestre marzo – agosto de 1998 y a iniciativa de los profesores Biol. Martha Santoyo Román y M.C. María del Rosario Ortega Murillo se formalizaron y estructuraron en el presente manual, aumentando una primera práctica de evolución de las plantas vasculares y una última práctica de Herbario. -
Gravitropisms and Reaction Woods of Forest Trees – Evolution, Functions and Mechanisms
Review Tansley review Gravitropisms and reaction woods of forest trees – evolution, functions and mechanisms 1,2 Author for correspondence: Andrew Groover Andrew Groover 1 2 Tel: +1 530 759 1738 Pacific Southwest Research Station, US Forest Service, Davis, CA 95618, USA; Department of Plant Biology, University of California Email: [email protected] Davis, Davis, CA 95616, USA Received: 29 December 2015 Accepted: 15 March 2016 Contents Summary 790 V. Mechanisms regulating developmental changes in reaction woods 798 I. Introduction 790 VI. Research questions and new research approaches 800 II. General features and evolution of reaction woods of angiosperms and gymnosperms 792 VII. Conclusions 800 III. Adaptive significance of reaction woods, including Acknowledgements 800 relationship to form 795 References 800 IV. Perception and primary responses to gravity and physical stimuli in woody stems 797 Summary New Phytologist (2016) 211: 790–802 The woody stems of trees perceive gravity to determine their orientation, and can produce doi: 10.1111/nph.13968 reaction woods to reinforce or change their position. Together, graviperception and reaction woods play fundamental roles in tree architecture, posture control, and reorientation of stems Key words: compression wood, genomics, displaced by wind or other environmental forces. Angiosperms and gymnosperms have evolved poplar, tension wood, wood development. strikingly different types of reaction wood. Tension wood of angiosperms creates strong tensile force to pull stems upward, while compression wood of gymnosperms creates compressive force to push stems upward. In this review, the general features and evolution of tension wood and compression wood are presented, along with descriptions of how gravitropisms and reaction woods contribute to the survival and morphology of trees. -
Gymnosperms on the EDGE Félix Forest1, Justin Moat 1,2, Elisabeth Baloch1, Neil A
www.nature.com/scientificreports OPEN Gymnosperms on the EDGE Félix Forest1, Justin Moat 1,2, Elisabeth Baloch1, Neil A. Brummitt3, Steve P. Bachman 1,2, Stef Ickert-Bond 4, Peter M. Hollingsworth5, Aaron Liston6, Damon P. Little7, Sarah Mathews8,9, Hardeep Rai10, Catarina Rydin11, Dennis W. Stevenson7, Philip Thomas5 & Sven Buerki3,12 Driven by limited resources and a sense of urgency, the prioritization of species for conservation has Received: 12 May 2017 been a persistent concern in conservation science. Gymnosperms (comprising ginkgo, conifers, cycads, and gnetophytes) are one of the most threatened groups of living organisms, with 40% of the species Accepted: 28 March 2018 at high risk of extinction, about twice as many as the most recent estimates for all plants (i.e. 21.4%). Published: xx xx xxxx This high proportion of species facing extinction highlights the urgent action required to secure their future through an objective prioritization approach. The Evolutionary Distinct and Globally Endangered (EDGE) method rapidly ranks species based on their evolutionary distinctiveness and the extinction risks they face. EDGE is applied to gymnosperms using a phylogenetic tree comprising DNA sequence data for 85% of gymnosperm species (923 out of 1090 species), to which the 167 missing species were added, and IUCN Red List assessments available for 92% of species. The efect of diferent extinction probability transformations and the handling of IUCN data defcient species on the resulting rankings is investigated. Although top entries in our ranking comprise species that were expected to score well (e.g. Wollemia nobilis, Ginkgo biloba), many were unexpected (e.g. -
