Unburnable Carbon: Why We Need to Leave Fossil Fuels in the Ground
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Equinor Environmental Plan in Brief
Our EP in brief Exploring safely for oil and gas in the Great Australian Bight A guide to Equinor’s draft Environment Plan for Stromlo-1 Exploration Drilling Program Published by Equinor Australia B.V. www.equinor.com.au/gabproject February 2019 Our EP in brief This booklet is a guide to our draft EP for the Stromlo-1 Exploration Program in the Great Australian Bight. The full draft EP is 1,500 pages and has taken two years to prepare, with extensive dialogue and engagement with stakeholders shaping its development. We are committed to transparency and have published this guide as a tool to facilitate the public comment period. For more information, please visit our website. www.equinor.com.au/gabproject What are we planning to do? Can it be done safely? We are planning to drill one exploration well in the Over decades, we have drilled and produced safely Great Australian Bight in accordance with our work from similar conditions around the world. In the EP, we program for exploration permit EPP39. See page 7. demonstrate how this well can also be drilled safely. See page 14. Who are we? How will it be approved? We are Equinor, a global energy company producing oil, gas and renewable energy and are among the world’s largest We abide by the rules set by the regulator, NOPSEMA. We offshore operators. See page 15. are required to submit draft environmental management plans for assessment and acceptance before we can begin any activities offshore. See page 20. CONTENTS 8 12 What’s in it for Australia? How we’re shaping the future of energy If oil or gas is found in the Great Australian Bight, it could How can an oil and gas producer be highly significant for South be part of a sustainable energy Australia. -
Chapter 5: Biostratigraphy
1 • PETROLEUM GEOLOGY OF SOUTH AUSTRALIA Volume 5: Great Australian Bight Biostratigraphy R Morgan1, AI Rowett2 and MR White3 5INTRODUCTION . 2 TERTIARY . 21 REFERENCES . 31 MIDDLE JURASSIC TO CRETACEOUS . 2 Palynology . .21 PLATE Palynology . .2 Zonation . .21 5.1 Horologinella sp. A, B, C and D, History of zonation . .2 Wells . .21 Jerboa 1 cuttings, 2400–05 m . 12 Zonation framework . .5 Western Bight Basin: FIGURES Wells . .8 Eyre Sub-basin . .21 5.1. Major features and well locations, Great Western Bight Basin: Central Bight Basin: Australian Bight . 4 central Ceduna Sub-basin . .22 Eyre Sub-basin . .10 5.2 Middle Jurassic to Cretaceous North–central Bight Basin: Eastern Bight Basin: Duntroon and biostratigraphic zonation of the Madura Shelf . .13 eastern Ceduna Sub-basins . .22 Bight and Polda Basins. 7 Central Bight Basin: central Foraminifera . .25 5.3 Middle Jurassic to Cretaceous Ceduna Sub-basin . .14 Zonation . .25 biostratigraphy (and older stratigraphy) Polda Basin . .14 Wells . .25 of wells in the Bight and Polda Basins . 9 Eastern Bight Basin: Duntroon Western Bight Basin: 5.4 Tertiary biostratigraphic zonation of the and eastern Ceduna Sub-basins . .15 Eyre Sub-basin . 25 portion of the Eucla Basin which overlies North–central Bight Basin: Foraminifera . .18 the Bight Basin and Tertiary foraminiferal Madura Shelf . .28 events recognised in southern Australia. 26 Summary . .19 Central Bight Basin: central 5.5 Integrated microfossil and palynological Permian to Middle Jurassic . .19 Ceduna Sub-basin . .29 Tertiary biostratigraphy of wells Cretaceous . .19 Eastern Bight Basin: Duntroon and penetrating the Eucla and Bight Basins 27 eastern Ceduna Sub-basins . -
Dale Edward Bird
Dale Edward Bird 16903 Clan Macintosh 281-463-3816 (tel.) [email protected] Houston, Texas 77084 281-463-7899 (fax) www.birdgeo.com 713-203-1927 (cell.) Over thirty years experience in acquisition, processing, interpreting and marketing geophysical data, with an emphasis on gravity and magnetic data; Ph.D. in Geophysics; a volunteer in local and international earth science societies; a functional understanding of Spanish; and an avid chess player. Interpretation experience includes work in many basins, globally, including cratonic sag, rift, foreland, and passive margin environments. Research interests include regional geology / plate tectonics and marine geophysics, especially along continental margins and