Complete Chloroplast Genomes of All Six Hosta Species Occurring in Korea
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Complete Chloroplast Genomes Shed Light on Phylogenetic
www.nature.com/scientificreports OPEN Complete chloroplast genomes shed light on phylogenetic relationships, divergence time, and biogeography of Allioideae (Amaryllidaceae) Ju Namgung1,4, Hoang Dang Khoa Do1,2,4, Changkyun Kim1, Hyeok Jae Choi3 & Joo‑Hwan Kim1* Allioideae includes economically important bulb crops such as garlic, onion, leeks, and some ornamental plants in Amaryllidaceae. Here, we reported the complete chloroplast genome (cpDNA) sequences of 17 species of Allioideae, fve of Amaryllidoideae, and one of Agapanthoideae. These cpDNA sequences represent 80 protein‑coding, 30 tRNA, and four rRNA genes, and range from 151,808 to 159,998 bp in length. Loss and pseudogenization of multiple genes (i.e., rps2, infA, and rpl22) appear to have occurred multiple times during the evolution of Alloideae. Additionally, eight mutation hotspots, including rps15-ycf1, rps16-trnQ-UUG, petG-trnW-CCA , psbA upstream, rpl32- trnL-UAG , ycf1, rpl22, matK, and ndhF, were identifed in the studied Allium species. Additionally, we present the frst phylogenomic analysis among the four tribes of Allioideae based on 74 cpDNA coding regions of 21 species of Allioideae, fve species of Amaryllidoideae, one species of Agapanthoideae, and fve species representing selected members of Asparagales. Our molecular phylogenomic results strongly support the monophyly of Allioideae, which is sister to Amaryllioideae. Within Allioideae, Tulbaghieae was sister to Gilliesieae‑Leucocoryneae whereas Allieae was sister to the clade of Tulbaghieae‑ Gilliesieae‑Leucocoryneae. Molecular dating analyses revealed the crown age of Allioideae in the Eocene (40.1 mya) followed by diferentiation of Allieae in the early Miocene (21.3 mya). The split of Gilliesieae from Leucocoryneae was estimated at 16.5 mya. -
Dispersion of Vascular Plant in Mt. Huiyangsan, Korea
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Elsevier - Publisher Connector Journal of Korean Nature Vol. 3, No. 1 1-10, 2010 Dispersion of Vascular Plant in Mt. Huiyangsan, Korea Hyun-Tak Shin1, Sung-Tae Yoo2, Byung-Do Kim2, and Myung-Hoon YI3* 1Gyeongsangnam-do Forest Environment Research Institute, Jinju 660-871, Korea 2Daegu Arboretum 284 Daegok-Dong Dalse-Gu Daegu 704-310, Korea 3Department of Landscape Architecture, Graduate School, Yeungnam University, Gyeongsan 712-749, Korea Abstract: We surveyed that vascular plants can be classified into 90 families and 240 genus, 336 species, 69 variants, 22 forms, 3 subspecies, total 430 taxa. Dicotyledon plant is 80.9%, monocotyledon plant is 9.8%, Pteridophyta is 8.1%, Gymnosermae is 1.2% among the whole plant family. Rare and endangered plants are Crypsinus hastatus, Lilium distichum, Viola albida, Rhododendron micranthum, totalling four species. Endemic plants are Carex okamotoi, Salix koriyanagi for. koriyanagi, Clematis trichotoma, Thalictrum actaefolium var. brevistylum, Galium trachyspermum, Asperula lasiantha, Weigela subsessilis, Adenophora verticillata var. hirsuta, Aster koraiensis, Cirsium chanroenicum and Saussurea seoulensis total 11 taxa. Specialized plants are 20 classification for I class, 7 classifications for the II class, 7 classifications for the III class, 2 classification for the IV class, and 1 classification for the V class, total 84 taxa. Naturalized plants specified in this study are 10 types but Naturalization rate is not high compared to the area of BaekDu-DaeGan. This survey area is focused on the center of BaekDu- DaeGan, and it has been affected by excessive investigations and this area has been preserved as Buddhist temples' woods. -
