Morphological and Molecular Studies on Topotype Material
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50 Annual Meeting of the Phycological Society of America
50th Annual Meeting of the Phycological Society of America August 10-13 Drexel University Philadelphia, PA The Phycological Society of America (PSA) was founded in 1946 to promote research and teaching in all fields of Phycology. The society publishes the Journal of Phycology and the Phycological Newsletter. Annual meetings are held, often jointly with other national or international societies of mutual member interest. PSA awards include the Bold Award for the best student paper at the annual meeting, the Lewin Award for the best student poster at the annual meeting, the Provasoli Award for outstanding papers published in the Journal of Phycology, The PSA Award of Excellence (given to an eminent phycologist to recognize career excellence) and the Prescott Award for the best Phycology book published within the previous two years. The society provides financial aid to graduate student members through Croasdale Fellowships for enrollment in phycology courses, Hoshaw Travel Awards for travel to the annual meeting and Grants-In-Aid for supporting research. To join PSA, contact the membership director or visit the website: www.psaalgae.org LOCAL ORGANIZERS FOR THE 2015 PSA ANNUAL MEETING: Rick McCourt, Academy of Natural Sciences of Drexel University Naomi Phillips, Arcadia University PROGRAM DIRECTOR FOR 2015: Dale Casamatta, University of North Florida PSA OFFICERS AND EXECUTIVE COMMITTEE President Rick Zechman, College of Natural Resources and Sciences, Humboldt State University Past President John W. Stiller, Department of Biology, East Carolina University Vice President/President Elect Paul W. Gabrielson, Hillsborough, NC International Vice President Juliet Brodie, Life Sciences Department, Genomics and Microbial Biodiversity Division, Natural History Museum, Cromwell Road, London Secretary Chris Lane, Department of Biological Sciences, University of Rhode Island, Treasurer Eric W. -
M., 2012. Brown Algae from Chaojing, Keelung City, Taiwan. Memoirs Of
ῒῐΐ ῌ (48), pp. 149ῌ157, 2012 3 ῑ 28 Mem. Natl. Mus. Nat. Sci., Tokyo, (48), pp. 149ῌ157, March28, 2012 Brown Algae from Chaojing, Keelung City, Taiwan Taiju Kitayama1, ῍ and Showe-Mei Lin2 1 Department of Botany, National Museum of Nature and Science, 4ῌ1ῌ1 Amakubo, Tsukuba, Ibaraki 305ῌ0005, Japan 2 Institute of Marine Biology, National Taiwan Ocean University, Keelung 20224, Taiwan, Republic of China ῍ E-mail: [email protected] Abstract. Sixteen species of brown algae (Phaeophyceae) were reported from the shore of Chaojing, Keelung, Taiwan. Among them eight species belong to the Dictyotales and two to the Fucales. Consequently, the seaweed community of Chaojing is considered as typical of subtropical one, while it has also several temperate species together. Spatoglossum asperum, Ralfsia verrucosa, Feldmannia irregularis and Scytosiphon gracilis are new records for Taiwan. Key words: brown algae, Feldmannia irregularis, flora, Keelung, Phaeophyceae, Spatoglossum asperum, Taiwan. brown algae. Introduction Brown algae (Phaeophyceae, Ochrophyta, Materials and Methods kingdom Chromista) are most important bo- tanical components of coastal marine com- The collections of brown algae were carried munities, in terms of productivity and biomass. out at the coast of Chaojing, Keelung City, In Taiwan the marine macro-algal flora has Taiwan (33῍07῎49῏N, 139῍48῎24῏E) on been well investigated and published numerous March 2, March 3, May 25, May 27 in 2010. reports by many algologists since Martens The samples were collected from both inter- (1868) and there had been recorded over 500 tidal zone and subtidal zone by walking and species of marine algae from the coasts and snorkeling. -
