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The Importance of Petiole Structure on Inhabitability by Ants in Piper Sect. Macrostachys (Piperaceae)
Blackwell Publishing LtdOxford, UKBOJBotanical Journal of the Linnean Society0024-40742007 The Linnean Society of London? 2007 153•• 181191 Original Article ANT DOMATIA IN PIPER SECT. MACROSTACHYS E. J. TEPE ET AL. Botanical Journal of the Linnean Society, 2007, 153, 181–191. With 3 figures The importance of petiole structure on inhabitability by ants in Piper sect. Macrostachys (Piperaceae) ERIC. J. TEPE*, MICHAEL A. VINCENT and LINDA E. WATSON Department of Botany, Miami University, Oxford, OH 45056, USA Received July 2005; accepted for publication August 2006 Several Central American species of Piper sect. Macrostachys have obligate associations with ants, in which the ant partner derives food and shelter from modified plant structures and, in turn, protects the plant against fungal infection and herbivory. In addition to these obligate ant-plants (i.e. myrmecophytes), several other species in Piper have resident ants only sometimes (facultative), and still other plant species never have resident ants. Sheathing petioles of sect. Macrostachys form the domatia in which ants nest. Myrmecophytes in sect. Macrostachys have tightly closed petiole sheaths with bases that clasp the stem. These sheathing petioles appear to be the single most important plant character in the association between ants and species of sect. Macrostachys. We examined the structure and variation of petioles in these species, and our results indicate that minor modifications in a small number of petiolar characters make the difference between petioles that are suitable for habitation by ants and those that are not. © 2007 The Linnean Society of London, Botanical Journal of the Linnean Society, 2007, 153, 181–191. ADDITIONAL KEYWORDS: ant–plant mutualisms – domatia – myrmecophytes – pearl bodies. -
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ECOLOGICAL SURVEY OF THE PROPOSED BIG PINE MOUNTAIN RESEARCH NATURAL AREA LOS PADRES NATIONAL FOREST, SANTA BARBARA COUNTY, CALIFORNIA TODD KEELER-WOLF FEBRUARY 1991 (PURCHASE ORDER # 40-9AD6-9-0407) INTRODUCTION 1 Access 1 PRINCIPAL DISTINGUISHING FEATURES 2 JUSTIFICATION FOR ESTABLISHMENT 4 Mixed Coniferous Forest 4 California Condor 5 Rare Plants 6 Animal of Special Concern 7 Biogeographic Significance 7 Large Predator and Pristine Environment 9 Riparian Habitat 9 Vegetation Diversity 10 History of Scientific Research 11 PHYSICAL AND CLIMATIC CONDITIONS 11 VEGETATION AND FLORA 13 Vegetation Types 13 Sierran Mixed Coniferous Forest 13 Northern Mixed Chaparral 22 Canyon Live Oak Forest 23 Coulter Pine Forest 23 Bigcone Douglas-fir/Canyon Live Oak Forest 25 Montane Chaparral 26 Rock Outcrop 28 Jeffrey Pine Forest 28 Montane Riparian Forest 31 Shale Barrens 33 Valley and Foothill Grassland 34 FAUNA 35 GEOLOGY 37 SOILS 37 AQUATIC VALUES 38 CULTURAL VALUES 38 IMPACTS AND POSSIBLE CONFLICTS 39 MANAGEMENT CONCERNS 40 BOUNDARY CHANGES 40 RECOMMENDATIONS 41 LITERATURE CITED 41 APPENDICES 41 Vascular Plant List 43 Vertebrate List 52 PHOTOGRAPHS AND MAPS 57 INTRODUCTION The Big Pine Mountain candidate Research Natural Area (RNA) is on the Santa Lucia Ranger District, Los Padres National Forest, in Santa Barbara County, California. The area was nominated by the National Forest as a candidate RNA in 1986 to preserve an example of the Sierra Nevada mixed conifer forest for the South Coast Range Province. The RNA as defined in this report covers 2963 acres (1199 ha). The boundaries differ from those originally proposed by the National Forest (map 5, and see discussion of boundaries in later section). -
Pigment Composition of Putatively Achlorophyllous Angiosperms
