Reflections on a Seismic Decade
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Kaiapoi Street Map
Kaiapoi Street Map www.northcanterbury.co.nz www.visitwaimakariri.co.nz 5 19 To Woodend, Kaikoura and Picton North To Rangiora T S S M A I L L I W 2 D R E 62 D I S M A C 29 54 E V A 64 E To Pines, O H and Kairaki 52 U T 39 45 4 57 44 10 7 63 46 47 30 8 32 59 9 38 33 24 65 11 37 66 48 18 16 23 61 26 20 17 27 25 49 13 58 14 12 28 21 51 15 22 31 41 56 50 55 3 1 35 Sponsored by 36 JIM BRYDEN RESERVE LICENSED AGENT REAA 2008 To Christchurch Harcourts Twiss-Keir Realty Ltd. 6 MREINZ Licensed Agent REAA 2008. Phone: 03 327 5379 Email: [email protected] Web: www.twisskeir.co.nz 40 60 © Copyright Enterprise North Canterbury 2016 For information and bookings contact Kaiapoi i-SITE Visitor Centre Kaiapoi Street and Information Index Phone 03 327 3134 Adams Street C5 Cressy Ave F3 Lees Rd A5 Sneyd St F2 Accommodation Attractions Adderley Tce E2 Cridland St E4 Lower Camside Rd B4 Sovereign Bvd C5 1 H3 Blue Skies Holiday & Conference Park 32 F4 Kaiapoi Historic Railway Station Akaroa St G3 Cumberland Pl H2 Magnate Dr C5 Stark Pl D5 2 C4 Grenmora B & B 55 Old North Rd 33 F4 Kaiapoi Museum And Art Gallery Aldersgate St G2 Dale St D4 Magnolia Bvd D5 Sterling Cres C5 3 H3 Kaiapoi on Williams Motel 35 H3 National Scout Museum Alexander Ln F3 Davie St F4 Main Drain Rd D1 Stone St H4 64 F6 Kairaki Beach Cottage 36 H5 Woodford Glen Speedway Allison Cres D5 Dawson Douglas Pl G4 Main North Rd I3 Storer St F1 4 F3 Morichele B & B Alpine Ln F3 Day Pl F5 Mansfield Dr G3 Sutherland Dr C6 5 A5 Pine Acres Holiday Park & Motels Recreation Ansel Pl D5 Doubledays -
Unsettling Recovery: Natural Disaster Response and the Politics of Contemporary Settler Colonialism
UNSETTLING RECOVERY: NATURAL DISASTER RESPONSE AND THE POLITICS OF CONTEMPORARY SETTLER COLONIALISM A DISSERTATION SUBMITTED TO THE FACULTY OF THE UNIVERSITY OF MINNESOTA BY STEVEN ANDREW KENSINGER IN PARTIAL FULFILLMENT OF THE REQUIREMENTS FOR THE DEGREE OF DOCTOR OF PHILOSOPHY DR. DAVID LIPSET, ADVISER JULY 2019 Steven Andrew Kensinger, 2019 © Acknowledgements The fieldwork on which this dissertation is based was funded by a Doctoral Dissertation Fieldwork Grant No. 8955 awarded by the Wenner-Gren Foundation for Anthropological Research. I also want to thank Dr. Robert Berdahl and the Berdahl family for endowing the Daphne Berdahl Memorial Fellowship which provided funds for two preliminary fieldtrips to New Zealand in preparation for the longer fieldwork period. I also received funding while in the field from the University of Minnesota Graduate School through a Thesis Research Travel Grant. I want to thank my advisor, Dr. David Lipset, and the members of my dissertation committee, Dr. Hoon Song, Dr. David Valentine, and Dr. Margaret Werry for their help and guidance in preparing the dissertation. In the Department of Anthropology at the University of Minnesota, Dr. William Beeman, Dr. Karen Ho, and Dr. Karen-Sue Taussig offered personal and professional support. I am grateful to Dr. Kieran McNulty for offering me a much-needed funding opportunity in the final stages of dissertation writing. A special thanks to my colleagues Dr. Meryl Puetz-Lauer and Dr. Timothy Gitzen for their support and encouragement. Dr. Carol Lauer graciously offered to read and comment on several of the chapters. My fellow graduate students and writing-accountability partners Dr. -
Using Campaign GPS Data to Model Slip Rates on the Alpine Fault
New Zealand Journal of Geology and Geophysics ISSN: 0028-8306 (Print) 1175-8791 (Online) Journal homepage: http://www.tandfonline.com/loi/tnzg20 A geodetic study of the Alpine Fault through South Westland: using campaign GPS data to model slip rates on the Alpine Fault Chris J. Page, Paul H. Denys & Chris F. Pearson To cite this article: Chris J. Page, Paul H. Denys & Chris F. Pearson (2018): A geodetic study of the Alpine Fault through South Westland: using campaign GPS data to model slip rates on the Alpine Fault, New Zealand Journal of Geology and Geophysics, DOI: 10.1080/00288306.2018.1494006 To link to this article: https://doi.org/10.1080/00288306.2018.1494006 View supplementary material Published online: 09 Aug 2018. Submit your article to this