The Office of the Auditor General's Investigation of the PSA's Follow-Up
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Norwegian Petroleum Technology a Success Story ISBN 82-7719-051-4 Printing: 2005
Norwegian Academy of Technological Sciences Offshore Media Group Norwegian Petroleum Technology A success story ISBN 82-7719-051-4 Printing: 2005 Publisher: Norwegian Academy of Technological Sciences (NTVA) in co-operation with Offshore Media Group and INTSOK. Editor: Helge Keilen Journalists: Åse Pauline Thirud Stein Arve Tjelta Webproducer: Erlend Keilen Graphic production: Merkur-Trykk AS Norwegian Academy of Technological Sciences (NTVA) is an independent academy. The objectives of the academy are to: – promote research, education and development within the technological and natural sciences – stimulate international co-operation within the fields of technology and related fields – promote understanding of technology and natural sciences among authorities and the public to the benefit of the Norwegian society and industrial progress in Norway. Offshore Media Group (OMG) is an independent publishing house specialising in oil and energy. OMG was established in 1982 and publishes the magazine Offshore & Energy, two daily news services (www.offshore.no and www.oilport.net) and arranges several petro- leum and energy based conferences. The entire content of this book can be downloaded from www.oilport.net. No part of this publication may be reproduced in any form, in electronic retrieval systems or otherwise, without the prior written permission of the publisher. Publisher address: NTVA Lerchendahl gaard, NO-7491 TRONDHEIM, Norway. Tel: + (47) 73595463 Fax: + (47) 73590830 e-mail: [email protected] Front page illustration: FMC Technologies. Preface In many ways, the Norwegian petroleum industry is an eco- passing $ 160 billion, and political leaders in resource rich nomic and technological fairy tale. In the course of a little oil countries are looking to Norway for inspiration and more than 30 years Norway has developed a petroleum guidance. -
J.Kenneth Klitz
J. Kenneth Klitz i: ;,-_ .. ...... l~ t :. i \ NORTH SEA OIL RESOURCE REQUIREMENTS FOR DEVELOPMENT OF THE U.K. SECTOR From the first exploration wells in 1964 to virtual self sufficiency by 1980, the development of the U. K. North Sea oil fields has been rapid and productive. However, the hostile environment and the sheer scale of the operation have made heavy demands on both natural and human resources. Just how large has this investment of resources been? Has it been justified by the amount of energy recovered? What lessons does the development of the North Sea hold for operators of other offshore fields? Using an approach developed at the International Institute for Applied Systems Analysis, J. Kenneth Klitz attempts to answer these questions. He presents a wealth of detailed information obtained from exhaus tive Iiterature searches and close cooperation with the North Sea oil companies themselves, and uses it to in vestigate the resources needed to construct and operate the various field installations and facilities. From this starting point he then derives the total amounts of re sources required to develop first each field and then the entire U.K. sector. To put this resource expenditure in perspective, the author describes the way in which estimates of North Sea oil reserves have evolved and examines the addi tional yields that may be obtained by using technolog ically advanced oil-recovery methods; also included is an interesting comparison of the "energy economics" of producing either gas or oil from the North Sea. Finally, there are extensive descriptions of the U.K. -
Storage Options in Norway (D3.2.4)