Molecular Phylogeny of Zeacarpa (Ralfsiales, Phaeophyceae) Proposing a New Family Zeacarpaceae and Its Transfer to Nemodermatales1
J. Phycol. 52, 682–686 (2016) © 2016 Phycological Society of America DOI: 10.1111/jpy.12419 NOTE MOLECULAR PHYLOGENY OF ZEACARPA (RALFSIALES, PHAEOPHYCEAE) PROPOSING A NEW FAMILY ZEACARPACEAE AND ITS TRANSFER TO NEMODERMATALES1 Hiroshi Kawai,2 Takeaki Hanyuda Kobe University Research Center for Inland Seas, 1-1 Rokkodai, Kobe 657-8501, Japan John Bolton Department of Biological Sciences and Marine Research Institute, University of Cape Town, Private Bag X3, Rondebosch 7701, South Africa and Robert Anderson Department of Biological Sciences and Marine Research Institute, University of Cape Town, Private Bag X3, Rondebosch 7701, South Africa Department of Agriculture, Forestry and Fisheries, Private Bag X2, Roggebaai 8012, South Africa Zeacarpa leiomorpha is a crustose brown alga unique unilocular zoidangia formed in sori, laterally endemic to South Africa. The species has been in tufts, intercalary in loose upright filaments (Fig. 1, tentatively placed in Ralfsiaceae, but its ordinal b and c). It was first placed in the Ralfsiaceae, how- assignment has been uncertain. The molecular ever the ordinal position of the family was controver- phylogeny of brown algae based on concatenated sial at the time. Nakamura (1972) established the DNA sequences of seven chloroplast and order Ralfsiales to accommodate brown algal taxa mitochondrial gene sequences (atpB, psaA,psaB, having crustose thalli, an isomorphic life history, dis- psbA, psbC, rbcL, and cox1) of taxa covering most of coidal early development of the thallus, and each cell the orders revealed the most related phylogenetic containing a single, plate-shaped chloroplast without relationship of Z. leiomorpha to Nemoderma tingitanum pyrenoids. However, the validity of the order has (Nemodermatales) rather than Ralfsiaceae been questioned because a number of taxa exhibit- (Ralfsiales). -
Seasonal Changes in the Intertidal and Subtidal Algal Communities of Extremely and Moderately Polluted Coastal Regions of Sanya Bay (Hainan Island, China)
Article Seasonal Changes in the Intertidal and Subtidal Algal Communities of Extremely and Moderately Polluted Coastal Regions of Sanya Bay (Hainan Island, China) Eduard A. Titlyanov 1,2, Tamara V. Titlyanova 1, Hui Huang 2,3, Anna V. Scriptsova 1, Huili Xu 4 and Xiubao Li 4,* 1 National Scientific Center of Marine Biology, Far Eastern Branch, Russian Academy of Science, A.V. Zhirmunsky Institute of Marine Biology, Palchevskogo 17, 690041 Vladivostok, Russia; [email protected] (E.A.T.); [email protected] (T.V.T.); [email protected] (A.V.S.) 2 Key Laboratory of Tropical Marine Bio-resources and Ecology, South China Sea Institute of Oceanology, Chinese Academy of Sciences, 164 West Xingang Road, Guangzhou 510301, China; [email protected] (H.H.) 3 Tropical Marine Biological Research Station in Hainan, Chinese Academy of Sciences, Sanya 572000, China 4 State Key Laboratory of Marine Resource Utilization in South China Sea, Ocean College, Hainan University, 58th Renmin Road, Haikou 570228, China; [email protected] (H.X.); [email protected] (X.L.) * Correspondence: [email protected]; Tel.: +86-013-760-686-646 Received: 1 March 2019; Accepted: 26 March 2019; Published: 3 April 2019 Abstract: At the end of the rainy season in 2016 and at the end of the dry season in 2017, we conducted a floristic study of marine macrophytic algae in the intertidal and subtidal zones in moderately and heavily polluted areas at Luhuitou reef, Sanya Bay, Hainan Island, China. A total of 109 species of marine macrophytes were found during these samplings. At the end of the rainy season, 72 species of macrophytes (50% reds, 19% browns, and 31% greens) were found. -
