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Geology of the Wairarapa Area
GEOLOGY OF THE WAIRARAPA AREA J. M. LEE J.G.BEGG (COMPILERS) New International NewZOaland Age International New Zealand 248 (Ma) .............. 8~:~~~~~~~~ 16 il~ M.- L. Pleistocene !~ Castlecliffian We £§ Sellnuntian .~ Ozhulflanl Makarewan YOm 1.8 100 Wuehlaplngien i ~ Gelaslan Cl Nukumaruan Wn ~ ;g '"~ l!! ~~ Mangapanlan Ql -' TatarianiMidian Ql Piacenzlan ~ ~;: ~ u Wai i ian 200 Ian w 3.6 ,g~ J: Kazanlan a.~ Zanetaan Opoitian Wo c:: 300 '"E Braxtonisn .!!! .~ YAb 256 5.3 E Kunaurian Messinian Kapitean Tk Ql ~ Mangapirian YAm 400 a. Arlinskian :;; ~ l!!'" 500 Sakmarian ~ Tortonisn ,!!! Tongaporutuan Tt w'" pre-Telfordian Ypt ~ Asselian 600 '" 290 11.2 ~ 700 'lii Serravallian Waiauan 5w Ql ." i'l () c:: ~ 600 J!l - fl~ '§ ~ 0'" 0 0 ~~ !II Lillburnian 51 N 900 Langhian 0 ~ Clifdenian 5e 16.4 ca '1000 1 323 !II Z'E e'" W~ A1tonian PI oS! ~ Burdigalian i '2 F () 0- w'" '" Dtaian Po ~ OS Waitakian Lw U 23.8 UI nlan ~S § "t: ." Duntroonian Ld '" Chattian ~ W'" 28.5 P .Sll~ -''" Whalngaroan Lwh O~ Rupelian 33.7 Late Priabonian ." AC 37.0 n n 0 I ~~ ~ Bortonian Ab g; Lutetisn Paranaen Do W Heretauncan Oh 49.0 354 ~ Mangaorapan Om i Ypreslan .;;: w WalD8wsn Ow ~ JU 54.8 ~ Thanetlan § 370 t-- §~ 0'" ~ Selandian laurien Dt ." 61.0 ;g JM ~"t: c:::::;; a.os'"w Danian 391 () os t-- 65.0 '2 Maastrichtian 0 - Emslsn Jzl 0 a; -m Haumurian Mh :::;; N 0 t-- Campanian ~ Santonian 0 Pragian Jpr ~ Piripauan Mp W w'" -' t-- Coniacian 1ij Teratan Rt ...J Lochovlan Jlo Turonian Mannaotanean Rm <C !II j Arowhanan Ra 417 0- Cenomanian '" Ngaterian Cn Prldoli -
Stakeholder Study: Resource Management of Wairarapa Moana
Natalie Diltz Jena Mazzucco Austin Scott Jeffrey Sirocki March 2, 2016 STAKEHOLDER STUDY: RESOURCE MANAGEMENT OF WAIRARAPA MOANA Identification and Analysis of Wairarapa Moana Stakeholder Opinions Regarding the Management of the Blundell Barrage Gates Abstract This project aided the Greater Wellington Regional Council (GWRC) in collecting opinions from five stakeholder groups concerning management of the naturally flooding Lake Wairarapa in New Zealand. Our team conducted a total of twenty-nine interviews with the Rangitāne (Māori), Department of Conservation, South Wairarapa District Council, landowners, and recreational water users regarding the Blundell Barrage Gates which play a vital role in flood management. Interview discussions indicate that water quality, sources of pollution, water levels, flood management, and future operation of the barrage gates are controversial. We identified communication, collaboration, and education as three areas of focus for the GWRC as they continue to improve their management of the region. i Executive Summary This project is concerned with Wairarapa Moana, a water system located in the Wairarapa region, situated on the North Island of New Zealand. Wairarapa Moana consists of the three main water bodies, shown in Figure 1; the coastal lake is Lake Onoke, the inland lake is Lake Wairarapa, and the main river is the Ruamahanga. The system is dynamic, which means water can flow in both directions. Both tidal movements and rainfall affect the direction of flow. The area is low-lying and sits between two mountain ranges exposing much of the land to seasonal flooding. The Greater Wellington Regional Council, the governing body for the Wellington region, developed the Lower Wairarapa Valley Development Scheme (LWVDS), to control flooding in the 1960s. -
RUAMĀHANGA RIVER RUAMĀHANGA REACH 2: Mount Bruce X
