DOCSLIB.ORG

Ui Annotated Key to the Identification of Commonly Occurring and Dominant Genera of Algae Observed in the Phytoplankton of the United States

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
Ui Annotated Key to the Identification of Commonly Occurring and Dominant Genera of Algae Observed in the Phytoplankton of the United States ui Annotated Key to the Identification of Commonly Occurring and Dominant Genera of Algae Observed in the Phytoplankton of the United States GEOLOGICAL SURVEY WATER-SUPPLY PAPER 2079 An Annotated Key to the Identification of Commonly Occurring and Dominant Genera of Algae Observed in the Phytoplankton of the United States By PHILLIP E. GREESON GEOLOGICAL SURVEY WATER-SUPPLY PAPER 2079 UNITED STATES GOVERNMENT PRINTING OFFICE, WASHINGTON: 1982 UNITED STATES DEPARTMENT OF THE INTERIOR JAMES G. WATT, Secretary GEOLOGICAL SURVEY Dallas L. Peck, Director Library of Congress catalog-card No. 81-600168 For sale by the Superintendent of Documents, U.S. Government Printing Office Washington, D.C. 20402 CONTENTS Page Abstract_______________________________________ 1 Introduction _________________________________________ 1 Acknowledgment _ ___________________________________ 3 Taxonomic key to the identification of commonly occurring and dominant genera of algae observed in the phytoplankton of the United States ___________ 9 Descriptions of the genera _______________________________ 14 Chlorophyta ______________________________________ 14 Actinastrum __________________________________________________ 14 Ankistrodesmus _______________________________________________ 16 Chlamydomonas _______________________________________________ 18 Chodatella ____________________________________________________ 20 Coelastrum ___________________________________________________ 22 Cosmarium ___________________________________________________ 24 Crucigenia ___________________________________________________ 26 Dictyosphaerium ______________________________________________ 28 Golenkinia ___________________________________________________ 30 Kirchneriella _________________________________________________ 32 Micractinium _________________________________________________ 34 Oocystis _____________________________________________________ 36 Pandorina ___________________________________________________ 38 Pediastrum ___________________________________________________ 40 Scenedesmus __________________________________________________ 42 Schroederia __________________________________________________ 44 Selenastrum __________________________________ 46 Sphaerocystis ___________________________________ 48 Tetraedron ____________________________________ 50 Tetrastrum ___________________________________ 52 Euglenophyta _____________________________________ 54 Euglena _____________________________________ 54 Trachelomonas _________________________________ 56 Chrysophyta ______________________________________ 58 Achnanthes ___________________________________ 58 Amphora ______________________________________ 60 Asterionella __________________________________ 62 Cocconeis ____________________________________ 64 Cydotella ____________________________________ 66 Cymbella _____________________________________ 68 Diatoma _____________________________________ 70 Dinobryon ___________________________________ 72 Epithemia _____________________________________ 74 Eunotia ______________________________________ 76 Fragilaria ___________________________________ 78 Gomphonema ___________________________________ 80 Gyrosigma ___________________________________ 82 in IV CONTENTS Page Descriptions of the genera-Continued Chrysophyta- Continued Melosira _____________________________________________________ 84 Navicula _____________________________________________________ 86 Nitzschia ____________________________________________________ 88 Pinnularia ___________________________________________________ 90 Rhoicosphenia ________________________________________________ 92 Stephanodiscus ________________________________________________ 94 Surirella _____________________________________________________ 96 Synedra _____________________________________________________ 98 Tabellaria ____________________________________________________ 100 Pyrrophyta ___________________________________ 102 Glenodinium _________________________________________________ 102 Peridinium ___________________________________________________ 104 Cryptophyta ____________________________________ 106 Chroomonas __________________________________________________ 106 