A Literature Review on the Poor Knights Islands Marine Reserve 30
4. Marine flora There is a rich abundance and diversity of macroalgae at the Poor Knights Islands with 121 species of algae recorded from the islands. A thorough taxonomic survey of the macroalgae of the Poor Knights Islands has not been conducted, and therefore this is likely to be a conservative estimate of the number of macroalgal species present. Some of the lushest kelp beds in New Zealand can be found at Nursery Cove and Cleanerfish Bay and subtidal reefs are covered with the golden seawrack, Carpophyllum angustifolium, the strap kelp, Lessonia variegata, and the common kelp, Ecklonia radiata (Ayling & Schiel, 2003). The marine flora of the Poor Knights Islands is an unusual mixture of species common to northeastern New Zealand such as C. angustifolium and Gigartina alveata, subtropical species such as Pedobesia clavaeformis, Microdictyon umbilicatum, and Palmophyllum umbracola, and southern New Zealand species, such as Durvillea antarctica and Caulerpa brownii. Bull kelp (D. antarctica) is a common species in southern New Zealand, but is not found in the North Island between North Cape and East Cape with the exception of some exposed offshore islands including the Poor Knights Islands. It is possible that at high levels of wave exposure D. antarctica can withstand higher water temperatures (Creese & Ballantine, 1986). Several rare species of macroalgae are found at the Poor Knights Islands. In 1994 the rare, endemic red alga, Gelidium allanii, was discovered with a sample of Pterocladia capillacea taken from the Poor Knights Islands in 1978. Prior to 1994 G. allanii had only been recorded from the type locality in the Bay of Islands. -
The Marine Macroalgae of Cabo Verde Archipelago: an Updated Checklist
Arquipelago - Life and Marine Sciences ISSN: 0873-4704 The marine macroalgae of Cabo Verde archipelago: an updated checklist DANIELA GABRIEL AND SUZANNE FREDERICQ Gabriel, D. and S. Fredericq 2019. The marine macroalgae of Cabo Verde archipelago: an updated checklist. Arquipelago. Life and Marine Sciences 36: 39 - 60. An updated list of the names of the marine macroalgae of Cabo Verde, an archipelago of ten volcanic islands in the central Atlantic Ocean, is presented based on existing reports, and includes the addition of 36 species. The checklist comprises a total of 372 species names, of which 68 are brown algae (Ochrophyta), 238 are red algae (Rhodophyta) and 66 green algae (Chlorophyta). New distribution records reveal the existence of 10 putative endemic species for Cabo Verde islands, nine species that are geographically restricted to the Macaronesia, five species that are restricted to Cabo Verde islands and the nearby Tropical Western African coast, and five species known to occur only in the Maraconesian Islands and Tropical West Africa. Two species, previously considered invalid names, are here validly published as Colaconema naumannii comb. nov. and Sebdenia canariensis sp. nov. Key words: Cabo Verde islands, Macaronesia, Marine flora, Seaweeds, Tropical West Africa. Daniela Gabriel1 (e-mail: [email protected]) and S. Fredericq2, 1CIBIO - Research Centre in Biodiversity and Genetic Resources, 1InBIO - Research Network in Biodiversity and Evolutionary Biology, University of the Azores, Biology Department, 9501-801 Ponta Delgada, Azores, Portugal. 2Department of Biology, University of Louisiana at Lafayette, Lafayette, Louisiana 70504-3602, USA. INTRODUCTION Schmitt 1995), with the most recent checklist for the archipelago published in 2005 by The Republic of Cabo Verde is an archipelago Prud’homme van Reine et al. -
Amelia G6mez Garreta Taxonomy of Phaeophyceae with Particular
