Bat-Pollinated Flower Assemblages and Bat Visitors at Two Atlantic Forest Sites in Brazil
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Supplementary Material What Do Nectarivorous Bats Like? Nectar Composition in Bromeliaceae with Special Emphasis on Bat-Pollinated Species
Supplementary Material What do nectarivorous bats like? Nectar composition in Bromeliaceae with special emphasis on bat-pollinated species Author: Thomas Göttlinger, Michael Schwerdtfeger, Kira Tiedge, Gertrud Lohaus* *Correspondence: Gertrud Lohaus ([email protected]) Supplementary Figure S1: Concentration of sugars (glucose, fructose, sucrose) in nectar of seven genera of Bromeliaceae (Alcantarea (A), Guzmania (B), Pitcairnia (C), Puya (D), Tillandsia (E), Vriesea (F), Werauhia (G)) which include bat-pollinated species. The box plots show medians (horizontal line in box) and means (x in box). Supplementary Material What do nectarivorous bats like? Nectar composition in Bromeliaceae with special emphasis on bat-pollinated species Author: Thomas Göttlinger, Michael Schwerdtfeger, Kira Tiedge, Gertrud Lohaus* *Correspondence: Gertrud Lohaus ([email protected]) Supplementary Figure S2: Concentration of amino acids (ala, arg, asn, asp, gaba, gln, glu, gly, his, iso, leu, lys, met, phe, pro, ser, thr, trp, tyr, val) in nectar of seven genera of Bromeliaceae (Alcantarea (A), Guzmania (B), Pitcairnia (C), Puya (D), Tillandsia (E), Vriesea (F), Werauhia (G)), which include bat-pollinated species. The box plots show medians (horizontal line in box) and means (x in box). Supplementary Material What do nectarivorous bats like? Nectar composition in Bromeliaceae with special emphasis on bat-pollinated species Author: Thomas Göttlinger, Michael Schwerdtfeger, Kira Tiedge, Gertrud Lohaus* *Correspondence: Gertrud Lohaus ([email protected]) Supplementary Figure S3: Cation concentrations (Ca2+, K+, Na+, Mg2+) in nectar of seven genera of Bromeliaceae (Alcantarea (A), Guzmania (B), Pitcairnia (C), Puya (D), Tillandsia (E), Vriesea (F), Werauhia (G)), which include bat-pollinated species. The box plots show medians (horizontal line in box) and means (x in box). -
2011 Vol. 14, Issue 3
Department of Botany & the U.S. National Herbarium The Plant Press New Series - Vol. 14 - No. 3 July-September 2011 Island Explorations and Evolutionary Investigations By Vinita Gowda or over a century the Caribbean eastward after the Aves Ridge was formed On joining the graduate program region, held between North and to the West. Although the Lesser Antilles at The George Washington University FSouth America, has been an active is commonly referred to as a volcani- in Washington, D.C., in the Fall of area of research for people with interests cally active chain of islands, not all of the 2002, I decided to investigate adapta- in island biogeography, character evolu- Lesser Antilles is volcanic. Based on geo- tion in plant-pollinator interactions tion, speciation, as well as geology. Most logical origin and elevation all the islands using a ‘multi-island’ comparative research have invoked both dispersal and of the Lesser Antilles can be divided into approach using the Caribbean Heliconia- vicariance processes to explain the distri- two groups: a) Limestone Caribbees (outer hummingbird interactions as the study bution of the local flora and fauna, while arc: calcareous islands with a low relief, system. Since I was interested in under- ecological interactions such as niche dating to middle Eocene to Pleistocene), standing factors that could influence partitioning and ecological adaptations and b) Volcanic Caribbees (inner arc: plant-pollinator mutualistic interactions have been used to explain the diversity young volcanic islands with strong relief, between the geographically distinct within the Caribbean region. One of dating back to late Miocene). islands, I chose three strategic islands of the biggest challenges in understanding the Lesser Antilles: St. -
Ecosystem Services Provided by Bromeliad Plants: A