Cryptomonas _________________________________________________ 108 Cyanophyta ___________________________________ 110 Agmenellum __________________________________________________ 110 Anabaena ____________________________________________________ 112 Anacystis ____________________________________________________ 114 Aphanizomenon ________________________________ 116 Cylindrospermum _______________________________ 118 Gomphosphaeria ________________________________ 120 Lyngbya _____________________________________ 122 Oscillatoria ___________________________________ 124 Phormidum ___________________________________ 126 Raphidiopsis __________________________________ 128 Glossary_________________________________________ 130 Selected references ___________________________________ 133 ILLUSTRATIONS FIGURES 1-4. Drawings of: 1. Ac^mosfrram _______________________ 15 2. Ankistrodesmus _____________________ 17 3. Chlamydomonas _____________________ 19 4. Chodatella _______________________ 21 5. Photomicrograph of Coelastrum _________________ 23 6, 7. Drawings of: 6. Cosmarium ________________________ 25 7. Crucigenia _________________________ 27 8. Photomicrograph of Dictyosphaerium _____________ 29 9, 10. Drawings of: 9. Golenkinia _________________________ 31 10. Kirchneriella _______________________ 33 11, 12. Photomicrographs of: 11. Micractinium _______________________ 35 12. Oocystis __________________________ 37 13. Drawing of Pandorina _______________________ 39 CONTENTS FIGURES 14, 15. Photomicrographs of: 14. Pediastrum ___________________________________ 41 15. Scenedesrmcs __________________________________ 43 16-20. Drawings of: 16. Schroederia ___________________________________ 45 17. Selenastrum __________________________________ 47 18. Sphaerocystis _________________________________ 49 19. Tetraedron ___________________________________ 51 20. Tetrastrum ___________________________________ 53 21-25. Photomicrographs of: 21. Euglena ______________________________________ 55 22. Trachelomonas ________________________________ 57 23. Achnanthes ___________________________________ 59 24. Amphora _____________________________________ 61 25. Asterionella ___________________________________ 63 26, 27. Scanning electronmicrographs of: 26. Cocconeis _____________________________________ 65 27. Cydotella _____________________________________ 67 28-30. Photomicrographs of: 28. Cymbella _____________________________________ 69 29. Diatoma ______________________________________ 71 30. Dinobryon ____________________________________ 73 31. Scanning electronmicrograph of Epithemia ________________ 75 32. Drawing of Eunotia ___________________________________ 77 33-35. Photomicrographs of: 33. Fragilaria ____________________________________ 79 34. Gompkonema __________________________________ 81 35. Gyrosigma ____________________________________ 83 36. Scanning electronmicrograph of Melosira __________________ 85 37-40. Photomicrographs of: 37. Navicula _____________________________________ 87 38. Nitzschia ________________________ 89 39. Pinnularia _______________________ 91 40. Rhoicosphenia _______________________ 93 41. Scanning electronmicrograph of Stephanodiseus _______ 95 42. Photomicrograph of Surirella __________________ 97 43. Drawing of Synedra ________________________ 99 44, 45. Photomicrographs of: 44. Tabellaria _______________________ 101 45. Glenodinium _______________________ 103 46-48. Drawings of: 46. Peridinium ________________________ 105 47. Chroomonas ________________________ 107 48. Cryptomonas ______________________ 109 49-52. Photomicrographs of: 49. Agmenellum _______________________ 111 50. Anabaena ________________________ 113 51. Anacystis __________________________ 115 52. Aphanizomenon ________________ ____ 117 53, 54. Drawings of: 53. Cylindrospermum ____________________ 119 54. Gomphosphaeria ____________________ 121 VI CONTENTS Page FIGURES 55, 56. Photomicrographs of: 55. Lyngbya ____________________ _ 123 56. Oscillatoria ___________________________________ 125 57, 58. Drawings of: 57. Phormidium _____________________ _ 127 58. Raphidiopsis ________________ 129 TABLES TABLE 1. List of algal genera observed in the phytoplankton of the United States __________________________________ 4 2. Commonly occurring genera of algae observed in the phytoplankton of the United States ____________ __ 6 3. Dominant genera of algae observed in the phytoplankton of the United States __________________________________ 7 4. Taxonomic groupings of commonly occurring and dominant genera of algae of the United