Plant Pl. Syst. Evol. 210:105-111 (1998) Systematics and Evolution © Springer-Verlag 1998 Printed in Austria Pigment composition of putatively achlorophyllous angiosperms MICHAEL P. CUMMINGS and NICHOLAS A. WELSCHMEYER Received August 15, 1996; in revised version February 10, 1997 Key words: Angiospermae, Lennoaceae, Monotropaceae, Orobanchaceae, Orchidaceae. - Chlorophyll, carotenoid, pigment, high-performance liquid chromatography. Abstract: Chlorophyll and carotenoid pigment composition was determined for ten species of putatively achlorophyllous angiosperms using high-performance liquid chromatography. Four families were represented: Lennoaceae (Pholisma arenarium); Monotropaceae (Allotropa virgata, Monotropa uniflora, Pterospora andromedea, Sarcodes sanguinea); Orobanchaceae (Epifagus virginiana, Orobanche cooperi, O. unißora); Orchidaceae (Cephalanthera austinae, Corallorhiza maculata). Chlorophyll a was detected in all taxa, but chlorophyll b was only detected in Corallorhiza maculata. The relative amount of chlorophyll and chlorophyll-related pigments in these plants is greatly reduced compared to fully autotrophic angiosperms. One of the most conspicuous features of plants is green coloration conferred by the presence of the pigment chlorophyll. However achlorophyllous plants, as their name implies, are thought to lack chlorophyll and other pigments associated with photosynthesis. This lack of chlorophyll is thought to be associated with the nonphotosynthetic habit, and hence the completely heterotrophic nature of holoparasites -
High Root Concentration and Uneven Ectomycorrhizal Diversity Near Sarcodes Sanguinea ( Ericaceae): a Cheater That Stimulates Its Victims? Author(S): Martin I
High Root Concentration and Uneven Ectomycorrhizal Diversity Near Sarcodes sanguinea ( Ericaceae): A Cheater That Stimulates Its Victims? Author(s): Martin I. Bidartondo, Annette M. Kretzer, Elizabeth M. Pine and Thomas D. Bruns Source: American Journal of Botany, Vol. 87, No. 12 (Dec., 2000), pp. 1783-1788 Published by: Botanical Society of America, Inc. Stable URL: http://www.jstor.org/stable/2656829 Accessed: 29-02-2016 09:39 UTC Your use of the JSTOR archive indicates your acceptance of the Terms & Conditions of Use, available at http://www.jstor.org/page/ info/about/policies/terms.jsp JSTOR is a not-for-profit service that helps scholars, researchers, and students discover, use, and build upon a wide range of content in a trusted digital archive. We use information technology and tools to increase productivity and facilitate new forms of scholarship. For more information about JSTOR, please contact [email protected]. Botanical Society of America, Inc. is collaborating with JSTOR to digitize, preserve and extend access to American Journal of Botany. http://www.jstor.org This content downloaded from 132.174.255.116 on Mon, 29 Feb 2016 09:39:26 UTC All use subject to JSTOR Terms and Conditions American Journal of Botany 87(12): 1783-1788. 2000. HIGH ROOT CONCENTRATION AND UNEVEN ECTOMYCORRHIZAL DIVERSITY NEAR SARCODES SANGUINEA (ERICACEAE): A CHEATER THAT STIMULATES ITS VICTIMS?1 MARTIN I. BIDARTONDO,2 ANNETTE M. KRETZER,3 ELIZABETH M. PINE, AND THOMAS D. BRUNS 111 Koshland Hall, College of Natural Resources, University of California at Berkeley, Berkeley, California 94720-3102, USA Sarcodes sanguinea is a nonphotosynthetic mycoheterotrophic plant that obtains all of its fixed carbon from neighboring trees through a shared ectomycorrhizal fungus. -
Field Identification Guide to WAP Plants 2008 3Rd Ed
The Field Identification Guide to Plants Used in the Wetland Assessment Procedure (WAP) Contributors: Shirley R. Denton, Ph.D. - Biological Research Associates Diane Willis, MS – GPI Southeast, Inc. April 2008 Third Edition (2015 Printing) The Field Identification Guide was prepared by the Southwest Florida Water Management District. Additional copies can be obtained from the District at: Southwest Florida Water Management District Resource Projects Department Ecological Evaluation Section 2379 Broad Street Brooksville, Florida 34604 The Southwest Florida Water Management District (District) does not discriminate on the basis of disability. This nondiscrimination policy involves every aspect of the District’s functions, including access to and participation in the District’s programs and activities. Anyone requiring reasonable accommodation as provided for in the Americans with Disabilities Act should contact the District’s Human Resources Bureau Chief, 2379 Broad St., Brooksville, FL 34604-6899; telephone (352) 796-7211 or 1-800-423-1476 (FL only), ext. 4703; or email [email protected]. If you are hearing or speech impaired, please contact the agency using the Florida Relay Service, 1(800)955-8771 (TDD) or 1(800)955-8770 (Voice). Introduction In 1996, the Florida Legislature directed the Southwest Florida Water Management District (District) to begin the process of establishing Minimum Flows and Levels (MFLs) throughout the District, beginning in Hillsborough, Pasco, and Pinellas counties. MFLs are defined as the flow in watercourses below which significant harm to water resources and ecology of the area would occur, and the level in surface-water bodies and aquifers in which significant harm to the water resources of the area would occur. -
