Native Plants for Streamside Planting in Wellington Conservancy
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Plant Charts for Native to the West Booklet
26 Pohutukawa • Oi exposed coastal ecosystem KEY ♥ Nurse plant ■ Main component ✤ rare ✖ toxic to toddlers coastal sites For restoration, in this habitat: ••• plant liberally •• plant generally • plant sparingly Recommended planting sites Back Boggy Escarp- Sharp Steep Valley Broad Gentle Alluvial Dunes Area ment Ridge Slope Bottom Ridge Slope Flat/Tce Medium trees Beilschmiedia tarairi taraire ✤ ■ •• Corynocarpus laevigatus karaka ✖■ •••• Kunzea ericoides kanuka ♥■ •• ••• ••• ••• ••• ••• ••• Metrosideros excelsa pohutukawa ♥■ ••••• • •• •• Small trees, large shrubs Coprosma lucida shining karamu ♥ ■ •• ••• ••• •• •• Coprosma macrocarpa coastal karamu ♥ ■ •• •• •• •••• Coprosma robusta karamu ♥ ■ •••••• Cordyline australis ti kouka, cabbage tree ♥ ■ • •• •• • •• •••• Dodonaea viscosa akeake ■ •••• Entelea arborescens whau ♥ ■ ••••• Geniostoma rupestre hangehange ♥■ •• • •• •• •• •• •• Leptospermum scoparium manuka ♥■ •• •• • ••• ••• ••• ••• ••• ••• Leucopogon fasciculatus mingimingi • •• ••• ••• • •• •• • Macropiper excelsum kawakawa ♥■ •••• •••• ••• Melicope ternata wharangi ■ •••••• Melicytus ramiflorus mahoe • ••• •• • •• ••• Myoporum laetum ngaio ✖ ■ •••••• Olearia furfuracea akepiro • ••• ••• •• •• Pittosporum crassifolium karo ■ •• •••• ••• Pittosporum ellipticum •• •• Pseudopanax lessonii houpara ■ ecosystem one •••••• Rhopalostylis sapida nikau ■ • •• • •• Sophora fulvida west coast kowhai ✖■ •• •• Shrubs and flax-like plants Coprosma crassifolia stiff-stemmed coprosma ♥■ •• ••••• Coprosma repens taupata ♥ ■ •• •••• •• -
The Smut Fungi (Ustilaginomycetes) of Restionaceae S. Lat
MYCOLOGIA BALCANICA 3: 19–46 (2006) 19 Th e smut fungi (Ustilaginomycetes) of Restionaceae s. lat. Kálmán Vánky Herbarium Ustilaginales Vánky (H.U.V.), Gabriel-Biel-Str. 5, D-72076 Tübingen, Germany (e-mail: [email protected]) Received 2 October 2005 / Accepted 25 October 2005 Abstract. Smut fungi of Restionaceae s. lat. were studied. Th ey are classifi ed into two genera, Restiosporium and Websdanea. Problems of species delimitation in these smuts are discussed. In addition to the nine known smut fungi, thirteen new species are described and illustrated: Restiosporium anarthriae, R. apodasmiae, R. chaetanthi, R. desmocladii, R. eurychordae, R. fl exuosum, R. hypolaenae, R. lepyrodiae, R. pallentis, R. patei, R. proliferum, R. spathacei, and R. sphacelatum. Key words: new species, Restionaceae s. lat., Restiosporium, smut fungi, taxonomy, Websdanea Introduction and stained in 1 % aqueous uranyl acetate for 1 h in the dark. After fi ve washes in distilled water, the material was Th e monocotyledonous Restionaceae is a remarkable family dehydrated in acetone series, embedded in Spurr’s plastic, of Southern Hemisphere, evergreen, rush-like plants. Th ey and sectioned with a diamond knife. Semi-thin sections are concentrated mainly in SW Africa and in SW Australia. were stained with new fuchsin and crystal violet, mounted Th e c. 320 species of African Restionaceae, in 19 genera, were in ‘Entellan’ and studied in a light microscope. revised by Linder (1985, 1991). Th e 170 species of Australian Spore ball and spore morphology was studied using Restionaceae s. lat. were published by Meney & Pate (1999) a light microscope (LM) with an oil immersion lens at a in a beautifully illustrated monograph. -
Low Risk Aquarium and Pond Plants
Plant Identification Guide Low-risk aquarium and pond plants Planting these in your pond or aquarium is environmentally-friendly. Glossostigma elatinoides, image © Sonia Frimmel. One of the biggest threats to New Zealand’s waterbodies is the establishment and proliferation of weeds. The majority of New Zealand’s current aquatic weeds started out as aquarium and pond plants. To reduce the occurrence of new weeds becoming established in waterbodies this guide has been prepared to encourage the use of aquarium and pond plants that pose minimal risk to waterbodies. Guide prepared by Dr John Clayton, Paula Reeves, Paul Champion and Tracey Edwards, National Centre of Aquatic Biodiversity and Biosecurity, NIWA with funding from the