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Interconnector Services
Interconnector Services Industry Challenges OUR SERVICES AT A GLANCE The electricity sector around the world is undergoing significant changes, often driven by the decarbonisation Interconnector policy and regulation agenda. For most countries, however, security of supply • Design of regulatory regimes remains the number one priority. At the same time, (including Cap and Floor in consumer price also remains a key issue. Interconnectors Great Britain) are uniquely well placed to meet these challenges of • Policy design (e.g. incentives to sustainability, security and affordability. increase interconnection) Interconnectors are unique transmission • Energy market design (e.g. design assets that enable the flow of electricity of capacity market to incorporate interconnectors) over high voltage cables between different NorthConnect countries or regions. The economic Icelink rationale for interconnectors is driven by Quantitative analysis fundamental differences in the generation mixes in the connecting countries which • Power market fundamentals lead to systematic electricity price NSN modelling spreads over long periods of time. For • Cost-benefit analysis (e.g. example, the generation portfolio in Moyle Viking arbitrage revenues, Capacity Great Britain (primarily thermal and Greenwire Market, ancillary services) renewable generation, with some nuclear) Greenlink BritNed is very different from that in France • Socio-economic impact analysis East-West (predominantly nuclear) or Norway Nemo • Financial analysis (e.g. to support (predominantly hydro). This is beneficial to IFA2 IFA FABLink ElecLink investment decisions) consumers as it allows cheaper electricity Aquind to be imported at times of high local prices and to generators as it allows surplus Strategic support generation to be exported at times of low • Advising on negotiations with Currently operational local prices. -
Aquamarine Power – Oyster* Biopower Systems – Biowave
Wave Energy Converters (WECs) Aquamarine Power – Oyster* The Oyster is uniquely designed to harness wave energy in a near-shore environment. It is composed primarily of a simple mechanical hinged flap connected to the seabed at a depth of about 10 meters and is gravity moored. Each passing wave moves the flap, driving hydraulic pistons to deliver high pressure water via a pipeline to an onshore electrical turbine. AWS Ocean Energy – Archimedes Wave Swing™* The Archimedes Wave Swing is a seabed point-absorbing wave energy converter with a large air-filled cylinder that is submerged beneath the waves. As a wave crest approaches, the water pressure on the top of the cylinder increases and the upper part or 'floater' compresses the air within the cylinder to balance the pressures. The reverse happens as the wave trough passes and the cylinder expands. The relative movement between the floater and the fixed lower part is converted directly to electricity by means of a linear power take-off. BioPower Systems – bioWAVE™ The bioWAVE oscillating wave surge converter system is based on the swaying motion of sea plants in the presence of ocean waves. In extreme wave conditions, the device automatically ceases operation and assumes a safe position lying flat against the seabed. This eliminates exposure to extreme forces, allowing for light-weight designs. Centipod* The Centipod is a Wave Energy Conversion device currently under construction by Dehlsen Associates, LLC. It operates in water depths of 40-44m and uses a two point mooring system with four lines. Its methodology for wave energy conversion is similar to other devices. -
Sustainable Communities and Wind Energy Project Acceptance in Massachusetts
Sustainable Communities and Wind Energy Project Acceptance in Massachusetts Maria A. Petrova, PhD* I. Background ..................................................................... 530 II. Study Context ................................................................. 534 III. Literature Review and Research Questions .................. 539 IV. Methods ........................................................................... 543 V. Results............................................................................. 544 VI. Discussion and Conclusion ............................................. 