1 ECOSYSTEM SERVICES PROVIDED BY BROMELIAD PLANTS: A 2 SYSTEMATIC REVIEW 3 4 Geraldine Ladino Vásquez a,*, Fabiola Ospina-Bautista a, Jaime Vicente Estévez Varón 5 a, Lucie Jerabkovab, Pavel Kratina c 6 7 a Departamento de Ciencias Biológicas, Universidad de Caldas, Street 65 No. 26 – 10, 8 Manizales, Caldas, 170004, Colombia. 9 b Department of Geography, King’s College London, 30 Aldwych, London WC2B 10 4GB, UK. 11 c School of Biological and Chemical Sciences, Queen Mary University of London, Mile 12 End Rd, London E1 4NS, UK. 13 14 15 16 *Corresponding author 17 18 E-mail addresses: [email protected] (G. Ladino-V), 19 [email protected] (F. Ospina-B), [email protected] (J.V. 20 Estévez Varón), [email protected] (L. Jerabkova), [email protected] (P. 21 Kratina). 22 23 24 Keywords: Biodiversity; bromeliad plants; climate regulation; disease; ecosystem 25 services; microecosystems; Neotropics; pharmaceutical potential; water storage. 1 26 ABSTRACT 27 The unprecedented loss of biological diversity has negative impacts on ecosystems and 28 the associated benefits which they provide to humans. Bromeliads have high diversity 29 throughout the Neotropics, but they have been negatively affected by habitat loss and 30 fragmentation, climate change, herbivorous species invasions, and they are also being 31 commercialized for ornamental use. These plants provide direct benefits to the human 32 society and they also form micro ecosystems in which accumulated water and nutrients 33 support the communities of aquatic and terrestrial species, thus maintaining local 34 diversity. We performed a systematic review of the contribution of bromeliads to 35 ecosystem services across their native geographical distribution. -
How Are Endemic and Widely Distributed Bromeliads Responding To
Flora 238 (2018) 110–118 Contents lists available at ScienceDirect Flora j ournal homepage: www.elsevier.com/locate/flora How are endemic and widely distributed bromeliads responding to ଝ warming temperatures? A case study in a Brazilian hotspot ∗,1 1 ∗ Cleber Juliano Neves Chaves , Bárbara Simões Santos Leal , José Pires de Lemos-Filho Departamento de Botânica, Instituto de Ciências Biológicas, Universidade Federal de Minas Gerais, Belo Horizonte, Brazil a r t i c l e i n f o a b s t r a c t Article history: The increase in mean global temperature is causing extensive changes in ecosystems. However, little Received 26 December 2016 is yet known about the heat tolerance of neotropical plant species. Here, we investigate heat tolerance Received in revised form 10 May 2017 variation in both restricted and widely distributed bromeliad species co-occurring in campo rupestre, a Accepted 13 May 2017 megadiverse ecosystem in central and eastern Brazil. We determined the heat tolerance of the photo- Edited by P. Morellato synthetic apparatus using chlorophyll fluorescence measurements to test if the endemic species Vriesea Available online 25 May 2017 minarum is more heat sensitive than two widely distributed species, Vriesea bituminosa and Aechmea nudicaulis. Furthermore, we tested if the distinct photosynthetic metabolisms of the species, sun expo- Keywords: sure, and rainfall seasonality of campo rupestre influence this outcome. Our results show that, contrary Thermal tolerance to our expectations, the endemic campo rupestre species did not show the greatest heat sensitivity, but Climate change Bromeliaceae did have one of the lowest heat tolerance plasticities. -
Bat Pollination in Bromeliaceae Pedro A
PLANT ECOLOGY & DIVERSITY https://doi.org/10.1080/17550874.2019.1566409 ARTICLE Bat pollination in Bromeliaceae Pedro A. Aguilar-Rodrígueza, Thorsten Krömer a, Marco Tschapka b,c, José G. García-Francod, Jeanett Escobedo-Sartie and M.Cristina MacSwiney G. a aCentro de Investigaciones Tropicales, Universidad Veracruzana, Xalapa, Veracruz, Mexico; bInstitute of Evolutionary Ecology and Conservation Genomics, University of Ulm, Ulm, Germany; cSmithsonian Tropical Research Institute, Balboa Ancón, Panamá, República de Panamá; dRed de Ecología Funcional, Instituto de Ecología, Xalapa, Veracruz, México; eFacultad de Ciencias Biológicas y Agropecuarias, Universidad de Colima, Crucero de Tecomán, Tecomán, Colima, México ABSTRACT ARTICLE HISTORY Background: Chiropterophily encompasses the floral traits by which bats are attracted as the Received 2 May 2017 main pollinators. Among the chiropterophilous flowering plants of the New World, Accepted 3 January 2019 Bromeliaceae is one of the most ecologically important families; however, information KEYWORDS about the chiropterophilous interaction in this family is still scarce. Anoura; bromeliads; Aims: We present a comprehensive review of bat pollination in bromeliads, covering floral chiropterophily; floral scent; traits, rewards offered to pollinators, floral attractants and the identity of visiting bat species. nectar; pollination; Werauhia Methods: We discuss traits shared among chiropterophilous bromeliads and present general trends in an evolutionary context. We constructed a phylogenetic tree to elucidate the ancestral pollination syndromes of the 42 extant bromeliad species (ca. 1% of total) known to be bat-pollinated. Results: Most of the species within the ten genera reported belong to the Tillandsioideae subfamily, with three genera appearing to be exclusively bat-pollinated. Floral visitors include 19 bat species of 11 genera from the Phyllostomidae. -