ACT ALIGN CCUS Project No 271501 This project has received funding from RVO (NL), FZJ/PtJ (DE), Gassnova (NO), UEFISCDI (RO), BEIS (UK) and is cofunded by the European Commission under the Horizon 2020 programme ACT, Grant Agreement No 691712 Accelerating Low carboN Industrial Growth through CCUS Deliverable D3.2.4 Storage options relevant for the Norwegian cluster and their development, Norway Dissemination level Public Written By Ane Lothe (SINTEF Industry), 30.08.2019 Alv-Arne Grimstad (SINTEF Industry) and Per Bergmo (SINTEF Industry) Checked by WP3 Leader Maxine Akhurst (BGS) 31.10.2019 Approved by the coordinator Peter van Os (TNO) 1-11-2019 Issue date 1-11-2019 Document No. ALIGN-CCUS D3.2.4 Storage Options in Norway.docx Issue date 01.11.2019 Dissemination Level Restricted Page 2/35 Executive summary Deployment of Carbon Capture Utilisation and Storage (CCUS) at large scale will be necessary to be able to fulfil the goal from the Paris Agreement to keep the global mean temperature in year 2100 well below two degrees Celsius above pre-industrial levels. Consequently, it is anticipated that there will be a significant increase in demand for CO2 storage capacity. Offshore areas, such as the North Sea part of the Norwegian Continental Shelf, are prime candidates to provide this storage capacity. Given that the development of a storage site can take five years or more, it is of major importance to start the planning of expandable storage hubs. Anticipating and planning of additional stores will give industry clusters and power producers confidence that there will be sufficient operative storage capacity available for the expected increasing supply of captured CO2. -
ABB in Safety Systems 800Xa High Integrity – February 2014
Luis Duran – ABB Safety Product Group ABB in Safety Systems 800xA High Integrity – February 2014 © ABB 06 February 2014 | Slide 1 ABB in Safety Systems Agenda § ABB in Safety § 800xA High Integrity Overview § Integrated System Engineering and Operations § Independent High Integrity § Application Examples § Reference Projects § Summary © ABB 30+ Years Of Experience With Safety Systems Pioneering Installations & Long-Term Support § First safety system delivered offshore to the North Sea in 1979 § Pioneering engineering efforts § Close collaboration between ABB and end-users § Long customer relationships with close technical support and system evolution § Installed base continuously evolved and migrated to maximize customer value and minimize risk “ For an ocean of safety § Support throughout system life-cycle experience you can from installation to de- trust...” commissioning © ABB ABB Safety Execution Centers 30 Years Of Experience With Safety Systems Safety Execution Center (SEC) TUV Certified SEC © ABB Control Systems February 6, 2014 | Slide 4 Over The Years…Innovation and leadership And our experience continues to grow 1975 1980 1985 1990 1995 2000 2005 2010+ s t c 1979 - Statfjord 1984 – First integrated 1993 – First integrated 2005 – First 2007 – Largest HI e j o B safety MP200 based safety Safeguard 3000 safety installations with system to date (13 r P system goes systems goes online at system goes online at Safeguard and 000 IOs) goes y e online Gulfaks A platform Sleipner A platform HI in parallel online K 2005 – 800xA 2008 – -
The Challenges of Economic Growth in Norway: Transitioning from the Petroleum Industry to Renewable Energy Industries
La Salle International School of Commerce and Digital Economy Final Thesis Graduate in Management of Business and Technology THE CHALLENGES OF ECONOMIC GROWTH IN NORWAY: TRANSITIONING FROM THE PETROLEUM INDUSTRY TO RENEWABLE ENERGY INDUSTRIES Student Promoter Kristin Anette Kjuul Eoin Edward Phillips FINAL PROJECT DEFENCE Meeting of the evaluating panel on this day, the student: Kristin Anette Kjuul Presented their final thesis on the following subject: The Challenges of Economic Growth in Norway: Transitioning from the Petroleum Industry to Renewable Energy Industries At the end of the presentation and upon answering the questions of the members of the panel, this thesis was awarded the following grade: Barcelona, MEMBER OF THE PANEL MEMBER OF THE PANEL PRESIDENT OF THE PANEL The Challenges of Economic Growth in Norway: Transitioning from the Petroleum Industry to Renewable Energy Industries By Kristin Anette Kjuul Abstract This thesis attempts to answer the ways in which the transition from the petroleum industry to renewable energy industries may come about while ensuring sustained economic growth. An historical analysis of the relations between the Norwegian petroleum industry, the state, and private industry has been conducted in order to build a model of the most effective interaction between technology, energy companies and economic growth. Review of existing literature has been carried out to explore the current links between the petroleum industry and the renewable energy industry. Primary research, in the form of surveys and -
