Transmission s Future Today. High Capacity High Efficiency Low Profile

Similar documents
Building the Grid of the Future: How Legislators can Bring Advanced Transmission Technologies to their States

BOLD : System and Performance Considerations

Michigan Thumb Loop Transmission Line Project

Breakthrough Overhead Line Design (BOLD): System and Performance Considerations. N. KOEHLER, S. HARI, R. GUTMAN American Electric Power (AEP) USA

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

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

ABB POWER SYSTEMS CONSULTING

Dynamic Control of Grid Assets

Electric Power Delivery To Big Cities

Robison Park Sorenson BOLD 345-kV Transmission Line Project

Nanophosphate for Grid Storage Applications

MVDC PLUS Managing the future grid

Smart Grid 2.0: Moving Beyond Smart Meters

ABB in Wind &Integration of renewables

ECE 421 Project 1, Group 3 HVDC. Brian Beilstein, Robert Germick, James Haney, Alexander Joss, Matt Murphy, Shutang You

off-grid Solutions Security of supply Basics: Off-grid energy supply

European technology leadership to address infrastructure bottlenecks

2015 Grid of the Future Symposium

Transmission Problem Areas. Bulk power transfer over long distances Transmission Limitations/Bottlenecks have one or more of the following:

ABB Group August 27, 2010 Slide 1

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

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

Designing With CircuitSeal

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

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

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

WOLVERINE TO BHP JANSEN NEW TRANSMISSION LINE PROJECT FALL 2017

Railway Infrastructure. Competent Solutions for Electric Railways and Tramways. the power connection THE PFISTERER GROUP

i-pcgrid Workshop 2017

Economics of Integrating Renewables DAN HARMS MANAGER OF RATE, TECHNOLOGY & ENERGY POLICY SEPTEMBER 2017

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

NEW NORTH BAY FERRY. Alternative Propulsion Study. Presented By: John D Reeves, PE Presented To: WETA Board of Directors Date: February 11, 2016

Contents. Prefece. List of Acronyms «xxi. Chapter 1 History of Power Systems 1

WESTERN INTERCONNECTION TRANSMISSION TECHNOLGOY FORUM

Electricity Technology in a Carbon-Constrained Future

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

Renewable Generation Electrical Infrastructure and Grid Connection Services Provided by Power Systems Project and Consultancy Services (PCS) Ltd

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

ABB Wind Power Solution

TEN YEAR PLANNING GUIDE SHASTA LAKE ELECTRIC UTILITY

NRECA Cooperative Research Network. Modern Grid Initiative Southeast Summit August 10, 2006 Nashville, TN

Product datasheets 11

Power From Shore: An introduction to HVDC Light Offshore

BERNSTEIN STRATEGIC DECISIONS CONFERENCE 2018

AEP Ohio Distribution Reliability and Technology Programs

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

EV - Smart Grid Integration. March 14, 2012

i-pcgrid Workshop 2018

Energy Storage at PG&E

Power Electronics and Drives (PED)

ENERGY STORAGE AS AN EMERGING TOOL FOR UTILITIES TO RESOLVE GRID CONSTRAINTS. June 18, 2015 E2Tech Presentation

GRID INNOVATION CAUCUS CO-CHAIRS

Peter Lundberg, ABB HVDC, Nov 2016 HVDC Light - Power from shore. ABB Group November 16, 2016 Slide 1 1JNL A

APPENDIX F: Project Need and Description

High Performance Integrated DC Link Capacitor/Bus Structures and AC Filter Capacitors. PCIM Vendor Seminar SBE, Inc.

Abstract. Benefits and challenges of a grid coupled wound rotor synchronous generator in a wind turbine application

Proposed Dounreay - Mybster 275 kv / 132 kv

Three-Phase Power Conversion in a Single Step

Dynamic Control of Grid Assets

Medium Voltage. Power Factor Correction Reactive Compensation Harmonic Filters. Electrical Power Quality Management at its best.

Introducing ITC Midwest

ADB Knowledge Partnership Week. Hirokazu Yamaguchi May, 2015

Joint Con Edison LIPA Offshore Wind Power Integration Project Feasibility Assessment

How the choice of transmission conductor can reduce greenhouse gas emissions.

ACCURPRESS HYBRID Precision Forming Systems

HIGH PENETRATION RENEWABLE HYBRID POWER SYSTEMS TO MEET OFF-GRID COMMUNITY AND INDUSTRIAL ENERGY NEEDS

Raphael Görner, Head of Marketing & Sales, Grid Systems Germany Building bridges with HVDC Solar Energy for Science

GE Renewable Energy. GE s 3 MW Platform POWERFUL AND EFFICIENT.