Roy Emile Gereau, Born 5 December L947, Rock Island, Illinois, U.S.A
CURRICULUM VITAE Personal: Roy Emile Gereau, born 5 December l947, Rock Island, Illinois, U.S.A. Education and Degrees: B.A., mathematics and French, University of Iowa, l969 (graduation with Highest Distinction); B.S., forestry, Michigan Technological University, l975 (graduation with Highest Distinction); M.S., biological sciences, Michigan Technological University, l978 (graduation with Highest Distinction); enrolled in Ph.D. program at Michigan State University, 1978, successfully completed all course work, 1981. Professional and Scholastic Positions: Teaching Assistant, Department of Mathematical and Computer Sciences, Michigan Technological University, l975-l977; Instructor, Department of Mathematical and Computer Sciences, Michigan Technological University, l977-l978; Instructor, Department of Biological Sciences, Michigan Technological University, summer terms l977 and l978 (vascular plant taxonomy); Teaching Assistant, Department of Botany and Plant Pathology, Michigan State University, spring terms l979 and l98l; Herbarium Assistant, Beal-Darlington Herbarium, Department of Botany and Plant Pathology, Michigan State University, l978-l983; Curatorial Assistant, Missouri Botanical Garden, St. Louis, Missouri, l983-2005; Assistant Curator, Missouri Botanical Garden, St. Louis, Missouri, April 2005-present. Editorial Positions: Consulting Editor, Novon; Member of Editorial Committee, Annals of the Missouri Botanical Garden; Member of Reviewer Panel, African Journal of Ecology Awards: Sigma Xi Grant-in-Aid of Research, l979; National -
Glycosides in the Rubiaceae*
The occurrence of asperulosidic glycosides in the Rubiaceae* P. Kooiman Laboratorium voor Algemene en Technische Biologie Technische Hogeschool, Delft. SUMMARY Some properties of the new iridoid compounds Galium glucoside and Gardenia glucoside are described. Galium glucoside and asperuloside occurin many species belongingto the Rubioideae (sensu Bremekamp); they were not found in other subfamilies of the Rubiaceae. Gardenia glucoside occurs in several species ofthe tribe Gardenieae (subfamily Ixoroideae). The distribution of the asperulosidic glucosides in the Rubiaceae corresponds with the classi- fication proposed by Bremekamp, although there are some exceptions (Hamelieae, Opercu- laria and Pomax, possibly the Gaertnereae). To a somewhat less degreethe system proposedby Verdcourt is supported. 1. INTRODUCTION Apart from the classification arrived at by Bremekamp (1966) the only other modern system of the Rubiaceae was proposed by Verdcourt (1958); both au- thors considered their classifications tentative. The have several fea- as systems tures in common, but deviate in some points. The main differences are in the po- sition ofthe Urophylloideae sensu Bremekamp, which are included in the subfa- mily Rubioideaeby Verdcourt, and in the relationship between the Cinchonoideae the Ixoroideae and (both sensu Bremekamp) which are united in the subfamily Cinchonoideae by Verdcourt. Both systems diverge widely and principally from all older classifications which appeared to become more and more unsatis- factory as the number of described species increased. In 1954 Briggs & Nicholes reported on the presence or absence of the iridoid glucoside asperuloside (1) in most species of Coprosma and in many other Rubiaceae. The reaction they used for the detection of asperuloside is now known to be not specific for this glucoside; it detects in addition some struc- turally and most probably biogenetically related glycosides. -
Common Epiphytes and Lithophytes of BELIZE 1 Bruce K