States ______________ _ 8 A Note on the Illustrations in this; Book:' The drawings of alga genera shown in figures redrawn from originals in Smith, 1950, pub­, lished by the McGraw-Hill Book Company and are shown here under license from McGraw-Hill ine scanning electron-micrographs were made by Bruce W. Lium and W. Thomas Shoaf III, U.b. Geological Survey. The photomicroaraphs were made by the author. " AN ANNOTATED KEY TO THE IDENTIFICATION OF COMMONLY OCCURRING AND DOMINANT GENERA OF ALGAE OBSERVED IN THE PHYTOPLANKTON OF THE UNITED STATES By PHILLIP E. GREESON ABSTRACT In early 1979, a retrieval was made for all phytoplankton data contained in the com­ puterized data file of the U. S. Geological Survey. The retrieval revealed the analytical results
Load more

Recommended publications
  • Variation in Snow Algae Blooms in the Coast Range of British Columbia
    ORIGINAL RESEARCH published: 15 April 2020 doi: 10.3389/fmicb.2020.00569 Variation in Snow Algae Blooms in the Coast Range of British Columbia Casey B. Engstrom, Kurt M. Yakimovich and Lynne M. Quarmby* Department of Molecular Biology and Biochemistry, Simon Fraser University, Burnaby, BC, Canada Snow algae blooms cover vast areas of summer snowfields worldwide, reducing albedo and increasing snow melt. Despite their global prevalence, little is known about the algae species that comprise these blooms. We used 18S and rbcL metabarcoding and light microscopy to characterize algae species composition in 31 snow algae blooms in the Coast Range of British Columbia, Canada. This study is the first to thoroughly document regional variation between blooms. We found all blooms were dominated by the genera Sanguina, Chloromonas, and Chlainomonas. There was considerable variation between blooms, most notably species assemblages above treeline were distinct from forested sites. In contrast to previous studies, the snow algae genus Chlainomonas was abundant and widespread in snow algae blooms. We found few taxa using traditional 18S metabarcoding, but the high taxonomic resolution of rbcL revealed Edited by: substantial diversity, including OTUs that likely represent unnamed species of snow algae. David Anthony Pearce, These three cross-referenced datasets (rbcL, 18S, and microscopy) reveal that alpine Northumbria University, United Kingdom snow algae blooms are more diverse than previously thought, with different species of Reviewed by: algae dominating different elevations. Stefanie Lutz, Keywords: snow, algae, microbiome, amplicon, rbcL, 18S, alpine, metabarcoding Agroscope, Switzerland Hanzhi Lin, University of Maryland Center for Environmental Science (UMCES), 1. INTRODUCTION United States *Correspondence: Each summer, vast areas of snow surface are colored red by snow algae blooms in polar and Lynne M.
    [Show full text]
  • Flagellar, Cellular and Organismal Polarity in Volvox Carteri
    SUNY Geneseo KnightScholar Biology Faculty/Staff Works Department of Biology 1993 Flagellar, cellular and organismal polarity in Volvox carteri Harold J. Hoops SUNY Geneseo Follow this and additional works at: https://knightscholar.geneseo.edu/biology Recommended Citation Hoops H.J. (1993) Flagellar, cellular and organismal polarity in Volvox carteri. Journal of Cell Science 104: 105-117. doi: This Article is brought to you for free and open access by the Department of Biology at KnightScholar. It has been accepted for inclusion in Biology Faculty/Staff Works by an authorized administrator of KnightScholar. For more information, please contact [email protected]. Journal of Cell Science 104, 105-117 (1993) 105 Printed in Great Britain © The Company of Biologists Limited 1993 Flagellar, cellular and organismal polarity in Volvox carteri Harold J. Hoops Department of Biology, 1 Circle Drive, SUNY-Genesco, Genesco, NY 14454, USA SUMMARY It has previously been shown that the flagellar appara- reorientation of flagellar apparatus components. This tus of the mature Volvox carteri somatic cell lacks the reorientation also results in the movement of the eye- 180˚ rotational symmetry typical of most unicellular spot from a position nearer one of the flagellar bases to green algae. This asymmetry has been postulated to be a position approximately equidistant between them. By the result of rotation of each half of the flagellar appa- analogy to Chlamydomonas, the anti side of the V. car - ratus. Here it is shown that V. carteri axonemes contain teri somatic cell faces the spheroid anterior, the syn side polarity markers that are similar to those found in faces the spheroid posterior.
