The Grid Link Project. Summary of the Report for the Independent Expert Panel

Similar documents
The Grid West project - Summary of the report for the Independent Expert Panel

INTERCONNECTION BETWEEN IRELAND AND ENGLAND / WALES TECHNICAL INVESTIGATION INTO CONNECTION OF EAST WEST INTERCONNECTOR TO IRISH TRANSMISSION SYSTEM

Proposed Dounreay - Mybster 275 kv / 132 kv

RENEWABLES INTEGRATION STATUS REPORT

Joint Con Edison LIPA Offshore Wind Power Integration Project Feasibility Assessment

15 Nelson-Marlborough Regional Plan

Next Generation of UHVDC System. R. Montaño, D Wu, L. Arevalo, B. Jacobson ABB - HVDC Sweden

TRANSMISSION DEVELOPMENT PLAN

100 MW Wind Generation Project

SUPPLEMENTARY EVIDENCE FROM SCOTTISH AND SOUTHERN ENERGY

15 Nelson-Marlborough Regional Plan

Powering Sydney s Future

Transmission Development Plan Draft for Public Consultation

SPN High Value Project PO Route. RIIO-ED1 Investment Justification Reinforcement for PO Route Network: SPN

PLANNING, ELIGIBILITY FOR CONNECTION AND CONNECTION PROCEDURE IN EMBEDDED GENERATION

TRANSPOWER PLANS, BUILDS, MAINTAINS AND OPERATES NEW ZEALAND S HIGH VOLTAGE ELECTRICITY TRANSMISSION NETWORK THE NATIONAL GRID.

GRID INNOVATION CAUCUS CO-CHAIRS

Environmental Report for Laois-Kilkenny Reinforcement Project

The role of Transmission System Operator in Belgium and in Europe. Vlerick Alumni Event 26 January 2016

PRESENTATION BY ENERGY COMMISSION OF GHANA ON TACKLING POWER SYSTEM LOSSES

It is 5.30 on a winter s evening...

Electricity industry structure and capacity growth trends

Decision on Merced Irrigation District Transition Agreement

Alberta Electric System Operator Needs Identification Document Application. Mowat 2033S Substation

Looking Towards the Future: Advantages of 765-kV Transmission Technology

welcome to the BC Hydro community open house

EIB experience in financing smart meter roll-outs

ENERGY STRATEGY FOR YUKON. Independent Power Production Policy

Interconnection Feasibility Study Report GIP-084-FEAS-R2

City of Palo Alto (ID # 6416) City Council Staff Report

Building Collaboration Between East African Nations via Transmission Interconnectors

EPRI HVDC Research. Gary Sibilant, EPRI. August 30, 2011

ABB POWER SYSTEMS CONSULTING

Energy storage - two Canadian Case Studies ESA Annual Conference, Washington, June 4th. Alex Bettencourt Managing Director

Accommodating High Levels of Variable Generation. EPRI Managing Complexity for Safety and Reliability September 14-15, 15, 2009

Interconnection Feasibility Study Report GIP-226-FEAS-R3

EPRI DOE, and International Smart Grid Project Reviews Ireland Case

The Role of Offshore Wind

Memorandum. This memorandum requires Board action. EXECUTIVE SUMMARY

Tibin Joseph Marie Curie Early Stage Researcher Institute of Energy Cardiff University

ADB Knowledge Partnership Week. Hirokazu Yamaguchi May, 2015

DFO STATEMENT OF NEED REPORT

Submission on the Wellington Town Belt Bill. Local Government and Environment Select Committee Parliament Buildings Wellington

The Smart Way. HVDC PLUS One Step Ahead. Answers for energy.

ELECTRIC TRANSMISSION 101: Operational Characteristics. Wayne Galli, Ph.D., P.E. Executive Vice President Clean Line Energy Partners LLC

Effects of Smart Grid Technology on the Bulk Power System

What can HVDC Light do for you it s time to connect Applications Key Components

Net Metering Policy Framework. July 2015

TRANSMISSION CONNECTION CHARGING METHODOLOGY STATEMENT

3 Existing National Grid

Interconnection Feasibility Study Report GIP-222-FEAS-R3

SPP OVERVIEW. Mike Ross Senior Vice President, Government Affairs and Public Relations

SMART DIGITAL GRIDS: AT THE HEART OF THE ENERGY TRANSITION

Interconnection Feasibility Study Report GIP-023-FEAS-R1. Generator Interconnection Request # MW Wind Generating Facility Inverness (L6549), NS