Common Epiphytes and Lithophytes of BELIZE 1 Bruce K. Holst, Sally Chambers, Elizabeth Gandy & Marilynn Shelley1 David Amaya, Ella Baron, Marvin Paredes, Pascual Garcia & Sayuri Tzul2 1Marie Selby Botanical Gardens, 2 Ian Anderson’s Caves Branch Botanical Garden © Marie Selby Bot. Gard. ([email protected]), Ian Anderson’s Caves Branch Bot. Gard. ([email protected]). Photos by David Amaya (DA), Ella Baron (EB), Sally Chambers (SC), Wade Coller (WC), Pascual Garcia (PG), Elizabeth Gandy (EG), Bruce Holst (BH), Elma Kay (EK), Elizabeth Mallory (EM), Jan Meerman (JM), Marvin Paredes (MP), Dan Perales (DP), Phil Nelson (PN), David Troxell (DT) Support from the Marie Selby Botanical Gardens, Ian Anderson’s Caves Branch Jungle Lodge, and many more listed in the Acknowledgments [fieldguides.fieldmuseum.org] [1179] version 1 11/2019 TABLE OF CONTENTS long the eastern slopes of the Andes and in Brazil’s Atlantic P. 1 ............. Epiphyte Overview Forest biome. In these places where conditions are favorable, epiphytes account for up to half of the total vascular plant P. 2 .............. Epiphyte Adaptive Strategies species. Worldwide, epiphytes account for nearly 10 percent P. 3 ............. Overview of major epiphytic plant families of all vascular plant species. Epiphytism (the ability to grow P. 6 .............. Lesser known epiphytic plant families as an epiphyte) has arisen many times in the plant kingdom P. 7 ............. Common epiphytic plant families and species around the world. (Pteridophytes, p. 7; Araceae, p. 9; Bromeliaceae, p. In Belize, epiphytes are represented by 34 vascular plant 11; Cactaceae, p. 15; p. Gesneriaceae, p. 17; Orchida- families which grow abundantly in many shrublands and for- ceae, p. -
Vanessa Koza Kowalski1,2, Pamella Paula Diniz Alves Pereira1, Fernanda Maria Cordeiro De Oliveira1, Maria Eugênia Costa1 & Rosangela Capuano Tardivo1
Rodriguésia 67(2): 427-435. 2016 http://rodriguesia.jbrj.gov.br DOI: 10.1590/2175-7860201667213 Are the wing’s cells alive? Study case in Vriesea trichomes As células da ala são vivas? Estudo de caso em tricomas de Vriesea Vanessa Koza Kowalski1,2, Pamella Paula Diniz Alves Pereira1, Fernanda Maria Cordeiro de Oliveira1, Maria Eugênia Costa1 & Rosangela Capuano Tardivo1 Abstract The presence of peltate foliar trichomes is one of the main anatomical characteristic of Bromeliaceae. These complex structures are adapted to compensate water and nutrient absorption in species that have reduced or substrate and light-reflection independent roots. They have enabled species’ survival in diverse and extreme environments contributing to the wide distribution of this family. In the present work, we analyzed the peltate trichomes’ characteristics in three taxa of Vriesea (Tillandsioideae): Vriesea platynema var. platynema, V. platynema var. variegata and V. tijucana. Leaves in different developmental stages were analyzed with histochemical tests and Transmission Electron Microscopy. Main results include the presence of cytoplasmic content in the wing peripheral cells, as well as in mature leaves. This is the first register of the presence of such feature in this family, which brings the possibility of discussing how water can be absorbed by these cells. Key words: Anatomy, Tillandsioideae, absorptive trichomes. Resumo Uma das principais características anatômicas de Bromeliaceae é a presença de tricomas foliares peltados. Estas complexas estruturas adaptadas à compensação da absorção de água e alimento em espécies com raízes reduzidas ou independentes do substrato e reflexão da luz, possibilitaram a vida em ambientes diversos e extremos, contribuindo para a ampla distribuição desta família. -
New Species, Combinations, and Records in Rubiaceae from the La Selva Biological Station, Costa Rica Charlotte M
Selbyana 12: 134-140 1991] TAYI NEW SPECIES, COMBINATIONS, AND RECORDS IN RUBIACEAE FROM THE LA SELVA BIOLOGICAL STATION, COSTA RICA CHARLOTTE M. TAYLORS BARRY E. HAMMEL Missouri Botanical Garden, P.O. Box 299, St. Louis, Missouri 63166-0299 WILLIAM C. BURGER Department of Botany, Field Museum of Natural History, Chicago, Illinois 60605 ABSTRACT. The new species Coussarea nigrescens C. M. Taylor & Hammel, Coussarea psychotrioides C. M. Taylor & Hammel, and Hillia grayumii C. M. Taylor are described. The new combinations Chione sylvicola (Standley) W. Burger, Coussarea hondensis (Standley) C. M. Taylor & W. Burger, Psychotria camponutans (Dwyer & Hayden) Hammel, Psychotria elata (Swartz) Hammel, and Psychotria guapilensis (Standley) Hammel are made. The species Borojoa panamensis Dwyer, Faramea