    [Show full text]
  • Supplementary Materials: Figure S1
    1 Supplementary materials: Figure S1. Coral reef in Xiaodong Hai locality: (A) The southern part of the locality; (B) Reef slope; (C) Reef-flat, the upper subtidal zone; (D) Reef-flat, the lower intertidal zone. Figure S2. Algal communities in Xiaodong Hai at different seasons of 2016–2019: (A) Community of colonial blue-green algae, transect 1, the splash zone, the dry season of 2019; (B) Monodominant community of the red crust alga Hildenbrandia rubra, transect 3, upper intertidal, the rainy season of 2016; (C) Monodominant community of the red alga Gelidiella bornetii, transect 3, upper intertidal, the rainy season of 2018; (D) Bidominant community of the red alga Laurencia decumbens and the green Ulva clathrata, transect 3, middle intertidal, the dry season of 2019; (E) Polydominant community of algal turf with the mosaic dominance of red algae Tolypiocladia glomerulata (inset a), Palisada papillosa (center), and Centroceras clavulatum (inset b), transect 2, middle intertidal, the dry season of 2019; (F) Polydominant community of algal turf with the mosaic dominance of the red alga Hypnea pannosa and green Caulerpa chemnitzia, transect 1, lower intertidal, the dry season of 2016; (G) Polydominant community of algal turf with the mosaic dominance of brown algae Padina australis (inset a) and Hydroclathrus clathratus (inset b), the red alga Acanthophora spicifera (inset c) and the green alga Caulerpa chemnitzia, transect 1, lower intertidal, the dry season of 2019; (H) Sargassum spp. belt, transect 1, upper subtidal, the dry season of 2016. 2 3 Table S1. List of the seaweeds of Xiaodong Hai in 2016-2019. The abundance of taxa: rare sightings (+); common (++); abundant (+++).
    [Show full text]
  • The Hawaiian Freshwater Algae Biodiversity Survey
    Sherwood et al. BMC Ecology 2014, 14:28 http://www.biomedcentral.com/1472-6785/14/28 RESEARCH ARTICLE Open Access The Hawaiian freshwater algae biodiversity survey (2009–2014): systematic and biogeographic trends with an emphasis on the macroalgae Alison R Sherwood1*, Amy L Carlile1,2, Jessica M Neumann1, J Patrick Kociolek3, Jeffrey R Johansen4, Rex L Lowe5, Kimberly Y Conklin1 and Gernot G Presting6 Abstract Background: A remarkable range of environmental conditions is present in the Hawaiian Islands due to their gradients of elevation, rainfall and island age. Despite being well known as a location for the study of evolutionary processes and island biogeography, little is known about the composition of the non-marine algal flora of the archipelago, its degree of endemism, or affinities with other floras. We conducted a biodiversity survey of the non-marine macroalgae of the six largest main Hawaiian Islands using molecular and microscopic assessment techniques. We aimed to evaluate whether endemism or cosmopolitanism better explain freshwater algal distribution patterns, and provide a baseline data set for monitoring future biodiversity changes in the Hawaiian Islands. Results: 1,786 aquatic and terrestrial habitats and 1,407 distinct collections of non-marine macroalgae were collected from the islands of Kauai, Oahu, Molokai, Maui, Lanai and Hawaii from the years 2009–2014. Targeted habitats included streams, wet walls, high elevation bogs, taro fields, ditches and flumes, lakes/reservoirs, cave walls and terrestrial areas. Sites that lacked freshwater macroalgae were typically terrestrial or wet wall habitats that were sampled for diatoms and other microalgae. Approximately 50% of the identifications were of green algae, with lesser proportions of diatoms, red algae, cyanobacteria, xanthophytes and euglenoids.