551 The State of Massachusetts is one of the most progressive U.S. states in advancing sustainability through energy conservation and renewable energy. The Green Communities Act,1 signed into law by Governor Deval Patrick in 2008, has awarded 110 communities with the title “Green Communities” in the last five years.2 The title is earned after communities achieve “five clean energy benchmarks,”3 two of which are the provision of “as-of-right” siting for renewable/alternative energy generation and the adoption of an expedited application © 2014 Maria A. Petrova, PhD * Center for International Environment and Resource Policy, The Fletcher School of Law and Diplomacy, Tufts University, 160 Packard Ave, Medford, MA 02155, [email protected]. This work was done as a Postdoctoral Scholar at the Energy, Climate, and Innovation (ECI) Program in the Center for International Environment and Resource Policy (CIERP) at the Fletcher School of Law and Diplomacy, Tufts University. Financial support was provided through a grant to ECI from BP Group and Barbara Kates- Garnick. I am grateful for the review assistance of Professor Kelly Sims Gallagher and the research help of students Allison Thompson, Elena Nikolova, and Chantal Davis. 1. An Act Relative to Green Communities, 2008 Mass. Acts 308–80. 2. Press Release, Mass. Exec. Office of Energy & Envtl. Affairs, Patrick- Murray Administration Energy Officials Present Green Communities Award (Apr. -
Expert Perspectives on Norway's Energy Future
Research Paper Antony Froggatt, Paul Stevens and Siân Bradley Edited by Germana Canzi and Amanda Burton Energy, Environment and Resources Programme | June 2020 Expert Perspectives on Norway’s Energy Future Future on Norway’s Energy Expert Perspectives Expert Perspectives on Norway’s Energy Future Froggatt, Stevens and Bradley Stevens Froggatt, Chatham House Contents Abbreviations 2 Summary 3 1 Preamble: Energy Transition in a Post-COVID-19 World 5 2 Challenges and Opportunities for Norway 8 3 Norway’s Energy Future 13 4 Conclusions and Recommendations 38 Annex: Expert Perspectives 40 About the Editors 90 About the Interviewees 91 About the Authors 95 Acknowledgments 96 1 | Chatham House Expert Perspectives on Norway’s Energy Future Abbreviations CCS carbon capture and storage CCU carbon capture and use CCUS carbon capture, use and storage COP Conference of the Parties EIA Energy Information Administration EV electric vehicle GHG greenhouse gas GtCO2e gigatonnes of carbon dioxide equivalent IEA International Energy Agency IPCC International Panel on Climate Change LUC land-use change mtoe million tonnes of oil equivalent NETs negative emissions technologies SAF sustainable aviation fuels SMR steam methane reformer SWF sovereign wealth fund UNEP United Nations Environment Programme UNFCCC United Nations Framework Convention on Climate Change 2 | Chatham House Expert Perspectives on Norway’s Energy Future Summary • The world is undergoing a transition away from fossil fuels towards renewable energy. However, the speed and depth of this transition is uncertain and controversial. This will have significant implications for Norway, one of the world’s largest exporters of both energy and capital. • With international efforts to limit increases in global temperature to 2°C, and as close as possible to 1.5°C, appearing increasingly off-track, there is an urgent need for a rapid move away from the unabated use of fossil fuels. -
Lessons Learned from Orkney Island: the Possibility of Waves to Churn out Enery and Economic Returns in the U.S
Lessons Learned from Orkney Island: The Possibility of Waves to Churn Out Enery and Economic Returns in the U.S. by Marisa McNatt About the Author Marisa McNatt is pursuing her PhD in Environmental Studies with a renewable energy policy focus at the University of Colorado-Boulder. She earned a Master’s in Journalism and Broadcast and a Certificate in Environment, Policy, and Society from CU-Boulder in 2011. This past summer, she traveled to Europe as a Heinrich Böll Climate Media fellow with the goal of researching EU renewable energy policies, with an emphasis on marine renewables, and communicating lessons learned to U.S. policy-makers and other relevant stakeholders. Published by the Heinrich Böll Stiftung Washington, DC, March 2014 Creative Commons Attribution NonCommercial-NoDerivs 3.0 Unported License Author: Marisa McNatt Design: Anna Liesa Fero Cover: ScottishPower Renewables „Wave energy device that