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Bromfield Garden Plant List - 2009
BROMFIELD GARDEN PLANT LIST - 2009 BOTANICAL NAME COMMON NAME Acer circinatum vine maple Achillea millefolium yarrow Achillea millefolium 'Judity' yarrow 'Judity' Achillea millefolium 'La Luna' yarrow 'La Luna' Achillea millefolium 'Paprika' yarrow 'Paprika' Achillea millefolium 'Salmon' yarrow 'Salmon' Achillea millefolium 'Sonoma Coast' yarrow 'Sonoma Coast' Aesculus californica California buckeye Aquilegia formosa western columbine Arctostaphylos 'Pacific Mist' manzanita 'Pacific Mist' Arctostaphylos hookeri 'Ken Taylor' manzanita 'Ken Taylor' Aristolochia californica California pipevine Armeria maritima sea pink Artemisia pycnocephala sandhill sage Asarum caudatum wild ginger Aster chilensis California aster Aster chilensis dwarf California aster Baccharis pilularis 'Twin Peaks' dwarf coyote brush 'Twin Peaks' Berberis aquifolium var repens creeping Oregon-grape Berberis nervosa dwarf Oregon-grape Blechnum spicant deer fern Calycanthus occidentalis spice bush Camissonia cheiranthifolia beach evening primrose Carex tumulicola Berkeley sedge Carpenteria californica bush anenome Ceanothus 'Concha' wild lilac 'Concha' Ceanothus 'Tilden Park' wild lilac 'Tilden Park' Cercis occidentalis western redbud Cercocarpus betuloides mountain mahogany Clematis lasiantha chaparral clematis Cornus sericea creek dogwood Corylus cornuta western hazelnut Dicentra formosa western bleeding heart Dichondra donneliana pony's foot Dryopteris arguta coastal wood fern Dudleya caespitosa sea lettuce Dudleya farinosa bluff lettuce Dudleya pulverulenta chalk liveforever -
Spores of Serpocaulon (Polypodiaceae): Morphometric and Phylogenetic Analyses
Grana, 2016 http://dx.doi.org/10.1080/00173134.2016.1184307 Spores of Serpocaulon (Polypodiaceae): morphometric and phylogenetic analyses VALENTINA RAMÍREZ-VALENCIA1,2 & DAVID SANÍN 3 1Smithsonian Tropical Research Institute, Center of Tropical Paleocology and Arqueology, Grupo de Investigación en Agroecosistemas y Conservación de Bosques Amazonicos-GAIA, Ancón Panamá, Republic of Panama, 2Laboratorio de Palinología y Paleoecología Tropical, Departamento de Ciencias Biológicas, Universidad de los Andes, Bogotá, Colombia, 3Facultad de Ciencias Básicas, Universidad de la Amazonia, Florencia Caquetá, Colombia Abstract The morphometry and sculpture pattern of Serpocaulon spores was studied in a phylogenetic context. The species studied were those used in a published phylogenetic analysis based on chloroplast DNA regions. Four additional Polypodiaceae species were examined for comparative purposes. We used scanning electron microscopy to image 580 specimens of spores from 29 species of the 48 recognised taxa. Four discrete and ten continuous characters were scored for each species and optimised on to the previously published molecular tree. Canonical correspondence analysis (CCA) showed that verrucae width/verrucae length and verrucae width/spore length index and outline were the most important morphological characters. The first two axes explain, respectively, 56.3% and 20.5% of the total variance. Regular depressed and irregular prominent verrucae were present in derived species. However, the morphology does not support any molecular clades. According to our analyses, the evolutionary pathway of the ornamentation of the spores is represented by depressed irregularly verrucae to folded perispore to depressed regular verrucae to irregularly prominent verrucae. Keywords: character evolution, ferns, eupolypods I, canonical correspondence analysis useful in phylogenetic analyses of several other Serpocaulon is a fern genus restricted to the tropics groups of ferns (Wagner 1974; Pryer et al. -