Index Seminum Et Sporarum Quae Hortus Botanicus Universitatis Biarmiensis Pro Mutua Commutatione Offert
INDEX SEMINUM ET SPORARUM QUAE HORTUS BOTANICUS UNIVERSITATIS BIARMIENSIS PRO MUTUA COMMUTATIONE OFFERT Salix recurvigemmata A.K. Skvortsov f. variegata Schumikh., O.E. Epanch. & I.V. Belyaeva Biarmiae 2020 Federal State Autonomous Educational Institution of Higher Education «Perm State National Research University», A.G. Genkel Botanical Garden ______________________________________________________________________________________ СПИСОК СЕМЯН И СПОР, ПРЕДЛАГАЕМЫХ ДЛЯ ОБМЕНА БОТАНИЧЕСКИМ САДОМ ИМЕНИ А.Г. ГЕНКЕЛЯ ПЕРМСКОГО ГОСУДАРСТВЕННОГО НАЦИОНАЛЬНОГО ИССЛЕДОВАТЕЛЬСКОГО УНИВЕРСИТЕТА Syringa vulgaris L. ‘Красавица Москвы’ Пермь 2020 Index Seminum 2020 2 Federal State Autonomous Educational Institution of Higher Education «Perm State National Research University», A.G. Genkel Botanical Garden ______________________________________________________________________________________ Дорогие коллеги! Ботанический сад Пермского государственного национального исследовательского университета был создан в 1922 г. по инициативе и под руководством проф. А.Г. Генкеля. Здесь работали известные ученые – ботаники Д.А. Сабинин, В.И. Баранов, Е.А. Павский, внесшие своими исследованиями большой вклад в развитие биологических наук на Урале. В настоящее время Ботанический сад имени А.Г. Генкеля входит в состав регионального Совета ботанических садов Урала и Поволжья, Совет ботанических садов России, имеет статус научного учреждения и особо охраняемой природной территории. Основными научными направлениями работы являются: интродукция и акклиматизация растений, -
Samenkatalog Graz 2016.Pdf
SAMENTAUSCHVERZEICHNIS Index Seminum Seed list Catalogue de graines des Botanischen Gartens der Karl-Franzens-Universität Graz Ernte / Harvest / Récolte 2016 Herausgegeben von Christian BERG, Kurt MARQUART & Jonathan WILFLING ebgconsortiumindexseminum2012 Institut für Pflanzenwissenschaften, Januar 2017 Botanical Garden, Institute of Plant Sciences, Karl- Franzens-Universität Graz 2 Botanischer Garten Institut für Pflanzenwissenschaften Karl-Franzens-Universität Graz Holteigasse 6 A - 8010 Graz, Austria Fax: ++43-316-380-9883 Email- und Telefonkontakt: [email protected], Tel.: ++43-316-380-5651 [email protected], Tel.: ++43-316-380-5747 Webseite: http://garten.uni-graz.at/ Zitiervorschlag : BERG, C., MARQUART, K. & Wilfling, J. (2017): Samentauschverzeichnis – Index Seminum – des Botanischen Gartens der Karl-Franzens-Universität Graz, Samenernte 2016. – 54 S., Karl-Franzens-Universität Graz. Personalstand des Botanischen Gartens Graz: Institutsleiter: Ao. Univ.-Prof. Mag. Dr. Helmut MAYRHOFER Wissenschaftlicher Gartenleiter: Dr. Christian BERG Gartenverwalter: Jonathan WILFLING, B. Sc. Gärtnermeister: Friedrich STEFFAN GärtnerInnen: Doris ADAM-LACKNER Viola BONGERS Magarete HIDEN Franz HÖDL Kurt MARQUART Franz STIEBER Ulrike STRAUSSBERGER Monika GABER Gartenarbeiter: Philip FRIEDL René MICHALSKI Oliver KROPIWNICKI Gärtnerlehrlinge: Gabriel Buchmann (1. Lehrjahr) Bahram EMAMI (3. Lehrjahr) Mario MARX (3. Lehrjahr) 3 Inhaltsverzeichnis / Contents / Table des matières Abkürzungen / List of abbreviations / Abréviations -
A Legacy of Plants N His Short Life, Douglas Created a Tremendous Legacy in the Plants That He Intro (P Coulteri) Pines