Supplemental Report on the NCTPC Collaborative Transmission Plan

Electricity industry structure and key players

THE NECESSITY OF THE 500 KV SYSTEM IN NWE S TRANSMISSION SYSTEM TO MAINTAIN RELIABLE SERVICE TO MONTANA CUSTOMERS

Chirmorie Wind Farm Grid Connection

Interconnection System Impact Study Report Request # GI

Updated Transmission Expansion Plan for the Puget Sound Area to Support Winter South-to-North Transfers

RELEASED UNDER THE OFFICIAL INFORMATION ACT 1982

The Energy Queensland Group Notice of no non-network options

New 115 kv Disconnect Switches at Bloomsburg MTS

Intergrid: A Future Electronic Energy Network?

Climate change drivers for a single and smart EU grid

Galapagos San Cristobal Wind Project. VOLT/VAR Optimization Report. Prepared by the General Secretariat

Tidal lagoon snapshot

Innovative technologies ready for the Supergrid

Eyre Peninsula electricity supply options investigation

Power and Energy (GDS Publishing Ltd.) (244).

STATE OF MINNESOTA OFFICE OF ADMINISTRATIVE HEARINGS FOR THE PUBLIC UTILITIES COMMISSION PUC DOCKET NO. E002/TL OAH DOCKET NO.

Robert L. Mitchell CEO and Co-Founder Atlantic Wind Connection

TEN YEAR PLANNING GUIDE SHASTA LAKE ELECTRIC UTILITY

Merger of the generator interconnection processes of Valley Electric and the ISO;

2016 Load & Capacity Data Report

Evaluation of the Performance of Back-to-Back HVDC Converter and Variable Frequency Transformer for Power Flow Control in a Weak Interconnection

WESTERN INTERCONNECTION TRANSMISSION TECHNOLGOY FORUM

Emera Maine Representative: Jeffrey Fenn, P.E., SGC Engineering LLC

EVENT, DATE. The Smart Grid. Challenges & Solutions. Fahd Hashiesh, Global Business Development Manager, Power Consulting

MILLIGAN SOLAR PROJECT

Why choose Electronic Engineering?

ENERGY STRATEGY FOR YUKON. Net Metering Policy DRAFT FOR CONSULTATION

Elbert County 500 MW Generation Addition Interconnection Feasibility Study Report OASIS POSTING # GI

PROMOTING THE UPTAKE OF ELECTRIC AND OTHER LOW EMISSION VEHICLES

Smart Grid, Long term planning for a sustainable energy system, from source to socket

Battery & Energy Storage

Fuel Mix Disclosure and CO 2 Emissions 2012

Electric Power Transmission: Research Needs to Sustain a Critical National Infrastructure

Strategic Plan

The 6 th Basic Plan for Long-term Electricity Supply and Demand (2013~2027)

DETOUR GOLD CORPORATION SYSTEM IMPACT ASSESSMENT FOR DETOUR LAKE PROJECT

ABB in Wind &Integration of renewables

HVDC Innovative Technology for Smart Grids and Super Grids. Wilfried Breuer CEO Power Transmission Solutions, Siemens Energy Sector

Decision D ATCO Electric Ltd. Decommissioning of Transmission Line 6L82

Offshore Wind: Grid Connection & Technology Options. Dietmar Retzmann Focus on. CO 2 Reduction Green Energy Megacities Security of Supply

Decommissioning in 2019

PJM Generator Interconnection Request Queue #R60 Robison Park-Convoy 345kV Impact Study September 2008

Decision on ESB Networks Electric Vehicle Pilot

Selling PFIFFNER in the UK. Paul Haines

Utilities (Technical Regulation) (Electricity Transmission Supply Code) Approval 2016 (No 1)*

Transcription:

The Grid Link Project Summary of the Report for the Independent Expert Panel

Who are EirGrid - and what do we do? EirGrid is responsible for a safe, secure and reliable supply of electricity: now and in the future. We work to ensure there is enough electricity for industry to prosper and for employment to grow. We also keep the electricity transmission grid secure and reliable. We provide electricity to the distribution network. This network sends electricity to homes, businesses, schools, hospitals, factories and farms. EirGrid is a state-owned company. This means we do our work for the benefit and safety of every citizen in Ireland. Finally, we are committed to engaging with people as we develop our projects. This happens long before we finalise a plan or build new infrastructure. Executive Summary EirGrid launched the Grid Link project in 2012. The project was a response to identified electricity transmission needs in the south and South-East of Ireland. Our studies showed that a high-voltage, overhead transmission line would best meet these needs. In March 2015, EirGrid published a draft strategy for the development of Ireland s electricity grid. This strategy highlights that there remains a strategic need for the Grid Link project. However, it is now possible to consider other technical options to meet the need of the Grid Link project. This is due to a slower rate of growth affecting the demand for electricity, and developments in transmission technology. The Grid Link project now has three technical options which can practically meet the need: HVDC Underground Cable Option HVAC 400 kv Overhead Line Option Regional Option In January 2014, Minister Pat Rabbitte established an Independent Expert Panel. As the then Minister for Communications, Energy and Natural Resources, he asked this panel to review the Grid Link project. Their terms of reference call for an assessment using technical, economic and environmental criteria. We submitted our report on the Grid Link project to the Panel on 28 September 15. When we submitted the report we indicated a preference to proceed with the Regional Option. EirGrid Report to the Independent Expert Panel on the Grid Link project Page 2

This is based on a number of factors. First, it minimises the need to develop new large scale infrastructure. Second, it uses a technology known as Series Compensation, that allows more power to flow through existing lines. This eases existing limitations while minimising impact on the environment. Finally, it achieves these results at a reasonable cost. The following is a summary of the Grid Link report to the Independent Expert Panel. It is our intention to develop the Regional Option further over the coming months. We will no longer progress the overhead or underground options. We will now consider the next steps. In doing so, we look forward to engaging with communities, businesses and interest groups on this solution. This project remains a key element of our programme to provide a world-class electricity grid for Ireland: now and into the future. Our new Agricultural Liaison Officers EirGrid Report to the Independent Expert Panel on the Grid Link project Page 3

Our Report on Grid Link to the Independent Expert Panel The full report for the Independent Expert Panel is a detailed, technical publication. The aim of the document you are now reading is to present a synopsis of that full report. It outlines our analysis of the options using technical, environmental and economic criteria. The main report contains a detailed overview of each option: HVDC Underground Cable 400 kv Overhead Line Regional Option The main report to the Independent Expert Panel is set out as follows: Section 1 Executive Summary Section 2 An introduction that explains EirGrid s role, the Grid Link project and the role of the Independent Expert Panel Section 3 Scope of the Independent Expert Panel Report Section 4 An outline of the need for the Grid Link project Section 5 Details of the three options considered Section 6 Option 1 HVDC underground cable option Section 7 Option 2 400kV HVAC overhead line option Section 8 Option 3 Regional Option Section 9 Summary Section 10 Conclusion Lastly, we outline the next steps that we propose to take. EirGrid Report to the Independent Expert Panel on the Grid Link project Page 4

Introduction Our Statutory Role It is our responsibility to ensure Ireland has the electricity transmission infrastructure it needs. We work to ensure there is enough electricity for industry to prosper, and for employment to grow. We also keep the electricity transmission grid secure and reliable. The grid carries high-voltage electricity from where it is generated, to where it is needed. Industrial or high-tech companies connect directly to the transmission grid. This is because they use large amounts of electricity. Homes and small businesses get their electricity from the lowervoltage distribution network. Project Development to Date EirGrid launched the Grid Link project in 2012. The project was a response to identified electricity transmission needs in the south and South-East of Ireland. Our studies showed that a high-voltage, overhead transmission line would best meet these needs. In March 2015, EirGrid published a draft strategy for the development of Ireland s electricity grid. This strategy highlights that there remains a strategic need for the Grid Link project. However, it is now possible to consider other technical options to meet the needs of the Grid Link project. This is due to a slower rate of growth affecting the demand for electricity, and developments in transmission technology. The Grid Link project now has three technical options which can practically meet the need: HVDC Underground Cable Option HVAC 400 kv Overhead Line Option Regional Option EirGrid Report to the Independent Expert Panel on the Grid Link project Page 5