RUAMAHANGA RIVER REACH 1: Ruamahanga Headwaters RUAMĀHANGA RIVER RUAMĀHANGA REACH 2: Mount Bruce x VOLUME 2 VOLUME REACH 3: Hidden Lakes DRAFT TE KĀURU UPPER RUAMĀHANGA UPPERRUAMĀHANGA KĀURU TE DRAFT REACH 4: Double Bridges to FLOODPLAIN MANAGEMENT PLAN MANAGEMENT FLOODPLAIN Te Ore Ore REACH 5: Te Ore Ore to Waingawa Confluence REACH 6: Waingawa Confluence to Gladstone Bridge REACH 8: Kokotau Rd Bridge to Waiohine River Confluence REACH 7: Gladstone Bridge to Kototau Rd Bridge Ruamāhanga River RUAMĀHANGA RIVER RUAMĀHANGA 1 2. Ruamāhanga River General Issues The Ruamāhanga flows from its source in the Tararua Ranges down through steep mountainous terrain and native The Ruamāhanga River is well known to the Wairarapa community for its flood flows. The relatively entrenched upper 2 VOLUME forests, running through rock-lined gorges and boulder garden rapids before leaving the foothills close to Pukaha / reaches of the Ruamāhanga River contain much of the flood water, confining it between old river terraces, and its Mount Bruce. From there, it flows through a number of steep-sided gorges where historic river terracing can be seen passage is controlled in several locations by prominent rocky outcrops. As it turns to the south at its confluence with through the fringes of patchy native and exotic vegetation, before opening out into the pastoral Wairarapa Plains. Here the Kopuaranga River it opens into a broader floodplain, and the modelled flood events show a greater extent of the it turns to a more southerly direction flowing downstream through confluences with all of the other rivers which flow adjacent land under water. -
Temporal Development and Regeneration Dynamics of Restored Urban Forests
Temporal Development and Regeneration Dynamics of Restored Urban Forests By Katherine de Silva A thesis submitted to the Victoria University of Wellington in fulfilment of the requirements for the degree of Masters in Ecology & Biodiversity School of Biological Sciences Faculty of Sciences Victoria University of Wellington October 2019 Supervisors: Stephen Hartley. Director of the Centre of Biodiversity & Restoration Ecology, Victoria University of Wellington Kiri Joy Wallace. Postdoctoral Fellow, Environmental Research Institute, University of Waikato. Katherine de Silva: Temporal Development and Regeneration Dynamics of Restored Urban Forests, © October 2019. 2 ABSTRACT Urban forest restoration programmes are a key tool used to initiate, re-create or accelerate the succession of forest species; improving ecosystem services, function, resilience and biodiversity. Succession is a temporal shift in species dominance driven by abiotic and biotic influences, but over decadal timescales the trajectory and success of restoration plantings in degraded urban environments can be hindered. To facilitate the successful reconstruction of forest ecosystems from scratch, an understanding of the temporal patterns in planted forest development, dynamics of seedling regeneration and dominant drivers of seedling diversity is required. Using a chronosequence approach, permanent plots were established at 44 restored urban forests aged 5 to 59 years since initial plantings took place, across five New Zealand cities between Wellington and Invercargill. Vegetation surveys were undertaken and data on micro- climate were collected. This study examined the 1) temporal dynamics of restored urban forest development and seedling regeneration and 2) dominant drivers of seedling regeneration. Data were analysed using linear regression models, breakpoint analysis and mixed-effects modelling. Early forest development (<20 years) exhibited the most changes in canopy composition and structure, forest floor dynamics, seedling community and microclimate. -
Rediscovering the Species in Community-Wide Predictive Modeling
Ecological Applications, 16(4), 2006, pp. 1449–1460 Ó 2006 by the the Ecological Society of America REDISCOVERING THE SPECIES IN COMMUNITY-WIDE PREDICTIVE MODELING 1,3 2 2 JULIAN D. OLDEN, MICHAEL K. JOY, AND RUSSELL G. DEATH 1Center for Limnology, University of Wisconsin–Madison, 680 N. Park Street, Madison, Wisconsin 53706 USA 2Institute of Natural Resources–Ecology, Massey University, Private Bag 11 222, Palmerston North, New Zealand Abstract. Broadening the scope of conservation efforts to protect entire communities provides several advantages over the current species-specific focus, yet ecologists have been hampered by the fact that predictive modeling of multiple species is not directly amenable to traditional statistical approaches. Perhaps the greatest hurdle in community-wide modeling is that communities are composed of both co-occurring groups of species and species arranged independently along