The American lIorHcullural Sociely inviles you Io Celehrate tbe American Gardener al our 1999 Annual Conference Roston" Massachusetts June 9 - June 12~ 1999 Celebrate Ute accompHsbenls of American gardeners in Ute hlsloric "Cay Upon lhe 1Iill." Join wah avid gardeners from. across Ute counlrg lo learn new ideas for gardening excellence. Attend informa-Hve ledures and demonslraHons by naHonally-known garden experts. Tour lhe greal public and privale gardens in and around Roslon, including Ute Arnold Arborelum and Garden in Ute Woods. Meet lhe winners of AIlS's 1999 naHonJ awards for excellence in horHcullure. @ tor more informaHon, call1he conference regislrar al (800) 777-7931 ext 10. co n t e n t s Volume 78, Number 1 • '.I " Commentary 4 Hellebores 22 Members' Forum 5 by C. Colston Burrell Staghorn fern) ethical plant collecting) orchids. These early-blooming pennnials are riding the crest of a wave ofpopularity) and hybridizers are News from AHS 7 busy working to meet the demand. Oklahoma Horticultural Society) Richard Lighty) Robert E. Lyons) Grecian foxglove. David Douglas 30 by Susan Davis Price Focus 9 Many familiar plants in cultivation today New plants for 1999. are improved selections of North American species Offshoots 14 found by this 19th-century Scottish expLorer. Waiting for spring in Vermont. Bold Plants 37 Gardeners Information Service 15 by Pam Baggett Houseplants) transplanting a ginkgo tree) Incorporating a few plants with height) imposing starting trees from seed) propagating grape vines. foliage) or striking blossoms can make a dramatic difference in any landscape design. Mail-Order Explorer 16 Heirloom flowers and vegetables. -
Complete Plastome Sequence of Dracaena Cambodiana (Asparagaceae): a Species Considered “Vulnerable” in Southeast Asia
MITOCHONDRIAL DNA PART B: RESOURCES 2018, VOL. 3, NO. 2, 620–621 https://doi.org/10.1080/23802359.2018.1473740 MITOGENOME ANNOUNCEMENT Complete plastome sequence of Dracaena cambodiana (Asparagaceae): a species considered “Vulnerable” in Southeast Asia Zhi-Xin Zhua, Wei-Xue Mub, Jian-Hua Wanga, Jin-Ran Zhanga, Kun-Kun Zhaoa, Cynthia Ross Friedmanc and Hua-Feng Wanga aHainan Key Laboratory for Sustainable Utilization of Tropical Bioresources, Institute of Tropical Agriculture and Forestry, Hainan University, Haikou, China; bBGI-Shenzhen, Shenzhen, China; cDepartment of Botany, University of British Columbia, Vancouver, Canada ABSTRACT ARTICLE HISTORY Dracaena cambodiana (Asparagaceae) is a treelike plant ranging from 3 to 10 m tall. It grows in low-ele- Received 1 May 2018 vation forests (0–300 m) having dry and sandy soils. It is distributed in Southern Hainan Island in China Accepted 2 May 2018 and other Southeast Asian countries (e.g. Cambodia, Laos, Thailand and Vietnam). The dried resin can KEYWORDS be used medicinally as a substitute for that of Dracaena cochinchinensis. It has been ranked as a Vulnerable (VU) species in China. Here we report and characterize the complete plastid genome Dracaena cambodiana; illumina sequencing; sequence of D. cambodiana. The complete plastome is 156,697 bp in length. It contains the typical plastome; Asparagaceae; structure and gene content of angiosperm plastomes, including two Inverted Repeat (IR) regions of phylogenetic analysis; 26,526 bp, a Large Single-Copy (LSC) region of 84,988 bp and a Small Single-Copy (SSC) region of Asparagales 18,657 bp. The plastome contains 113 genes, consisting of 76 unique protein-coding genes, 30 unique tRNA genes, four unique rRNA genes and three pseudogenes (i.e. -
Networks in a Large-Scale Phylogenetic Analysis: Reconstructing Evolutionary History of Asparagales (Lilianae) Based on Four Plastid Genes