Scope of the Report The Independent Expert Panel Report presents our investigation into these three options, based on the information available to date. We do this looking at technical, environmental and economic criteria for each of the three options. Finally, we ensure that we present our analysis of the three options on an equal and comparable basis. On balance, our preference is for the Regional Option. The Need for the Grid Link Project It is our role to ensure that a safe, secure, reliable and efficient transmission grid is in place. This is necessary so we can move electricity from where it is generated to high demand centres. When developing the grid, we work closely with the Department of Communications, Energy and Natural Resources. We do this to ensure we align our work with its energy strategy, and that our plans deliver for the entire country now, and in the years ahead. The Grid Link project was originally developed in response to the following drivers: The integration of new generation Maintaining security of supply Meeting future need including possible interconnections with Great Britain or France These remain as the key drivers for the Grid Link project. There are still projections of large regional electricity flows from the south of Ireland to the Dublin region. This is due to planned new energy generation in the region, and potential future interconnection. These projected electricity flows will cause three problems that the Grid Link project needs to solve: Voltage collapse The loss of ability to maintain the transmission grid within acceptable voltages. Large voltage phase angles The phase angle is the difference in time between the peaks of the voltage and current waves, expressed in degrees. Large phase angles if above a certain size can cause one or more failures in the transmission system. The phase angle limit is currently set at a maximum of 40 degrees. Thermal overloads These occur when heat, created by large flows of power, causes the conductor to sag below its intended lowest level. EirGrid Report to the Independent Expert Panel on the Grid Link project Page 6

The Options We Considered Doing nothing is not an option. However, it is now possible to consider other technical options to meet the need of the Grid Link project. This is due to a slower rate of growth affecting the demand for electricity, and developments in transmission technology. We identified three options that meets the need for regional reinforcement of the grid in the South-East. These options are: Option 1: Underground Cable An underground cable that runs between transmission stations at Knockraha in Co Cork and Dunstown in Co Kildare. Option 2: Overhead Line A 400 kv overhead line that runs between transmission stations at Knockraha in Co Cork and Dunstown in Co Kildare. Option 3: Regional Option A package of transmission network reinforcements: Series Compensation installed in three existing 400 kv stations. A new 400 kv under water cable. This would link the existing Moneypoint and Kilpaddoge transmission substations Uprates to some existing lines and upgrades to some existing stations. EirGrid Report to the Independent Expert Panel on the Grid Link project Page 7

Grid Link: The Underground Cable Option To achieve a fully underground option from Knockraha, Co. Cork to Dunstown, Co. Kildare, we would need to use high voltage direct current (HVDC) technology. When investigating the underground options, we considered both onshore and offshore routes. For this report, we focused on the onshore option, as it is much shorter than the offshore alternative. The offshore route option length is 330 km in length, including 110 km onshore. By comparison, the onshore route option is 242 km long. A longer offshore route would have higher costs and poorer technical performance. It would also offer less potential for development, as it is not near the existing transmission network. Delivering the necessary capacity The initial capacity required for the scheme is 750 MW. The best solution would be to use a VSC (Voltage Source Convertor) HVDC cable. This would operate at ±320 kv and would be rated to a capacity of 750 MW. Estimated Present Value Cost 643.4 million EirGrid Report to the Independent Expert Panel on the Grid Link project Page 8

Grid Link: The Overhead Line Option The proposed technology for this option is a line carrying 400 kv high voltage alternating current, or HVAC. This option would use a 400 kv overhead line. This would link existing transmission substations in Knockraha, Co Cork and Dunstown, Co Kildare. The 400 kv HVAC overhead line would have a rated capacity of approximately 1580 MW, and would cover a distance of circa 220 km. Potential for partial undergrounding We also investigated an underground cable using high voltage alternating current (HVAC). We concluded that less than 10 km of a 400 kv HVAC line could run underground in this context. Estimated Present Value Cost 215.4 million EirGrid Report to the Independent Expert Panel on the Grid Link project Page 9

Grid Link: The Regional Option The Regional Option is a suite of transmission network reinforcements, based mainly on existing 400 kv lines. Technology The Regional Option is a combination of related elements. First of these is a set of reinforcements to existing 400 kv circuits on the transmission network. This would see us install Series Compensation devices in three locations on the existing 400 kv system. Oldstreet 400 kv station Moneypoint 400 kv station Dunstown 400 kv station Series Compensation works by changing the characteristics of overhead lines to increase their capacity. The second element of the Regional Option is an underwater 400 kv cable under the Shannon Estuary. This would run between Moneypoint and Kilpaddoge station. Finally, the third part of the Regional Option would be to uprate some existing 110 kv lines. This would include the lines running from Great Island to Kilkenny, and from Great Island to Wexford. We would also need to uprate the Wexford 110 kv station busbar. Estimated Present Value Cost 156.8 million EirGrid Report to the Independent Expert Panel on the Grid Link project Page 10

