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NORTH CENTRAL WATERWAY STRATEGY 2014-2022 CONTENTS Iii
2014-2022 NORTH CENTRAL WATERWAY STRATEGY Acknowledgement of Country The North Central Catchment Management Authority acknowledges Aboriginal Traditional Owners within the region, their rich culture and spiritual connection to Country. We also recognise and acknowledge the contribution and interest of Aboriginal people and organisations in land and natural resource management. Document name: 2014-22 North Central Waterway Strategy North Central Catchment Management Authority PO Box 18 Huntly Vic 3551 T: 03 5440 1800 F: 03 5448 7148 E: [email protected] www.nccma.vic.gov.au © North Central Catchment Management Authority, 2014 A copy of this strategy is also available online at: www.nccma.vic.gov.au The North Central Catchment Management Authority wishes to acknowledge the Victorian Government for providing funding for this publication through the Victorian Waterway Management Strategy. This publication may be of assistance to you, but the North Central Catchment Management Authority (North Central CMA) and its employees do not guarantee it is without flaw of any kind, or is wholly appropriate for your particular purposes and therefore disclaims all liability for any error, loss or other consequence which may arise from you relying on information in this publication. The North Central Waterway Strategy was guided by a Steering Committee consisting of: • James Williams (Steering Committee Chair and North Central CMA Board Member) • Richard Carter (Natural Resource Management Committee Member) • Andrea Keleher (Department of Environment and Primary Industries) • Greg Smith (Goulburn-Murray Water) • Rohan Hogan (North Central CMA) • Tess Grieves (North Central CMA). The North Central CMA would like to acknowledge the contributions of the Steering Committee, Natural Resource Management Committee (NRMC) and the North Central CMA Board. -
Set 3 Plains Plant List AA
Food for native birds: AKEAKE – riroriro – ngaio, F = Fruit S = Bird Seed N = Nectar old dune ecosystem B = Bud/foliage I = Insects For lizards: L = fruit Plant Tolerances ■ = tolerates or needs □ = intolerant ½ = tolerant of some * = to establish, protect from frost t = toxic for toddlers Plants keyed to landform units, as shown in diagram: (F) = Foredune; (M) = Mid-dune; (B) = Back dune; (S) = Sand flats/plains; (H) = Swampy hollow; (E) / (O) = edge plants of back and old dunes PLANT LISTS Selected from vegetation natural to these droughty Waikuku soils Tolerances TREES & TALL SHRUBS Food sun shade wet dry wind Coprosma robusta karamu (B, O) F ■ ■ ■ ½ ½ Cordyline australis ti kouka, cabbage tree (B, S, H, O) F,N,I ■ ½ ■ ■ ■ Discaria toumatou matagouri (M, B, S, O) I ■ □ □ ■ ■ Dodonaea viscosa akeake (M, B, O)* ■ ½ □ ■ ■ Griselinia littoralis broadleaf, kapuka (B, O) F,N,I ■ ■ ½ ■ ■ Hoheria angustifolia houhere, narrow-leaved lacebark (O) I ■ ½ ½ ■ ■ Kunzea ericoides kanuka (O) N,I ■ □ □ ■ ■ Leptospermum scoparium manuka, tea tree (B, S, H) N,I ■ □ ■ ■ ■ Melicytus ramiflorus mahoe, whiteywood (B, O)* N,B,I ½ ■ ½ ½ ½ Myoporum laetum ngaio (M, B, O)* F,N ■ ½ □ ■ ■ t Myrsine australis mapau, red matipo (B, O)* F,L,I ■ ■ □ ½ ½ Olearia avicenniifolia akiraho, a tree daisy (B,O) S,I ■ ½ □ ■ ■ Olearia paniculata akiraho, golden akeake (B,O) S,I ■ ½ □ ■ ■ Pittosporum eugenioides tarata, lemonwood (O) F,I ■ ■ ½ ■ ½ Pittosporum tenuifolium kohuhu, black matipo, tawhari (B, O) F,I ■ ■ ½ ■ ■ Pseudopanax crassifolius lancewood, horoeka (O) F,N,I -
Breeding Systems and Reproduction of Indigenous Shrubs in Fragmented
Copyright is owned by the Author of the thesis. Permission is given for a copy to be downloaded by an individual for the purpose of research and private study only. The thesis may not be reproduced elsewhere without the permission of the Author. Breeding systems and reproduction of indigenous shrubs in fragmented ecosystems A thesis submitted in partial fulfilment of the requirements for the degree of Doctor of Philosophy III Plant Ecology at Massey University by Merilyn F Merrett .. � ... : -- �. � Massey University Palrnerston North, New Zealand 2006 Abstract Sixteen native shrub species with various breeding systems and pollination syndromes were investigated in geographically separated populations to determine breeding systems, reproductive success, population