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Salesforce Park Garden Guide
Start Here! D Central Lawn Children’s Play Area Garden Guide6 Palm Garden 1 Australian Garden Start Here! D Central Lawn Salesforce Park showcases7 California over Garden 50 species of Children’s Play Area 2 Mediterraneantrees and Basin over 230 species of understory plants. 6 Palm Garden -ã ¼ÜÊ ÊăØÜ ØÊèÜãE úØƀØÊèÃJapanese Maples ¼ÃØ Ê¢ 1 Australian Garden 3 Prehistoric¢ØÕè¼«ÕØÊ£ØÂÜÃã«ó«ã«Üŧ¼«¹ĆãÃÜÜ Garden 7 California Garden ¼ÜÜÜŧÊÃØãÜŧÃØ¢ã«Ã£¼ÜÜÜũF Amphitheater Garden Guide 2 Mediterranean Basin 4 Wetland Garden Main Lawn E Japanese Maples Salesforce Park showcases over 50 species of 3 Prehistoric Garden trees and over 230 species of understory plants. A Oak Meadow 8 Desert Garden F Amphitheater It also offers a robust year-round calendar of 4 Wetland Garden Main Lawn free public programs and activities, like fitness B Bamboo Grove 9 Fog Garden Desert Garden classes, concerts, and crafting classes! A Oak Meadow 8 5 Redwood Forest 10 Chilean Garden B Bamboo Grove 9 Fog Garden C Main Plaza 11 South African 10 Chilean Garden Garden 5 Redwood Forest C Main Plaza 11 South African Garden 1 Children’s Australian Play Area Garden ABOUT THE GARDENS The botanist aboard the Endeavor, Sir Joseph Banks, is credited with introducing many plants from Australia to the western world, and many This 5.4 acre park has a layered soil system that plants today bear his name. balances seismic shifting, collects and filters storm- water, and irrigates the gardens. Additionally, the soil Native to eastern Australia, Grass Trees may grow build-up and dense planting help offset the urban only 3 feet in 100 years, and mature plants can be heat island effect by lowering the air temperature. -
NSW Rainforest Trees Part
This document has been scanned from hard-copy archives for research and study purposes. Please note not all information may be current. We have tried, in preparing this copy, to make the content accessible to the widest possible audience but in some cases we recognise that the automatic text recognition maybe inadequate and we apologise in advance for any inconvenience this may cause. · RESEARCH NOTE No. 35 ~.I~=1 FORESTRY COMMISSION OF N.S.W. RESEARCH NOTE No. 35 P)JBLISHED 197R N.S.W. RAINFOREST TREES PART VII FAMILIES: PROTEACEAE SANTALACEAE NYCTAGINACEAE GYROSTEMONACEAE ANNONACEAE EUPOMATIACEAE MONIMIACEAE AUTHOR A.G.FLOYD (Research Note No. 35) National Library of Australia card number and ISBN ISBN 0 7240 13997 ISSN 0085-3984 INTRODUCTION This is the seventh in a series ofresearch notes describing the rainforest trees of N.S. W. Previous publications are:- Research Note No. 3 (I 960)-N.S.W. Rainforest Trees. Part I Family LAURACEAE. A. G. Floyd and H. C. Hayes. Research Note No. 7 (1961)-N.S.W. Rainforest Trees. Part II Families Capparidaceae, Escalloniaceae, Pittosporaceae, Cunoniaceae, Davidsoniaceae. A. G. Floyd and H. C. Hayes. Research Note No. 28 (I 973)-N.S.W. Rainforest Trees. Part III Family Myrtaceae. A. G. Floyd. Research Note No. 29 (I 976)-N.S.W. Rainforest Trees. Part IV Family Rutaceae. A. G. Floyd. Research Note No. 32 (I977)-N.S.W. Rainforest Trees. Part V Families Sapindaceae, Akaniaceae. A. G. Floyd. Research Note No. 34 (1977)-N.S.W. Rainforest Trees. Part VI Families Podocarpaceae, Araucariaceae, Cupressaceae, Fagaceae, Ulmaceae, Moraceae, Urticaceae. -
Diploglottis Australis
Plants of South Eastern New South Wales Opening seed case. Australian Plant Image Index, photographer AM Lyne, Cambewarra Lookout west of Nowra Painting. In Auguste Faguet - Dictionnaire de botanique by Henri Ernest Baillon and others, Paris, Hachette, 1886, volume 2 Trunk. Australian Plant Image Index, Tree. Australian Plant Image Index, photographer photographer Murray Fagg, Royal Botanic Gardens Murray Fagg, Terania Creek east of NImbin Melbourne Common name Native tamarind Family Sapindaceae Where found Forest, sometimes in regrowth. Coastal north from Bermagui. Occasiinally in the ranges. Notes Tree to about 35 m high. Arils on the seeds fleshy. Larger trees fluted towards the base. Bark smooth, dark grey or brownish grey, often becoming blistered on