Fern Gazette Vol 18 Part 1 V7.Qxd
FERN GAZ. 18(5):264-282. 2009 264 DESICCATION TOLERANCE IN SOME BRITISH FERNS M.C.F. PROCTOR School of Biosciences, University of Exeter, Geoffrey Pope Building, Stocker Road, Exeter EX4 4QD Key-words: Asplenium, chlorophyll fluorescence, drying rate, light responses, Polypodium, recovery rate, relative humidity, relative water content. ABSTRACT Leaves of ten British fern species were tested for their tolerance of desiccation. Asplenium ruta-muraria, A. septentrionale, A. trichomanes, A. ceterach, Polypodium cambricum and P. interjectum withstood drying for periods of a week or more to a relative water content (RWC) of c. 4–7%. This is far below the RWC (c. 30%) at which most vascular-plant tissues are irretrievably damaged. One population of Asplenium adiantum-nigrum was desiccation tolerant, another was not. Aspelnium obovatum was fairly tolerant, behaviour differing with intensity of desiccation and in old and young growth. Polypodium cambricum and P interjectum were both highly tolerant. Polystichum aculeatum was not tolerant. Recovery rates of RWC and the chlorophyll-fluorescence parameter Fv/Fm did not vary greatly between species, with half-recovery times around 2–4 h. The small Asplenium species and A. ceterach dried quickly (half- drying times a few hours), suggesting little stomatal control over drying. The much slower drying of the Polypodium species suggests that their stomata close under water stress. Photosynthetic electron flow in most species saturated at a quarter to a half of full summer sunlight. Asplenium ruta-muraria, A. septentrionale and A. trichomanes showed a similar tendency to non-saturating electron flow at high irradiances as many desiccation-tolerant bryophytes. -
DICOTS Aceraceae Maple Family Anacardiaceae Sumac Family
FLOWERINGPLANTS Lamiaceae Mint family (ANGIOSPERMS) Brassicaceae Mustard family Prunella vulgaris - Self Heal Cardamine nutallii - Spring Beauty Satureja douglasii – Yerba Buena Rubiaceae Madder family DICOTS Galium aparine- Cleavers Boraginaceae Borage family Malvaceae Mallow family Galium trifidum – Small Bedstraw Aceraceae Maple family Cynoglossum grande – Houndstongue Sidalcea virgata – Rose Checker Mallow Acer macrophyllum – Big leaf Maple Oleaceae Olive family MONOCOTS Anacardiaceae Sumac family Fraxinus latifolia - Oregon Ash Toxicodendron diversilobum – Poison Oak Cyperaceae Sedge family Plantaginaceae Plantain family Carex densa Apiaceae Carrot family Plantago lanceolata – Plantain Anthriscus caucalis- Bur Chervil Iridaceae Iris family Daucus carota – Wild Carrot Portulacaceae Purslane family Iris tenax – Oregon Iris Ligusticum apiifolium – Parsley-leaved Claytonia siberica – Candy Flower Lovage Claytonia perforliata – Miner’s Lettuce Juncaceae Rush family Osmorhiza berteroi–Sweet Cicely Juncus tenuis – Slender Rush Sanicula graveolens – Sierra Sanicle Cynoglossum Photo by C.Gautier Ranunculaceae Buttercup family Delphinium menziesii – Larkspur Liliaceae Lily family Asteraceae Sunflower family Caryophyllaceae Pink family Ranunculus occidentalis – Western Buttercup Allium acuminatum – Hooker’s Onion Achillea millefolium – Yarrow Stellaria media- Chickweed Ranunculus uncinatus – Small-flowered Calochortus tolmiei – Tolmie’s Mariposa Lily Adendocaulon bicolor – Pathfinder Buttercup Camassia quamash - Camas Bellis perennis – English -
(Polypodiales) Plastomes Reveals Two Hypervariable Regions Maria D