Curriculum Vitae
CURRICULUM VITAE ORCID ID: 0000-0003-0186-6546 Gar W. Rothwell Edwin and Ruth Kennedy Distinguished Professor Emeritus Department of Environmental and Plant Biology Porter Hall 401E T: 740 593 1129 Ohio University F: 740 593 1130 Athens, OH 45701 E: [email protected] also Courtesy Professor Department of Botany and PlantPathology Oregon State University T: 541 737- 5252 Corvallis, OR 97331 E: [email protected] Education Ph.D.,1973 University of Alberta (Botany) M.S., 1969 University of Illinois, Chicago (Biology) B.A., 1966 Central Washington University (Biology) Academic Awards and Honors 2018 International Organisation of Palaeobotany lifetime Honorary Membership 2014 Fellow of the Paleontological Society 2009 Distinguished Fellow of the Botanical Society of America 2004 Ohio University Distinguished Professor 2002 Michael A. Cichan Award, Botanical Society of America 1999-2004 Ohio University Presidential Research Scholar in Biomedical and Life Sciences 1993 Edgar T. Wherry Award, Botanical Society of America 1991-1992 Outstanding Graduate Faculty Award, Ohio University 1982-1983 Chairman, Paleobotanical Section, Botanical Society of America 1972-1973 University of Alberta Dissertation Fellow 1971 Paleobotanical (Isabel Cookson) Award, Botanical Society of America Positions Held 2011-present Courtesy Professor of Botany and Plant Pathology, Oregon State University 2008-2009 Visiting Senior Researcher, University of Alberta 2004-present Edwin and Ruth Kennedy Distinguished Professor of Environmental and Plant Biology, Ohio -
1 Universidad Michoacana De San Nicolás De Hidalgo
PROGRAMA DE LA MATERIA: Pteridofitas y Gimnospermas CICLO ESCOLAR 2021 UNIVERSIDAD MICHOACANA DE SAN NICOLÁS DE HIDALGO FACULTAD DE BIOLOGÍA PROGRAMA DE LA MATERIAPTERIDOFITAS Y GIMNOSPERMAS Semestre: 4ºSemestre. Área Académica: Botánica Nombre delaJefa de materia: Juan Carlos Montero Castro Número de horas teoría: 3 horas/semana Número de horas de práctica: 3 horas/semana de laboratorio y 1 horas/semana de prácticas de campo. Número de créditos: 10 Profesores que elaboraron el programa (en orden alfabético):Biol. Leticia Díaz López, Dra. Gabriela Domínguez Vázquez, Biol. Rosa Isabel Fuentes Chávez, Biol. Federico Hernández Valencia, Dr. Juan Carlos Montero Castro, Dr. Juan Manuel Ortega Rodríguez, M.C. Gerardo Rodríguez Lozano, M.C. Patricia Silva Sáenz. Fecha de elaboración del programa: 27 /junio /2016 Perfil profesional del profesor: Grado de licenciatura, con experiencia y conocimiento de las plantas vasculares en aspectos de taxonomía, morfología, evolución, ecología, en manejo de plantas vasculares, o en su caso, maestría o doctorado en la especialidad de botánica relacionada con plantas vasculares. Profesores que impartieron el programa en 2019(en orden alfabético): Biol. Leticia Díaz López, Dra. Gabriela Domínguez Vázquez, Biol. Rosa Isabel Fuentes Chávez, Biol. Federico Hernández Valencia, Dr. Juan Carlos Montero Castro, Dr. Juan Manuel Ortega Rodríguez, Biól. Norma Patricia Reyes Martínez, M.C. Patricia Silva Sáenz. Fecha de actualización:15 /04 /2021 Profesores que participaron en la actualización del programa (en orden alfabético):Biol. Leticia Díaz López, Dra. Gabriela Domínguez Vázquez, Biol. Rosa Isabel Fuentes Chávez, Biol. Federico Hernández Valencia, Dr. Juan Carlos Montero Castro, Dr. Juan Manuel Ortega Rodríguez, M.C. Gerardo Rodríguez Lozano, M.C. -