Networks in a Large-Scale Phylogenetic Analysis: Reconstructing Evolutionary History of Asparagales (Lilianae) Based on Four Plastid Genes Shichao Chen1., Dong-Kap Kim2., Mark W. Chase3, Joo-Hwan Kim4* 1 College of Life Science and Technology, Tongji University, Shanghai, China, 2 Division of Forest Resource Conservation, Korea National Arboretum, Pocheon, Gyeonggi- do, Korea, 3 Jodrell Laboratory, Royal Botanic Gardens, Kew, Richmond, United Kingdom, 4 Department of Life Science, Gachon University, Seongnam, Gyeonggi-do, Korea Abstract Phylogenetic analysis aims to produce a bifurcating tree, which disregards conflicting signals and displays only those that are present in a large proportion of the data. However, any character (or tree) conflict in a dataset allows the exploration of support for various evolutionary hypotheses. Although data-display network approaches exist, biologists cannot easily and routinely use them to compute rooted phylogenetic networks on real datasets containing hundreds of taxa. Here, we constructed an original neighbour-net for a large dataset of Asparagales to highlight the aspects of the resulting network that will be important for interpreting phylogeny. The analyses were largely conducted with new data collected for the same loci as in previous studies, but from different species accessions and greater sampling in many cases than in published analyses. The network tree summarised the majority data pattern in the characters of plastid sequences before tree building, which largely confirmed the currently recognised phylogenetic relationships. Most conflicting signals are at the base of each group along the Asparagales backbone, which helps us to establish the expectancy and advance our understanding of some difficult taxa relationships and their phylogeny. -
Chromosome Numbers and Polyploidy Events in Korean Non-Commelinids Monocots: a Contribution to Plant Systematics
pISSN 1225-8318 − Korean J. Pl. Taxon. 48(4): 260 277 (2018) eISSN 2466-1546 https://doi.org/10.11110/kjpt.2018.48.4.260 Korean Journal of REVIEW Plant Taxonomy Chromosome numbers and polyploidy events in Korean non-commelinids monocots: A contribution to plant systematics Tae-Soo JANG* and Hanna WEISS-SCHNEEWEISS1 Department of Biological Science, College of Bioscience and Biotechnology, Chungnam National University, Daejeon 34134, Korea 1Department of Botany and Biodiversity Research, University of Vienna, A-1030 Vienna, Austria (Received 4 June 2018; Revised 9 September 2018; Accepted 16 December 2018) ABSTRACT: The evolution of chromosome numbers and the karyotype structure is a prominent feature of plant genomes contributing to or at least accompanying plant diversification and eventually leading to speciation. Polyploidy, the multiplication of whole chromosome sets, is widespread and ploidy-level variation is frequent at all taxonomic levels, including species and populations, in angiosperms. Analyses of chromosome numbers and ploidy levels of 252 taxa of Korean non-commelinid monocots indicated that diploids (ca. 44%) and tet- raploids (ca. 14%) prevail, with fewer triploids (ca. 6%), pentaploids (ca. 2%), and hexaploids (ca. 4%) being found. The range of genome sizes of the analyzed taxa (0.3–44.5 pg/1C) falls well within that reported in the Plant DNA C-values database (0.061–152.33 pg/1C). Analyses of karyotype features in angiosperm often involve, in addition to chromosome numbers and genome sizes, mapping of selected repetitive DNAs in chro- mosomes. All of these data when interpreted in a phylogenetic context allow for the addressing of evolution- ary questions concerning the large-scale evolution of the genomes as well as the evolution of individual repeat types, especially ribosomal DNAs (5S and 35S rDNAs), and other tandem and dispersed repeats that can be identified in any plant genome at a relatively low cost using next-generation sequencing technologies. -