Series Compensation Oldstreet 400 kv Station Series Compensation Dunstown 400 kv Station 400 kv Circuit Moneypoint - Kilpaddoge Series Compensation Moneypoint 400 kv Station 110 kv Overhead Line Uprate Great Island Kilkenny Station Upgrade Wexford 110 kv 110 kv Overhead Line Uprate Great Island Wexford EirGrid Report to the Independent Expert Panel on the Grid Link project Page 11

Grid Link: The Regional Option Summary Environmental Analysis Scale of Impact Potential to reduce impact Risk of lower, but lasting effects Biodiversity, flora and fauna; Aquatic Ecology /Water (during construction) Soil, Geology, Hydrology and Hydro-geology Landscape and Visual Cultural Heritage Settlements and Communities Recreation and Tourism Air Quality (during construction) Climatic Factors Material Assets Traffic and noise (during construction) Noise (during operation) More Difficult, More Risk Less Difficult, Less Risk EirGrid Report to the Independent Expert Panel on the Grid Link project Page 12

Summary Technical Analysis Does this option meet all relevant safety standards? Does this option meet system reliability and security standards? Does this option follow best practice for utilities? What are the average failure rates for this option during normal operation? (This includes average repair times and the availability of the main components required for repairs.) If the option breaks down, how will this impact on reliability of power supply? How long will it take to build this option? How will this option help with future reinforcement and / or connection to the transmission grid? What is the risk of untried technology for this option? More Difficult, More Risk Less Difficult, Less Risk EirGrid Report to the Independent Expert Panel on the Grid Link project Page 13

Grid Link: Comparing Three Options We want you to understand all three Grid Link options. To help with this, these two pages show side-by-side comparisons. They cover environmental, technical and economic criteria. Summary Environmental Analysis Underground Overhead Regional Scale of Impact Potential to reduce impact Risk of lower, but lasting effects Scale of Impact Potential to reduce impact Risk of lower, but lasting effects Scale of Impact Potential to reduce impact Risk of lower, but lasting effects Biodiversity, flora and fauna; Aquatic Ecology /Water (during construction) Soil, Geology, Hydrology and Hydro-geology Landscape and Visual Cultural Heritage Settlements and Communities Recreation and Tourism Air Quality (during construction) Climatic Factors Material Assets Traffic and noise (during construction) Noise (during operation) More Difficult, More Risk Less Difficult, Less Risk EirGrid Report to the Independent Expert Panel on the Grid Link project Page 14

Grid Link: Comparing Three Options Summary Technical Analysis Underground Overhead Regional Does this option meet all relevant safety standards? Does this option meet system reliability and security standards? Does this option follow best practice for utilities? What are the average failure rates for this option during normal operation? (This includes average repair times and the availability of the main components required for repairs.) If the option breaks down, how will this impact on reliability of power supply? How long will it take to build this option? How will this option help with future reinforcement and / or connection to the transmission grid? What is the risk of untried technology for this option? More Difficult, More Risk Less Difficult, Less Risk EirGrid Report to the Independent Expert Panel on the Grid Link project Page 15

Grid Link: Comparing Three Options Summary of Cost Assessment Present Value ( M) Underground Overhead Regional Capacity of option in MVA 750 1580 750* Pre-Engineering Costs 15.8 28.7 14.0 Project Implementation Costs 556.7 238.5 138.6 Project Life Cycle Costs Cost of Losses -59.00** -70.** -47.1** Operating and Maintenance Costs 62.6 2.6 1.0 Decommissioning & Replacement -0.5*** -0.7*** 0.0 Cost of Reliability Cost of Unplanned Outages 0 0 0 Cost of Planned Outages 5.5 0 36.2 Contingency Cost Provisions Pre-Engineering Costs 0.3 1.0 0.1 Project Implementation Costs 55.7 23.6 13.9 Operations & Maintenance 6.3 0.3 0.1 Decommissioning & Replacement 0 0 0 Total 643.4 215.4 156.8 Cost per MVA of Capacity 0.9 0.1 0.2 * Additional power transfer level provide by option ** This figure represents a benefit rather than a loss *** This figure represents the residual value of the option EirGrid Report to the Independent Expert Panel on the Grid Link project Page 16