large trees. Branchlets strongly ribbed, rusty-hairy, becoming hairless. Leaves alternating up the stems, adult leaves 40–135 cm long, compound, with 6–20 leaflets. Leaves on saplings and regrowth simple or with 3–5 leaflets. Leaflets mostly 10–30 cm long and 40–100 mm wide, upper surface more or less hairless except along the veins, lower surface rusty-hairy to sparsely hairy except along the veins, tips rounded or bluntly pointed. Flowers functionally unisexual with male and female flowers on the same plant. Flowers with 4-5 white petals, about 3 mm in diameter, and creamy- to golden-brown hairy sepals. Flowers in much branched clusters mostly 12–50 cm long. Seed cases yellow to brown, hairy, 10–15 mm in diameter, 2- or 3-lobed. Arils completely covering the seeds, orange to yellow. Fruit ripe Nov-Dec. PlantNET description: http://plantnet.rbgsyd.nsw.gov.au/cgi-bin/NSWfl.pl? page=nswfl&lvl=sp&name=Diploglottis~australis (accessed 12 January, 2021) Author: Betty Wood. -
Macadamia Variety Identifier
Macadamia information kit Reprint – information current in 1998 Macadamia Variety Identifier REPRINT INFORMATION – PLEASE READ! Contributing authors For updated information please call 13 25 23 or visit the website www.deedi.qld.gov.au David Bell Eric Gallagher This publication has been reprinted as a digital book without any changes to the content published in 1998. We advise readers to take particular note of the areas most likely to be out-of-date and so requiring further research: Lindsay Bryen Ian McConachie • Chemical recommendations—check with an agronomist or Infopest www.infopest.qld.gov.au • Financial information—costs and returns listed in this publication are out of date. Please contact an adviser or Daryl Firth Paul O’Hare industry body to assist with identifying more current figures. Kim Jones Russ Stephenson • Varieties—new varieties are likely to be available and some older varieties may no longer be recommended. Check with an agronomist, call the Business Information Centre on 13 25 23, visit our website www.deedi.qld.gov.au or contact the industry body. • Contacts—many of the contact details may have changed and there could be several new contacts available. The industry organisation may be able to assist you to find the information or services you require. • Organisation names—most government agencies referred to in this publication have had name changes. Contact Coordinating author the Business Information Centre on 13 25 23 or the industry organisation to find out the current name and contact details for these agencies. • Additional information—many other sources of information are now available for each crop. -
Pollination Ecology and Evolution of Epacrids
Pollination Ecology and Evolution of Epacrids by Karen A. Johnson BSc (Hons) Submitted in fulfilment of the requirements for the Degree of Doctor of Philosophy University of Tasmania February 2012 ii Declaration of originality This thesis contains no material which has been accepted for the award of any other degree or diploma by the University or any other institution, except by way of background information and duly acknowledged in the thesis, and to the best of my knowledge and belief no material previously published or written by another person except where due acknowledgement is made in the text of the thesis, nor does the thesis contain any material that infringes copyright. Karen A. Johnson Statement of authority of access This thesis may be made available for copying. Copying of any part of this thesis is prohibited for two years from the date this statement was signed; after that time limited copying is permitted in accordance with the Copyright Act 1968. Karen A. Johnson iii iv Abstract Relationships between plants and their pollinators are thought to have played a major role in the morphological diversification of angiosperms. The epacrids (subfamily Styphelioideae) comprise more than 550 species of woody plants ranging from small prostrate shrubs to temperate rainforest emergents. Their range extends from SE Asia through Oceania to Tierra del Fuego with their highest diversity in Australia. The overall aim of the thesis is to determine the relationships between epacrid floral features and potential pollinators, and assess the evolutionary status of any pollination syndromes. The main hypotheses were that flower characteristics relate to pollinators in predictable ways; and that there is convergent evolution in the development of pollination syndromes. -