turns energy from the waves into electricity at the European Marine Energy Center’s full-scale wave test site off the coast of Orkney Island. Pelamis P2-002 was developed by Pelamis Wave Power and is owned by ScottishPower Renewables.” Heinrich Böll Stiftung North America 1432 K Street NW Suite 500 Washington, DC 20005 United States T +1 202 462 7512 F +1 202 462 5230 E [email protected] www.us.boell.org 2 Lessons Learned from Orkney Island: The Possibility of Waves to Churn Out Enery and Economic Returns in the U.S. by Marisa McNatt A remote island off the Northern tip of Scotland, begins, including obtaining the necessary permits from long known for its waves and currents, is channeling energy and environmental regulatory agencies, as well attention from the U.S. -
Towards Integration of Low Carbon Energy and Biodiversity Policies
Towards integration of low carbon energy and biodiversity policies An assessment of impacts of low carbon energy scenarios on biodiversity in the UK and abroad and an assessment of a framework for determining ILUC impacts based on UK bio-energy demand scenarios SUPPORTING DOCUMENT – LITERATURE REVIEW OF IMPACTS ON BIODIVERSITY Defra 29 March 2013 In collaboration with: Supporting document – Literature review on impacts on biodiversity Document information CLIENT Defra REPORT TITLE Supporting document – Literature review of impacts on biodiversity PROJECT NAME Towards integration of low carbon energy and biodiversity policies PROJECT CODE WC1012 PROJECT TEAM BIO Intelligence Service, IEEP, CEH PROJECT OFFICER Mr. Andy Williams, Defra Mrs. Helen Pontier, Defra DATE 29 March 2013 AUTHORS Mr. Shailendra Mudgal, Bio Intelligence Service Ms. Sandra Berman, Bio Intelligence Service Dr. Adrian Tan, Bio Intelligence Service Ms. Sarah Lockwood, Bio Intelligence Service Dr. Anne Turbé, Bio Intelligence Service Dr. Graham Tucker, IEEP Mr. Andrew J. Mac Conville, IEEP Ms. Bettina Kretschmer, IEEP Dr. David Howard, CEH KEY CONTACTS Sébastien Soleille [email protected] Or Constance Von Briskorn [email protected] DISCLAIMER The project team does not accept any liability for any direct or indirect damage resulting from the use of this report or its content. This report contains the results of research by the authors and is not to be perceived as the opinion of Defra. Photo credit: cover @ Per Ola Wiberg ©BIO Intelligence Service 2013 2 | Towards -
The Scottish Marine Protected Area Project – Developing the Evidence Base for Impact Assessments and the Sustainability Appraisal Final Report
Planning Scotland’s Seas The Scottish Marine Protected Area Project – Developing the Evidence Base for Impact Assessments and the Sustainability Appraisal Final Report Marine Scotland The Scottish Marine Protected Area Project – Developing the Evidence Base for Impact Assessments and the Sustainability Appraisal Final Report Date: July 2013 Project Ref: R/4136/1 Report No: R.2097 © ABP Marine Environmental Research Ltd Version Details of Change Date 1.0 Draft 29.04.2013 2.0 Draft 15.05.2013 3.0 Final 07.06.2013 4.0 Final 28.06.2013 5.0 Final 01.07.2013 6.0 Final 05.07.2013 Document Authorisation Signature Date Project Manager: S F Walmsley PP 05.07.2013 Quality Manager: C E Brown 05.07.2013 Project Director: S C Hull 05.07.2013 ABP Marine Environmental Research Ltd ABPmer is certified by: Quayside Suite, Medina Chambers, Town Quay, Southampton, Hampshire SO14 2AQ Tel: +44 (0) 23 8071 1840 Fax: +44 (0) 23 8071 1841 Web: www.abpmer.co.uk Email: [email protected] All images copyright ABPmer apart from front cover (wave, anemone, bird) and policy & management (rockpool) Andy Pearson www.oceansedgepzhotography.co.uk The Scottish Marine Protected Area Project – Developing the Evidence Base for Impact Assessments and the Sustainability Appraisal Summary Introduction The Marine (Scotland) Act and the UK Marine and Coastal Access Act contain provisions for the designation of a network of Marine Protected Areas (MPAs) in Scottish territorial and offshore waters in order to protect marine biodiversity and geodiversity and contribute to a UK and international network of MPAs. -
The Development and Improvement of Instructions