journal View Crossmark data Full Terms & Conditions of access and use can be found at http://www.tandfonline.com/action/journalInformation?journalCode=tnzg20 NEW ZEALAND JOURNAL OF GEOLOGY AND GEOPHYSICS https://doi.org/10.1080/00288306.2018.1494006 RESEARCH ARTICLE A geodetic study of the Alpine Fault through South Westland: using campaign GPS data to model slip rates on the Alpine Fault Chris J. Page, Paul H. Denys and Chris F. Pearson School of Surveying, University of Otago, Dunedin, New Zealand ABSTRACT ARTICLE HISTORY Although the Alpine Fault has been studied extensively, there have been few geodetic studies Received 11 December 2017 in South Westland. We include a series of new geodetic measurements from sites across the Accepted 25 June 2018 Haast Pass and preliminary results from a recently established network, the Cascade array KEYWORDS that extends from the Arawhata River to Lake McKerrow, a region that previously had few Alpine Fault; slip rates; South geodetic measurements. -
A/HRC/18/35/Add.4 General Assembly
United Nations A/HRC/18/35/Add.4 General Assembly Distr.: General 31 May 2011 Original: English Human Rights Council Eighteenth session Agenda item 3 Promotion and protection of all human rights, civil, political, economic, social and cultural rights, including the right to development Report of the Special Rapporteur on the rights of indigenous peoples, James Anaya Addendum The situation of Maori people in New Zealand∗ Summary In the present report, which has been updated since the advance unedited version was made public on 17 February 2011, the Special Rapporteur on the rights of indigenous peoples examines the situation of Maori people in New Zealand on the basis of information received during his visit to the country from 18-23 July 2010 and independent research. The visit was carried out in follow-up to the 2005 visit of the previous Special Rapporteur, Rodolfo Stavenhagen. The principal focus of the report is an examination of the process for settling historical and contemporary claims based on the Treaty of Waitangi, although other key issues are also addressed. Especially in recent years, New Zealand has made significant strides to advance the rights of Maori people and to address concerns raised by the former Special Rapporteur. These include New Zealand’s expression of support for the United Nations Declaration on the Rights of Indigenous Peoples, its steps to repeal and reform the 2004 Foreshore and Seabed Act, and its efforts to carry out a constitutional review process with respect to issues related to Maori people. Further efforts to advance Maori rights should be consolidated and strengthened, and the Special Rapporteur will continue to monitor developments in this regard. -
Tectonic Setting Seismic Hazard Epicentral Region
U.S. DEPARTMENT OF THE INTERIOR EARTHQUAKE SUMMARY MAP U.S. GEOLOGICAL SURVEY Prepared in cooperation with the M8.0 Samoa Islands Region Earthquake of 29 September 2009 Global Seismographic Network M a r s Epicentral Region h a M A R S H A L L l I S TL A eN DcS tonic Setting l 174° 176° 178° 180° 178° 176° 174° 172° 170° 168° 166° C e n t r a l 160° 170° I 180° 170° 160° 150° s l a P a c i f i c K M e l a n e s i a n n L NORTH a d B a s i n i p B a s i n s n Chris tmas Island i H e BISMARCK n C g I R N s PLATE a l B R I TA i G E I s E W N T R 0° m a 0° N E R N e i n P A C I F I C 10° 10° C a H l T d b r s a e r C P L A T E n t E g I D n e i s A o Z l M e a t u r SOUTH n R r a c d E K I R I B A T I s F s K g o BISMARCK l a p a PLATE P A C I F I C G a Solomon Islands P L A T E S O L O M O N T U V A L U V I T Y I S L A N D S A Z TR FUTUNA PLATE 12° 12° S EN O U C BALMORAL C 10° T H H o 10° S O REEF o WOODLARK L Santa k O M Cruz PLATE I PLATE O N T RE N C H Sam sl Is lands oa I NIUAFO'OU a N s n C o r a l S e a S A M O A lan d SOLOMON SEA O ds PLATE s T U B a s i n R A M E R I C A N (N A PLATE T M H . -
Mylonitization Temperatures and Geothermal Gradient from Ti-In