Department of Conservation. The guides will be updated on a regular basis and will be available on the NIWA website: www.niwa.co.nz/ncabb/tools. Key to plant life-forms Sprawling marginal plants. Grow across the ground and out over water. Pond plants Short turf-like plants. Grow in shallow water on the edges of ponds and foreground of aquariums. Includes very small plants (up to 2-3 cm in height). Most species can grow both submerged (usually more erect) and emergent. Pond and aquarium plants Tall emergent plants. Can grow in water depths up to 2 m deep depending on the species. Usually tall reed-like plants but sometimes with broad leaves. Ideal for deeper ponds. Pond plants Free floating plants. These plants grow on the water surface and are not anchored to banks or bottom substrates. Pond and aquarium plants Floating-leaved plants. Water lily-type plants. -
Impact of Sea Level Rise on Coastal Natural Values in Tasmania
Impact of sea level rise on coastal natural values in Tasmania JUNE 2016 Department of Primary Industries, Parks, Water and Environment Acknowledgements Thanks to the support we received in particular from Clarissa Murphy who gave six months as a volunteer in the first phase of the sea level rise risk assessment work. We also had considerable technical input from a range of people on various aspects of the work, including Hans and Annie Wapstra, Richard Schahinger, Tim Rudman, John Church, and Anni McCuaig. We acknowledge the hard work over a number of years from the Sea Level Rise Impacts Working Group: Oberon Carter, Louise Gilfedder, Felicity Faulkner, Lynne Sparrow (DPIPWE), Eric Woehler (BirdLife Tasmania) and Chris Sharples (University of Tasmania). This report was compiled by Oberon Carter, Felicity Faulkner, Louise Gilfedder and Peter Voller from the Natural Values Conservation Branch. Citation DPIPWE (2016) Impact of sea level rise on coastal natural values in Tasmania. Natural and Cultural Heritage Division, Department of Primary Industries, Parks, Water and Environment, Hobart. www.dpipwe.tas.gov.au ISBN: 978-1-74380-009-6 Cover View to Mount Cameron West by Oberon Carter. Pied Oystercatcher by Mick Brown. The Pied Oystercatcher is considered to have a very high exposure to sea level rise under both a national assessment and Tasmanian assessment. Its preferred habitat is mudflats, sandbanks and sandy ocean beaches, all vulnerable to inundation and erosion. Round-leaved Pigface (Disphyma australe) in flower in saltmarsh at Lauderdale by Iona Mitchell. Three saltmarsh communities are associated with the coastal zone and are considered at risk from sea level rise. -
INDEX for 2011 HERBALPEDIA Abelmoschus Moschatus—Ambrette Seed Abies Alba—Fir, Silver Abies Balsamea—Fir, Balsam Abies
INDEX FOR 2011 HERBALPEDIA Acer palmatum—Maple, Japanese Acer pensylvanicum- Moosewood Acer rubrum—Maple, Red Abelmoschus moschatus—Ambrette seed Acer saccharinum—Maple, Silver Abies alba—Fir, Silver Acer spicatum—Maple, Mountain Abies balsamea—Fir, Balsam Acer tataricum—Maple, Tatarian Abies cephalonica—Fir, Greek Achillea ageratum—Yarrow, Sweet Abies fraseri—Fir, Fraser Achillea coarctata—Yarrow, Yellow Abies magnifica—Fir, California Red Achillea millefolium--Yarrow Abies mariana – Spruce, Black Achillea erba-rotta moschata—Yarrow, Musk Abies religiosa—Fir, Sacred Achillea moschata—Yarrow, Musk Abies sachalinensis—Fir, Japanese Achillea ptarmica - Sneezewort Abies spectabilis—Fir, Himalayan Achyranthes aspera—Devil’s Horsewhip Abronia fragrans – Sand Verbena Achyranthes bidentata-- Huai Niu Xi Abronia latifolia –Sand Verbena, Yellow Achyrocline satureoides--Macela Abrus precatorius--Jequirity Acinos alpinus – Calamint, Mountain Abutilon indicum----Mallow, Indian Acinos arvensis – Basil Thyme Abutilon trisulcatum- Mallow, Anglestem Aconitum carmichaeli—Monkshood, Azure Indian Aconitum delphinifolium—Monkshood, Acacia aneura--Mulga Larkspur Leaf Acacia arabica—Acacia Bark Aconitum falconeri—Aconite, Indian Acacia armata –Kangaroo Thorn Aconitum heterophyllum—Indian Atees Acacia catechu—Black Catechu Aconitum napellus—Aconite Acacia caven –Roman Cassie Aconitum uncinatum - Monkshood Acacia cornigera--Cockspur Aconitum vulparia - Wolfsbane Acacia dealbata--Mimosa Acorus americanus--Calamus Acacia decurrens—Acacia Bark Acorus calamus--Calamus -