COMMUNITY BENEFIT FUNDS AND WIND POWER: A SCOTTISH CASE STUDY Dissertation in partial fulfillment of the requirements for the degree of MASTER OF SCIENCE WITH A MAJOR IN WIND POWER PROJECT MANAGEMENT Uppsala University Department of Earth Sciences, Campus Gotland Adam Christopher Mathers COMMUNITY BENEFIT FUNDS AND WIND POWER: A SCOTTISH CASE STUDY Dissertation in partial fulfillment of the requirements for the degree of MASTER OF SCIENCE WITH A MAJOR IN WIND POWER PROJECT MANAGEMENT Uppsala University Department of Earth Sciences, Campus Gotland Approved by: Supervisor, Dr Sanna Mels Examiner, Dr Heracles Polatidis Oct 2018 iii ABSTRACT The Scottish government’s aim of deriving 100 per cent of the nation’s electricity from renewable sources is dependent on the utilisation of wind energy. Social barriers, however, have continued to threaten these targets. Community benefit funds have often been paraded as the most common way of improving public attitudes towards wind farms in the United Kingdom, although little empirical evidence exists to support this notion. Using the proposed Ourack wind farm, approximately three and a half miles north of Grantown-on-Spey in the Scottish Highlands, this case study, consisting of a sequential explanatory research design comprised of an initial close-ended survey followed by in-depth semi-structured interviews, sought to explore the community’s perceptions of community benefits, identify the type of fund that the community wanted, and investigate the role of such benefit provisions in altering perceptions of wind farms. The key findings indicated that the majority of participants were in favour of benefits being provided, they preferred funding to be directed towards community organisations, and approximately one third of research participants (31.6 per cent) perceived the proposed wind farm in a more positive light after considering the possible benefits the region would accrue. -
Scottish Government Arctic Policy: Mapping Report Jafry, Tahseen; Mikulewicz, Michael; Mattar, Sennan; Davidson, Magnus; Bremner, Barbara
Scottish Government Arctic Policy: Mapping Report Jafry, Tahseen; Mikulewicz, Michael; Mattar, Sennan; Davidson, Magnus; Bremner, Barbara Publication date: 2019 Document Version Publisher's PDF, also known as Version of record Link to publication in ResearchOnline Citation for published version (Harvard): Jafry, T, Mikulewicz, M, Mattar, S, Davidson, M & Bremner, B 2019, Scottish Government Arctic Policy: Mapping Report. Scottish Government. General rights Copyright and moral rights for the publications made accessible in the public portal are retained by the authors and/or other copyright owners and it is a condition of accessing publications that users recognise and abide by the legal requirements associated with these rights. Take down policy If you believe that this document breaches copyright please view our takedown policy at https://edshare.gcu.ac.uk/id/eprint/5179 for details of how to contact us. Download date: 01. Oct. 2021 SCOTTISH GOVERNMENT ARCTIC POLICY MAPPING REPORT Compiled by Professor Tahseen Jafry Centre for Climate Justice Glasgow Caledonian University Project Team Dr Michael Mikulewicz and Sennan Mattar GCU Centre for Climate Justice Magnus Davidson and Barbara Bremner Environmental Research Institute, University of the Highlands and Islands June 2019 compiled in November 2018 Table of Contents 1. EXECUTIVE SUMMARY ........................................................................................................ 5 Context and background ........................................................................................................... -
Aegir Wave Power - South West Shetland
Last Updated 08/10/2013 Aegir Wave Power - South West Shetland Developer: Pelamis Wave Power Site size: The farm will occupy roughly 2km²° Site location: The Aegir wave farm project site is located off the west coast of Shetland in an “Area of Search” between Kettla Ness and Muckle Sound, roughly 5km from the coast at its closet point Swell is predominantly from the west. Surf beaches in the south of Shetland could be affected. Image courtesy of Pelamis Wave Power Ltd Technology: Aegir is developing a 10MW wave farm off the southwest coast of Shetland. The farm, which was awarded an agreement for lease from The Crown Estate in May 2011, will consist of between 10 to 14 Pelamis wave machines. Each machine consists of 5 tube sections joined axially with 4 universal joints. The bending movements (induced by the peaks and troughs of the waves) around the universal joints are harnessed by hydraulic rams to generate electricity; with