Botanist Interior 43.1
2011 THE MICHIGAN BOTANIST 129 THE MYCORRHIZAL SYSTEM OF PTEROSPORA ANDROMEDEA (PINE-DROPS) IN WEST MICHIGAN INFERRED FROM DNA SEQUENCE DATA Jianhua Li*, Jeffrey Corajod, Holly Vander Stel, and Austin Homkes Department of Biology Hope College 35 E 12th St., Schaap Science Center, Holland, MI 49423 ABSTRACT Pterospora andromedea is a mycoheterotrophic plant with a disjunct distribution between west - ern and eastern North America and obtains carbon and nutrients indirectly from photosynthetic plants via an ectomycorrhizal fungal bridge. In this study, we used DNA sequence data to determine the or - ganisms involved in the system in West Michigan. Our results suggest that at least two photosyn - thetic plants ( Tsuga and Acer ) are the potential carbon source of the system and that Pterospora is specifically associated with an unidentified species of subgenus Amylopogon of Rhizopogon . Previ - ous studies have shown that seed germination of Pterospora relies on chemical cues from the fungus, implying a dominant role of the fungus in the system. Our field observations suggest that repeated branching of Pterospora roots increases the mass production of the fungal mycelia and lead us to speculate that Pterospora may be a mutualistic partner, not a parasite or exploiter, in the mycorrhizal system. KEYWORDS: Pterospora , nrDNA ITS, rbc L, mutualism, mycorrhizal, subgenus Amylopogon , Rhizopogon . Pterospora andromedea Torr. (pine-drops) is a mycoheterotrophic plant rely - ing on fungal host for germination, growth, and development (Bakshi 1959 ). Molecular studies have shown its close relationship with other myco - heterotrophic plants in Ericaceae such as Monotropa , Allotropa , and Sarcodes (Cullings 1994 ; Kron et al. 2002 ). Pine-drops show a disjunct distribution between the eastern and western North America with an extension in the west to northern Mexico (Bakshi 1959 ). -
Vegetative Vs. Reproductive Morphology
Today’s lecture: plant morphology Vegetative vs. reproductive morphology Vegetative morphology Growth, development, photosynthesis, support Not involved in sexual reproduction Reproductive morphology Sexual reproduction Vegetative morphology: seeds Seed = a dormant young plant in which development is arrested. Cotyledon (seed leaf) = leaf developed at the first node of the embryonic stem; present in the seed prior to germination. Vegetative morphology: roots Water and mineral uptake radicle primary roots stem secondary roots taproot fibrous roots adventitious roots Vegetative morphology: roots Modified roots Symbiosis/parasitism Food storage stem secondary roots Increase nutrient Allow dormancy adventitious roots availability Facilitate vegetative spread Vegetative morphology: stems plumule primary shoot Support, vertical elongation apical bud node internode leaf lateral (axillary) bud lateral shoot stipule Vegetative morphology: stems Vascular tissue = specialized cells transporting water and nutrients Secondary growth = vascular cell division, resulting in increased girth Vegetative morphology: stems Secondary growth = vascular cell division, resulting in increased girth Vegetative morphology: stems Modified stems Asexual (vegetative) reproduction Stolon: above ground Rhizome: below ground Stems elongating laterally, producing adventitious roots and lateral shoots Vegetative morphology: stems Modified stems Food storage Bulb: leaves are storage organs Corm: stem is storage organ Stems not elongating, packed with carbohydrates Vegetative -
Manual of Leaf Architecture