APG Flaring in Egypt: Addressing Regulatory Constraints
APG Flaring in Egypt: Addressing Regulatory Constraints Final Options Report November 2017 Submitted to EBRD by: Economic Consulting Associates Environics Carbon Counts Economic Consulting Associates Limited 41 Lonsdale Road, London NW6 6RA, UK tel: +44 20 7604 4546, fax: +44 20 7604 4547 Egypt_Gaswww.eca Flaring_Options-uk.com Report_Final_Clean 11/12/2017 Disclaimer Disclaimer This report is prepared from sources and data which Economic Consulting Associates Limited believes to be reliable, but Economic Consulting Associates Limited makes no representation as to its accuracy or completeness. The report is provided for informational purposes and is not to be construed as providing endorsements, representations or warranties of any kind whatsoever. Economic Consulting Associates Limited accepts no liability for any consequences whatsoever of pursuing any of the recommendations provided in this report, either singularly or altogether. Opinions and information provided are made as of the date of the report issue and are subject to change without notice. ECA - Final Options Report i Contents Contents Abbreviations and acronyms v Executive Summary 6 1 Introduction 12 2 Gas flaring in Egypt 15 2.1 Background: gas market 15 2.2 Gas flaring levels and location 20 2.3 Production Sharing Contracts 23 2.4 Regulatory framework 26 2.5 Institutional framework 30 3 Constraints to gas flaring reduction investments 35 3.1 PSC constraints 35 3.2 Regulatory constraints 37 3.3 Wider investment constraints 40 3.4 Institutional constraints 42 3.5 Summary -
Regulation Under Uncertainty: the Co-Evolution of Industry and Regulation in the Norwegian Offshore Gas and Oil Industry
Regulation under Uncertainty: The Co-evolution of Industry and Regulation in the Norwegian Offshore Gas and Oil Industry Charles Sabel1, Gary Herrigel2 and Peer Hull Kristensen3 December 2014 This project was financed by a generous grant from the Citi Foundation and supported by the SNF - Institute for Research in Economics and Business Administration in Bergen. We are deeply indebted to Knut Thorvaldsen and Bodil Sophia Krohn of Norsk olje & gass and to Anna Vatten and Paul Bang of the PSA for their thoughtful hospitality and remarkable openness. We thank Jon Krokeide, the chairperson of the Drilling Managers Forum, and widely admired in the industry for his technical prowess and keen judgment, for allowing us to observe his working group at work and helping us understand what we saw. Ole Andreas Engen has been a stimulating interlocutor and guide to the strengths and vulnerabilities of the Norwegian or Nordic model of tri-partite regulation. Per Heum’s early enthusiasm for the project bolstered our own resolve at critical points. Without the help and guidance of them all it would have been impossible to enter the closely-knit world of offshore production in Norway. Error is ours alone. 1 Columbia Law School 2 University of Chicago 3 Copenhagen Business School 1. Introduction As production becomes more collaborative, involving key suppliers of complex sub- systems and services in design and production, products and production methods become more innovative but more hazardous. Collaborative production by supply chains connecting independent specialists is highly innovative: Unlike the captive component makers of vertically integrated firms they displace, independent suppliers learn rapidly from pooled experience with a wide range of customers; close cooperation between these competent suppliers and final producers allows rapid improvement in the designs of each.4 But this innovative recombination of knowledge also introduces hidden hazards. -
CO2 As Injection Gas for Enhanced Oil Recovery (EOR) from Fields In