Amelia G6mez Garreta Taxonomy of Phaeophyceae with particular reference to Mediterranean species Abstract G6mez Garreta, A.: Taxonomy of Phaeophyceae with particular reference to Mediterranean species. ~ Bocconea 16(1): 199-207. 2003. ~ ISSN 1120-4060. At present the taxonomy of Phaeophyceae is based not only on morphological characters, but also in uItrastructural and biochemical characters and in molecular data. Although molecular techniques have allowed us to clariry the taxonomy of brown algae, many problems remain unresolved. The main changes that the taxonomy of Phaeophyceae has undergone in recent years, particularly conceming Mediterranean taxa, and the problems that remain without solu tion are presented. Introduction The c1ass Phaeophyceae contains about 265 genera and 1500-2000 species (Hoek & al. 1995). In the Mediterranean Sea this c1ass are represented by 86 genera and 265 species (Ribera & al. 1992). They are almost ali marine; only a few species live in estuaries and freshwater habitats. Most of the brown algae grow in the eulittoral and the upper sublit toral zones and are dominant members ofthe marine flora in many parts ofthe world, spe cially in cold and temperate waters. The main characteristics of the brown algae are: yellow-brown plastids due to carotenoid pigments, in particular fucoxanthine, in addition to chlorophylls a and c; plas tids with 3-thylakoid lamellae and chloroplast endoplasmic reticulum confluent with nuc1ear envelope; laminaran as food storage; alginic acid, fucoidine and cellulose in the celi walls; mitochondria with tubular cristae; physodes containing phlorotannins; two het erokont lateral flagella only present in reproductive cells. The taxonomy of Phaeophyceae has been based classically on morphological charac ters: construction of the macroscopic plant (haplostichous or filamentous thallus/polystic hous or parenchymatous thallus), type of growth (diffuse growth/meristematic growth), life history (isomorfic/heteromorphic/diplontic) and sexual reproduction (iso-or-anisoga mous/oogamus). -
Supplementary Materials: Figure S1
1 Supplementary materials: Figure S1. Algal communities in Luhuitou reef in rainy season 2016: (A−J) Transect 1, heavily polluted area; (K−M) Transect 2, moderately polluted area. (A) The upper intertidal monodominant community with the dominance of the brown crust alga Neoralfsia expansa; insert: the dominant alga N. expansa. (B) The upper intertidal monodominant community of algal turf, the red alga Polysiphonia howei; insert: the dominant alga P. howei. (C) The upper intertidal monodominant community of algal turf, the green alga Ulva prolifera; insert: the dominant alga U. prolifera. (D) The upper intertidal monodominant algal turf community of the green alga Ulva clathrata; insert: the dominant alga U. clathrata. (E) The upper intertidal bidominant community of the red alga P. howei and the green alga Cladophoropsis sundanensis insert: the dominant alga C. sundanensis. (F) The middle intertidal monodominant community of the red crust alga Hildenbrandia rubra. (G) The middle intertidal monodominant community of the brown crust alga Ralfsia verrucosa. (H) The middle intertidal monodominant algal turf community with the dominance of the red fine filamentous alga Centroceras clavulatum. (I) The lower intertidal bidominant community of the turf-forming red algae C. clavulatum and Jania adhaerens; insert: the dominant alga J. adhaerens. (J) Monodominant community of the red alga Grateloupia filicina densely overgrown with the epiphyte Ceramium cimbricum in the middle part of concrete chute of outlet from fish farm, and bidominant community of the green algae Trichosolen mucronatus and U. flexuosa at marginal parts of the chute; inserts: (a) the dominant U. flexuosa; (b) T. mucronatus; (c) Grateloupia filicina. -
A NEW BROWN ALGAL ORDER, ISHIGEALES (PHAEOPHYCEAE), ESTABLISHED on the BASIS of PLASTID PROTEIN-CODING Rbcl, Psaa, and Psba REGION COMPARISONS1