    [Show full text]
  • JJB 079 255 261.Pdf
    植物研究雑誌 J. J. Jpn. Bo t. 79:255-261 79:255-261 (2004) Phylogenetic Phylogenetic Analysis of the Tetrasporalean Genus Asterococcus Asterococcus (Chlorophyceae) sased on 18S 18S Ribosomal RNA Gene Sequences Atsushi Atsushi NAKAZA WA and Hisayoshi NOZAKI Department Department of Biological Sciences ，Graduate School of Science ，University of Tokyo ， Hongo Hongo 7-3-1 ，Bunkyo-ku ，Tokyo ，113 ・0033 JAPAN (Received (Received on October 30 ，2003) Nucleotide Nucleotide sequences (1642 bp) from 18S ribosomal RNA genes were analyzed for 100 100 strains of the clockwise (CW) group of Chlorophyceae to deduce the phylogenetic position position of the immotile colonial genus Asterococcus Scherffel ， which is classified in the Palmellopsidaceae Palmellopsidaceae of Tetrasporales. We found that the genus Asterococcus and two uni- cellular ， volvocalean genera ， Lobochlamys Proschold & al. and Oogamochlamys Proschold Proschold & al.， formed a robust monophyletic group ， which was separated from two te 位asporalean clades ， one composed of Tetraspora Link and Paulschulzia Sk 吋a and the other other containing the other palme l1 0psidacean genus Chlamydocaps αFot t. Therefore ， the Tetrasporales Tetrasporales in the CW group is clearly polyphyletic and taxonomic revision of the order order and the Palmellopsidaceae is needed. Key words: 18S rRNA gene ，Asterococcus ，Palmellopsidaceae ，phylogeny ，Tetraspor- ales. ales. Asterococcus Asterococcus Scherffel (1908) is a colo- Recently ， Ettl and Gartner (1 988) included nial nial green algal genus that is characterized Asterococcus in the family Palmello- by an asteroid chloroplast in the cell and psidaceae ， because cells of this genus have swollen swollen gelatinous layers surrounding the contractile vacuoles and lack pseudoflagella immotile immotile colony (e. g.
    [Show full text]
  • Phylogenetic Placement of Botryococcus Braunii (Trebouxiophyceae) and Botryococcus Sudeticus Isolate Utex 2629 (Chlorophyceae)1
    J. Phycol. 40, 412–423 (2004) r 2004 Phycological Society of America DOI: 10.1046/j.1529-8817.2004.03173.x PHYLOGENETIC PLACEMENT OF BOTRYOCOCCUS BRAUNII (TREBOUXIOPHYCEAE) AND BOTRYOCOCCUS SUDETICUS ISOLATE UTEX 2629 (CHLOROPHYCEAE)1 Hoda H. Senousy, Gordon W. Beakes, and Ethan Hack2 School of Biology, University of Newcastle upon Tyne, Newcastle upon Tyne NE1 7RU, UK The phylogenetic placement of four isolates of a potential source of renewable energy in the form of Botryococcus braunii Ku¨tzing and of Botryococcus hydrocarbon fuels (Metzger et al. 1991, Metzger and sudeticus Lemmermann isolate UTEX 2629 was Largeau 1999, Banerjee et al. 2002). The best known investigated using sequences of the nuclear small species is Botryococcus braunii Ku¨tzing. This organism subunit (18S) rRNA gene. The B. braunii isolates has a worldwide distribution in fresh and brackish represent the A (two isolates), B, and L chemical water and is occasionally found in salt water. Although races. One isolate of B. braunii (CCAP 807/1; A race) it grows relatively slowly, it sometimes forms massive has a group I intron at Escherichia coli position 1046 blooms (Metzger et al. 1991, Tyson 1995). Botryococcus and isolate UTEX 2629 has group I introns at E. coli braunii strains differ in the hydrocarbons that they positions 516 and 1512. The rRNA sequences were accumulate, and they have been classified into three aligned with 53 previously reported rRNA se- chemical races, called A, B, and L. Strains in the A race quences from members of the Chlorophyta, includ- accumulate alkadienes; strains in the B race accumulate ing one reported for B.