Conclusion & Next Steps Conclusion We submitted our report on the Grid Link project to the government appointed Independent Expert Panel in September 2015. This report and its analysis is a comprehensive review of the Grid Link project. We considered technical, environmental and economic criteria for underground and overhead technology options. We also applied the same process to the Regional Option. Our analysis points to the Regional Option as the preferred solution for the Grid Link project. Next steps It is our preference is to proceed with developing the Regional Option. It is our intention to develop this option over the coming months. We will no longer progress the overhead or underground options. We will now consider the next steps on this project. We look forward to engaging with communities, businesses and interest groups on this solution. EirGrid is committed to open and transparent consultation, in line with our new approach to engagement. EirGrid Report to the Independent Expert Panel on the Grid Link project Page 17

Glossary AC AC is a type of electrical current, in which the direction of the flow of electrons switches back and forth at regular intervals or cycles. An Bord Pleanála Ireland s independent national planning authority. Assets All substations and electricity transmission lines that form the transmission network. ESB owns the transmission network, and EirGrid operates it. Capacity The amount of electricity that can be safely transferred on the system or a circuit. CER ( the regulator ) The Commission for Energy Regulation. The CER is Ireland s independent energy regulator with a range of economic, customer and safety functions. Circuit The overhead line or underground cable linking two substations. For example, the Moneypoint Dunstown 400kV circuit. DC Direct current (DC) is electrical current which flows consistently in one direction. Demand The amount of electrical power that consumers take from the network. This is often expressed as peak demand, which is the largest amount of power used in a given period. Distribution Network Our high-voltage transmission network supplies power to the distribution network. This lower voltage network delivers power to households and businesses. In Ireland, the ESB owns and ESB Networks Ltd operates the distribution network. Generator A facility that produces electricity. Generators use a variety of sources to generate power. This can include coal-fired power plants, gas fired power plants and wind farms. Kilovolt (kv) Operating voltage of electricity transmission equipment. One kilovolt is equal to one thousand volts. The highest voltage on the Irish transmission system is 400kV. Large voltage phase angles The phase angle is the difference in time between the peaks of the voltage and current waves, expressed in degrees. Large phase angles if above a certain size can cause one or more failures in the transmission system. The phase angle limit is currently set at a maximum of 40 degrees. Megavolt-ampere (MVA) is the unit used for power in an electrical line or cable. In direct current (DC) circuits, this product is equal to the real power in watts. Megawatt (MW) A unit of measurement for the amount of power produced by a generator or transported on the transmission grid. The rating of high voltage direct current (HVDC) circuits is generally quoted in MW. For ease of comparison, we use a unity power factor and displayed the rating in MVA. This allows for a better comparison with the high voltage alternating current (HVAC) options. Present Value All life-cycle costs including construction, maintenance and electrical losses etc. over the assumed 50 year life of the asset are shown as a single equivalent value today. Reinforcement Increasing the capacity of the existing electricity transmission network. We do this by building new lines or cables, or by uprating existing ones. Renewable generation The generation of electricity using renewable energy, such as wind, solar, tidal and biomass. Substation A set of electrical equipment used to step high-voltage electricity down to a lower voltage. We use substations to create lower voltages to safely deliver power to small businesses and homes. Thermal overloads These occur when heat, created by large flows of power, causes the conductor to sag below its intended lowest level. Transmission line A high-voltage power line running at 400kV, 220kV or 110kV on the Irish transmission system. The high-voltage allows delivery of bulk power over long distances with minimal power loss. Transmission Network or Grid This is a network of around 6,500 km high-voltage power lines, cables and substations. It links generators of electricity to the distribution network. EirGrid operates Ireland s transmission network. Voltage Voltage is a measure of electric potential. It is like pressure in a water system. Voltage collapse The loss of ability to maintain the transmission grid within acceptable voltages. EirGrid Report to the Independent Expert Panel on the Grid Link project Page 18

Grid Link Project Contact Details If you have any questions on this document, or on the Grid Link project in general, please contact us using the details below. You can also visit our project offices. Phone us on 1890 422 122 for opening hours and locations near you. Phone Lo-call 1890 422 122 Post Grid Link Project Manager, EirGrid, PO Box 12213, Glenageary, Co. Dublin, Ireland. Web www.eirgrid projects. com/projects/gridlink

The Oval, 160 Shelbourne Road, Ballsbridge, Dublin D04 FW28 Telephone: 01 677 1700 www.eirgrid.com