Patterns of Flammability Across the Vascular Plant Phylogeny, with Special Emphasis on the Genus Dracophyllum
Lincoln University Digital Thesis Copyright Statement The digital copy of this thesis is protected by the Copyright Act 1994 (New Zealand). This thesis may be consulted by you, provided you comply with the provisions of the Act and the following conditions of use: you will use the copy only for the purposes of research or private study you will recognise the author's right to be identified as the author of the thesis and due acknowledgement will be made to the author where appropriate you will obtain the author's permission before publishing any material from the thesis. Patterns of flammability across the vascular plant phylogeny, with special emphasis on the genus Dracophyllum A thesis submitted in partial fulfilment of the requirements for the Degree of Doctor of philosophy at Lincoln University by Xinglei Cui Lincoln University 2020 Abstract of a thesis submitted in partial fulfilment of the requirements for the Degree of Doctor of philosophy. Abstract Patterns of flammability across the vascular plant phylogeny, with special emphasis on the genus Dracophyllum by Xinglei Cui Fire has been part of the environment for the entire history of terrestrial plants and is a common disturbance agent in many ecosystems across the world. Fire has a significant role in influencing the structure, pattern and function of many ecosystems. Plant flammability, which is the ability of a plant to burn and sustain a flame, is an important driver of fire in terrestrial ecosystems and thus has a fundamental role in ecosystem dynamics and species evolution. However, the factors that have influenced the evolution of flammability remain unclear. -
Vicariance, Climate Change, Anatomy and Phylogeny of Restionaceae
Botanical Journal of the Linnean Society (2000), 134: 159–177. With 12 figures doi:10.1006/bojl.2000.0368, available online at http://www.idealibrary.com on Under the microscope: plant anatomy and systematics. Edited by P. J. Rudall and P. Gasson Vicariance, climate change, anatomy and phylogeny of Restionaceae H. P. LINDER FLS Bolus Herbarium, University of Cape Town, Rondebosch 7701, South Africa Cutler suggested almost 30 years ago that there was convergent evolution between African and Australian Restionaceae in the distinctive culm anatomical features of Restionaceae. This was based on his interpretation of the homologies of the anatomical features, and these are here tested against a ‘supertree’ phylogeny, based on three separate phylogenies. The first is based on morphology and includes all genera; the other two are based on molecular sequences from the chloroplast genome; one covers the African genera, and the other the Australian genera. This analysis corroborates Cutler’s interpretation of convergent evolution between African and Australian Restionaceae. However, it indicates that for the Australian genera, the evolutionary pathway of the culm anatomy is much more complex than originally thought. In the most likely scenario, the ancestral Restionaceae have protective cells derived from the chlorenchyma. These persist in African Restionaceae, but are soon lost in Australian Restionaceae. Pillar cells and sclerenchyma ribs evolve early in the diversification of Australian Restionaceae, but are secondarily lost numerous times. In some of the reduction cases, the result is a very simple culm anatomy, which Cutler had interpreted as a primitively simple culm type, while in other cases it appears as if the functions of the ribs and pillars may have been taken over by a new structure, protective cells developed from epidermal, rather than chlorenchyma, cells. -
'A New Subfamilial and Tribal Classification of Restionaceae