    [Show full text]
  • Old Woman Creek National Estuarine Research Reserve Management Plan 2011-2016
    Old Woman Creek National Estuarine Research Reserve Management Plan 2011-2016 April 1981 Revised, May 1982 2nd revision, April 1983 3rd revision, December 1999 4th revision, May 2011 Prepared for U.S. Department of Commerce Ohio Department of Natural Resources National Oceanic and Atmospheric Administration Division of Wildlife Office of Ocean and Coastal Resource Management 2045 Morse Road, Bldg. G Estuarine Reserves Division Columbus, Ohio 1305 East West Highway 43229-6693 Silver Spring, MD 20910 This management plan has been developed in accordance with NOAA regulations, including all provisions for public involvement. It is consistent with the congressional intent of Section 315 of the Coastal Zone Management Act of 1972, as amended, and the provisions of the Ohio Coastal Management Program. OWC NERR Management Plan, 2011 - 2016 Acknowledgements This management plan was prepared by the staff and Advisory Council of the Old Woman Creek National Estuarine Research Reserve (OWC NERR), in collaboration with the Ohio Department of Natural Resources-Division of Wildlife. Participants in the planning process included: Manager, Frank Lopez; Research Coordinator, Dr. David Klarer; Coastal Training Program Coordinator, Heather Elmer; Education Coordinator, Ann Keefe; Education Specialist Phoebe Van Zoest; and Office Assistant, Gloria Pasterak. Other Reserve staff including Dick Boyer and Marje Bernhardt contributed their expertise to numerous planning meetings. The Reserve is grateful for the input and recommendations provided by members of the Old Woman Creek NERR Advisory Council. The Reserve is appreciative of the review, guidance, and council of Division of Wildlife Executive Administrator Dave Scott and the mapping expertise of Keith Lott and the late Steve Barry.
    [Show full text]
  • The Plankton Lifeform Extraction Tool: a Digital Tool to Increase The
    Discussions https://doi.org/10.5194/essd-2021-171 Earth System Preprint. Discussion started: 21 July 2021 Science c Author(s) 2021. CC BY 4.0 License. Open Access Open Data The Plankton Lifeform Extraction Tool: A digital tool to increase the discoverability and usability of plankton time-series data Clare Ostle1*, Kevin Paxman1, Carolyn A. Graves2, Mathew Arnold1, Felipe Artigas3, Angus Atkinson4, Anaïs Aubert5, Malcolm Baptie6, Beth Bear7, Jacob Bedford8, Michael Best9, Eileen 5 Bresnan10, Rachel Brittain1, Derek Broughton1, Alexandre Budria5,11, Kathryn Cook12, Michelle Devlin7, George Graham1, Nick Halliday1, Pierre Hélaouët1, Marie Johansen13, David G. Johns1, Dan Lear1, Margarita Machairopoulou10, April McKinney14, Adam Mellor14, Alex Milligan7, Sophie Pitois7, Isabelle Rombouts5, Cordula Scherer15, Paul Tett16, Claire Widdicombe4, and Abigail McQuatters-Gollop8 1 10 The Marine Biological Association (MBA), The Laboratory, Citadel Hill, Plymouth, PL1 2PB, UK. 2 Centre for Environment Fisheries and Aquacu∑lture Science (Cefas), Weymouth, UK. 3 Université du Littoral Côte d’Opale, Université de Lille, CNRS UMR 8187 LOG, Laboratoire d’Océanologie et de Géosciences, Wimereux, France. 4 Plymouth Marine Laboratory, Prospect Place, Plymouth, PL1 3DH, UK. 5 15 Muséum National d’Histoire Naturelle (MNHN), CRESCO, 38 UMS Patrinat, Dinard, France. 6 Scottish Environment Protection Agency, Angus Smith Building, Maxim 6, Parklands Avenue, Eurocentral, Holytown, North Lanarkshire ML1 4WQ, UK. 7 Centre for Environment Fisheries and Aquaculture Science (Cefas), Lowestoft, UK. 8 Marine Conservation Research Group, University of Plymouth, Drake Circus, Plymouth, PL4 8AA, UK. 9 20 The Environment Agency, Kingfisher House, Goldhay Way, Peterborough, PE4 6HL, UK. 10 Marine Scotland Science, Marine Laboratory, 375 Victoria Road, Aberdeen, AB11 9DB, UK.