NTNU – Norwegian University of Science and Technology Department of Petroleum Engineering and Applied Geophysics __________________________________ CO2 as Injection Gas for Enhanced Oil Recovery and Estimation of the Potential on the Norwegian Continental Shelf by Odd Magne Mathiassen Chief Reservoir Engineer Norwegian Petroleum Directorate Trondheim / Stavanger, May 2003 ________________________________ Part I of II CO2 injection for Enhanced Oil Recovery 2 ___________________________________________________________________________ ACKNOWLEDGEMENT I would like to thank my supervisor Professor Ole Torsæter at the Norwegian University of Science and Technology for excellent guiding and help in my work with this thesis. I would also like to thank my employer, the Norwegian Petroleum Directorate, for giving me the opportunity and time to complete the thesis. My thanks also go to my colleagues Mr. Gunnar Einang, Mr. Søren Davidsen and Mr. Jan Bygdevoll for valuable discussions while working with this thesis. Finally, I would like to thank Dr. Eric Lindeberg and senior researcher Idar Akervoll at the Sintef Research for valuable information on CO2 related issues. SUMMARY The main objective of this thesis is to investigate the possibility of using CO2 as injection gas for enhanced oil recovery and estimate the potential of additional oil recovery from mature oil fields on the Norwegian Continental Shelf (NCS). Because of the lack of CO2 data from offshore oil fields, a literature study on CO2 flood experience worldwide was undertaken. In addition, the physical properties of CO2 and CO2 as a solvent have been studied. The literature study makes it possible to conclude that CO2 has been an excellent solvent for enhanced oil recovery from onshore oil fields, especially in the USA and Canada. -
NORWEGIAN SHELF a JOURNAL from the NORWEGIAN PETROLEUM DIRECTORATE NO 2 - 2018 2-2018 NORWEGIAN CONTINENTAL SHELF | 1 Gas, of Course Rockshot
We must continue to explore NORWEGIAN SHELF A JOURNAL FROM THE NORWEGIAN PETROLEUM DIRECTORATE NO 2 - 2018 2-2018 NORWEGIAN CONTINENTAL SHELF | 1 Gas, of course Rockshot. The Aasta Hansteen gas field began production Sulphide deposits have on 16 December as the first development in the been found on the northern Norwegian Sea. At the same time, the new Polarled pipeline began carrying natural gas PAGE NCS. These minerals to Nyhamna near Ålesund for export to European are important for your customers. All this opens new opportunities in Photo: Jan Stenløkk 9 mobile phone. the area around Aasta Hansteen and Polarled. In recent years, Norway has exported some 120 billion standard cubic metres of gas worth about NOK 200 billion. Most energy forecasts show a growth in demand for gas, while declin- ing domestic production in the EU could create Climate risk. an increased need for European gas imports. Professor Petter Were gas to replace coal in electricity generation, Osmundsen, a special- CO2 emissions could be halved. ist on petroleum eco- In my view, this is not well communicated in nomics, assesses the Norway. PAGE Norwegian oil and gas The NCS has produced more gas than oil since 2010, and that position is expected to per- industry’s exposure to sist. 10 climate risk. Substantial resources, closeness to the PAGES market and an integrated and flexible transport system with low unit costs have made Norwegian gas competitive in the European market. Photo: Monica Larsen 22-23 Lucky land. If the country is to maintain its gas exports Norwegian TV series from the mid-2020s, however, offshore explora- Banking samples. -
Petroleum News Ebook
page Alaska gas pipelines compete in 9 Calgary IOGCC presentations Vol. 13, No. 19 • www.PetroleumNews.com A weekly oil & gas newspaper based in Anchorage, Alaska Week of May 11, 2008 • $1.50 ● EXPLORATION & PRODUCTION Future uncertain ANATOLY ZOLOTUKHIN ANATOLY Anadarko finds ‘no commercial hydrocarbons’ at Jacob’s Ladder well By ERIC LIDJI now plan to use the rest of spring to Petroleum News decide the future of Jacob’s Ladder. “We’re having meetings trying to fter reviewing logs and finding decide what we’re doing next year,” “no commercial hydrocarbons,” said company spokesman Mark Hanley. FORREST CRANE A Anadarko Petroleum plugged its The photo of the Orlan platform (above) in the May 4 issue of Jacob’s Ladder well this winter, Unique geography piqued interest Petroleum News used to be called the Glomar Beaufort Sea I CIDS. according to a first quarter operations The interest in Jacob’s Ladder