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Occurrence of Crassulacean Acid Metabolism in Colombian Orchids

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applyparastyle “fig//caption/p[1]” parastyle “FigCapt” Botanical Journal of the Linnean Society, 2020, XX, 1–47. With 4 figures. Downloaded from https://academic.oup.com/botlinnean/article-abstract/doi/10.1093/botlinnean/boaa027/5868749 by University of California, Riverside user on 08 July 2020 Occurrence of crassulacean acid metabolism in Colombian orchids determined by leaf carbon isotope ratios Keywords=Keywords=Keywords_First=Keywords 1, , 1,2 2,3 HeadA=HeadB=HeadA=HeadB/HeadA GERMÁN TORRES-MORALES * , ELOISA LASSO , KATIA SILVERA , 2 2 HeadB=HeadC=HeadB=HeadC/HeadB BENJAMIN L. TURNER and KLAUS WINTER HeadC=HeadD=HeadC=HeadD/HeadC 1Department of Biological Sciences, Universidad de los Andes, Bogotá, Colombia Extract3=HeadA=Extract1=HeadA 2Smithsonian Tropical Research Institute, Balboa, Ancón, Republic of Panama REV_HeadA=REV_HeadB=REV_HeadA=REV_HeadB/HeadA 3Department of Botany & Plant Sciences, University of California, Riverside, CA 92521, USA REV_HeadB=REV_HeadC=REV_HeadB=REV_HeadC/HeadB Received 19 July 2019; revised 22 November 2019; accepted for publication 29 March 2020 REV_HeadC=REV_HeadD=REV_HeadC=REV_HeadD/HeadC REV_Extract3=REV_HeadA=REV_Extract1=REV_HeadA BOR_HeadA=BOR_HeadB=BOR_HeadA=BOR_HeadB/HeadA Many Orchidaceae, especially those occupying periodically dry, epiphytic microhabitats in the humid tropics, are BOR_HeadB=BOR_HeadC=BOR_HeadB=BOR_HeadC/HeadB believed to engage in the water-conserving crassulacean acid metabolism (CAM) photosynthetic pathway. However, BOR_HeadC=BOR_HeadD=BOR_HeadC=BOR_HeadD/HeadC the photosynthetic pathway has been studied in only c. 5% of all orchid species. Here we extend the survey to 1079 orchid species, mainly from Colombia, by assessing the presence of CAM based on the carbon isotopic signature BOR_Extract3=BOR_HeadA=BOR_Extract1=BOR_HeadA (δ 13C values) of herbarium specimens. Ninety-six species, representing 8.9% of those analysed, had δ 13C values less EDI_HeadA=EDI_HeadB=EDI_HeadA=EDI_HeadB/HeadA negative than −20‰, indicating CAM. Epiphytism was the predominant life form (75.2% of species sampled), and EDI_HeadB=EDI_HeadC=EDI_HeadB=EDI_HeadC/HeadB 9.4% of these epiphytes showed a CAM-type isotopic signature. Isotope values suggested CAM in 19 terrestrial orchid species, 14 species from high elevation (2000–3400 m) and species from six genera that were previously unknown to EDI_HeadC=EDI_HeadD=EDI_HeadC=EDI_HeadD/HeadC engage in CAM (Jacquiniella, Meiracyllium, Pabstiella, Psychopsis, Pterostemma and Solenidium). We conclude that EDI_Extract3=EDI_HeadA=EDI_Extract1=EDI_HeadA CAM is the major pathway of carbon acquisition in a small but broadly distributed fraction of tropical orchids and is CORI_HeadA=CORI_HeadB=CORI_HeadA=CORI_HeadB/HeadA more prevalent at lower elevations. CORI_HeadB=CORI_HeadC=CORI_HeadB=CORI_HeadC/HeadB ADDITIONAL KEYWORDS: Andes – climate – Colombia – δ 13C – epiphytes – Orchidaceae – photosynthetic CORI_HeadC=CORI_HeadD=CORI_HeadC=CORI_HeadD/HeadC pathway – WorldClim. CORI_Extract3=CORI_HeadA=CORI_Extract1=CORI_HeadA ERR_HeadA=ERR_HeadB=ERR_HeadA=ERR_HeadB/HeadA ERR_HeadB=ERR_HeadC=ERR_HeadB=ERR_HeadC/HeadB INTRODUCTION 2003, 2015; Cribb et al., 2003, Cribb & Govaerts, 2005, Christenhusz & Byng, 2016). Orchids occur in Orchidaceae are one of the two largest families of ERR_HeadC=ERR_HeadD=ERR_HeadC=ERR_HeadD/HeadC a wide range of habitats, from wet tropical forest to vascular plants, with 899 genera and 30 105 species ERR_Extract3=ERR_HeadA=ERR_Extract1=ERR_HeadA dry forest, from sea level to elevations approaching worldwide (http://plantsoftheworldonline.org, 2019), 5000 m and from cool to hot biomes, although their INRE_HeadA=INRE_HeadB=INRE_HeadA=INRE_HeadB/HeadA and