Logacheva et al. BMC Plant Biology 2017, 17(Suppl 2):255 DOI 10.1186/s12870-017-1195-z RESEARCH Open Access Comparative analysis of inverted repeats of polypod fern (Polypodiales) plastomes reveals two hypervariable regions Maria D. Logacheva1, Anastasiya A. Krinitsina1, Maxim S. Belenikin1,2, Kamil Khafizov2,3, Evgenii A. Konorov1,4, Sergey V. Kuptsov1 and Anna S. Speranskaya1,3* From Belyaev Conference Novosibirsk, Russia. 07-10 August 2017 Abstract Background: Ferns are large and underexplored group of vascular plants (~ 11 thousands species). The genomic data available by now include low coverage nuclear genomes sequences and partial sequences of mitochondrial genomes for six species and several plastid genomes. Results: We characterized plastid genomes of three species of Dryopteris, which is one of the largest fern genera, using sequencing of chloroplast DNA enriched samples and performed comparative analysis with available plastomes of Polypodiales, the most species-rich group of ferns. We also sequenced the plastome of Adianthum hispidulum (Pteridaceae). Unexpectedly, we found high variability in the IR region, including duplication of rrn16 in D. blanfordii, complete loss of trnI-GAU in D. filix-mas, its pseudogenization due to the loss of an exon in D. blanfordii. Analysis of previously reported plastomes of Polypodiales demonstrated that Woodwardia unigemmata and Lepisorus clathratus have unusual insertions in the IR region. The sequence of these inserted regions has high similarity to several LSC fragments of ferns outside of Polypodiales and to spacer between tRNA-CGA and tRNA-TTT genes of mitochondrial genome of Asplenium nidus. We suggest that this reflects the ancient DNA transfer from mitochondrial to plastid genome occurred in a common ancestor of ferns. -
Polypodium Vulgare L.: Polyphenolic Profile, Cytotoxicity and Cytoprotective Properties in Different Cell Lines
Preprints (www.preprints.org) | NOT PEER-REVIEWED | Posted: 14 May 2021 doi:10.20944/preprints202105.0351.v1 Article Polypodium vulgare L.: polyphenolic profile, cytotoxicity and cytoprotective properties in different cell lines Adrià Farràs1,2, Víctor López2,4, Filippo Maggi3, Giovani Caprioli3, M.P. Vinardell1, Montserrat Mitjans1* 1Department of Biochemistry and Physiology, Faculty of Pharmacy and Food Sciences, Universitat de Barcelona, 08028 Barcelona, Spain; [email protected] (A.F.); [email protected] (P.V.); [email protected] (M.M.) 2Department of Pharmacy, Faculty of Health Sciences, Universidad San Jorge, Villanueva de Gállego, Zaragoza, 50830 Spain; [email protected] (A.F.); [email protected] (V.L.) 3School of Pharmacy, Università di Camerino, 62032 Camerino, Italy; [email protected] (F.M.); [email protected] (G.C.) 4Instituto Agroalimentario de Aragón-IA2, CITA-Universidad de Zaragoza, 50013 Zaragoza, Spain *Correspondence: [email protected] Abstract: Pteridophytes, represented by ferns and allies, are an important phytogenetic bridge between lower and higher plants (gymnosperms and angiosperms). Ferns have evolved independently of any other species in the plant kingdom being its secondary metabolism a reservoir of phytoconstituents characteristic of this taxon. The study of the possible medicinal uses of Polypodium vulgare L. (Polypodiaceae), PV, has increased particularly when in 2008 the European Medicines Agency published a monograph about the rhizome of this species. Thus, our objective is to provide scientific knowledge on the methanolic extract from the fronds of P. vulgare L., one of the main ferns described in the Prades Mountains, to contribute to the validation of certain traditional uses. Specifically, we have characterized the methanolic extract of PV fronds (PVM) by HPLC-DAD and investigated its potential cytotoxicity, phototoxicity, ROS production and protective effects against oxidative stress by using in vitro methods. -