Ginkgoales Dr Moni Kumari Date: 28 and 29Th September B.Sc 2Nd Year
Ginkgoales Dr Moni Kumari Date: 28 and 29th September B.Sc 2nd Year PG Botany Department Gaya College, Gaya Ginkgoales is a gymnosperm order containing only one extant species: Ginkgo biloba, the ginkgo tree It is classified in its Division: Ginkgophyta Class: Ginkgoopsida Order: Ginkgoales Family: Ginkgoaceae Genus: Ginkgo The only extant species within this group Ginkgo biloba is a highly adaptable plant that can grow in almost any temperate or Mediterranean climate. Resistant to pollution and pests. Long lived due to a beneficial combination of disease-resistant characteristics It can grow up to 30 meters tall and can live for a millenium. It is also well-known for its unique seeds, which have long been used as a food source in Asia. Cultivated predominantly in China Parts of the ginkgo tree are commonly added to foods and drinks or taken as a supplement due to its desirable health benefits. Some old ginkgoes produce aerial roots, known as chichi (Japanese; "nipples") or zhong-ru (Mandarin Chinese), which form on the undersides of large branches and grow downwards. Chichi growth is very slow, and may take hundreds of years to occur Ginkgoales was, however, very abundantly represented in the world by several species of about 16 genera during the Triassic period of Mesozoic age, i.e. about 200,000,000 years ago. Today, all the genera, except Ginkgo biloba, are extinct. Due to the presence of a number of primitive characters, as well as because of its long geological records, Ginkgo is called a “living fossil”. Details of the geological history of Ginkgoales indicate that its members started appearing on the earth during Permian Abundance worldwide distribution during Triassic and Jurassic periods of Mesozoic age Started fading out of existence during Cretaceous Now represented only in some parts of Southern and Eastern China by only one living member i.e. -
System Garden Masterplan, Melbourne University 2018
SYstem GARDEN LANDSCAPE MASTERPLAN STAGE 4 - MASTERPLAN FINAL REPORT 8th MARCH 2018 landscape architecture and GLAS urban design CONTENTS EXECUTIVE SUMMARY 1 INTRODUCTION 3 HistorY OF THE SYstem GARDEN 4 THE GARDEN TODAY 5 KEY ISSUES FACING THE SYstem GARDEN 6 Masterplan VISION 7 K EY VALUES 8 THE SYstem GARDEN AND OC21 9 VISION: A BOTANIC GARDEN FOR THE CAMPUS 10 MASTERPLAN PRINCIPLES 11 THE SYstem GARDEN MASTERPLAN 13 strategic INITIATIVES 15 BotanicAL DivERSiTy - SuB-cLASS PLANTiNG GuiDELiNES 16 INTERPRETATION StrateGY 17 UNIVERSITY HISTORY 18 INDIGENOUS ConnecTION 19 SUSTAINABILITY 20 MATERIALS PALETTE 21 MATERiALS PALETTE - LiGHTiNG AND PoWER 22 MATERiALS PALETTE - coNSoLiDATiNG SERvicES 23 FURNITURE 24 Access 25 ART AND EVENTS IN THE GARDEN 26 Masterplan ELEMENTS 27 master PLAN ELEMENTS 28 PERIMETER PATH AND EDGE SPACES 29 SYstem GARDEN GATEs 30 ENTRy AvENuES - BiZARRE SENTRiES 31 THE FORMAL GARDEN 32 WETLAND cANAL 37 THE INFORMAL GARDEN 38 COURTYARD GARDENS 43 rainforest GARDEN 44 FERN AND LICHEN COURTYARD 45 APOTHECARY GARDEN 47 RESEARCH GARDENS 48 implementation STAGING 50 APPENDIX 1: costing 55 APPENDIX 2: CONSULTANT REPORTS 57 EXecUTIVE SUMMARY IntroDUction The System Garden is a special space. Originally laid out in 1856 by Professor Frederick McCoy and The Core values, are key to the current and future operation of the Parkville campus, they have a • indigenous connection: the System Garden provides indigenous interpretation through Edward LaTrobe Bateman, it is a botanic garden configured specifically for learning. It provides a direct link to the University’s OC21 strategy (Our Campus in the 21st Century) and will drive the the Billibellary’s walk and stop within the System Garden. -