Challenges With Underground High Voltage Transmission SCE Tehachapi Renewable Transmission Project First 500 kv Underground T/L in North America

Western Alberta Transmission Line (WATL) HVDC Project

INFRASTRUCTURE RENEWAL FOR THE NEXT GENERATION PATCO High Speed Line Power Infrastructure Renewal

Experience on Realizing Smart Grids. IEEE PES conference, Gothenburg

ENERGY STORAGE DEPLOYMENTS IN ONTARIO APPRO NOVEMBER 18, 2014 TORONTO

INNOVATION. Providing resilient and secure power. to meet Mission Requirements.

Dr.-Ing. Ervin Spahi, Wadden Sea Forum, Bremerhaven Electric grid on and off-shore: current status, obstacles and new developments

Initial Field Trials of Distributed Series Reactors and Implications for Future Applications

ACTIVE STATOR - A MORE EFFICIENT DRIVE TRAIN CONCEPT FOR A WIND TURBINE. Dr. Makhlouf Benatmane - Director Business Development

Overview Gas Insulated Switchgear Modular and flexible, kV. ABB Group May 15, 2013 Slide 1

Undergrounding Utilities on Grandview Ave.

Steer-by-Wire Systems with Integrated Torque Feedback Improve Steering Performance and Reduce Cost

Singapore and Manila March Successful Deployment of Low Emission Vehicles Industry Viewpoint

Intelligent Mobility for Smart Cities

Case 13-M Edic to New Scotland 345 kv Transmission Line and Hurley Avenue PARs Project (ED-NS/HA) Article VII Filing ED-NS/HA

V2G and V2H The smart future of vehicle-to-grid and vehicle-to-home. September 2016

One Solution for Ideal Power Quality

northeast group, llc Southeast Asia Smart Grid: Market Forecast ( ) Volume II October group.com

northeast group, llc Central America & Caribbean Smart Grid: Market Forecast ( ) February 2015

CHAPTER 5 FAULT AND HARMONIC ANALYSIS USING PV ARRAY BASED STATCOM

DG system integration in distribution networks. The transition from passive to active grids

TABLE OF CONTENTS FIGURES: MAP EXHIBITS: TABLES:

Electric Transportation and Energy Storage

Microgrid solutions Delivering resilient power anywhere at any time

RIDE QUALITY All you need is a hoistway

HIGH PERFORMANCE WIND TURBINES

Efficiency, Capacity, Reliability AND Cost-Effective Carbon Reductions: The Multiple Benefits of High Performance Transmission Conductors (HPTC)

The Narragansett Electric Company. d/b/a National Grid (Interstate Reliability Project) RIPUC Dkt. No Testimony of. David M. Campilii, P.E.

Manifolds. Distributing Water, Quality & Savings

Sensible Land Use Coalition March 29, 2017

Ph: October 27, 2017

Mobile STATCOM. The worlds first fully Mobile STATCOM as a new Construction, Operations and Restoration tool for Dominion Energy

Transcription:

Transmission s Future Today High Capacity High Efficiency Low Profile

BOLD TM Breakthrough in Overhead Line Design BOLD is a compact transmission line design that combines the advantages of higher capacity, lower energy losses, and a lower-profile structure with less visual impact. BOLD was created to maximize the use of land for transmission line corridors (right-of-way) and avoid complex specialized equipment like series capacitors that can create harmonic distortion that negatively impacts generator operations. The benefits that BOLD provides can help utilities achieve the objectives of new resource integration and infrastructure renewal with the highest efficiency and least environmental and community impact. The patented design, developed by American Electric Power, provides an efficient and robust transmission solution at common domestic and international voltage classes representing the best available technology in overhead line design. Value of the BOLD Design BOLD has a cost advantage on a price/mw capacity basis versus traditional overhead lines, and is significantly less expensive than underground lines. BOLD avoids the need for costly and complex series capacitors that can create harmonic distortions that negatively impact generators. BOLD s lower impedance leads to reduced energy losses. Economic savings associated with reduced energy losses can be significant. The ability to replace and upgrade transmission lines with BOLD in existing corridors can save both time and money. There is also the ability to potentially reduce right-of-way width for new lines. The lower-profile aesthetic design has less impact on communities and view shed, potentially lowering public resistance to new or upgraded lines and helping to expedite the siting and construction process. Key Advantages of BOLD Versus Conventional Transmission Lines BENEFITS BOLD 345 kv BOLD 230 kv (3 Bundle) (2 Bundle) Increased Capacity 42% 59% Lower Tower Height (32%) (23%) Lower Magnetic Field Levels (50%) (48%) Lower Energy Levels (33%) (7%) Lower Surge Impedance (Avoids Series Compensation) (30%) (37%) COSTS BOLD 345 kv BOLD 230 kv (3 Bundle) (2 Bundle) ncreased Material Cost 20-30% 10-20% Since BOLD is a new technology currently only under construction by AEP, cost comparisons are based on estimates developed by AEP and vendors involved in the first BOLD project in Indiana. The fabrication of the unique arched cross-arm is a new process that will become routine and less expensive as more lines are built. This is currently the primary factor for the cost differential. Conventional 345 kv designs often use a 2-bundle conductor, whereas BOLD uses a 3-conductor bundle which adds cost. However a conventional structure using a 3-conductor bundle would be nearly equivalent in cost without the same benefits. Lower Cost per MW Capacity (7-17%) (23-33%) Lower Delivered Cost per MW (Including Line Loss Savings) (31-41%) (29-39%) BOLD is less expensive than conventional on a cost per MW basis. This also means fewer lines are required to achieve the same level of capacity. Savings associated with reduced line losses further offset up-front material cost.