Microsorum 3 Tohieaense (Polypodiaceae)
Systematic Botany (2018), 43(2): pp. 397–413 © Copyright 2018 by the American Society of Plant Taxonomists DOI 10.1600/036364418X697166 Date of publication June 21, 2018 Microsorum 3 tohieaense (Polypodiaceae), a New Hybrid Fern from French Polynesia, with Implications for the Taxonomy of Microsorum Joel H. Nitta,1,2,3 Saad Amer,1 and Charles C. Davis1 1Department of Organismic and Evolutionary Biology and Harvard University Herbaria, Harvard University, Cambridge, Massachusetts 02138, USA 2Current address: Department of Botany, National Museum of Nature and Science, 4-1-1 Amakubo, Tsukuba, Japan, 305-0005 3Author for correspondence ([email protected]) Communicating Editor: Alejandra Vasco Abstract—A new hybrid microsoroid fern, Microsorum 3 tohieaense (Microsorum commutatum 3 Microsorum membranifolium) from Moorea, French Polynesia is described based on morphology and molecular phylogenetic analysis. Microsorum 3 tohieaense can be distinguished from other French Polynesian Microsorum by the combination of sori that are distributed more or less in a single line between the costae and margins, apical pinna wider than lateral pinnae, and round rhizome scales with entire margins. Genetic evidence is also presented for the first time supporting the hybrid origin of Microsorum 3 maximum (Microsorum grossum 3 Microsorum punctatum), and possibly indicating a hybrid origin for the Hawaiian endemic Microsorum spectrum. The implications of hybridization for the taxonomy of microsoroid ferns are discussed, and a key to the microsoroid ferns of the Society Islands is provided. Keywords—gapCp, Moorea, rbcL, Society Islands, Tahiti, trnL–F. Hybridization, or interbreeding between species, plays an et al. 2008). However, many species formerly placed in the important role in evolutionary diversification (Anderson 1949; genus Microsorum on the basis of morphology (Bosman 1991; Stebbins 1959). -
Polypodiaceae (PDF)
This PDF version does not have an ISBN or ISSN and is not therefore effectively published (Melbourne Code, Art. 29.1). The printed version, however, was effectively published on 6 June 2013. Zhang, X. C., S. G. Lu, Y. X. Lin, X. P. Qi, S. Moore, F. W. Xing, F. G. Wang, P. H. Hovenkamp, M. G. Gilbert, H. P. Nooteboom, B. S. Parris, C. Haufler, M. Kato & A. R. Smith. 2013. Polypodiaceae. Pp. 758–850 in Z. Y. Wu, P. H. Raven & D. Y. Hong, eds., Flora of China, Vol. 2–3 (Pteridophytes). Beijing: Science Press; St. Louis: Missouri Botanical Garden Press. POLYPODIACEAE 水龙骨科 shui long gu ke Zhang Xianchun (张宪春)1, Lu Shugang (陆树刚)2, Lin Youxing (林尤兴)3, Qi Xinping (齐新萍)4, Shannjye Moore (牟善杰)5, Xing Fuwu (邢福武)6, Wang Faguo (王发国)6; Peter H. Hovenkamp7, Michael G. Gilbert8, Hans P. Nooteboom7, Barbara S. Parris9, Christopher Haufler10, Masahiro Kato11, Alan R. Smith12 Plants mostly epiphytic and epilithic, a few terrestrial. Rhizomes shortly to long creeping, dictyostelic, bearing scales. Fronds monomorphic or dimorphic, mostly simple to pinnatifid or 1-pinnate (uncommonly more divided); stipes cleanly abscising near their bases or not (most grammitids), leaving short phyllopodia; veins often anastomosing or reticulate, sometimes with included veinlets, or veins free (most grammitids); indument various, of scales, hairs, or glands. Sori abaxial (rarely marginal), orbicular to oblong or elliptic, occasionally elongate, or sporangia acrostichoid, sometimes deeply embedded, sori exindusiate, sometimes covered by cadu- cous scales (soral paraphyses) when young; sporangia with 1–3-rowed, usually long stalks, frequently with paraphyses on sporangia or on receptacle; spores hyaline to yellowish, reniform, and monolete (non-grammitids), or greenish and globose-tetrahedral, trilete (most grammitids); perine various, usually thin, not strongly winged or cristate. -