parvibractea Steyermark, and Lasianthus panamensis (Dwyer) Robbrecht are reported from Costa Rica for the first time. The La Selva Biological Station is situated in near the junction of the Rios Puerto Viejo and wet forest in the Caribbean lowlands of north- Sarapiqui, 100m, 5 Nov 1980,5. Hammel 10383 eastern Costa Rica (Frankie et al., 1974; Hammel (DUKE!, holotype). & Grayum, 1982; Wilbur, 1986). The following Puberulent trees to 7 m tall, drying hlack. new species descriptions and nomenclatural Leaves decussate; blades elliptic, 8-20.5 cm long, combinations result from the study of the Ru- 3.5-9 cm wide, acute to slightly acuminate at biaceae for the Vascular Flora of the La Selva apex, cuneate at base, thinly chartaceous; sec- Biological Station (Wilbur, 1986), and the con- ondary veins 9-11 pairs, without domatia; pet- current study of this family in Costa Rica for the ioles 10-35 mm long; stipules interpetiolarly and Flora Costaricensis and the Manual Flora of Cos- intrapetiolarly connate, persistent, triangular, 1.5- ta Rica. -
Nitrogen Xuxes from Treefrogs to Tank Epiphytic Bromeliads: an Isotopic and Physiological Approach
Oecologia (2010) 162:941–949 DOI 10.1007/s00442-009-1533-4 PLANT-ANIMAL INTERACTIONS - ORIGINAL PAPER Nitrogen Xuxes from treefrogs to tank epiphytic bromeliads: an isotopic and physiological approach Gustavo Q. Romero · Fausto Nomura · Ana Z. Gonçalves · Natacha Y. N. Dias · Helenice Mercier · Elenice de C. Conforto · Denise de C. Rossa-Feres Received: 7 March 2009 / Accepted: 30 November 2009 / Published online: 19 December 2009 © Springer-Verlag 2009 Abstract Diverse invertebrate and vertebrate species live with frogs had higher stable N isotopic composition (15N) in association with plants of the large Neotropical family values than those without frogs. Similar results were Bromeliaceae. Although previous studies have assumed obtained from a controlled greenhouse experiment. Linear that debris of associated organisms improves plant nutri- mixing models showed that frog feces and dead termites tion, so far little evidence supports this assumption. In this used to simulate insects that eventually fall inside the bro- study we used isotopic (15N) and physiological methods to meliad tank contributed, respectively, 27.7% (§0.07 SE) investigate if the treefrog Scinax hayii, which uses the tank and 49.6% (§0.50 SE) of the total N of V. bituminosa. Net epiphytic bromeliad Vriesea bituminosa as a diurnal shelter, photosynthetic rate was higher in plants that received feces contributes to host plant nutrition. In the Weld, bromeliads and termites than in controls; however, this eVect was only detected in the rainy, but not in the dry season. These results demonstrate for the Wrst time that vertebrates con- tribute to bromeliad nutrition, and that this beneWt is sea- Communicated by Zoe Cardon. -
2018 Fcbs Officers
FLORIDA COUNCIL OF Volume 38 Issue 3 BROMELIAD SOCIETIES August 2018 Ananas ananassioides var nanas x Ananas Erectifolius Page FLORIDA COUNCIL OF BROMELIAD SOCIETIES 2 TABLE OF CONTENTS Table of Contents..………………………………………………………………………………2 2018 FCBS Officers and Representatives, Committee Members, Florida BSI Officers……….3 I love Bromeliads by Carol Wolfe………………………………………………………………4 Mexican Bromeliad Weevil Report by Teresa Marie Cooper…………………………………..5 BSI Honorary Trustee by Tom Wolfe……….………………………………………………….7 B.L.B.E.R.J.R. by Don Beadle……..…..……………………………………………………… 8 Don Beadle, BSI Honorary Trustee by Lynn Wagner..……………………….………………..9 2018 BSI World Conference in San Diego, California by Jay Thurrott...…………………….11 Bromeliad Expedition in the Everglades by Mike Michalski………………………………….14 2018 WBC Pictures by Mike Michalski…………..…………………………………………...15 Edmundoa by Derek Butcher………………………...…...……………………………………16 Fitting 2000 + Bromeliads and a home into a Quarter acre city lot; Bromeliad Everywhere! By Terrie Bert …………………………………………………………………..18 BSI Archives by Stephen Provost...…………………………………………………………...27 Bromeliad Society of Central Florida Annual Show & Sale by Carol Wolfe………….……...29 Photographing Bromeliads by John Catlen……………….…………………………………...35 Calendar of Events……………………………… ……………………………………….…...38 Seminole Bromeliad & Tropical Plant Society…………..……………………………………39 PUBLICATION: This newsletter is published four times a year, February, May, August, and November, and is a publication of the Florida Council of Bromeliad Societies. Please submit your