plate boundaries. EXPERIENCE Sole Proprietor. Bird Geophysical 1997-present . Consultancy providing potential fields data interpretation and management services to the petroleum exploration industry. Non-exclusive projects include: - Gulf of Mexico Evolution and Structure (GoMES) interpretation - Western Caribbean Plate interpretation - Southeast Asian basins interpretations; two phases: 1) Sunda Shelf and South China Sea, and 2) Central Indonesia - Reprocessed GEODAS open-file marine gravity and magnetic data; six areas: 1) Gulf of Mexico, 2) Caribbean, 3) Brazil & Argentina, 4) West Africa, 5) East Africa, and 6) India - Global Seismic refraction Catalog (GSC) ongoing joint project with the U.S. Geological Survey to compile and digitally capture published seismic refraction stations worldwide Adjunct Professor. University of Houston, Department of Earth & Atmospheric Sciences 2005-present . Teach graduate-level semester course: Basin Studies using Gravity & Magnetic Data . Participate with University of Houston faculty teaching short courses for industry professionals, and with invited programs at Universities abroad General Manager, Hydrocarbons. Aerodat, Inc. 1994-1997 . -
The Lower Bathyal and Abyssal Seafloor Fauna of Eastern Australia T
O’Hara et al. Marine Biodiversity Records (2020) 13:11 https://doi.org/10.1186/s41200-020-00194-1 RESEARCH Open Access The lower bathyal and abyssal seafloor fauna of eastern Australia T. D. O’Hara1* , A. Williams2, S. T. Ahyong3, P. Alderslade2, T. Alvestad4, D. Bray1, I. Burghardt3, N. Budaeva4, F. Criscione3, A. L. Crowther5, M. Ekins6, M. Eléaume7, C. A. Farrelly1, J. K. Finn1, M. N. Georgieva8, A. Graham9, M. Gomon1, K. Gowlett-Holmes2, L. M. Gunton3, A. Hallan3, A. M. Hosie10, P. Hutchings3,11, H. Kise12, F. Köhler3, J. A. Konsgrud4, E. Kupriyanova3,11,C.C.Lu1, M. Mackenzie1, C. Mah13, H. MacIntosh1, K. L. Merrin1, A. Miskelly3, M. L. Mitchell1, K. Moore14, A. Murray3,P.M.O’Loughlin1, H. Paxton3,11, J. J. Pogonoski9, D. Staples1, J. E. Watson1, R. S. Wilson1, J. Zhang3,15 and N. J. Bax2,16 Abstract Background: Our knowledge of the benthic fauna at lower bathyal to abyssal (LBA, > 2000 m) depths off Eastern Australia was very limited with only a few samples having been collected from these habitats over the last 150 years. In May–June 2017, the IN2017_V03 expedition of the RV Investigator sampled LBA benthic communities along the lower slope and abyss of Australia’s eastern margin from off mid-Tasmania (42°S) to the Coral Sea (23°S), with particular emphasis on describing and analysing patterns of biodiversity that occur within a newly declared network of offshore marine parks. Methods: The study design was to deploy a 4 m (metal) beam trawl and Brenke sled to collect samples on soft sediment substrata at the target seafloor depths of 2500 and 4000 m at every 1.5 degrees of latitude along the western boundary of the Tasman Sea from 42° to 23°S, traversing seven Australian Marine Parks. -
Ceduna 3D Marine Seismic Survey, Great Australian Bight
Referral of proposed action Project title: Ceduna 3D Marine Seismic Survey, Great Australian Bight 1 Summary of proposed action 1.1 Short description BP Exploration (Alpha) Limited (BP) proposes to undertake the Ceduna three-dimensional (3D) marine seismic survey across petroleum exploration permits EPP 37, EPP 38, EPP 39 and EPP 40 located in the Great Australian Bight (GAB). The proposed survey area is located in Commonwealth marine waters of the Ceduna sub-basin, between 1000 m and 3000 m deep, and is about 400 km west of Port Lincoln and 300 km southwest of Ceduna in South Australia. The proposed seismic survey is scheduled to commence no earlier than October 2011 and to conclude no later than end of May 2012. The survey is expected to take approximately six months to complete allowing for typical weather downtime. Outside this time window, metocean conditions become unsuitable for 3D seismic operations. The survey will be conducted by a specialist seismic survey vessel towing a dual seismic source array and 12 streamers, each 8,100 m long. 1.2 Latitude and longitude The proposed survey area is shown in Figure 1 with boundary coordinates provided in Table 1. Table 1. Boundary coordinates for the proposed survey area (GDA94) Point Latitude Longitude 1 35°22'15.815"S 130°48'50.107"E 2 35°11'50.810"S 131°02'16.061"E 3 35°02'37.061"S 131°02'15.972"E 4 35°24'55.520"S 131°30'41.981"E 5 35°14'38.653"S 131°42'16.982"E 6 35°00'47.460"S 131°41'40.052"E 7 34°30'09.196"S 131°02'44.991"E 8 34°06'27.572"S 131°02'11.557"E 9 33°41'24.007"S 130°31'04.931"E 10 33°41'25.575"S 130°15'22.936"E 11 34°08'47.552"S 130°12'34.972"E 12 34°09'16.169"S 129°41'03.591"E 13 34°18'22.970"S 129°29'32.951"E BP Ceduna 3D MSS Referral Page 1 of 48 1.3 Locality and property description The proposed seismic survey will take place in the permit areas for EPP 37, EPP 38, EPP 39 and EPP 40. -