structure, and habitat characteristics. Of the sixteen species, seven are hermaphroditic, seven dioecious, and two gynodioecious. Two of the dioecious species are cryptically dioecious, producing what appear to be perfect, hermaphroditic flowers,but that functionas either male or female. One of the study species, Raukauaanomalus, was thought to be dioecious, but proved to be hermaphroditic. Teucridium parvifolium, was thought to be hermaphroditic, but some populations are gynodioecious. There was variation in self-compatibility among the fo ur AIseuosmia species; two are self-compatible and two are self-incompatible. Self incompatibility was consistent amongst individuals only in A. quercifolia at both study sites, whereas individuals in A. macrophylia ranged from highly self-incompatible to self-compatible amongst fo ur study sites. The remainder of the hermaphroditic study species are self-compatible. Five of the species appear to have dual pollination syndromes, e.g., bird-moth, wind-insect, wind-animal. High levels of pollen limitation were identified in three species at fo ur of the 34 study sites. -
North Central Chat- November 2018
North Central chat | NOVEMBER 2018 1 NOVEMBER 2018 Keeping you up to date with all the Landcare and Waterwatch news A message from the Regional Landcare Coordinator News 2 Events 5 Hi everyone, Waterwatch update 7 I am thrilled to be back after a refreshing and enjoyable Funding News 10 extended break. I managed to squeeze in trips to WA, SA, New Zealand and Mallacoota, so it’s been an amazing three months from Western to Eastern Australia… and beyond! I wish to extend thanks to my wonderful CMA colleagues Cass, Laura, Darren and Britt for all their help in keeping the Chat, grants and other Landcare related activities rolling along smoothly while I was away. Congratulations to the 2018-19 Victorian Landcare Grant recipients , I look forward to being involved in your projects as they progress throughout the coming 12 months. It was certainly a challenging experience as an assessor this year with so many deserving projects unable to be funded. However, I am pleased we were able to support as many groups as we did with the available funds. Funding and the future of Landcare was a key topic of discussion during the 2018 National Landcare Conference in Brisbane which Darren and I attended, along with National Landcare Award nominees Ian Higgins and Tarrangower Cactus Control Group, in early October. https://www.nationallandcareconference.org.au/presentatio The conference showcased grassroots Landcare projects n-request/ from across the country, amidst keynote speakers discussing Over the coming month, Darren and I will be hosting feeding hungry soils, supporting meaningful partnerships. -
Comparative Analysis of the Nodule Transcriptomes of Ceanothus Thyrsiflorus (Rhamnaceae, Rosales) and Datisca Glomerata (Datiscaceae, Cucurbitales)
fpls-09-01629 November 12, 2018 Time: 18:56 # 1 ORIGINAL RESEARCH published: 14 November 2018 doi: 10.3389/fpls.2018.01629 Comparative Analysis of the Nodule Transcriptomes of Ceanothus thyrsiflorus (Rhamnaceae, Rosales) and Datisca glomerata (Datiscaceae, Cucurbitales) Marco G. Salgado1, Robin van Velzen2, Thanh Van Nguyen1, Kai Battenberg3, Alison M. Berry3, Daniel Lundin4,5 and Katharina Pawlowski1* 1 Department of Ecology, Environment and Plant Sciences, Stockholm University, Stockholm, Sweden, 2 Laboratory of Molecular Biology, Department of Plant Sciences, Wageningen University, Wageningen, Netherlands, 3 Department of Plant Sciences, University of California, Davis, Davis, CA, United States, 4 Centre for Ecology and Evolution in Microbial Model Systems, Linnaeus University, Kalmar, Sweden, 5 Department of Biochemistry and Biophysics, Stockholm University, Stockholm, Sweden Edited by: Stefan de Folter, Two types of nitrogen-fixing root nodule symbioses are known, rhizobial and actinorhizal Centro de Investigación y de Estudios symbioses. The latter involve plants of three orders, Fagales, Rosales, and Cucurbitales. Avanzados (CINVESTAV), Mexico To understand the diversity of plant symbiotic adaptation, we compared the nodule Reviewed by: Luis Wall, transcriptomes of Datisca glomerata (Datiscaceae, Cucurbitales) and Ceanothus Universidad Nacional de Quilmes thyrsiflorus (Rhamnaceae, Rosales); both species are nodulated by members of the (UNQ), Argentina Costas Delis, uncultured Frankia clade, cluster II. The analysis focused on various features. In Technological Educational Institute both species, the expression of orthologs of legume Nod factor receptor genes of Peloponnese, Greece was elevated in nodules compared to roots. Since arginine has been postulated as *Correspondence: export form of fixed nitrogen from symbiotic Frankia in nodules of D. glomerata, the Katharina Pawlowski [email protected] question was whether the nitrogen metabolism was similar in nodules of C. -