environmental gradients. Therefore, commonly used ‘‘short-cut’’ methods such as the modeling of so-called ‘‘assemblage types’’ are problematic. Our study demonstrates the utility of a multiresponse artificial neural network (MANN) to model entire community membership in an integrative yet species-specific manner. We compare MANN to two traditional approaches used to predict community composition: (1) a species-by-species approach using logistic regression analysis (LOG) and (2) a ‘‘classification-then-modeling’’ approach in which sites are classified into assemblage ‘‘types’’ (here we used two-way indicator species analysis and multiple discriminant analysis [MDA]). For freshwater fish assemblages of the North Island, New Zealand, we found that the MANN outperformed all other methods for predicting community composition based on multiscaled descriptors of the environment. -
Growing Plants in the Wakatipu
The Wakatipu Basin has some of the most unique and adaptive groups of plants found anywhere on the planet. Extensive modification of our landscape has seen these plants all but disappear from large parts of the basin. However, the importance of native species in New Zealand is being gradually recognised, and the importance of plants in the Wakatipu Basin is no exception. Many in the past have considered native plants slow growing and poorly adaptive, but the truth is the complete opposite. Native species found in the basin have had millions of years to adapt to its harsh, but beautiful terrain. It is important for anyone considering planting to determine what plants are right for this area so they can not only thrive, but help increase biodiversity values and bring back the native birds. This practical guide has been written to help anyone who is interested in planting native species within the Wakatipu Basin. It tells the story of the region, and explains how to best enhance one’s garden or patch of land. It includes helpful tips that will improve the success of any native plantings, particularly when considering sites encompassing the challenging micro-climates found throughout the district. It provides helpful advice to the first time gardener or the seasoned pro. It covers all aspects of planting, including maintenance advice and plant lists, so that even the most amateur gardener can soon have a thriving native patch filled with native bird song. Growing Native Plants in the Wakatipu Published by the Wakatipu Reforestation Trust (WRT) www.wrtqt.org.nz Email: [email protected] First Published 2017 The WRT has many volunteering ©Wakatipu Reforestation Trust 2017 opportunities. -
RUAMAHANGA RIVER FISHERY ACCESS POINTS ACCESS POINTS the Ruamahanga River Is the Principal Trout Fishery in the Wairarapa
Wellington Region Wellington your left. This sign marks the turn off onto a track that runs about about runs that track a onto off turn the marks sign This left. your Photo: AndrewHarding website Game & Fish Wellington Road for 3.3km until you see a Fish & Game ‘Angler Access’ sign on on sign Access’ ‘Angler Game & Fish a see you until 3.3km for Road the from map detailed more a get to this Scan Road (this is sign posted as “Kahutara Canoes”). Follow Pahuatea Pahuatea Follow Canoes”). “Kahutara as posted sign is (this Road When travelling south along Kahutara Road, turn left onto Pahuatea Pahuatea onto left turn Road, Kahutara along south travelling When 13) Pahautea Road Access Road Pahautea 13) ACCESS POINTS ACCESS www.fishandgame.org.nz fishing is an excellent way to catch fish here. fish catch to way excellent an is fishing Telephone: 06 359 0409 359 06 Telephone: fishing in our region is found here with fish up to 2kg caught. Bait Bait caught. 2kg to up fish with here found is region our in fishing Palmerston North Palmerston when sea run brown trout move into the river. Some of the best perch perch best the of Some river. the into move trout brown run sea when P O Box 1325 Box O P Below the Tuhitarata Bridge trolling is popular, especially in autumn autumn in especially popular, is trolling Bridge Tuhitarata the Below LOWER RUAMAHANGA RIVER RUAMAHANGA LOWER on Regi gton in ll We fish the next 1km of river on the true right side of the riverbed. -