each single machine having a total rated Last Updated 08/10/2013 export capacity of 750 kW (0.75 MW). The machine is ballasted so that it is approximately 60% submerged i.e. less than 2 m protrusion above the surface of the sea. The overall machine length is approximately 180 m Pelamis is held on station by a compliant mooring spread consisting mainly of steel chain and synthetic tethers. The primary choice for anchors is embedment anchors (the same as used for floating oil rigs), which require sites with sedimentary cover. Embedment anchors are the preferred choice for a number of reasons including that they are a more cost effective method than pilling or drilling which Aegir do not intend to do. -
Integration of Electricity Markets
Norwegian School of Economics Bergen, Autumn 2018 Integration of Electricity Markets An Analysis of TSO-Owned and Non-TSO-Owned Cross-Border Interconnectors Sofie Handal Bruvik & Sigrid Marthea Hernes Supervisor: Lassi Ahlvik Master Thesis within the profile of Economics and the profile of Energy, Natural Resources and the Environment NORWEGIAN SCHOOL OF ECONOMICS This thesis was written as a part of the Master of Science in Economics and Business Administration at NHH. Please note that neither the institution nor the examiners are responsible - through the approval of this thesis - for the theories and methods used, or results and conclusions drawn in this work. Abstract The European electricity market is gradually becoming more integrated due to increased cross- border transmission capacity. Integrated electricity markets are expected to improve social welfare through security of supply and efficient electricity generation. Thus, inadequate cross- border transmission capacity causes an inefficient allocation of resources at a regional level. The integration of electricity markets will impact electricity prices and the social welfare in the connected regions. A cross-border interconnector between the bidding zone NO5 in Norway and the market area Great Britain will exploit the different price levels and structures of the regions. The interconnector is expected to increase electricity prices in NO5 and decrease electricity prices in Great Britain. Further, the social welfare is expected to increase in both NO5 and Great Britain. This thesis estimates the annual congestion rent of a 1 400 MW interconnector between NO5 and Great Britain. The Norwegian share of the congestion rent is estimated to vary between e51,4 million and e168,4 million in the period from 2026 to 2045. -
Ocean Energy: Technologies, Patents, Deployment Status And
IRENA International Renewable Energy Agency OCEAN ENERGY TECHNOLOGY READINESS, PATENTS, DEPLOYMENT STATUS AND OUTLOOK REPORT AUGUST 2014 Copyright © IRENA 2014 OTEC Patents Unless otherwise indicated, material in this publication may be used freely, shared or reprinted, so long The following table summarises international PCT applications related to OTEC in 2013. as IRENA is acknowledged as the source. Summary of international OTEC PCT applications published in 2013 International Country Applicant Date About IRENA Publication Number of Applicant WO 2013/000948 A2 DCNS 03 Jan 2013 France The International Renewable Energy Agency (IRENA) is an intergovernmental organisation that WO 2013/013231 A2 Kalex LLC 24 Jan 2013 USA supports countries in their transition to a sustainable energy future, and serves as the principal platform WO 2013/025797 A2 The Abell Foundation, Inc. 21 Feb 2013 USA for international co-operation, a centre of excellence, and a repository of policy, technology, resource and financial knowledge on renewable energy. IRENA promotes the widespread adoption and sustainable WO 2013/025802 A2 The Abell Foundation, Inc. 21 Feb 2013 USA use of all forms of renewable energy, including bioenergy, geothermal, hydropower, ocean, solar and WO 2013/025807 A2 The Abell Foundation, Inc. 21 Feb 2013 USA wind energy, in the pursuit of sustainable development, energy access, energy security and low-carbon WO 2013/050666 A1 IFP Energies Nouvelles 11 Apr 2013 France economic growth and prosperity. www.irena.org WO 2013/078339 A2 Lockheed Martin Corporation 30 May 2013 USA WO 2013/090796 A1 Lockheed Martin Corporation 20 Jun 2013 USA Acknowledgements This report was produced in collaboration with Garrad Hassan & Partners Ltd (trading as DNV GL) Salinity Gradient Patents under contract.