    [Show full text]
  • Diversity of the Genera of Chlorophyta in Fresh Waters of District Swat Nwfp
    Pak. J. Bot., 43(3): 1759-1764, 2011. DIVERSITY OF THE GENERA OF CHLOROPHYTA IN FRESH WATERS OF DISTRICT SWAT N.W.F.P PAKISTAN ASGHAR ALI1, ZABTA KHAN SHINWARI2 AND MUHAMMAD KHAN LEGHARI3 1Department of Botany, G.P.G. Jahanzeb College Swat, Pakistan 2Department of Biotechnology, Quaid-e-Azam University Islamabad, Pakistan 3Pakistan Museum of Natural History, Islamabad, Pakistan Abstract Fifty six genera of green algae were collected from ten different localities of District Swat, belonging to 25 families and 9 genera of Chlorophyta from December 2006 August 2008. Family Oocystaceae with 39 species was most commonly found, next to it were families Scenedesmaceae with18 species and Desmidiaceae with 14 species. The genera Oocystis and Tetraedron were represented by 10 species and Cosmarium with 7 species occurred most commonly. Among the recorded genera 13 (23.2%) were Unicellular, 25 (44.6%) were Colonial, 9 (16.7%) were Unbranched filamentous, 4 (7.1%) were branched filamentous, 1 (1.7%) was Pseudofilamentous, 1 (1.7%) was Mesh-like, 2 (3.5%) were Heterotrichous and 1 (1.7%) was with Irregular amorphous thallus. Highest proportion of Chlorophycean members was recorded from Kanju area 89 and lowest was recorded from Kalam 69. Introduction Results and Discussion The Valley of Swat a part of Malakand Division covers Fifty six genera containing 138 species belonging to 25 5737 square kilometers (estimated). The elevation of the families and 9 orders have been collected from various fresh valley is 630 to 3000m above sea level. Swat is located at a water habitats. Collected algal members were identified up to distance of 170 km from Peshawar and 270 km from Federal species level.
    [Show full text]
  • Altitudinal Zonation of Green Algae Biodiversity in the French Alps
    Altitudinal Zonation of Green Algae Biodiversity in the French Alps Adeline Stewart, Delphine Rioux, Fréderic Boyer, Ludovic Gielly, François Pompanon, Amélie Saillard, Wilfried Thuiller, Jean-Gabriel Valay, Eric Marechal, Eric Coissac To cite this version: Adeline Stewart, Delphine Rioux, Fréderic Boyer, Ludovic Gielly, François Pompanon, et al.. Altitu- dinal Zonation of Green Algae Biodiversity in the French Alps. Frontiers in Plant Science, Frontiers, 2021, 12, pp.679428. 10.3389/fpls.2021.679428. hal-03258608 HAL Id: hal-03258608 https://hal.archives-ouvertes.fr/hal-03258608 Submitted on 11 Jun 2021 HAL is a multi-disciplinary open access L’archive ouverte pluridisciplinaire HAL, est archive for the deposit and dissemination of sci- destinée au dépôt et à la diffusion de documents entific research documents, whether they are pub- scientifiques de niveau recherche, publiés ou non, lished or not. The documents may come from émanant des établissements d’enseignement et de teaching and research institutions in France or recherche français ou étrangers, des laboratoires abroad, or from public or private research centers. publics ou privés. fpls-12-679428 June 4, 2021 Time: 14:28 # 1 ORIGINAL RESEARCH published: 07 June 2021 doi: 10.3389/fpls.2021.679428 Altitudinal Zonation of Green Algae Biodiversity in the French Alps Adeline Stewart1,2,3, Delphine Rioux3, Fréderic Boyer3, Ludovic Gielly3, François Pompanon3, Amélie Saillard3, Wilfried Thuiller3, Jean-Gabriel Valay2, Eric Maréchal1* and Eric Coissac3* on behalf of The ORCHAMP Consortium 1 Laboratoire de Physiologie Cellulaire et Végétale, CEA, CNRS, INRAE, IRIG, Université Grenoble Alpes, Grenoble, France, 2 Jardin du Lautaret, CNRS, Université Grenoble Alpes, Grenoble, France, 3 Université Grenoble Alpes, Université Savoie Mont Blanc, CNRS, LECA, Grenoble, France Mountain environments are marked by an altitudinal zonation of habitat types.