Hydrological Monitoring Technical Report
JUNE 2005 Hydrological monitoring technical report Laura Watts Resource Investigations Department Greater Wellington Regional Council Contents 1. Introduction 1 1.1 What is this report about? 1 1.2 Scope of analysis 1 1.3 Report structure 2 2. Pressures on surface water quantity in the Wellington Region 3 2.1 Climate cycles 3 2.1.1 El Nino Southern Oscillation (ENSO) 3 2.1.2 Influences of ENSO on Wellington’s water resources 4 2.1.3 Interdecadal Pacific Oscillation (IPO) 4 2.2 Climate change 6 2.3 Land use change 7 2.4 Abstractive demand 8 2.4.1 Current extent of water allocation and use 8 2.4.2 Trends in demand 13 2.5 Summary points 14 3. Monitoring surface water quantity 16 3.1 Monitoring rainfall 16 3.2 Monitoring river flows and lake levels 16 4. Surface water quantity in the region – on average 20 4.1 Variation across the region 20 4.2 Seasonal variations in water quantity 22 4.3 Summary points 25 5. Surface water quantity 1999 to 2004 26 5.1 Annual rainfall 26 5.2 Monthly rainfall and river flows 27 5.2.1 Kapiti Coast 27 5.2.2 Central Wellington Region 29 5.2.3 Wairarapa 31 5.3 Low flows 34 5.4 Minimum flows and target lake levels 37 5.5 Floods 40 5.6 Summary points 42 6. Long-term perspective 44 th 6.1 Climate patterns of the 20 century 44 6.2 Trends and variability in annual rainfall 44 6.3 Droughts and low flows 51 6.4 Extreme rainfall and floods 55 6.5 Summary points 61 7. -
Multiple Scales of Biological Variability in New Zealand Streams
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. Multiple scales of biological variability in New Zealand streams A thesis presented in partial fulfilment of the requirements for the degree of Doctor of Philosophy in Ecology at Massey University, Manawatū, New Zealand. Withanage Thushantha Sriyan Jayasuriya 2016 ii General Abstract Stream fish communities in Taranaki, New Zealand, were studied for the patterns and drivers of their spatial ecology. The study was focused on three main themes: a) complementarity between geography and landuse in driving regional distribution patterns of stream fish, b) the impact of agriculture on community composition, structure and variability of fish and invertebrates, and c) concordance among environmental distance and community dissimilarities of stream fish and invertebrates. Stream sampling and data collection for fish was conducted at regional scale using 96 sites distributed in the protected forest (44 sites) of Egmont National Park in Taranaki, and in surrounding farmlands (52 sites). Local scale sampling for fish and invertebrates was carried out at 15 stream sites in pasture (8 sites) and in adjacent forest (7 sites). Environmental data of geography, landuse and local habitat description were also gathered concurrently to biological sampling. The regional scale survey reported fifteen fish species, dominated by longfin eels (Anguilla dieffenbachia), redfin bullies (Gobiomorphus huttoni) and koaro (Galaxias brevipinnis), while 12 fish species and 69 different invertebrate taxa were recorded from the 15 sites at local scale. -
LIZARD GARDENS ‒ a Planting Guide
LIZARD GARDENS – A Planting Guide New Zealand’s skinks and geckos have experienced chronic decline in the face of introduced pests, namely rats, pet cats, mice, hedgehogs and mustelids (stoats, ferrets and weasels). These days most peoples’ experience of lizards is via the one their cat brought in. This will continue to be the norm, unless we do something about it! The three main things you can do to help skinks and geckos in your backyard are to provide food, shelter and undertake pest control. Food: berries and nectar from fruiting and flowering native plants, insects and moisture i.e. lots of mulch. Shelter: rock piles, rotting logs, driftwood, stacks of timber, retaining walls, don’t throw out your prunings, dump them in a pile out of the way, skinks will thank you for it. Pest control: get trapping! Trapping rats and mice is a start but hedgehogs are actually a real problem for lizards in urban settings. Consider getting a DOC200 to trap those spiny pests. You can bury them under your native plants to provide an excellent source of fertiliser. Bait is effective for rodents in particular, and means you don’t have to deal with dead bodies. Also, keep your cat inside at night and consider not replacing it when it dies. To help you get started, this planting guide has been developed by gardeners and conservationists from the Kāpiti Coast. We live in a harsh coastal sand environment battered by salt spray, high wind and regular droughts. The following plant list has been developed with that in mind. -