Total and Epiphytic Litter Under the Canopy of Acer Macrophyllum in an Old-Growth Temperate Rainforest, Washington State, USA
Canadian Journal of Forest Research Total and epiphytic litter under the canopy of Acer macrophyllum in an old-growth temperate rainforest, Washington State, USA Journal: Canadian Journal of Forest Research Manuscript ID cjfr-2014-0492.R2 Manuscript Type: Article Date Submitted by the Author: 01-Jun-2015 Complete List of Authors: Tejo, Camila; Universidad Austral de Chile, Instituto de Conservacion, BiodiversidadDraft y Territorio Zabowski, Darlene; University of Washington Nadkarni, Nalini; University of Utah, Department of Biology <i>Acer macrophyllum</i>, carbon cycle, epiphytic litterfall, forest Keyword: productivity, old-growth forest https://mc06.manuscriptcentral.com/cjfr-pubs Page 1 of 36 Canadian Journal of Forest Research 0 1 Total and epiphytic litter under the canopy of Acer macrophyllum in an old-growth temperate 2 rainforest, Washington State, USA 3 4 Authors: Camila F. Tejo a* , Darlene Zabowski b, Nalini M. Nadkarni c 5 6 a Instituto de Conservacion, Biodiversidad y Territorio, Universidad Austral de Chile, Casilla 567, 7 Valdivia, Chile. 8 b School of Environmental Forest Sciences, University of Washington, Seattle, WA, 98195, USA. 9 c Department of Biology, University of Utah, Salt Lake City, UT 84112 USA 10 11 *Corresponding author. Tel.: +56 9 6215Draft 2781. Email address: [email protected] 12 https://mc06.manuscriptcentral.com/cjfr-pubs Canadian Journal of Forest Research Page 2 of 36 0 13 Abstract 14 The amounts and ecological importance of epiphytic litterfall has often been overlooked 15 in forest ecosystem studies. However, epiphytes participate in whole-ecosystem dynamics by 16 capturing and retaining nutrients from atmospheric sources, and transferring these nutrients to 17 other ecosystem components. -
Samambaia - the Future Focus for Indian Researchers in the Treatment of Psoriasis
Thai J. Pharm. Sci. 31 (2007) 45-51 45 Review article Samambaia - The future focus for Indian researchers in the treatment of psoriasis Kuntal Das* and John Wilking Einstein St. Johnûs Pharmacy College Research Wings, #6, Vijayanagar, II Main, II Stage, R.P.C Layout, Bangalore-560 040. India. *Corresponding Author. E-mail address: titu›[email protected] Abstract: Psoriasis is an issue of global and national public health concern. The traditional use of medicinal plants to treat this disease is widespread throughout India. The present review is an attempt for the beneficial effect of the South American originated fern Polypodium species which are used traditionally for various anomalies in health including Psoriasis condition. This review article has focused on the role of Polypodium species for the health management in India. Keywords: Polypodium; Psoriasis 46 K. Das and J. W. Einstein Introduction Spanish-speaking tropical countries, the plant is known as calaguala. Different species of this genus mainly Psoriasis is a non-contagious skin disorder that Polypodium decumanum, P. leucotomos and P. aureum most commonly appears as inflamed swollen skin are in great demand. They survive under wet rainy lesions covered with silvery white scale. Among various seasons growing over the top of palm trees. There have types of psoriasis, there is plaque psoriasis, character- been steady accumulations of information regarding ized by raised, inflamed (red) lesions. The scale is clinical trails for the psoriasis treatment of this Polypodium actually a buildup of dead skin cells. There is also species. The plant extract has been generally used guttate psoriasis characterized by small red dots of for the treatment of inflammatory disorders and skin psoriasis, which may have some scales. -