Solid Earth Discuss., https://doi.org/10.5194/se-2018-12 Manuscript under review for journal Solid Earth Discussion started: 7 March 2018 c Author(s) 2018. CC BY 4.0 License. Constraints on Alpine Fault (New Zealand) Mylonitization Temperatures and Geothermal Gradient from Ti-in-quartz Thermobarometry Steven Kidder1, Virginia Toy2, Dave Prior2, Tim Little3, Colin MacRae 4 5 1Department of Earth and Atmospheric Science, City College New York, New York, 10031, USA 2Department of Geology, University of Otago, Dunedin, New Zealand 3School of Geography, Environment and Earth Sciences, Victoria University of Wellington, Wellington, New Zealand 4CSIRO Mineral Resources, Microbeam Laboratory, Private Bag 10, 3169 Clayton South, Victoria, Australia Correspondence to: Steven B. Kidder ([email protected]) 10 Abstract. We constrain the thermal state of the central Alpine Fault using approximately 750 Ti-in-quartz SIMS analyses from a suite of variably deformed mylonites. Ti-in-quartz concentrations span more than an order of magnitude from 0.24 to ~5 ppm, suggesting recrystallization of quartz over a 300° range in temperature. Most Ti-in-quartz concentrations in mylonites, protomylonites, and the Alpine Schist protolith are between 2 and 4 ppm and do not vary as a function of grain size or bulk rock composition. Analyses of 30 large, inferred-remnant quartz grains (>250 µm), as well as late, cross-cutting, chlorite-bearing 15 quartz veins also reveal restricted Ti concentrations of 2-4 ppm. These results indicate that the vast majority of Alpine Fault mylonitization occurred within a restricted zone of pressure-temperature conditions where 2-4 ppm Ti-in-quartz concentrations are stable. -
Geophysical Structure of the Southern Alps Orogen, South Island, New Zealand
Regional Geophysics chapter 15/04/2007 1 GEOPHYSICAL STRUCTURE OF THE SOUTHERN ALPS OROGEN, SOUTH ISLAND, NEW ZEALAND. F J Davey1, D Eberhart-Phillips2, M D Kohler3, S Bannister1, G Caldwell1, S Henrys1, M Scherwath4, T Stern5, and H van Avendonk6 1GNS Science, Gracefield, Lower Hutt, New Zealand, [email protected] 2GNS Science, Dunedin, New Zealand 3Center for Embedded Networked Sensing, University of California, Los Angeles, California, USA 4Leibniz-Institute of Marine Sciences, IFM-GEOMAR, Kiel, Germany 5School of Earth Sciences, Victoria University of Wellington, Wellington, New Zealand 6Institute of Geophysics, University of Texas, Austin, Texas, USA ABSTRACT The central part of the South Island of New Zealand is a product of the transpressive continental collision of the Pacific and Australian plates during the past 5 million years, prior to which the plate boundary was largely transcurrent for over 10 My. Subduction occurs at the north (west dipping) and south (east dipping) of South Island. The deformation is largely accommodated by the ramping up of the Pacific plate over the Australian plate and near-symmetric mantle shortening. The initial asymmetric crustal deformation may be the result of an initial difference in lithospheric strength or an inherited suture resulting from earlier plate motions. Delamination of the Pacific plate occurs resulting in the uplift and exposure of mid- crustal rocks at the plate boundary fault (Alpine fault) to form a foreland mountain chain. In addition, an asymmetric crustal root (additional 8 - 17 km) is formed, with an underlying mantle downwarp. The crustal root, which thickens southwards, comprises the delaminated lower crust and a thickened overlying middle crust. -
Circulation and Mixing in Greater Cook Strait, New Zealand
OCEANOLOGICA ACTA 1983- VOL. 6- N" 4 ~ -----!~- Cook Strait Circulation and mixing Upwelling Tidal mixing Circulation in greater Cook S.trait, Plume Détroit de Cook Upwelling .New Zealand Mélange Circulation Panache Malcolm J. Bowrnan a, Alick C. Kibblewhite b, Richard A. Murtagh a, Stephen M. Chiswell a, Brian G. Sanderson c a Marine Sciences Research Center, State University of New York, Stony Brook, NY 11794, USA. b Physics Department, University of Auckland, Auckland, New Zealand. c Department of Oceanography, University of British Columbia, Vancouver, B.C., Canada. Received 9/8/82, in revised form 2/5/83, accepted 6/5/83. ABSTRACT The shelf seas of Central New Zealand are strongly influenced by both wind and tidally driven circulation and mixing. The region is characterized by sudden and large variations in bathymetry; winds are highly variable and often intense. Cook Strait canyon is a mixing basin for waters of both subtropical and subantarctic origins. During weak