Post-Triassic Spermatophyta Timetree Adding the Quaternary Radiated Asarum Wild Gingers
Post-Triassic Spermatophyta Timetree Adding the Quaternary Radiated Asarum Wild Gingers Soichi Osozawa ( [email protected] ) KawaOso Molecular Bio-Geology Institute https://orcid.org/0000-0001-5554-1320 Cunio Nackejima Japanese Society of Plant Systematics John Wakabayashi California State University, Fresno Research article Keywords: BEAST v.1.X, combined gene analysis, fossil and geological event calibrations, APG system, increased base substitution rate toward the Recent, Cretaceous peak, radiation, C4 plants, Quaternary glacier- inter glacier cycle Posted Date: November 3rd, 2020 DOI: https://doi.org/10.21203/rs.3.rs-99466/v1 License: This work is licensed under a Creative Commons Attribution 4.0 International License. Read Full License Page 1/24 Abstract Background Angiospermae radiation was known as the mid-Cretaceous event, but adaptive radiation of Asarum is also expected in the Quaternary. In order to know such the Angiospermae evolutionary history through the time, we constructed a whole Spermatophyta timetree employing BEAST v1. X associated with robust fossil calibration function. Results We successfully and precisely dated the Spermatophyta phylogeny, and the Angiospermae topology was concordant to the APG system. Using another function of BEAST, we discovered the exponential increase in base substitution rate in recent geologic time, and another rise of rate at the mid-Cretaceous time. These increasing events correspond to the Quaternary and mid-Cretaceous Angiospermae radiations. Conclusions A probable cause of the recently increasing rate and the consequent radiation was ultimately generation of C4 grasses, reduction of atomospheric CO2, and the start of the Quaternary glacial period. Mid- Cretaceous event was explained by co-radiation with insect beetles as the food plant. -
Spermatophyta Timetree, Accelerated Base Substitution Rates at Mid
Spermatophyta timetree, accelerated base substitution rates at mid-Cretaceous and the Recent Soichi Osozawa1, Cunio Nackejima2, and john Wakabayashi3 1KawaOso Molecular Bio-Geology Institute 2Japanese Society for Plant Systematics 3California State University, Fresno September 11, 2020 Abstract We constructed a whole of Spermatophyta timetree by employing BEAST v1. X applying the nuclear ribosomal ITS, and chloroplastic matK and rbcL. Robust multipoint calibrations were done by applying fossil ages up to the Jurassic for 20 genera and a Quaternary geological event age of 1.55 Ma for 6 genera. The resultant topology was concordant to the APG system, and we successfully and precisely dated the phylogeny. Through the BEAST analyses, we discovered the exponential increase in base substitution rate in recent geologic time, and suggested that a potential cause was generation of C4 plants and the triggered Quaternary climatic change. The raised rate might have resulted in the increasing of Spermatophyta diversity including endemic Asarum and Viola species. Another rise of base substitution rate was found around 120 Ma, reflecting the order level radiation and diversification of Angiospermae at the middle Cretaceous time. Introduction A goal of botany may be the correlation of botanical evolutionary events with the timeline of Earth history (Wilf & Escapa, 2015). We prepared a Bayesian inference (BI) tree constructed using the latest and the most advanced version of BEAST (v1. X; Suchard et al ., 2018), because a credible timetree of Spermatophyta have not been constructed to date probably by employing the old version and by the unpractical use of functions (Smith et al ., 2010; Beulieu et al ., 2015).