Manual of Leaf Architecture Morphological description and categorization of dicotyledonous and net-veined monocotyledonous angiosperms - 1 - ©1999 by Smithsonian Institution. All rights reserved. Published and distributed by: Leaf Architecture Working Group c/o Scott Wing Department of Paleobiology Smithsonian Institution 10th St. & Constitution Ave., N.W. Washington, DC 20560-0121 ISBN 0-9677554-0-9 Please cite as: Manual of Leaf Architecture - morphological description and categorization of dicotyledonous and net-veined monocotyledonous angiosperms by Leaf Architecture Working Group. 65p. Paper copies of this manual were printed privately in Washington, D.C. We gratefully acknowledge funding from Michael Sternberg and Jan Hartford for the printing of this manual. - 2 - Names and addresses of the Leaf Architecture Working Group in alphabetical order: Amanda Ash Beth Ellis Department of Paleobiology 1276 Cavan St. Smithsonian Institution NHB Boulder, CO 80303 10th St. & Constitution Ave, N.W. Telephone: 303 666-9534 Washington, DC 20560-0121 Email: [email protected] Telephone: 202 357-4030 Fax: 202 786-2832 Email: [email protected] Leo J. Hickey Kirk Johnson Division of Paleobotany Department of Earth and Space Sciences Peabody Museum of Natural History Denver Museum of Natural History Yale University 2001 Colorado Boulevard 170 Whitney Avenue, P.O. Box 208118 Denver, CO 80205-5798 New Haven, CT 06520-8118 Telephone: 303 370-6448 Telephone: 203 432-5006 Fax: 303 331-6492 Fax: 203 432-3134 Email: [email protected] Email: [email protected] Peter Wilf Scott Wing University of Michigan Department of Paleobiology Museum of Paleontology Smithsonian Institution NHB 1109 Geddes Road 10th St. & Constitution Ave, N.W. -
Foliar and Petiole Anatomy of Pterygota (Sterculioideae; Malvaceae) Species and Their Distribution in Nigeria
Anales de Biología 39: 103-109, 2017 ARTICLE DOI: http://dx.doi.org/10.6018/analesbio.39.12 Foliar and petiole anatomy of Pterygota (Sterculioideae; Malvaceae) species and their distribution in Nigeria Emmanuel Chukwudi Chukwuma, Luke Temitope Soyewo, Tolulope Fisayo Okanlawon & Omokafe Alaba Ugbogu Forest Herbarium Ibadan (FHI), Forestry Research Institute of Nigeria, Jericho Hill, Ibadan, Oyo State, Nigeria. Resumen Correspondence Anatomía foliar y del peciolo de especies de Pterigota EC. Chukwuma (Sterculioideae; Malvaceae) E-mail: [email protected] Se estudió la anatomía foliar y del peciolo de especies de Pterygo- Received: 18 February 2017 ta de Nigeria, proveyendo información sobre su distribución en el Accepted: 26 April 2017 área. Principalmente están distribuidas por el sur de Nigeria, espe- Published on-line: 22 June 2017 cialmente en zonas más húmedas. Los microcaracteres foliares muestran que las especies son hiposteomátcas y generalmente paracíticas, más abundantes en P. berquaertii, con un promedio de 115/mm2, que en P. macrocarpa, con 59/mm². Las células epidér- micas son irregulares, rectangulares y poligonales. El peciolo esfé- rico con epidermis uniseriada; la distribución celular varia desde solitarias a radiales múltiples. Este estudio ha proporcionado im- portante información sobre las especies indígenas. Son necesarios estudios posteriores para comprender grado y tiempo de evolución independiente de las especies en Nigeria. Palabras clave: Pterygota, Taxonomía, Foliar, Peciolo, Micro- morfología, Conservación. Abstract Leaf and petiole anatomy of Pterygota species in Nigeria were studied and their distribution within the area is also reported, follow- ing outlined standard protocols. They are chiefly distributed in Southern Nigeria especially in wetter areas. -
Leaf and Petiole Micro-Anatomical Diversities in Some Selected Nigerian Species of Combretum Loefl.: the Significance in Species Identification at Vegetative State
ABMJ 2020, 3(1): 15-29 DOI: 10.2478/abmj-2020-0002 Acta Biologica Marisiensis LEAF AND PETIOLE MICRO-ANATOMICAL DIVERSITIES IN SOME SELECTED NIGERIAN SPECIES OF COMBRETUM LOEFL.: THE SIGNIFICANCE IN SPECIES IDENTIFICATION AT VEGETATIVE STATE Opeyemi Philips AKINSULIRE1*, Olaniran Temitope OLADIPO1, Oluwabunmi Christy AKINKUNMI2, Oladipo Ebenezer ADELEYE1, Kole Fredrick ADELALU1,3 *1Department of Botany, Obafemi Awolowo University, Ile – Ife, Nigeria 2Department of Microbiology, Federal University of Technology, Akure, Nigeria 3Biosystematics and Evolution Laboratory, Chinese Academy of Science, Wuhan Botanical Garden, China *Correspondence: Opeyemi Philips AKINSULIRE [email protected], [email protected] Received: 21 April 2020; Accepted: 06 June 2020; Published: 30 June 2020 Abstract: Leaf and petiole samples of four Combretum Loefl. species which were identified in the Herbarium (IFE) were investigated anatomically in search of stable taxonomic micro-anatomical attributes