J. Phycol. 40, 921–936 (2004) r 2004 Phycological Society of America DOI: 10.1111/j.1529-8817.2004.03160.x A NEW BROWN ALGAL ORDER, ISHIGEALES (PHAEOPHYCEAE), ESTABLISHED ON THE BASIS OF PLASTID PROTEIN-CODING rbcL, psaA, AND psbA REGION COMPARISONS1 Ga Youn Cho, Sang Hee Lee, and Sung Min Boo2 Department of Biology, Chungnam National University, Daejon 305-764, Korea The brown algal family Ishigeaceae currently Ishige is a genus of brown algae that contains two includes a single genus, Ishige Yendo, with two spe- species. Both are summer annuals and occur exclu- cies. The relationship of the family to other brown sively in the warm waters of the Pacific Ocean (Yendo algal lineages is less studied in terms of their plastid 1907, Setchell and Gardner 1924, Tseng 1983, Lee ultrastructure and molecular phylogeny. We deter- et al. 2003). The genus is characterized by cylindrical mined the sequences of rbcL from four samples of to foliose thalli, hairs in cryptostomata, uniseriate the two Ishige species and nine putative relatives plurilocular sporangia lacking sterile terminal cells, and the psaAandpsbA sequences from 37 repre- and an isomorphic life history (Yendo 1907, Ajisaka sentatives of the brown algae. Analyses of individual 1989, Tanaka in Hori 1993, Lee et al. 2003). The and combined data sets resulted in similar trees; genus was based on I. okamurae, which was described however, the concatenated data gave greater resolu- from two different forms (filiform and foliose forms) tion and clade support than each individual gene. collected in Shimoda on the Pacific coast of Japan. The In all the phylogenies, the Phaeophyceae was well foliose thalli are considered abnormal branches of the resolved, the Ectocarpales being placed in a termi- filiform type, because the former is commonly epiphy- nal position and the Ishigeaceae ending up in a tic on the latter. -
Life History and Systematic Position of Heteroralfsia Saxicola Gen. Et Comb
Phycologia (1989) Volume 28 (2), 243-251 Life history and systematic position of Heteroralfsia saxicola gen. et comb. nov. (Ralfsiaceae, Phaeophyceae)* HIROSHI KAwAI Department of Botany, Faculty of Science, Hokkaido University, Sapporo, 060 Japan H. KAWAI. 1989. Life history and systematic position of Heteroralfsia saxicola gen. et comb. nov. (Ralfsiaceae, Phaeophyceae). Phycologia 28: 243-251. The phenology, morphology and life history of Saundersella saxicola were studied in culture. At Ohma, Aomori Prefecture, Japan, the species is an annual appearing in March, growing during spring, and maturing in May. In culture, the zoospores show a mediate discal-type of germination, and develop into Ralfsia-like crustose thalli forming intercalary plurilocular sporangia with terminal sterile cells. Erect filamentous thalli develop on the crustose thalli, forming radiate multicellular assimilatory filaments and unilocular sporangia. The following characters of the species suggest its distant systematic relation with Saundersella and rather closer position to Ralfsia and its relatives including Ana/ipus: single sinuate cup-shaped chloroplast without pyrenoid per cell; mediate discal type of germination; and intercalary plurilocular sporangia with terminal sterile cells. Accordingly, a new genus Heterora/fsia to accommodate the species is proposed. INTRODUCTION MATERIALS AND METHODS Saundersella saxicola (Okamura et Yamada) In Field observations and collections of specimens agaki (Inagaki 1958) was originally described as were made at Ohma, Aomori Prefecture facing Gobia saxicola Okamura et Yamada (Yamada the Tsugaru Strait (41029'N, 140055'E) on 23 May 1928). Yamada (1928) placed the species in the 1984, 10 February, 21 March 1985, 27 April, 12 genus Gobia (Reinke 1889) based on its mor May, 6 September, 3 December 1986, and 2 phological resemblance to Gobia simplex Setch March 1987. -