represent c. 8% of all vascular plant species. distribution varies greatly among continents (Cribb INRE_HeadB=INRE_HeadC=INRE_HeadB=INRE_HeadC/HeadB Orchids are especially known for their spectacular et al., 2003, Cribb & Govaerts, 2005). New species floral diversity and intricate adaptations to pollinators INRE_HeadC=INRE_HeadD=INRE_HeadC=INRE_HeadD/HeadC of orchids are described every year, especially in the (Nilson, 1992; Cozzolino & Widmer, 2005; Gaskett, INRE_Extract3=INRE_HeadA=INRE_Extract1=INRE_HeadA remote tropical biodiversity hotspots of the world 2011). Orchids are also an outstanding example of (Joppa et al., 2011). App_Head=App_HeadA=App_Head=App_HeadA/App_Head adaptive radiation (Chase et al., 2003), with species The water-conserving CAM pathway has been BList1=SubBList1=BList1=SubBList occupying distinct habitats and showing different estimated to occur in c. 7% of all vascular plant species growth forms, including soil-rooted terrestrial BList1=SubBList3=BList1=SubBList2 and has been demonstrated in c. 400 genera in 35 plants, lithophytic and epiphytic species that live SubBList1=SubSubBList3=SubBList1=SubSubBList2 families (Winter & Smith, 1996; Holtum et al., 2007; independently of soil. Orchids are cosmopolitan in Winter, Holtum & Smith, 2015). Improving estimates of SubSubBList3=SubBList=SubSubBList=SubBList distribution and most diverse in the tropics, where the number of CAM species requires detailed screening SubSubBList2=SubBList=SubSubBList=SubBList they are typically found as epiphytes (Chase et al., of species-rich families with large expected numbers of SubBList2=BList=SubBList=BList CAM species, such as Orchidaceae, and from regions of the world where orchids are highly diverse, such as the *Corresponding author. E-mail: [email protected] Andes of Colombia. It is currently estimated that up to © 2020 The Linnean Society of London, Botanical Journal of the Linnean Society, 2020, XX, 1–47 1 2 G. TORRES-MORALES ET AL. 50% of Neotropical orchid species show some degree types change accordingly, from tropical lowland forest of CAM (Silvera, Santiago & Winter, 2005; Silvera et to cloud forest and paramo (a cold high-elevation Downloaded from https://academic.oup.com/botlinnean/article-abstract/doi/10.1093/botlinnean/boaa027/5868749 by University of California, Riverside user on 08 July 2020 al., 2010), although only c. 5% of orchids worldwide grassland and wetland ecosystem with high diversity) have been screened for the presence of CAM, by stable (Cleef, 2005). The Caribbean region includes patches of carbon isotope composition, titratable acidity or CO2 dry forest, including the isolated massif of the Sierra gas exchange. Nevada de Santa Marta at 5700 m elevation, which In this study, we surveyed the orchid flora of hosts ecosystems that range from xeric at the base Colombia for the occurrence of CAM using the leaf and cold and snowy at the top. The Pacific region is, carbon isotopic signature (δ 13C value) of herbarium in contrast, one of the wettest regions of the world, specimens. Colombia is home to an estimated 4270 with up to 12 m of rainfall annually, and it hosts one orchid species from c. 274 genera, representing c. 15% of the most diverse forests of the tropics in the Chocó of the total number of orchid species. Moreover, c. 1572 region. Finally, towards the east, close to the border orchid species in Colombia are considered endemic with Venezuela, an extensive grassland known as (Betancur et al., 2015), and nearly 10% of orchid Llanos is intermingled with seasonally inundated species in Colombia are under threat of extinction forest along the Orinoco River basin and the Amazon (Calderón-Sáenz, 2006). The rise of the Andes during forest and other seasonally inundated tropical forests the Cenozoic (van der Hammen & Hooghiemstra, in the southeast. In this study, we surveyed herbarium 