winds, patterns of summer stratification and the loci of tidal mixing fronts correlate weil with the h/u3 stratification index. Under increasing wind stress, these prevailing patterns are easily upset, particularly for winds b1owing to the southeasterly quarter. Under such conditions, slope currents develop along the North Island west coast which eject warm, nutrient depleted subtropical water into the surface layers of the Strait. Coastal upwelling occurs on the flanks of Cook Strait canyon in the southeastern approaches. Under storm force winds to the south and southeast, intensifying transport through the Strait leads to increased upwelling of subsurface water occupying Cook Strait canyon at depth. -
The Public Realm of Central Christchurch Narrative
THE PUBLIC REALM OF CENTRAL CHRISTCHURCH NARRATIVE Written by Debbie Tikao, Landscape Architect and General Manager of the Matapopore Charitable Trust. Kia atawhai ki te iwi – Care for the people Pita Te Hori, Upoko – Ngāi Tūāhuriri Rūnanga, 1861 The Public Realm of Central Christchurch Narrative 1 2 CERA Grand Narratives INTRODUCTION This historical narrative weaves together Ngāi Tahu cultural values, stories and traditional knowledge associated with Ōtautahi (Christchurch) and the highly mobile existence of hapū and whānau groups within the Canterbury area and the wider landscape of Te Waipounamu (South Island). The focus of this historical narrative therefore is on this mobile way of life and the depth of knowledge of the natural environment and natural phenomena that was needed to navigate the length and breadth of the diverse and extreme landscape of Te Waipounamu. The story that will unfold is not one of specific sites or specific areas, but rather a story of passage and the detailed cognitive maps that evolved over time through successive generations, which wove together spiritual, genealogical, historical and physical information that bound people to place and provided knowledge of landscape features, mahinga kai and resting places along the multitude of trails that established the basis for an economy based on trade and kinship. This knowledge system has been referred to in other places as an oral map or a memory map, which are both good descriptions; however, here it is referred to as a cognitive map in an attempt to capture the multiple layers of ordered and integrated information it contains. This historical narrative has been written to guide the design of the public realm of the Christchurch central business area, including the public spaces within the East and South frames. -
Comparison of Liquefaction-Induced Land Damage and Geomorphic Variability in Avonside, New Zealand
6th International Conference on Earthquake Geotechnical Engineering 1-4 November 2015 Christchurch, New Zealand Comparison of Liquefaction-induced Land Damage and Geomorphic Variability in Avonside, New Zealand S.H. Bastin1, M.C. Quigley2, K. Bassett3 Abstract Field mapping, LiDAR, and aerial photography are used to map surface liquefaction-induced lateral spreading fissures and aligned sand blow vents formed during the 22 February 2011 Mw 6.2 Christchurch earthquake. Classification of the study area into 164 polygons enables comparison of liquefaction severity metrics including linear liquefaction feature density, ejecta surface area, and horizontal and vertical ground surface displacements with geomorphic metrics including distance from the downslope free-face, surface elevation, sediment type, and the liquefaction potential index (LPI). Preliminary analyses indicate (i) mean fissure density decreases with increasing distance from the free face at distances of 0-50 m, no relationship is observed at distances >50 m, (ii) mean horizontal ground displacement increases with increasing LPI, and (iii) vertical subsidence is invariant with elevation, implying that other factors (e.g. LPI) may contribute to a complex liquefaction strain field. The basic geology and geomorphology are derived from LiDAR and modern river morphology. Comparison of the liquefaction data with geomorphic mapping indicates geomorphic mapping may be applied to determine the likely distribution of sediments susceptible to liquefaction. Introduction Cyclic shearing of loosely consolidated, fluid saturated sediments during earthquake-induced ground motion results in excess pore-water pressures and reduced shear strength in the affected media. Liquefaction occurs as the grain arrangement collapses causing pore water pressures to exceed the confining pressure (Seed & Idriss, 1982; Idriss & Boulanger, 2008). -