Spore Germination and Gametophyte Growth of Polypodium Cambricum Fern
Quad. Bot. Amb. Appl., 18 (2007): 99-102. Spore germination and gametophyte growth of Polypodium cambricum fern S. MUCCIFORA, D. MARCHINI & L. M. BELLANI Department of Evolutionary Biology, Siena University, Via A. Moro 4, 53100 Siena, Italy ABSTRACT. - Spore germination and gametophyte growth of Polypodium cambricum fern. - In controlled culture condi tions Polypodium cambricum L. spores germinate 12-14 days after sowing and reach maximum germination (99%) 40 days after sowing. The primary rhizoid and first protonemal cell arise from two unequal divisions of the original spore cell. Successive transverse divisions of the latter lead to the formation of an unbranched protonemal filament of 4-6 cells. The apical cell of the filament undergoes longitudinal division into two cells from which, through a series of divisions that pro duce spatula- and racket-like forms, a heart-shaped gametophyte arises. About 15 archegonia on the lower surface of the gametophytes just below the notched meristem and about 20 antheridia between the rhizoids characterize the sexually mature gametophyte. P cambricum gametophytes are readily available, easily cultured, and their fast growth and high germination make them potentially good material for studying the effects of contaminants on plant cells. Key words: Polypodium cambricum L., spores, gametophyte, germination. INTRODUCTION plates. Each plate was sown with 200 spores and three Unlike the sporophyte that is generally large and mor replicates were prepared. The plates were exposed to "day phologically complex, the fem gametophyte is small, mul light" tubes (15 W m-2), 12 h light/dark with a temperature ticellular, haploid and differentiated into rhizoids, photo regime of 20/23°C. -
Campyloneurum Poloense (Polypodiaceae), a New Combination and Lectotypification for a Bolivian Fern
Phytotaxa 119 (1): 59–60 (2013) ISSN 1179-3155 (print edition) www.mapress.com/phytotaxa/ Correspondence PHYTOTAXA Copyright © 2013 Magnolia Press ISSN 1179-3163 (online edition) http://dx.doi.org/10.11646/phytotaxa.119.1.7 Campyloneurum poloense (Polypodiaceae), a new combination and lectotypification for a Bolivian fern BLANCA LEÓN1,2 & MICHAEL KESSLER3 1 Museo de Historia Natural, Av. Arenales 1256, Aptdo. 14-0434, Lima-14, Peru. 2 Plant Resources Center, University of Texas at Austin, Austin, TX 78712, USA. E-mail: [email protected] 3 Systematic Botany, University of Zurich, Zollikerstrasse 107, CH-8008 Zurich, Switzerland. E-mail: [email protected] During the revision of the fern genus Campyloneurum Presl (1836: 189) (Polypodiaceae) for Bolivia, a species previously described in Polypodium is recognized in the former, but requiring a new combination, which is done here, in addition to lectotypification and providing an updated description. Campyloneurum poloense (Rosenst.) B.León, comb. nov. Basionym:—Polypodium poloense Rosenstock (1913: 473, as “poloënse”). Type:—BOLIVIA. La Paz: Dept. Nor Yungas, “Polo Polo prope Coroico,” 900 m, October 1912, O. Buchtien 3525 (lectotype S!, designated here, isolectotype US!). Rhizome pruinose, 2–3 mm in diameter; rhizome scales 3.0–3.6 × 0.7–1.0 mm, 12–15 cells wide at the middle length, ovate-lanceolate, brown, clathrate except for marginal cells (only slightly clathrate), biauriculate at the base, with roundish cells except for narrowly oblong cells along the central axis