Briggs, B G; Linder, H P (2009). A new subfamilial and tribal classification of Restionaceae (Poales). Telopea, 12(3):333-345. Postprint available at: http://www.zora.uzh.ch University of Zurich Posted at the Zurich Open Repository and Archive, University of Zurich. Zurich Open Repository and Archive http://www.zora.uzh.ch Originally published at: Telopea 2009, 12(3):333-345. Winterthurerstr. 190 CH-8057 Zurich http://www.zora.uzh.ch Year: 2009 A new subfamilial and tribal classification of Restionaceae (Poales) Briggs, B G; Linder, H P Briggs, B G; Linder, H P (2009). A new subfamilial and tribal classification of Restionaceae (Poales). Telopea, 12(3):333-345. Postprint available at: http://www.zora.uzh.ch Posted at the Zurich Open Repository and Archive, University of Zurich. http://www.zora.uzh.ch Originally published at: Telopea 2009, 12(3):333-345. Telopea 12(3) 333–345 A new subfamilial and tribal classification of Restionaceae (Poales) Barbara G. Briggs1 and H. Peter Linder2 1Botanic Gardens Trust Sydney, Mrs Macquaries Road, Sydney NSW 2000, Australia. Email: [email protected] 2Institute of Systematic Botany, University of Zurich, Zollikerrstrasse 107, CH-8008 Zurich, Switzerland Email: [email protected] Abstract Restionoideae Link, with the newly described Sporadanthoideae and Leptocarpoideae, represent major clades of Restionaceae distinguished by analyses of chloroplast DNA data. These subfamilies are supported by features of morphology, culm anatomy, pollen and phytochemistry. Sporadanthoideae occur in Australia and New Zealand, Leptocarpoideae principally in Australia but with representatives also in New Zealand, New Guinea, Aru Islands, Malesia, Hainan Island and Chile, while Restionoideae are in sub-Saharan Africa and Madagascar. -
Diversity in Host Preference of Rotylenchus Spp. Y.S
International Journal of Science, Environment ISSN 2278-3687 (O) and Technology, Vol. 7, No 5, 2018, 1786 – 1793 2277-663X (P) DIVERSITY IN HOST PREFERENCE OF ROTYLENCHUS SPP. Y.S. Rathore Principal Scientist (Retd.), Indian Institute of Pulses Research, Kanpur -208024 (U.P.) E-mail: [email protected] Abstract: Species of the genus Rotylenchus are ecto- or semi-endo parasites and feed on roots of their host plants. In the study it was found that 50% species of Rotylenchus were monophagous and mostly on plants in the clade Rosids followed by monocots, Asterids and gymnosperms. In general, Rosids and Asterids combined parasitized more than 50% host species followed by monocots. Though food preference was species specific but by and large woody plants were preferred from very primitive families like Magnoliaceae and Lauraceae to representatives of advanced families. Woody plants like pines and others made a substantial contribution in the host range of Rotylenchus. Maximum number of Rotylenchus species harboured plants in families Poaceae (monocots), Rosaceae (Rosids) and Oleaceae (Asterids) followed by Fabaceae, Fagaceae, Asteraceae and Pinaceae. It is, therefore, suggested that agricultural crops should be grown far away from wild vegetation and forest plantations. Keywords: Rotylenchus, Magnoliids, Rosids, Asterids, Gymnosperms, Host preference. INTRODUCTION Species of the genus Rotylenchus (Nematoda: Haplolaimidae) are migratory ectoparasites and browse on the surface of roots. The damage caused by them is usually limited to necrosis of penetrated cells (1). However, species with longer stylet penetrate to tissues more deeply and killing more cells and called as semi-endoparasites (2,3). The genus contains 97 nominal species which parasitize on a wide range of wild and cultivated plants worldwide (3). -
Composition, Structure and Restoration Potential of Riparian Forest Remnants, Hawke’S Bay, New Zealand
http://researchcommons.waikato.ac.nz/ Research Commons at the University of Waikato Copyright Statement: The digital copy of this thesis is protected by the Copyright Act 1994 (New Zealand). The thesis may be consulted by you, provided you comply with the provisions of the Act and the following conditions of use: Any use you make of these documents or images must be for research or private study purposes only, and you may not make them available to any other person. Authors control the copyright of their thesis. You will recognise the author’s right to be identified as the author of the thesis, and due acknowledgement will be made to the author where appropriate. You will obtain the author’s permission before publishing any material from the thesis. Composition, structure and restoration potential of riparian forest remnants, Hawke’s Bay, New Zealand A thesis submitted in partial fulfilment of the requirements