Part 3 Hosta Species Listings by W
Part 3 Hosta Species Listings By W. George Schmid ®2006 for the Hosta Library The text and illustrations are copyrighted and are available for personal reference only. The content may not be published in printed form without the author’s permission. Introduction Hosta species were first introduced to western botany starting in 1712 by Engelbert Kaempfer. Details of the botanical history of the genus name are given in Part 2 of my discussions. Obviously, the wild plant species belonging to the genus Hosta have been known to Japanese, Korean and Chinese people for a very long time. The picture shown below dating from 1682 is that of a Japanese courtesan and shows a her in the garden with a hosta clump in the foreground. To some, hostas were revered and planted in temple gardens, while rice farmers of northern Japan may have cursed H. montana as an invasive weed in their rice fields and took pains to get rid of it. Still others found that hostas were edible and they used parts of young plants in Part of my discussion. Suffice it to say that wild hostas were discovered by botanists and named. If such names are established in accordance with the rules of the International Code of Botanical Nomenclature, they will find their way into international plant indices. This part of my discussion deals with internationally accepted Hosta species names. These names appear in several national and international plant name Courtesan With Hosta ─ 1682 data bases. By Monorobu Hishikawa in Miyagino One of the most widely accepted plant name data bases is The International Plant Names Index (IPNI) is a database of the names and associated basic bibliographical details of all seed plants, ferns and fern allies. -
(Asparagaceae) As a New Species and Its Phylogenetic Affinity
PhytoKeys 181: 79–93 (2021) A peer-reviewed open-access journal doi: 10.3897/phytokeys.181.64245 RESEARCH ARTICLE https://phytokeys.pensoft.net Launched to accelerate biodiversity research Validation of Hosta alata (Asparagaceae) as a new species and its phylogenetic affinity Tetsukazu Yahara1, Shun K. Hirota2, Kengo Fuse1, Hiroyuki Sato1, Shuichiro Tagane3, Yoshihisa Suyama2 1 Kyushu Open University, 744 Motooka, Fukuoka, 819-0395, Japan 2 Field Science Center, Graduate School of Agricultural Science, Tohoku University, 232-3 Yomogida, Naruko-onsen, Osaki, Miyagi 989-6711, Japan 3 The Kagoshima University Museum, Kagoshima University, 1-21-30 Korimoto, Kagoshima, 890- 0065, Japan Corresponding author: Tetsukazu Yahara ([email protected]) Academic editor: C. Morden | Received 10 February 2021 | Accepted 14 June 2021 | Published 3 September 2021 Citation: Yahara T, Hirota SK, Fuse K, Sato H, Tagane S, Suyama Y (2021) Validation of Hosta alata (Asparagaceae) as a new species and its phylogenetic affinity. PhytoKeys 181: 79–93.https://doi.org/10.3897/phytokeys.181.64245 Abstract Molecular phylogenetic studies of Hosta pulchella (Asparagaceae) and its relatives, which are native to Japan, have been conducted and resulted in a highly resolved phylogeny. Specifically, the relationship of H. pulchella to H. alata Hatusima, nom. nud. is investigated. These data include genome-wide SNPs ob- tained through conducting multiplexed ISSR genotyping by sequencing (MIG-seq). Based on these phy- logenetic results, morphological observations, distribution, and differences in flowering periods of H. alata collections sympatric with H. pulchella, we find the two species closely related, but distinct. As such, we formally describe Hosta alata sp. nov. -
And Type the TITLE of YOUR WORK in All Caps