Pelagic Regionalisation
Cover image by Vincent Lyne CSIRO Marine Research Cover design by Louise Bell CSIRO Marine Research I Table of Contents Summary------------------------------------------------------------------------------------------------------ 1 1 Introduction--------------------------------------------------------------------------------------------- 3 1.1 Project background----------------------------------------------------------------------------- 3 1.2 Bioregionalisation background --------------------------------------------------------------- 5 2 Project Scope and Objectives -----------------------------------------------------------------------12 3 Pelagic Regionalisation Framework----------------------------------------------------------------13 3.1 Introduction ------------------------------------------------------------------------------------13 3.2 A Pelagic Classification ----------------------------------------------------------------------14 3.3 Levels in the pelagic classification framework--------------------------------------------17 3.3.1 Oceans ----------------------------------------------------------------------------------17 3.3.2 Level 1 Oceanic Zones and Water Masses-----------------------------------------17 3.3.3 Seas: Circulation Regimes -----------------------------------------------------------19 3.3.4 Fields of Features ---------------------------------------------------------------------19 3.3.5 Features --------------------------------------------------------------------------------20 3.3.6 Feature Structure----------------------------------------------------------------------20 -
Great Australian Bight Campaign Brief
Great Australian Bight Campaign Brief August 2018 Key Updates: ● BP & Chevron have abandoned their drilling programs, but Chevron still retains its lease. ● Equinor (formally Statoil) is the remaining ‘Big Oil’ company that has active drilling plans. ● A total of six companies currently hold leases in the Bight. ● No stages of oil & gas development, including seismic surveys have been approved by NOPSEMA for several years. ● Already more than 10 councils in SA have passed motions that express concern or oppose drilling in the Bight1: Kangaroo Island, Yankalilla, Yorke Peninsula, Victor Harbor, Holdfast Bay, Elliston, Alexandrina, Onkaparinga, Port Adelaide Enfield, Marion and West Torrens and Port Lincoln. This represents over 550,000 people in SA. ● Moyne Shire Council in Victoria is the first Victorian council to pass a motion acknowledging concern about drilling plans and requesting to be consulted in the environmental approval process. Environmental Statistics ● Over 85% of known species in the Great Australian Bight region are found nowhere else in the world2. ● 275 species new to science and 887 species found in the Bight for the first time in a research study in 2017 3. ● A haven for 36 species of whales and dolphins and the world’s most important nursery for the endangered southern right whale. ● New research from Tasmania shows seismic testing can kill large swathes of zooplankton, the basis of the marine food chain, up to 1.2km from each blast site, leaving the ocean dotted with plankton holes 4. Tourism statistics for SA ● In 2016-17, the tourism activity in SA is worth a combined total of $6.3 billion to the state’s economy5. -
Native Polycyclic Aromatic Hydrocarbons (PAH) in Coals – a Hardly Recognized Source of Environmental Contamination