    [Show full text]
  • Within-Arctic Horizontal Gene Transfer As a Driver of Convergent Evolution in Distantly Related 1 Microalgae 2 Richard G. Do
    bioRxiv preprint doi: https://doi.org/10.1101/2021.07.31.454568; this version posted August 2, 2021. The copyright holder for this preprint (which was not certified by peer review) is the author/funder, who has granted bioRxiv a license to display the preprint in perpetuity. It is made available under aCC-BY-NC-ND 4.0 International license. 1 Within-Arctic horizontal gene transfer as a driver of convergent evolution in distantly related 2 microalgae 3 Richard G. Dorrell*+1,2, Alan Kuo3*, Zoltan Füssy4, Elisabeth Richardson5,6, Asaf Salamov3, Nikola 4 Zarevski,1,2,7 Nastasia J. Freyria8, Federico M. Ibarbalz1,2,9, Jerry Jenkins3,10, Juan Jose Pierella 5 Karlusich1,2, Andrei Stecca Steindorff3, Robyn E. Edgar8, Lori Handley10, Kathleen Lail3, Anna Lipzen3, 6 Vincent Lombard11, John McFarlane5, Charlotte Nef1,2, Anna M.G. Novák Vanclová1,2, Yi Peng3, Chris 7 Plott10, Marianne Potvin8, Fabio Rocha Jimenez Vieira1,2, Kerrie Barry3, Joel B. Dacks5, Colomban de 8 Vargas2,12, Bernard Henrissat11,13, Eric Pelletier2,14, Jeremy Schmutz3,10, Patrick Wincker2,14, Chris 9 Bowler1,2, Igor V. Grigoriev3,15, and Connie Lovejoy+8 10 11 1 Institut de Biologie de l'ENS (IBENS), Département de Biologie, École Normale Supérieure, CNRS, 12 INSERM, Université PSL, 75005 Paris, France 13 2CNRS Research Federation for the study of Global Ocean Systems Ecology and Evolution, 14 FR2022/Tara Oceans GOSEE, 3 rue Michel-Ange, 75016 Paris, France 15 3 US Department of Energy Joint Genome Institute, Lawrence Berkeley National Laboratory, 1 16 Cyclotron Road, Berkeley,
    [Show full text]
  • Lateral Gene Transfer of Anion-Conducting Channelrhodopsins Between Green Algae and Giant Viruses
    bioRxiv preprint doi: https://doi.org/10.1101/2020.04.15.042127; this version posted April 23, 2020. The copyright holder for this preprint (which was not certified by peer review) is the author/funder, who has granted bioRxiv a license to display the preprint in perpetuity. It is made available under aCC-BY-NC-ND 4.0 International license. 1 5 Lateral gene transfer of anion-conducting channelrhodopsins between green algae and giant viruses Andrey Rozenberg 1,5, Johannes Oppermann 2,5, Jonas Wietek 2,3, Rodrigo Gaston Fernandez Lahore 2, Ruth-Anne Sandaa 4, Gunnar Bratbak 4, Peter Hegemann 2,6, and Oded 10 Béjà 1,6 1Faculty of Biology, Technion - Israel Institute of Technology, Haifa 32000, Israel. 2Institute for Biology, Experimental Biophysics, Humboldt-Universität zu Berlin, Invalidenstraße 42, Berlin 10115, Germany. 3Present address: Department of Neurobiology, Weizmann 15 Institute of Science, Rehovot 7610001, Israel. 4Department of Biological Sciences, University of Bergen, N-5020 Bergen, Norway. 5These authors contributed equally: Andrey Rozenberg, Johannes Oppermann. 6These authors jointly supervised this work: Peter Hegemann, Oded Béjà. e-mail: [email protected] ; [email protected] 20 ABSTRACT Channelrhodopsins (ChRs) are algal light-gated ion channels widely used as optogenetic tools for manipulating neuronal activity 1,2. Four ChR families are currently known. Green algal 3–5 and cryptophyte 6 cation-conducting ChRs (CCRs), cryptophyte anion-conducting ChRs (ACRs) 7, and the MerMAID ChRs 8. Here we 25 report the discovery of a new family of phylogenetically distinct ChRs encoded by marine giant viruses and acquired from their unicellular green algal prasinophyte hosts.
    [Show full text]