Complexity and Variation in the Effects of Low-Severity Fires on Forest Biota
University of Montana ScholarWorks at University of Montana Graduate Student Theses, Dissertations, & Professional Papers Graduate School 2003 Complexity and variation in the effects of low-severity fires on forest biota Karen Christine Short The University of Montana Follow this and additional works at: https://scholarworks.umt.edu/etd Let us know how access to this document benefits ou.y Recommended Citation Short, Karen Christine, "Complexity and variation in the effects of low-severity fires on forest biota" (2003). Graduate Student Theses, Dissertations, & Professional Papers. 9463. https://scholarworks.umt.edu/etd/9463 This Dissertation is brought to you for free and open access by the Graduate School at ScholarWorks at University of Montana. It has been accepted for inclusion in Graduate Student Theses, Dissertations, & Professional Papers by an authorized administrator of ScholarWorks at University of Montana. For more information, please contact [email protected]. Maureen and Mike MANSFIELD LIBRARY The University of Montana Permission is granted by the author to reproduce this material in its entirety, provided that this material is used for scholarly purposes and is properly cited in published works and reports. **Please check "Yes" or "No" and provide signature** ,/ Yes, I grant permission U7 ______ No, I do not grant permission Author's Signature: Date: <£/£-/< Any copying for commercial purposes or financial gain may be undertaken only with the author's explicit consent. 8/98 Reproduced with permission of the copyright owner. Further reproduction prohibited without permission. Reproduced with permission of the copyright owner. Further reproduction prohibited without permission. COMPLEXITY AND VARIATION IN THE EFFECTS OF LOW-SEVERITY FIRES ON FOREST BIOTA by Karen C. -
Primitive Angiosperm Flower – a Discussion*
Acta Bot. Neerl. 23(4), August 1974, p. 461-471. The structure and function of the primitive Angiosperm flower – a discussion* Gerhard Gottsberger Departamentode Botanica, Faculdade de Ciencias Medicas e Biologicas de Botucatu, Estado de Sao Paulo, Brazil SUMMARY Morphological and functional features of primitive entomophilous Angiosperm flowers are discussed and confronted with modem conceptions onearly Angiosperm differentiation. Evidence is put forward to show that large, solitary and terminally-borne flowers are not most primitive in the Angiosperms, but rather middle-sized ones, groupedinto lateral flower aggregates or inflorescences. It is believed that most primitive, still unspecialized Angiosperm flowers were pollinated casuallyby beetles. Only in a later phase did they graduallybecome adaptedto the more effective but more devastating type of beetle pollination. Together with this specialization, flower enlargment, reduction of inflorescences, numerical increase of stamens and carpels, and their more dense aggregationand flatteningmight have occurred. In have maintained the archaic condi- regard to pollination,many primitive Angiosperms tion of because beetles still dominant insect whereas in cantharophily, are a group, dispersal they have been largely forced to switch over from the archaic saurochory to the more modern modes of dispersal by birds and mammals,since duringthe later Mesozoic the dominance of reptiles had come to an end. The prevailing ideas regarding the primitiveness of Angiosperm flower struc- be somewhat Is the -
Garden Escapes & Other Weeds in Bushland and Reserves a Responsible Gardening Guide for the Sydney Region