stems report released on May 6. from the Wahoo formation of the Embarrassing but true, the Orlan The oil prospect sits 10 miles south- Lisburne Group, a prospect believed to Anadarko suspended platform used to be called the east of Prudhoe Bay on Alaska’s eastern hold between 20 million and 660 mil- the Chandler No. 1 North Slope and for years geologists well to the south of Glomar Beaufort Sea I CIDS lion barrels of oil equivalent. Gubik No, 3, and left have considered the unique structure of While knowledge of the Lisburne Nabors rig 105 at the Slap-dab on page 1 of last week’s Petroleum News there was Jacob’s Ladder to be a sign of potential- field dates back to the discovery of ice pad. -
UK Fuel Market Review
UK fuel market review Transport of crude oil and refined products www.racfoundation.org/uk-fuel-market-review • Crude oil is transported by pipelines and tankers to oil terminals located in UK coastal areas. Oil is then stored in terminals, transported to refineries or exported. • Refinedproducts are transported by pipelines or road to distribution centres, petrol stations and airports across the UK. • The cheapest and most efficient way of transporting oil and refined products in bulk is via pipelines. The UK has a dense network of private- and government-owned underground pipeline systems that transport refined products to distribution centres and airports. Figure 1: Crude oil and refined products pipeline and tanker terminal system Privately owned oil product pipelines UK Oil Pipeline (Shell, BP, Valero, Total) Mainline Pipeline System (Esso, Valero, Total, Shell) Grangemouth Walton–Gatwick Pipeline (BP, Shell, Valero) West London Pipeline (BP, Shell, Valero, Total) Esso Pipeline Fina-line (Total) Crude oil pipeline Humber Tanker terminal Lindsey Oil rig Refinery Stanlow Distribution terminals Milford Haven Source: Deloitte based on UK PIA Statistical Review 2012 Pembroke (p. 9) and Finding an unusual suspect (p. 34) by BP Fawley 17 1. Transporting crude oil Crude oil produced in the UK Continental Shelf (UKCS) is transported by subsea pipelines running from the North Sea oil fields to terminals on the east coast of the UK and the Shetland Islands. The two most important oil pipelines from the UKCS are the Forties Pipeline System and the Norpipe. The 169 km Forties Pipeline System serves both the UK and Norwegian zones of the north and central parts of the North Sea. -
D3.3.3 Re-Use of Infrastructure Norway
ACT ALIGN CCUS Project No 271501 This project has received funding from RVO (NL), FZJ/PtJ (DE), Gassnova (NO), UEFISCDI (RO), BEIS (UK) and is cofunded by the European Commission under the Horizon 2020 programme ACT, Grant Agreement No 691712 Accelerating Low carboN Industrial Growth through CCUS Deliverable D3.3.3 Re-use of infrastructure Norway Dissemination level Public Written By Alv-Arne Grimstad (SINTEF) and Cathrine Ringstad 14.05.2019 (SINTEF) Checked by WP3 Leader Maxine C. Akhurst (BGS) 17.07.2019 Approved by the coordinator Peter van Os (TNO) 17.07.2019 Issue date 17.07.2019 Document No. ALIGN-CCUS D3.3.3 Re-use of Infrastructure, Norway Issue date 17.07.2019 Dissemination Level Public Page 2/36 Executive summary The North Sea is a mature petroleum province and hosts an extensive network of infrastructure that will become increasingly available for re-use for CO2 transport and storage as oil and gas production declines. Once available, existing oil and gas infrastructure may be adapted to support the deployment of CO2 transport and storage networks. Re-use of infrastructure can help to reduce the cost of CO2 capture, transport and storage projects, which is critical to ensuring widespread commercialisation of these technologies to meet European and national targets for decarbonisation. Re-use of some of the existing infrastructure is technically feasible and can be cost effective. There are, however, both technical and legal challenges with re-use of existing infrastructure, and neither its suitability, nor availability can be presumed. Previously published criteria for evaluation of re-use of offshore oil and gas infrastructure in a CO2 transport and storage infrastructure has been applied to infrastructure in the northern part of the Norwegian North Sea.