PHYLOGENOMIC PLACEMENT OF ANCIENT POLYPLOIDY EVENTS WITHIN THE POALES AND AGAVOIDEAE (ASPARAGALES) by MICHAEL RAMON MCKAIN (Under the Direction of James H. Leebens-Mack) ABSTRACT Polyploidy has been an important component to the evolution of angiosperms. Recent studies have shown that an ancient polyploid (paleopolyploid) event can be traced to the lineage leading to the diversification of all angiosperms, and it has long been known that recurring polyploid events can be found throughout the angiosperm tree of life. With the advent of high- throughput sequencing, the prominent place of paleopolyploid events in the evolutionary history of angiosperms has become increasingly clear. Polyploidy is thought to spur both diversification and trait innovation through the duplication and reworking of gene networks. Understanding the evolutionary impact of paleopolyploidy within the angiosperms requires knowing when these events occurred during angiosperm evolution. This study utilizes a high-throughput phylogenomic approach to identify the timing of paleopolyploid events by comparing the origin of paralogous genes within a gene family to a known species tree. Transcriptome data derived from taxa in lineages with previously little to no genomic data, were utilized to assess the timing of duplication events within hundreds of gene families. Previously described paleopolyploid events in the history of grasses, identified through analyses of syntenic blocks within Poaceae genomes, were placed on the Poales phylogeny and the implications of these events were considered. Additionally, a previously unverified paleopolyploidy event was found to have occurred in a common ancestor of all members of the Asparagales and commelinids (including Poales, Zingiberales, Commelinales, Arecales and Dasypogonales). The phylogeny of the Asparagaceae subfamily Agavoideae was resolved using whole chloroplast genomes, and two previously unknown paleopolyploid events were described within the context of that phylogeny. -
Catalogue Des Collections Du Jardin Botanique De Paris Nom Complet Famille Code IPEN ×Brassocattleya Hort. Orchidaceae XX0JBVP2
Catalogue des collections du Jardin Botanique de Paris Nom complet Famille Code IPEN ×Brassocattleya hort. Orchidaceae XX0JBVP20120072 ×Brassocattleya hort. cv. Deesse Charles Orchidaceae XX0JBVP20121376 ×Brassocattleya hort. cv. Déesse Charles Orchidaceae XX0JBVP20130305 ×Brassocattleya hort. cv. Ferriere Orchidaceae XX0JBVP20120305 ×Brassocattleya hort. cv. Makai Mayumi Orchidaceae XX0JBVP20130070 ×Brassocattleya hort. cv. Queen Alexandra Orchidaceae XX0JBVP19970166 ×Brassocattleya hort. cv. Queen Alexandra Orchidaceae XX0JBVP20121120 ×Bratonia auct. cv. Tessa Orchidaceae XX0JBVP20120740 ×Chitalpa tashkentensis T. S. Elias & Wisura Bignoniaceae XX0JBVP19003060 ×Chitalpa tashkentensis T. S. Elias & Wisura Bignoniaceae XX0JBVP19003064 ×Chitalpa tashkentensis T. S. Elias & Wisura Bignoniaceae XX0JBVP19990025 ×Chitalpa tashkentensis T. S. Elias & Wisura Bignoniaceae XX0JBVP19990221 ×Citrofortunella microcarpa (Bunge) Wijnands Rutaceae XX0JBVP20062524 ×Crataemespilus grandiflora (Sm.) E. G. Camus Rosaceae XX0JBVP19992784 ×Crataemespilus grandiflora E. G. Camus Rosaceae XX0JBVP20062390 ×Crataemespilus grandiflora E. G. Camus Rosaceae XX0JBVP20062391 ×Cryptbergia meadii hort. Bromeliaceae XX0JBVP19980980 ×Gasteraloe bedinghausii (Radl) Guillaumin Xanthorrhoeaceae XX0JBVP20070137 ×Gasteraloe beguinii (Radl) Guillaumin Xanthorrhoeaceae XX0JBVP20040211 ×Gasteraloe Guillaumin Xanthorrhoeaceae XX0JBVP20010716 ×Gonostapelia maculosa P. V. Heath Asclepiadaceae XX0JBVP20070833 ×Halimiocistus sahucii Janch. Cistaceae XX0JBVP20041885 ×Laeliocattleya