Garden Escapes & Other Weeds in Bushland and Reserves A responsible gardening guide for the Sydney Region Sydney Weeds Committees Sydney Central Sydney South West Sydney North Sydney West – Blue Mountains C O N T E N T S General Information 3 Vines & Scramblers 6 Ground Covers 20 Bulbous & Succulent Weeds 34 Grass Weeds 51 Shrub Weeds 57 Tree Weeds 64 Water Weeds 74 Help Protect Your Local Environment 77 Common Plant Parts 78 Bibliography 79 Plant Me Instead 80 Index & Acknowledments 82 Reprinted 2012- Updated in 2018 Booklet adapted and reproduced with permission of Great Lakes Council The Problem What is a weed? Plants escape from gardens in a WEEDS are plants that don’t belong variety of ways, but one main cause where they are. They can include of spread from gardens is by green plants from other countries but are also waste dumping in bushland and road sometimes from other parts of Australia. reserves. This practice is harmful to the Weeds can be harmful to human and bush for many reasons, such as: animals. They also affect the ecology and appearance of bushland areas and s introducing weeds (plant fragments, waterways. bulbs, roots, tubers, seeds, spores) Weeds often grow faster than s smothering native plants native plants and out-compete them to become dominant in natural areas. The s changing the soil and ideal growing natural pests or diseases that would conditions for native plants otherwise control their growth are lacking s increasing fi re risk by increasing as the plants have been introduced from fuel loads. somewhere else. -
Friends of the Brisbane Botanic Gardens and Sherwood Arboretum Newsletter
GOVERNANCE § Funding priorities Exciting news came in January, with the arrival $75,000 donated by Brisbane City Council. We plan to use that money wisely to kick start operations that will also raise more money and gain more members. For ABN 20 607 589 873 example, our corporate branding, Connect – Promote - Protect website, social media contacts all need DELECTABLE PLANT TREASURE: to be put on a professional footing. Jim Sacred Lotus, ponds near Administration Building, at Dobbins has been magnanimous with Mt Coot-tha Botanic Garden (J Sim 5 March 2016). his pro bono graphics and media Lilygram design for us and we thank him for all CONTENTS: his help and patience. Paul Plant has come on board the Management Newsletter Governance ............................1 Committee and steering our New Members! .......................1 promotions and publicity efforts. Issue 2, March 2016 New Sources! .........................2 Annual General Meeting Bump the Funny Bone !! .......2 Let's be friends… We decided against that Special INSTAGRAM News ...............2 General Meeting in April and will CONTACTING f BBGSA WEBSITE news .....................2 Our Website focus on working as a team of initial FACEBOOK news..................2 Directors until we stage the first AGM www.fbbgsa.org.au Postcards ................................3 (Membership details here) in August. PLANTspeak ..........................4 Email History EXPOSÉ ...................5 Making things Happen [email protected] FoSA news .............................7 Now we have reached accord with MAIL ADDRESS OBBG news ............................8 Friends of Sherwood Arboretum, we f BBGSA, PO Box 39, MCBG Visitor Centre .......... 10 are forging ahead with events and Sherwood, Qld 4075. Volunteer Guides news ........ 11 activities. However, we still need May Events! ........................ -
Natural Regeneration - Case Studies in LW0033 Bushland ISSN 1440-2106 Felicity Nicholls, Frankie Maclennan, Jean Edwards
December 1998 Natural regeneration - case studies in LW0033 bushland ISSN 1440-2106 Felicity Nicholls, Frankie MacLennan, Jean Edwards This Note looks at some case histories of natural outcompete native species in the 'race' to grow and regeneration in bushland remnants. Note 13 'Natural colonise. regeneration: principles and practice' and Note 16 Pest animal control may be an important factor to 'Natural Regeneration - case studies on the farm' should consider when encouraging natural regeneration in your be used in conjunction with this Note. remnant bush. The most effective approach is to produce a The advantages control program and to involve your neighbours in the program. Refer to LFW Notes 24, 25 and 31. Care must Natural regeneration in bushland has many advantages over be taken to minimise disturbance to bush areas and