Archaeology of the Wellington Conservancy: Wairarapa
Archaeology of the Wellington Conservancy: Wairarapa A study in tectonic archaeology Archaeology of the Wellington Conservancy: Wairarapa A study in tectonic archaeology Bruce McFadgen Published by Department of Conservation P.O. Box 10-420 Wellington, New Zealand To the memory of Len Bruce, 1920–1999, A tireless fieldworker and a valued critic. Cover photograph shows a view looking north along the Wairarapa coastline at Te Awaiti. (Photograph by Lloyd Homer, © Insititute of Geological and Nuclear Sciences.) This report was prepared for publication by DOC Science Publishing, Science & Research Unit; editing by Helen O’Leary and layout by Ruth Munro. Publication was approved by the Manager, Science & Research Unit, Science Technology and Information Services, Department of Conservation, Wellington. All DOC Science publications are listed in the catalogue which can be found on the departmental website http://www.doc.govt.nz © May 2003, New Zealand Department of Conservation ISBN 0–478–22401–X National Library of New Zealand Cataloguing-in-Publication Data McFadgen, B. G. Archaeology of the Wellington Conservancy : Wairarapa : a study in tectonic archaeology / Bruce McFadgen. Includes bibliographical references. ISBN 0-478-22401-X 1. Archaeological surveying—New Zealand—Wairarapa. 2. Maori (New Zealand people)—New Zealand—Wairarapa— Antiquities. 3. Wairarapa (N.Z.)—Antiquities. I. New Zealand. Dept. of Conservation. II. Title. 993.6601—dc 21 ii Contents Abstract 1 1. Introduction 3 2. Geology and geomorphology 6 3. Sources of information 8 4. Correlation and dating 9 5. Off-site stratigraphy in the coastal environment 11 5.1 Sand dunes 12 5.2 Stream alluvium and colluvial fan deposits 13 5.3 Uplifted shorelines 14 5.4 Tsunami deposits 15 5.5 Coastal lagoon deposits 15 5.6 Correlation of off-site stratigraphy and adopted ages for events 16 6. -
Freshwater Fish Taxonomic Workshop Focussing on New Zealand Non- Migratory Galaxias Taxonomic Issues
Freshwater fish taxonomic workshop Focussing on New Zealand non- migratory galaxias taxonomic issues Proceedings compiled by: Sjaan Bowie, Lan Pham, Nicholas Dunn, Richard Allibone, and Shannan Crow How to cite this document: Bowie, S. Pham, L, Dunn, N, Allibone, R, & Crow, S. (Eds) 2014: Freshwater fish taxonomic workshop focussing on New Zealand non-migratory galaxias taxonomic issues. Proceedings of a workshop, Dunedin 14th May 2013. Unpublished DOC publication. Christchurch. © Copyright May 2014, New Zealand Department of Conservation DOCDM-1205404 In the interest of forest conservation, we support paperless electronic publishing. CONTENTS 1. Introduction ................................................................................................................. 4 2. Overview of genetic and morphological data used for current non- migratory galaxias groupings .................................................................................... 5 2.1 Background ........................................................................................................... 5 2.2 Workshop group conclusion ................................................................................. 7 2.3 Non-migratory galaxias data management ........................................................... 7 3. Groupings of non-migratory Galaxias ....................................................................... 8 3.1 Background ........................................................................................................... 8 3.2 New Zealand