to improve our knowledge of identification of members of the genus. Anatomical characters; in particular, upper and lower cuticles and epidermal structures, fibre structures, vascular architectures, petiolar outlines and trichome micro-morphology are good taxonomic tools to identify the taxa. The invariable uniseriate to multiseriate upper and lower epidermis; the absence of trichome in the petiole and the presence of branched trichome in the mid-rib region of C. zenkeri P. Beauv delimit the taxa. Variations in vascular architectures can be used to identify the taxa while some other anatomical features in the genus suggest great taxonomic affinities. However, the artificial key, which was constructed using stable taxonomic characters, is a reliable taxonomic tool for proper identification of the four species and which can as well be employed in separating each of the taxa from their close relatives. -
Wildflower Guide
Pussypaws (or Pussy Toes) Sierra Morning Glory Western Peony Calyptridium umbellatum Calystegia malacophylla Paeonia brownii Portulacaceae (Purslane) family Convolvulaceae (Morning Glory) family Paeoniaceae (Peony) family May-August July–August May-June The flower head clusters are reminiscent There are over 1,000 species of morning This flower’s petals are maroon to of fuzzy kitten paws. The stems and glory worldwide. Many bloom in the early brownish and the flower usually nods, flower heads are often almost prostrate morning hours, giving the family or points downward, so it can be easy (lying on the ground). Pussypaws are its name. Tahoe Donner is near the upper to miss. widespread and somewhat variable. elevation of the range for Sierra morning glory. Rabbitbrush Snow Plant Willow WILDFLOWER Ericameria sp. Sarcodes sanguinea Salix spp. Asteraceae (Sunflower or Aster) family Ericaceae (Heath) family Salicaceae (Willow) family GUIDE August–October May–June March–June This shrub is common throughout the Appears almost as soon as snow melts. There are several types of willow in Tahoe Donner area. The tips of the Saprophytic plant: obtains nutrients from the Tahoe Donner area, with blooming branches look yellow throughout the decaying organic matter in the soil (no seasons that extend from March at least blooming season. photosynthesis). through June. The picture shows typical early-spring catkins (buds) that are getting ready to bloom, and gives the smaller types of willow the familiar name pussy willow. Ranger’s Buttons Varileaf Phacelia Woolly Mule Ears Sphenosciadium capitellatum Phacelia heterophylla Wyethia mollis Apiaceae (Carrot) family Hydrophyllaceae (Waterleaf) family Asteraceae (Sunflower or Aster) family July–August April–July June–July Often found in wet or swampy places. -
Plant Petiole Analysis - Sample Collection Instructions
Plant Petiole Analysis - Sample Collection Instructions Use the table on pages 2 and 3 of this document as a guide for taking samples based on the type of crop and the time of season. General Guidelines: 1. A leaf or blade sample should consist of 15 or more sub-samples taken at random throughout the area being sampled. A petiole sample should consist of 25 or more sub-samples taken at random. For potatoes, submit a minimum of 40 petioles per sample. 2. If a sample is taken from a problem area, obtain a comparison sample from a good area. Soil samples from the problem and good areas are helpful to identify the problem. 3. Avoid sampling along dusty roads. 4. Note samples that have received foliar fertilizer applications so the samples can be rinsed before analysis. 5. Place sample in paper bag and ship to the laboratory with a leaf or petiole sample submittal form. Do not mail samples in plastic bags or other air-tight containers. Please ship or deliver prepared samples, along with a completed Lab Testing Information Sheet, to: KALIX Commercial Plant Nutrition 1574 Sky Park Dr. Medford, OR 97504 FIELD CROPS Bloom Stage Plant Part Mature leaf blades from upper 1/3 Alfalfa, clover 1/10 bloom stage of plant Seedling (up to 12” tall) All above ground portion of plant Beans (soybeans, Most recent fully matured trifoliate field beans) Prior to or at flowering leaves Seedling (up to 12” tall) All above ground portion of plant Most fully developed leaf below Corn Prior to tasseling whorl Tassel or early silk Ear leaf Petiole from fully expanded