2001) resulted in a variety of ecosystems and specimens from orchid species corresponding to all climate zones, offering a unique opportunity to these ecosystems (Fig. 1). explore patterns of CAM distribution in relation to microclimate and habitat. In particular, Colombian orchid species span a wide range of climatic zones and SPECIES SAMPLING biomes, from sea level to nearly 4000 m in the Andean To assess the relative abundance and distribution of summits, including lowland wet and dry forests, cloud C3 and CAM photosynthesis in orchids from Colombia forests and paramos. Colombia has two recognized we measured foliar δ 13C of 1192 herbarium specimens. hotspots of biological diversity, the tropical Andes Specimens included 178 genera and 1079 orchid with 20 000 endemic plant species and the Chocó/ species (excluding duplicates). These included 1056 Darien region with 2250 endemic species (Myers species from Colombia and 23 species from other et al., 2000). Building on a previous isotopic survey countries, including Ecuador (14), Bolivia (three), El of 1002 orchid species from Panama and Costa Rica Salvador (one), Costa Rica (four) and Brazil (one). The (Silvera et al., 2010), we ask how CAM is distributed complete list of taxa, taxonomic authority, accession across orchids of Colombia and whether CAM occurs and voucher details, carbon isotope ratio and ecological at sites of high orchid diversity in the Andes. Finally, information are provided in Table 1. we provide further clues on the relationships between Leaf samples were obtained from 18 Colombian CAM occurrence, biogeography and climate and their herbaria: Andes Herbarium (ANDES), Universidad role in orchid diversification. de Antioquia Herbarium (HUA), Federico Medem Bogotá Herbarium (FMB), Pontificia Universidad Javeriana Herbarium (HPUJ), Joaquín Antonio MATERIAL AND METHODS Uribe Botanical Garden Herbarium (JAUM), Luis Sigifredo Espinal Tascón Herbarium (CUVC), SITE DESCRIPTION Universidad
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    Universidade Estadual de Mato Grosso do Sul Unidade Universitária de Dourados Programa de Pós-Graduação em Recursos Naturais TÉCNICAS DE CULTIVO in vitro COMO ALTERNATIVA PARA A CONSERVAÇÃO DE Schomburgkia crispa Lindl. (ORCHIDACEAE) E SUA REINTRODUÇÃO EM AMBIENTE NATURAL Acadêmica: Jackeline Schultz Soares Dourados - MS Fevereiro de 2018 Universidade Estadual de Mato Grosso do Sul Unidade Universitária de Dourados Programa de Pós-Graduação em Recursos Naturais TÉCNICAS DE CULTIVO in vitro COMO ALTERNATIVA PARA A CONSERVAÇÃO DE Schomburgkia crispa Lindl. (ORCHIDACEAE) E SUA REINTRODUÇÃO EM AMBIENTE NATURAL Acadêmica: Jackeline Schultz Soares Orientador: Profº Dr. Etenaldo Felipe Santiago Coorientadora: Profª Drª Yara B. C. J. Rosa (in memoriam) “Tese apresentada ao programa de pós- graduação em Recursos Naturais, área de concentração em Recursos Naturais, da Universidade Estadual de Mato Grosso do Sul, como parte das exigências para a obtenção do título de Doutor em Recursos Naturais”. Dourados - MS Fevereiro de 2018 S654t Soares, Jackeline Schultz Técnicas de cultivo in vitro como alternativa para a conservação de Schomburgkia crispa Lindl.(Orchidceae) e sua reintrodução em ambiente natural / Jackeline Schultz Soares. Dourados, MS: UEMS, 2018. 101p. ; 30cm. Tese (Doutorado) – Recursos Naturais – Universidade Estadual de Mato Grosso do Sul, Unidade Universitária de Dourados, 2018. Orientador: Prof. Dr. Etenaldo Felipe Santiago. 1. Orchidaceae. 2. Semeadura assimbiótica. 3. Cerrado. I. Título. CDD 23.ed. 584.15 Cdd . - ????????? “E peço isto: que o vosso amor cresça mais e mais em ciência e em todo o conhecimento” Filipenses 1:9 iii A Deus, À minha família, À Profª. Drª. Yara Brito Chaim Jardim Rosa (in memoriam), por ter me acompanhado desde o início, me ensinando com maestria o ofício da pesquisa científica, Dedico.