their natural regeneration in farm areas, however, both have wildlife. For example, ripping a rabbit warren may not be important roles to play in restoring wildlife habitat on appropriate. Invertebrates may consume young seedlings private land. The advantages of natural regeneration in when they are most vulnerable. bushland include: Fire may be used as an ecological tool for encouraging • a larger degree of protection from climatic factors such natural regeneration. It has played an important role in as harsh sun and wind. determining the composition and structure of much of • a larger, more diverse, seed bank already in the soil, Australia's vegetation. However, its occurrence in remnant allowing a greater variety of trees, shrubs, grasses, vegetation is now often lacking. Fire can stimulate herbs and groundcovers to appear. -
Shrubs Shrubs
Shrubs Shrubs 86 87 biibaya Broom bush Language name biibaya (yuwaalaraay) Scientific name Melaleuca uncinata Plant location Shrubs The biibaya (Broom Bush) is widespread through mallee, woodland and forest in the western part of the Border Rivers and Gwydir catchments. It often grows on sandy soils. Plant description The biibaya is an upright shrub with many stems growing from the main trunk. It grows between 1 to 3 metres high. The bark on older stems is papery. It has long, thin leaves which look like the bristles on a broom. Many fruit join together in a cluster which looks like a globe. Traditional use Can you guess what this plant was used for from its common name? The stems and girran.girraa (leaves) of the biibaya provided a useful broom. Bungun (branches) can also be cut and dried for use in brush fences. Paperbark trees (plants belonging to the genus Melaleuca) had many other uses also. The papery nganda (bark) was used to wrap meat for cooking and as plates, as well as being used as bandages, raincoats, shelter, blankets, twine and many other things. The nectar from the gurayn (flowers) could be eaten or drunk, steeped in water, as a sweet drink. Crushing the girran.girraa provides oil. Young girran.girraa can be chewed, or pounded and mixed with water, to treat colds, respiratory complaints and headaches. This mixture was also used as a general tonic. Inhaling the steam from boiling or burning the leaves provides relief from cold, flu and sinusitis (Howell 1983, Stewart & Percival 1997). The gurayn were also used for decoration. -
Macadamia Tetraphylla L.)
MACADAMIA (Macadamia tetraphylla L.) Marisol Reyes M. 5 Arturo Lavín A. 5.1. Clasificación botánica El género Macadamia pertenece a la familia Proteaceae, el que incluye al menos cinco especies en Australia y diez a escala mundial. Debido a que su semilla es comestible, Macadamia integrifolia Maiden & Betche y Macadamia tetraphylla L., junto a algunos híbridos entre ambas, son las especies de esta familia que actualmente tienen importancia económica. Ambas son nativas de Australia (Nagao and Hirae, 1992). En Chile esta familia está representada por árboles de gran valor maderero como lo son, entre otras, Gevuina avellana Mol. (Avellano chileno, de fruta similar a macadamia), Embothrium coccineum Forst. (“Notro” y “Ciruelillo), Lomatia ferruginea (Cav.) R. Br., (“Fuinque”, ”Huinque”), Lomatia hirsuta (Lam.) Diels, (“Radal”) y Orites myrtoidea (Poepp. et Endl.) Benth et Hook, (“Mirtillo, Radal de hojas chicas”) (Muñoz, 1959; Sudzuki, 1996). 5.2. Origen de la especie Las macadamias originarias de Australia (entre los 25° y 31° de latitud sur), corresponden a especies relativamente nuevas en cuanto a la comercialización de su fruta y son las únicas plantas nativas de Australia que han sido incorporadas al cultivo comercial por su fruto comestible (Moncur et al., 1985). 103 M. integrifolia es originaria de los bosques húmedos subtropicales del sudeste de Queensland, lo que la hace poco tolerante a las bajas temperaturas, mientras que M. tetraphylla es de origen más meridional, lo que la hace más tolerante a áreas con clima temperado (Nagao and Hirae, 1992). La macadamia fue introducida a Hawai desde Australia hacia fines de los 1.800, pero no fue comercialmente cultivada hasta los inicios de los 1.900 (Nagao and Hirae, 1992).