SCIENCE OF THE TOTAL ENVIRONMENT 407 (2009) 2461– 2473 available at www.sciencedirect.com www.elsevier.com/locate/scitotenv Review Native polycyclic aromatic hydrocarbons (PAH) in coals – A hardly recognized source of environmental contamination C. Achtena,b, T. Hofmanna,⁎ a University of Vienna, Department of Environmental Geosciences, Althanstr. 14, 1090 Vienna, Austria b University of Münster, Department of Applied Geology, Corrensstr. 24, 48149 Münster, Germany ARTICLE DATA ABSTRACT Article history: Numerous environmental polycyclic aromatic hydrocarbon (PAH) sources have been Received 15 October 2008 reported in literature, however, unburnt hard coal/ bituminous coal is considered only Received in revised form rarely. It can carry native PAH concentrations up to hundreds, in some cases, thousands of 29 November 2008 mg/kg. The molecular structures of extractable compounds from hard coals consist mostly Accepted 5 December 2008 of 2–6 polyaromatic condensed rings, linked by ether or methylene bridges carrying methyl Available online 4 February 2009 and phenol side chains. The extractable phase may be released to the aquatic environment, be available to organisms, and thus be an important PAH source. PAH concentrations and Keywords: patterns in coals depend on the original organic matter type, as well as temperature and Native PAH pressure conditions during coalification. The environmental impact of native unburnt coal- Bituminous coal bound PAH in soils and sediments is not well studied, and an exact source apportionment is Hard coal hardly possible. In this paper, we review the current state of the art. Sediment © 2008 Elsevier B.V. All rights reserved. Soil Contents 1. Introduction .........................................................2462 2. Reserves and production ..................................................2462 3. -
TWS GAB Booklet Web Version.Pdf
10S NORTHERN Fishery closures probability map for four months after low-flow 20S TERRITORY 87-day spill in summer (oiling QUEENSLAND over 0.01g/m2). An area of roughly 213,000km2 would have an 80% 130E 140E chance of being affected. 120E 150E 110E WESTERN 160E INDIAN AUSTRALIA SOUTH 170E OCEAN AUSTRALIA 30S NEW SOUTH WALES VICTORIA 40S TASMAN SEA SOUTHERN SEA TASMANIA NZ 10S NORTHERN 20S TERRITORY QUEENSLAND 130E 140E 120E 150E 110E WESTERN 160E AUSTRALIA SOUTH 170E AUSTRALIA 30S NEW SOUTH WALES Fishery closures probability map VICTORIA for four months after low-flow 87-day spill in winter (oiling over 0.01g/m2). An area of roughly 265,000km2 would have an 80% 40S chance of being affected. SOUTHERN SEA TASMANIA NZ 1 10S NORTHERN 20S TERRITORY QUEENSLAND 130E 140E 120E 150E 110E WESTERN 160E INDIAN AUSTRALIA SOUTH 170E OCEAN AUSTRALIA 30S NEW SOUTH WALES VICTORIA grown rapidly over the past 18 months. The Wilderness 40S TASMAN SEAThe Great Australian Bight is one of the most pristine ocean environments left on Earth, supporting vibrant Society spent years requesting the release of worst-case oil SOUTHERN SEA TASMANIA coastal communities, jobs and recreational activities. It spill modelling and oil spill response plans, from both BP supports wild fisheries and aquaculture industries worth and the regulator. In late 2016, BP finally released some of around $440NZ million per annum (2012–13) and regional its oil spill modelling findings—demonstrating an even more tourism industries worth around $1.2 billion per annum catastrophic worst-case oil spill scenario than that modelled (2013–14). -
SESSION I : Geographical Names and Sea Names
The 14th International Seminar on Sea Names Geography, Sea Names, and Undersea Feature Names Types of the International Standardization of Sea Names: Some Clues for the Name East Sea* Sungjae Choo (Associate Professor, Department of Geography, Kyung-Hee University Seoul 130-701, KOREA E-mail: [email protected]) Abstract : This study aims to categorize and analyze internationally standardized sea names based on their origins. Especially noting the cases of sea names using country names and dual naming of seas, it draws some implications for complementing logics for the name East Sea. Of the 110 names for 98 bodies of water listed in the book titled Limits of Oceans and Seas, the most prevalent cases are named after adjacent geographical features; followed by commemorative names after persons, directions, and characteristics of seas. These international practices of naming seas are contrary to Japan's argument for the principle of using the name of archipelago or peninsula. There are several cases of using a single name of country in naming a sea bordering more than two countries, with no serious disputes. This implies that a specific focus should be given to peculiar situation that the name East Sea contains, rather than the negative side of using single country name. In order to strengthen the logic for justifying dual naming, it is suggested, an appropriate reference should be made to the three newly adopted cases of dual names, in the respects of the history of the surrounding region and the names, people's perception, power structure of the relevant countries, and the process of the standardization of dual names. -