  • The Orchid Flora of the Colombian Department of Valle Del Cauca Revista Mexicana De Biodiversidad, Vol

    The Orchid Flora of the Colombian Department of Valle Del Cauca Revista Mexicana De Biodiversidad, Vol

    Revista Mexicana de Biodiversidad ISSN: 1870-3453 [email protected] Universidad Nacional Autónoma de México México Kolanowska, Marta The orchid flora of the Colombian Department of Valle del Cauca Revista Mexicana de Biodiversidad, vol. 85, núm. 2, 2014, pp. 445-462 Universidad Nacional Autónoma de México Distrito Federal, México Available in: http://www.redalyc.org/articulo.oa?id=42531364003 How to cite Complete issue Scientific Information System More information about this article Network of Scientific Journals from Latin America, the Caribbean, Spain and Portugal Journal's homepage in redalyc.org Non-profit academic project, developed under the open access initiative Revista Mexicana de Biodiversidad 85: 445-462, 2014 Revista Mexicana de Biodiversidad 85: 445-462, 2014 DOI: 10.7550/rmb.32511 DOI: 10.7550/rmb.32511445 The orchid flora of the Colombian Department of Valle del Cauca La orquideoflora del departamento colombiano de Valle del Cauca Marta Kolanowska Department of Plant Taxonomy and Nature Conservation, University of Gdańsk. Wita Stwosza 59, 80-308 Gdańsk, Poland. [email protected] Abstract. The floristic, geographical and ecological analysis of the orchid flora of the department of Valle del Cauca are presented. The study area is located in the southwestern Colombia and it covers about 22 140 km2 of land across 4 physiographic units. All analysis are based on the fieldwork and on the revision of the herbarium material. A list of 572 orchid species occurring in the department of Valle del Cauca is presented. Two species, Arundina graminifolia and Vanilla planifolia, are non-native elements of the studied orchid flora. The greatest species diversity is observed in the montane regions of the study area, especially in wet montane forest.
  • Epilist 1.0: a Global Checklist of Vascular Epiphytes

    Epilist 1.0: a Global Checklist of Vascular Epiphytes

    Zurich Open Repository and Archive University of Zurich Main Library Strickhofstrasse 39 CH-8057 Zurich www.zora.uzh.ch Year: 2021 EpiList 1.0: a global checklist of vascular epiphytes Zotz, Gerhard ; Weigelt, Patrick ; Kessler, Michael ; Kreft, Holger ; Taylor, Amanda Abstract: Epiphytes make up roughly 10% of all vascular plant species globally and play important functional roles, especially in tropical forests. However, to date, there is no comprehensive list of vas- cular epiphyte species. Here, we present EpiList 1.0, the first global list of vascular epiphytes based on standardized definitions and taxonomy. We include obligate epiphytes, facultative epiphytes, and hemiepiphytes, as the latter share the vulnerable epiphytic stage as juveniles. Based on 978 references, the checklist includes >31,000 species of 79 plant families. Species names were standardized against World Flora Online for seed plants and against the World Ferns database for lycophytes and ferns. In cases of species missing from these databases, we used other databases (mostly World Checklist of Selected Plant Families). For all species, author names and IDs for World Flora Online entries are provided to facilitate the alignment with other plant databases, and to avoid ambiguities. EpiList 1.0 will be a rich source for synthetic studies in ecology, biogeography, and evolutionary biology as it offers, for the first time, a species‐level overview over all currently known vascular epiphytes. At the same time, the list represents work in progress: species descriptions of epiphytic taxa are ongoing and published life form information in floristic inventories and trait and distribution databases is often incomplete and sometimes evenwrong.