for the degree of Master of Science (Research) in Ecology and Biodiversity [Faculty of Science & Engineering] at The University of Waikato by Moari Denise West 2021 Abstract Extensive modification of riparian zones across the globe has seen a reduction in the important functions and services provided by the vegetation. Maintaining water quality, sediment control, nutrient cycling, habitat provision, climate change mitigation, and increased biodiversity value are a few of the services provided by riparian vegetation. Within New Zealand, approximately 16,000 ha of native forest has been cleared in recent times. This forest loss, compounded by historical forest loss over the previous seven centuries (14 million ha as of 2002), alongside the important services, gives native forests occurring within riparian zones increased value. -
The Island Rule and Its Application to Multiple Plant Traits
The island rule and its application to multiple plant traits Annemieke Lona Hedi Hendriks A thesis submitted to the Victoria University of Wellington in partial fulfilment of the requirements for the degree of Master of Science in Ecology and Biodiversity Victoria University of Wellington, New Zealand 2019 ii “The larger the island of knowledge, the longer the shoreline of wonder” Ralph W. Sockman. iii iv General Abstract Aim The Island Rule refers to a continuum of body size changes where large mainland species evolve to become smaller and small species evolve to become larger on islands. Previous work focuses almost solely on animals, with virtually no previous tests of its predictions on plants. I tested for (1) reduced floral size diversity on islands, a logical corollary of the island rule and (2) evidence of the Island Rule in plant stature, leaf size and petiole length. Location Small islands surrounding New Zealand; Antipodes, Auckland, Bounty, Campbell, Chatham, Kermadec, Lord Howe, Macquarie, Norfolk, Snares, Stewart and the Three Kings. Methods I compared the morphology of 65 island endemics and their closest ‘mainland’ relative. Species pairs were identified. Differences between archipelagos located at various latitudes were also assessed. Results Floral sizes were reduced on islands relative to the ‘mainland’, consistent with predictions of the Island Rule. Plant stature, leaf size and petiole length conformed to the Island Rule, with smaller plants increasing in size, and larger plants decreasing in size. Main conclusions Results indicate that the conceptual umbrella of the Island Rule can be expanded to plants, accelerating understanding of how plant traits evolve on isolated islands. -
06 370 2328 Mob: 027 634 7441 Email: [email protected] Price [ GST Exclusive ]
NORFOLK ROAD NURSERY LTD PLANT PLANT LIST LIST 2019 2014 131 Norfolk Road,Carterton 5791 Phone: 06 370 2328 Mob: 027 634 7441 Email: [email protected] Price [ GST exclusive ] ** O/S meaning out of stock Botanical Name Common Name RTB .5L 1L 2.5L PB8 PB12 PB18 NATIVE TREES AND SHRUBS Agathis australis kauri 30.43 Alectryon excelsus titoki O/S Aristotelia serrata wineberry, makomako O/S Beilschmiedia tawa tawa O/S Brachyglottis greyi Greys groundsel O/S Brachyglottis compacta Castlepoint groundsel O/S Brachyglottis repanda rangiora O/S Brachyglottis repanda purpurea O/S Carpodetus serratus putaputaweta 5.65 17.39 Clianthus puniceus Red kakabeak O/S Coprosma acerosa sand coprosma 3.21 7.39 Coprosma areolata bush edge coprosma 5.65 10.87 Coprosma 'Autumn haze' 3.21 Coprosma cappuccino 7.39 Coprosma crassifolia 5.65 7.39 Coprosma 'Pacific Sunrise' O/S Coprosma Plum Hussey 3.21 O/S Coprosma Lemon and Lime O/S Coprosma grandifolia kanono 3.21 7.39 Coprosma 'Hawera' 7.39 Coprosma kirkii 3.21 7.39 Coprosma lucida shining karamu O/S Coprsosma microcarpa O/S Coprosma obconica 7.39 Coprosma pedicillata O/S Coprosma propinqua mingimingi 2.6 3.21 7.39 17.39 Coprosma Red Rocks 7.39 Coprosma repens taupata 3.21 Coprosma rhamnoides red fruit karamu O/S Coprosma rigida stiff karamu 7.39 17.39 Coprosma robusta karamu 2.6 Coprosma rotundifolia 7.39 Coprosma rugosa needle coprosma 3.21 7.39 17.39 Coprosma tenuicaulis O/S Coprosma virescens 7.39 17.39 Coprosma wallii 7.39 17.39 Cordyline australis cabbage tree; ti kouka 2.6 3.21 7.39 17.39 26.09 Cordyline