Bicameralism in the New Zealand Context
377 Bicameralism in the New Zealand context Andrew Stockley* In 1985, the newly elected Labour Government issued a White Paper proposing a Bill of Rights for New Zealand. One of the arguments in favour of the proposal is that New Zealand has only a one chamber Parliament and as a consequence there is less control over the executive than is desirable. The upper house, the Legislative Council, was abolished in 1951 and, despite various enquiries, has never been replaced. In this article, the writer calls for a reappraisal of the need for a second chamber. He argues that a second chamber could be one means among others of limiting the power of government. It is essential that a second chamber be independent, self-confident and sufficiently free of party politics. I. AN INTRODUCTION TO BICAMERALISM In 1950, the New Zealand Parliament, in the manner and form it was then constituted, altered its own composition. The legislative branch of government in New Zealand had hitherto been bicameral in nature, consisting of an upper chamber, the Legislative Council, and a lower chamber, the House of Representatives.*1 Some ninety-eight years after its inception2 however, the New Zealand legislature became unicameral. The Legislative Council Abolition Act 1950, passed by both chambers, did as its name implied, and abolished the Legislative Council as on 1 January 1951. What was perhaps most remarkable about this transformation from bicameral to unicameral government was the almost casual manner in which it occurred. The abolition bill was carried on a voice vote in the House of Representatives; very little excitement or concern was caused among the populace at large; and government as a whole seemed to continue quite normally. -
GEOTECHNICAL RECONNAISSANCE of the 2011 CHRISTCHURCH, NEW ZEALAND EARTHQUAKE Version 1: 15 August 2011
GEOTECHNICAL RECONNAISSANCE OF THE 2011 CHRISTCHURCH, NEW ZEALAND EARTHQUAKE Version 1: 15 August 2011 (photograph by Gillian Needham) EDITORS Misko Cubrinovski – NZ Lead (University of Canterbury, Christchurch, New Zealand) Russell A. Green – US Lead (Virginia Tech, Blacksburg, VA, USA) Liam Wotherspoon (University of Auckland, Auckland, New Zealand) CONTRIBUTING AUTHORS (alphabetical order) John Allen – (TRI/Environmental, Inc., Austin, TX, USA) Brendon Bradley – (University of Canterbury, Christchurch, New Zealand) Aaron Bradshaw – (University of Rhode Island, Kingston, RI, USA) Jonathan Bray – (UC Berkeley, Berkeley, CA, USA) Misko Cubrinovski – (University of Canterbury, Christchurch, New Zealand) Greg DePascale – (Fugro/WLA, Christchurch, New Zealand) Russell A. Green – (Virginia Tech, Blacksburg, VA, USA) Rolando Orense – (University of Auckland, Auckland, New Zealand) Thomas O’Rourke – (Cornell University, Ithaca, NY, USA) Michael Pender – (University of Auckland, Auckland, New Zealand) Glenn Rix – (Georgia Tech, Atlanta, GA, USA) Donald Wells – (AMEC Geomatrix, Oakland, CA, USA) Clint Wood – (University of Arkansas, Fayetteville, AR, USA) Liam Wotherspoon – (University of Auckland, Auckland, New Zealand) OTHER CONTRIBUTORS (alphabetical order) Brady Cox – (University of Arkansas, Fayetteville, AR, USA) Duncan Henderson – (University of Canterbury, Christchurch, New Zealand) Lucas Hogan – (University of Auckland, Auckland, New Zealand) Patrick Kailey – (University of Canterbury, Christchurch, New Zealand) Sam Lasley – (Virginia Tech, Blacksburg, VA, USA) Kelly Robinson – (University of Canterbury, Christchurch, New Zealand) Merrick Taylor – (University of Canterbury, Christchurch, New Zealand) Anna Winkley – (University of Canterbury, Christchurch, New Zealand) Josh Zupan – (University of California at Berkeley, Berkeley, CA, USA) TABLE OF CONTENTS 1.0 INTRODUCTION 2.0 SEISMOLOGICAL ASPECTS 3.0 GEOLOGICAL ASPECTS 4.0 LIQUEFACTION AND LATERAL SPREADING 5.0 IMPROVED GROUND 6.0 STOPBANKS 7.0 BRIDGES 8.0 LIFELINES 9.0 LANDSLIDES AND ROCKFALLS 1.