The Lichens 19
GALLOWAY: HUMBOLDT MOUNTAINS: THE LICHENS 19 V E GET A T ION S T U DIE SON TH E HUM B 0 L D T M 0 U N T A INS FIORDLAND PART 2: THE LICHENS D. J. GALLOWAY Biochemistry Department, University of Otago, Dunedin SUMMARY The commonest epiphytic foliose lichens in the beech forest are species of Sticta, some often A detailed list is given of the species of reaching great size: S. hirta, S. coronata, S. macrolichens collected from the western slopes of the Humboldt Mountains, Fiordland. The latifrons, S. filix. The most common epiphytic fruticose lichens are species of Usnea and composition and possible importance is dis- cussed of "sub-regional" lichen communities. Sphaerophorus. U snea xanthopoga and U. capiUacea are INTRODUCTION common on twigs of Nothofagus in well-lit situations either at the forest edge or at the The lichen flora of New Zealand is still top of the canopy. Sphaerophorus tener is a imperfectly known and details of its regional common epiphyte and other members of this composition are lacking for much of the genus represented in lesser numbers are several country. A survey of the rather scattered varieties of S. melanocarpus and occasionally literature reveals that very little taxonomic or S. stereocauloides. This, the largest species of ecological work has been done on the alpine the genus and the only one to have cephalodia, lichens. The great difficulty in field lichenology appears to be restricted to areas of high rainfall is accurate recognition of species, particularly in west and south-west areas of the South in alpine regions, where crustaceous lichens, Island. -
2.5 North Central
Loddon River near Newbridge. Photographer: Stephen Malone. The North Central region includes 2.5 North Central internationally significant The North Central region is part of the Murray-Darling Basin and contains the Campaspe, Loddon, Avoca and TWO wetland Avon-Richardson river basins. The waterways of north complexes central Victoria are remarkable natural assets and include two internationally significant wetland complexes – Gunbower Forest and the Kerang Wetlands Ramsar sites. and is home to many They are home to many rare and threatened species, such as the Murray cod, Murray hardyhead and Australasian threatened species, bittern. The region’s waterways provide important such as the Murray cod, recreational opportunities including fishing, swimming, Murray hardyhead and camping, boating and bushwalking. Australasian bittern Regional Riparian Action Plan Regional 26 North Central Top: Reedy Lagoon, Gunbower Creek. Bottom: Caring for the Campaspe Reference Group inspecting riparian works undertaken by Dja Dja Wurrung Enterprises, Campaspe River, Redesdale. Photos courtesy of North Central CMA. Community engagement and partnerships two years through a Communities for Nature grant. The in the North Central region grant involved two community planting events, providing just over seven kilometres of fencing materials and 13,800 Effective community engagement, and growing and plants to 23 landholders along the river from the Wombat strengthening partnerships, are critical for delivery of key State Forest headwaters to the Tylden-Woodend Road. The priorities outlined in the North Central Waterway Strategy. Caring for the Campaspe project contributed the fencing, Community engagement and partnership activities revegetation and weed control contractors to complement undertaken in the North Central region include: the materials provided by the grants. -
Tribe Species Secretory Structure Compounds Organ References Incerteae Sedis Alphitonia Sp. Epidermis, Idioblasts, Cavities