Biological Recording in 2019 Outer Hebrides Biological Recording
Outer Hebrides Biological Recording Discovering our Natural Heritage Biological Recording in 2019 Outer Hebrides Biological Recording Discovering our Natural Heritage Biological Recording in 2019 Robin D Sutton This publication should be cited as: Sutton, Robin D. Discovering our Natural Heritage - Biological Recording in 2019. Outer Hebrides Biological Recording, 2020 © Outer Hebrides Biological Recording 2020 © Photographs and illustrations copyright as credited 2020 Published by Outer Hebrides Biological Recording, South Uist, Outer Hebrides ISSN: 2632-3060 OHBR are grateful for the continued support of NatureScot 1 Contents Introduction 3 Summary of Records 5 Insects and other Invertebrates 8 Lepidoptera 9 Butterflies 10 Moths 16 Insects other than Lepidoptera 20 Hymenoptera (bees, wasps etc) 22 Trichoptera (caddisflies) 24 Diptera (true flies) 26 Coleopotera (beetles) 28 Odonata (dragonflies & damselflies) 29 Hemiptera (bugs) 32 Other Insect Orders 33 Invertebrates other than Insects 35 Terrestrial & Freshwater Invertebrates 35 Marine Invertebrates 38 Vertebrates 40 Cetaceans 41 Other Mammals 42 Amphibians & Reptiles 43 Fish 44 Fungi & Lichens 45 Plants etc. 46 Cyanobacteria 48 Marine Algae - Seaweeds 48 Terrestrial & Freshwater Algae 49 Hornworts, Liverworts & Mosses 51 Ferns 54 Clubmosses 55 Conifers 55 Flowering Plants 55 Sedges 57 Rushes & Woodrushes 58 Orchids 59 Grasses 60 Invasive Non-native Species 62 2 Introduction This is our third annual summary of the biological records submitted by residents and visitors, amateur naturalists, professional scientists and anyone whose curiosity has been stirred by observing the wonderful wildlife of the islands. Each year we record an amazing diversity of species from the microscopic animals and plants found in our lochs to the wild flowers of the machair and the large marine mammals that visit our coastal waters. -
Molecular Phylogeny of Crustose Brown Algae (Ralfsiales, Phaeophyceae) Inferred from Rbcl Sequences Resulting in the Proposal for Neoralfsiaceae Fam
Phycologia (2007) Volume 46 (4), 456–466 Published 5 July 2007 Molecular phylogeny of crustose brown algae (Ralfsiales, Phaeophyceae) inferred from rbcL sequences resulting in the proposal for Neoralfsiaceae fam. nov. 1 1 1 2 3 PHAIK-EEM LIM *, MOTOHIRO SAKAGUCHI ,TAKEAKI HANYUDA ,KAZUHIRO KOGAME ,SIEW-MOI PHANG AND 1 HIROSHI KAWAI 1Kobe University Research Center for Inland Seas, Rokkodai, Kobe 657-8501, Japan 2Division of Biological Sciences, Graduate School of Science, Hokkaido University, Sapporo 060-0810, Japan 3Institute of Biological Sciences, University of Malaya, 50603 Kuala Lumpur, Malaysia P.-E. LIM,M.SAKAGUCHI,T.HANYUDA,K.KOGAME, S.-M. PHANG AND H. KAWAI. 2007. Molecular phylogeny of crustose brown algae (Ralfsiales, Phaeophyceae) inferred from rbcL sequences resulting in the proposal for Neoralfsiaceae fam. nov. Phycologia 46: 456–466. DOI: 10.2116/06-90.1 The order Ralfsiales was established to accommodate the brown algal taxa having a crustose thallus, an isomorphic life history, discoid early development of the thallus and containing a single, plate-shaped chloroplast without pyrenoids in each cell. However, the validity of the order has been questioned by many researchers because several exceptions to these criteria have been found within the order. Molecular phylogenetic analysis of the taxa assigned to the order, using rbcL DNA sequences, reveals that Ralfsiales is not a monophyletic group but is separated into two major groups, excluding Lithodermataceae, which were not included in the present analysis: clade I, comprising the members of Ralfsiaceae, Mesosporaceae, Analipus japonicus and Heteroralfsia saxicola; and clade II, consisting of Diplura species, sister to the Ishigeales clade.