BOLD Provides 40-60% More Capability in the Same Right-of-Way 345 kv Traditional (3) Single Circuit Towers (1) Double Circuit Tower 345 kv Traditional (1) Single Circuit Tower (1) Double Circuit Tower 345 kv BOLD (1) Double Circuit Tower Right-Of-Way-Opportunity There is an increasing demand to maximize existing right-of-way that BOLD answers. BOLD can replace existing, aging low-voltage lines without any additional view-shed impacts. This creates a tremendous value when considering difficulties with siting and public opposition to new construction. Utilities around the world are looking at existing lines as possible corridors for future demands. BOLD simply does more with less compared to conventional designs. Low-Profile BOLD Towers Reduce Visual Impacts 100 Feet 230kV Tubular BOLD Height: 87 230kV Lattice Height: 113 500kV Lattice Height: 130 345kV Tubular Height: 145 6 345kV Tubular BOLD Height: 99

Connecting Renewable Energy With the retirement of fossil fuel generators and migration toward new renewable generation facilities, new transmission lines must be constructed. BOLD is a perfect fit for these applications. BOLD facilitates renewable energy through: Providing more capacity over longer distances Avoiding series compensation that can interfere with wind generators Increasing voltage stability Lowering energy losses Series Compensation & Harmonics Wind resources are generally located far away from the areas demanding power, thus requiring long transmission lines for transport. Historically, series compensation has been utilized to increase transfer capability on these lines for performance needs. Series capacitors can create harmonic interference known as Sub-Synchronous Resonance (SSR) which can interfere with and even damage turbine generation facilities. Series capacitors are also complex and costly. BOLD s compact line design, not requiring series compensation, is able to perform equal to or better than a traditional line with series compensation and avoid this potential complication

BOLD TM Deployment American Electric Power is currently constructing the first BOLD transmission line project near Fort Wayne, Indiana. This initial deployment is built as a 345 kv/138 kv hybrid tubular steel design. The BOLD double-circuit tower replaced an existing 138 kv tower in the same corridor. The second BOLD project, utilizing lattice tower structures, will be constructed near Lafayette, IN beginning in 2017. BOLD Project Fort Wayne, IN March 2015 Worldwide Applications BOLD is currently designed for voltages ranging from 200 kv to 400 kv, with future voltages classes under consideration. Over 125,000 miles of 345kV and 230 kv transmission lines are in operation today in North America. Many of these lines will be reaching the end of their useful life in the coming years, creating an opportunity to replace and upgrade existing infrastructure with new technologies such as BOLD. Projected Circuit Miles Replaced/Upgraded and Total Projected Investment ($m) Replacements/Upgrades (Circuit Miles) 6,000 5,000 4,000 3,000 2,000 1,000 $15,000 $12,500 $10,000 $7,500 $5,000 $2,500 Investment ($ Million) - 1990 1992 1994 1996 1998 2000 2002 2004 2006 2008 2010 2012 2014 2016 2018 2020 2022 2024 2026 2028 2030 2032 2034 2036 2038 2040 2042 $0 50 years 60 years 70 years 80 years Source: The Brattle Group, December 2014, Dynamics and Opportunities in Transmission Development

Resource Links: Engineering Information available in October 26, 2015 Transmission and Distribution World Magazine: http://tdworld.com/overhead-transmission/aep-s-bold-response-new-industry-challenges BOLD Website: http://www.boldtransmission.com AEP Transmission Website: http://www.aeptransmission.com NARUC Technology Webinar: http://www.naruc.org/publications/naructdtechnologywebinarsloanwilcox8%2021%2015%20(2).pdf Subsynchronous Resonance (SSR) Information: http://www.elforsk.se/global/vindforsk/konferenser/hf_symposium_111206/gotia_power_v309_ subsynchronus_resonence.pdf Information on Age, Cost and Projected Replacement of US Circuits: http://www.brattle.com/system/publications/pdfs/000/005/089/original/dynamics_and_opportunities_ in_transmission_development.pdf?1417535596 Simulation of BOLD 345 kv Compared with a Conventional 345 kv Monopole How can BOLD work for you? The BOLD technology is available through licensing and other collaborative arrangements. For More Information, Contact: Evan R. Wilcox, PE Director AEP East Transmission Planning President BOLD Transmission, LLC erwilcox@aep.com +1-614-552-1648 www.boldtransmission.com Version 11/13/15