Table S1. List of secretory structures found in Rhamanaceae (excluding the nectaries), showing the compounds and organ of occurrence. Data extracted from the literature and from the present study (species in bold). * The mucilaginous ducts, when present in the leaves, always occur in the collenchyma of the veins, except in Maesopsis, where they also occur in the phloem. Tribe Species Secretory structure Compounds Organ References Epidermis, idioblasts, Alphitonia sp. Mucilage Leaf (blade, petiole) 12, 13 cavities, ducts Epidermis, ducts, Alphitonia excelsa Mucilage, terpenes Flower, leaf (blade) 10, 24 osmophores Glandular leaf-teeth, Flower, leaf (blade, Ceanothus sp. Epidermis, hypodermis, Mucilage, tannins 12, 13, 46, 73 petiole) idioblasts, colleters Ceanothus americanus Idioblasts Mucilage Leaf (blade, petiole), stem 74 Ceanothus buxifolius Epidermis, idioblasts Mucilage, tannins Leaf (blade) 10 Ceanothus caeruleus Idioblasts Tannins Leaf (blade) 10 Incerteae sedis Ceanothus cordulatus Epidermis, idioblasts Mucilage, tannins Leaf (blade) 10 Ceanothus crassifolius Epidermis; hypodermis Mucilage, tannins Leaf (blade) 10, 12 Ceanothus cuneatus Epidermis Mucilage Leaf (blade) 10 Glandular leaf-teeth Ceanothus dentatus Lipids, flavonoids Leaf (blade) (trichomes) 60 Glandular leaf-teeth Ceanothus foliosus Lipids, flavonoids Leaf (blade) (trichomes) 60 Glandular leaf-teeth Ceanothus hearstiorum Lipids, flavonoids Leaf (blade) (trichomes) 60 Ceanothus herbaceus Idioblasts Mucilage Leaf (blade, petiole), stem 74 Glandular leaf-teeth Ceanothus -
The Independent Acquisition of Plant Root Nitrogen-Fixing Symbiosis in Fabids Recruited the Same Genetic Pathway for Nodule Organogenesis
The Independent Acquisition of Plant Root Nitrogen- Fixing Symbiosis in Fabids Recruited the Same Genetic Pathway for Nodule Organogenesis Sergio Svistoonoff1, Faiza Meriem Benabdoun1,2, Mathish Nambiar-Veetil1,3, Leandro Imanishi1,4, Virginie Vaissayre1, Stella Cesari1,5, Nathalie Diagne1,6, Vale´rie Hocher1, Franc¸oise de Billy7, Jocelyne Bonneau1, Luis Wall4, Nadia Ykhlef2, Charles Rosenberg7, Didier Bogusz1, Claudine Franche1, Hassen Gherbi1* 1 Equipe Rhizogene`se, UMR DIADE (IRD, UM2), Institut de Recherche pour le De´veloppement, Montpellier, France, 2 Departement of Biology and Ecology, Mentouri University, Constantine, Algeria, 3 Plant Biotechnology Division, Institute of Forest Genetics and Tree Breeding, Coimbatore, India, 4 Laboratorio de Bioquı´mica, Microbologı´a e Interacciones Biolo´gicas en el Suelo L, Departamento de Ciencia y Tecnologı´a, Universidad Nacional de Quilmes, Bernal, Argentina, 5 Biologie et Ge´ne´tique des Interactions Plante-Parasite (INRA, CIRAD, SupAgro), Campus International de Baillarguet, Montpellier, France, 6 Laboratoire Commun de Microbiologie (IRD/ISRA/ UCAD), Dakar, Se´ne´gal, 7 Laboratoire des Interactions Plantes Microorganismes (UMR 2594/441, CNRS/INRA), Castanet-Tolosan, France Abstract Only species belonging to the Fabid clade, limited to four classes and ten families of Angiosperms, are able to form nitrogen-fixing root nodule symbioses (RNS) with soil bacteria. This concerns plants of the legume family (Fabaceae) and Parasponia (Cannabaceae) associated with the Gram-negative proteobacteria collectively called rhizobia and actinorhizal plants associated with the Gram-positive actinomycetes of the genus Frankia. Calcium and calmodulin-dependent protein kinase (CCaMK) is a key component of the common signaling pathway leading to both rhizobial and arbuscular mycorrhizal symbioses (AM) and plays a central role in cross-signaling between root nodule organogenesis and infection processes. -
Willows in the North Central Region, Victoria
STRATEGIC ACTION PLAN: Willows in the North Central region, Victoria July 2008 Document history L:\Projects\2007\065_Willow Strategy\1_Deliverables\P107065_R01V6.doc REVISION ISSUE DATE VERSION NO. AUTHOR(S) CHECKED APPROVED 15 Jan 08 1 J. Matthew, K. Travis K. Travis A. Vlok 12 Feb 08 2 J. Matthew, K. Travis K. Travis A. Vlok K. Travis 26 March 3 K. Travis C. Arnott K. Travis A. Vlok 4 April 4 K. Travis C. Arnott K. Travis 9 April 5 K. Travis K. Travis 14 April 6 K. Travis K. Travis 30 June 7 K. Travis K. Travis DISTRIBUTION VERSION NO. ISSUED TO DESCRIPTION 1 Bridie Velik-Lord Partial draft for comment 2 Bridie Velik-Lord Full draft for comment 3 Bridie Velik-Lord Full draft for comment 4 Bridie Velik-Lord Full draft for comment 5 Bridie Velik-Lord Full draft for comment 6 Bridie Velik-Lord Full draft 7 Bridie Velik-Lord Final draft CITATION Please cite this document as: Matthew, J., Vlok, A., and Travis, K . (2008) Strategic Action Plan for Willows in the North Central Region. Victoria Report by Alluvium and HLA ENSR for North Central Catchment Management Authority. ACKNOWLEDGEMENTS The authors wish to acknowledge the contribution of the North Central Catchment Management Authority (North Central CMA ) project manager Bridie Velik-Lord, key North Central CMA staff including Jon Leevers, the steering committee, the North Central CMA staff who participated in the community forums, representatives from community groups, David Holmgren who presented an alternative perspective and the many interested and passionate individuals who attended the community forums in Echuca, Kyneton and Daylesford. -
Role of Auxin During Intercellular Infection of Discaria Trinervis By
Role of auxin during intercellular infection of Discaria trinervis by Frankia Leandro Imanishi, Francine Manuelle Perrine-Walker, Adama Ndour, Alice Vayssieres, Geneviève Conejero, Mikael Lucas, Antony Champion, Laurent Laplaze, Luis Wall, Sergio Svistoonoff To cite this version: Leandro Imanishi, Francine Manuelle Perrine-Walker, Adama Ndour, Alice Vayssieres, Geneviève Conejero, et al.. Role of auxin during intercellular infection of Discaria trinervis by Frankia. Frontiers in Plant Science, Frontiers, 2014, 5, pp.399. 10.3389/fpls.2014.00399. hal-01837547 HAL Id: hal-01837547 https://hal.archives-ouvertes.fr/hal-01837547 Submitted on 27 May 2020 HAL is a multi-disciplinary open access L’archive ouverte pluridisciplinaire HAL, est archive for the deposit and dissemination of sci- destinée au dépôt et à la diffusion de documents entific research documents, whether they are pub- scientifiques de niveau recherche, publiés ou non, lished or not. The documents may come from émanant des établissements d’enseignement et de teaching and research institutions in France or recherche français ou étrangers, des laboratoires abroad, or from public or private research centers. publics ou privés. Distributed under a Creative Commons Attribution| 4.0 International License ORIGINAL RESEARCH ARTICLE published: 21 August 2014 doi: 10.3389/fpls.2014.00399 Role of auxin during intercellular infection of Discaria trinervis by Frankia Leandro Imanishi 1,2, Francine M. Perrine-Walker 2, Adama Ndour 3, Alice Vayssières 2, Genevieve Conejero 4, Mikaël Lucas -
Rhamnaceae) in Australia Jürgen Kellermanna,B & Frank Udovicicc
Swainsona 33: 149–159 (2020) © 2020 Board of the Botanic Gardens & State Herbarium (Adelaide, South Australia) A review of Colletieae and Discaria (Rhamnaceae) in Australia Jürgen Kellermanna,b & Frank Udovicicc a State Herbarium of South Australia, Botanic Gardens and State Herbarium, Hackney Road, Adelaide, South Australia 5000 Email: [email protected] b The University of Adelaide, School of Biological Sciences, Adelaide, South Australia 5005 c National Herbarium of Victoria, Royal Botanic Gardens of Victoria, Birdwood Avenue, South Yarra, Victoria 3141 Email: [email protected] Abstract: The tribe Colletieae (Rhamnaceae) is reviewed for Australia. It is primarily South American, but two species of Discaria Hook., D. pubescens (Brongn.) Druce and D. nitida Tortosa, occur in south-eastern Australia and Tasmania. The two species are described and illustrated. A hybrid taxon sometimes occurs in areas where the two species are sympatric. The history and typification of the name D. pubescens and its synonyms is discussed and clarified. Keywords: Taxonomy, nomenclature, pre-1958 holotype, Rhamnaceae, Colletieae, Discaria, South America, Australia, New South Wales, Queensland, Tasmania, Victoria Introduction therein; Gotelli et al. 2012a, 2012b, 2020; Medan & Devoto 2017 and references therein). The tribe Colletieae Reiss. ex Endl. is comprised of 23 species in seven genera: Adolphia Meisn., Colletia Monophyly has been corroborated by a morphological Comm. ex A.Juss., Discaria Hook., Kentrothamnus analysis of the tribe (Aagesen 1999), by molecular Suess. & Overkott, Ochetophila Poepp. ex Endl., analyses at family level (Richardson et al. 2000; Retanilla (DC.) Brongn. and Trevoa Miers ex Hook. Hauenschild et al. 2016, 2018), by analyses of nearly The maximal species diversity of the tribe is found all species of the tribe combining morphology with south of 30° S and most of the distributions are loosely trnL-F sequence data (Aagesen et al.