Economic Analysis and Policy Brown Coal Exit: a Market Mechanism For
Economic Analysis and Policy 48 (2015) 71–81 Contents lists available at ScienceDirect Economic Analysis and Policy journal homepage: www.elsevier.com/locate/eap Full length article Brown coal exit: A market mechanism for regulated closure of highly emissions intensive power stations Frank Jotzo a,∗, Salim Mazouz b a Crawford School of Public Policy, Australian National University, JG Crawford Building, Acton, ACT 2601, Australia b EcoPerspectives, Australia article info a b s t r a c t Article history: In this paper we propose a market mechanism for regulated exit of highly emissions in- Received 12 November 2015 tensive power stations from the electricity grid. The starting point is that there is surplus Received in revised form 19 November capacity in coal fired power generation in Australia. In the absence of a carbon price sig- 2015 nal, black coal generation capacity may leave the market instead of high emitting brown Accepted 19 November 2015 coal power stations. We lay out options for a mechanism of regulated power station closure Available online 21 November 2015 using a market mechanism. Plants bid competitively over the payment they require for clo- sure, the regulator chooses the most cost effective bid, and payment for closure is made by Keywords: Greenhouse gas emissions the remaining power stations in proportion to their carbon dioxide emissions. This could Electricity overcome adverse incentive effects for plants to stay in operation in anticipation of pay- Brown coal ment for closure and solve the political difficulties and problems of information asymme- Early retirement try that plague government payments for closure and direct regulation for exit. -
The Great Australian Bight Research Program
2013-2017 The Great Australian Bight Research Program Building a bigger picture of the Bight The Great Australian Bight Research Program Program findings 2013—2017 The Great Australian Bight Research Program is a collaboration between BP, CSIRO, the South Australian Research and Development Institute (SARDI), the University of Adelaide, and Flinders University. The Program aims to provide a whole-of-system understanding of the environment, economic and social values of the region; providing an information source for all to use. Our Partners The Great Australian Bight Research Program: Program Findings 2013-2017 Report is an Administrative Report that has not been reviewed outside the Program and is not considered peer-reviewed literature. Material presented may later be published in formal peer-reviewed scientific literature. ©2018 3 CONTENTS 6 INTRODUCTION 8 OCEAN PHYSICS 12 OPEN WATER RESEARCH 16 SEA-FLOOR BIODIVERSITY 22 ICONIC SPECIES AND APEX PREDATORS 28 PETROLEUM GEOLOGY AND GEOCHEMISTRY 32 SOCIO-ECONOMIC ANALYSIS 36 MODELLING AND INTEGRATION 40 PUBLICATIONS 51 MODELS DEVELOPED FOR THE GABRP 52 AWARDS 52 PARTNERS 53 OTHER PARTICIPANTS 5 Program INTRODUCTION findings 2013—2017 The Great Australian Bight extends from Cape Pasley, Western Australia to Cape Catastrophe, Kangaroo The Great Australian Bight Island, South Australia. Research Program has transformed the deep This unique marine environment is part of the world’s longest The four-year, $20 million social, environmental and economic southern-facing coastline, contains significant natural study brought together multi-disciplinary research teams resources, and is of global conservation significance. comprising more than 100 scientists and technical staff. It was ecosystems of the Great undertaken as a collaborative program involving BP, CSIRO, More than 85 per cent of known species in the region are the South Australian Research and Development Institute Australian Bight from one found nowhere else in the world.