Advocacy Messages for the Natural Gas Sector November 2010.

Slides:



Advertisements
Similar presentations
Lignite Project By Ramic, Haris. GLOBAL OUTLOOK FOR ENERGY World energy consumption is projected to increase at about 1.8%/year between 2000 and 2030(driven.
Advertisements

Climate Change Mitigation in Developing Countries Overview and Brazil, China, and Turkey Case Studies William Chandler Battelle.
Toward a Sustainable Future Name of Conference, Event, or Audience Date Presenter’s Name | ©2011 Synapse Energy Economics Inc. All.
FOREST FUEL - RENEWABLE ENERGY. Renewable energy Today, renewable energy is an important part of the Swedish energy budget. With its share in the energy.
Energy Infrastructure in Latin America the View of the IDB May 6, 2011 Miami, Florida Sustainable Energy for all.
Meeting the Goal: Progress Report Washington, DC June 30, x’25 National Summit 2010: Mission Achievable.
Derek Eaton Division of Technology, Industry & Economics Economics & Trade Branch Geneva, Switzerland “Designing the Green Economy” Centre for International.
20% Wind Vision: a KS Opportunity Larry Flowers National Renewable Energy Laboratory Topeka, KS – September 26, 2007.
Clear Thinking on Nuclear: New Plant Construction Nuclear energy is dependable, affordable, and environmentally sound. Nuclear energy is needed to meet.
Natural Gas in Canada Canadian Gas Association CAMPUT Regulatory Course JUNE 2015.
WORLD ENERGY INVESTMENT OUTLOOK
Financing new electricity supply in the UK market with carbon abatement constraints Keith Palmer 08 March 2006 AFG.
China’s Sustainable Energy Policy
Arguments Against Nuclear Power Development in Iran May, 2003.
China Thermal Power Efficiency Project WB support to the improvement of coal-fired power generation efficiency in China Jie Tang Energy Specialist East.
An Introduction to the Role of Carbon Capture and Storage in Ukraine Keith Whiriskey.
Energy Policy Conundrum Dependence on foreign supplies of oil and natural gas as an “economic” and a “national security” issue Oil shock in 2005 was primarily-demand.
U.S. Energy Policy: The Burdens of the Past and Moving Forward John P. Banks Nonresident Fellow Brookings Institution September 25, 2012 BROOKINGS MOUNTAIN.
E.ON on the Romanian Energy Market ZF Power Summit Bucharest, February 27, 2013 Frank Hajdinjak CEO E.ON România.
Governor’s Conference on Energy Federal/State/Local Role in Permitting & Regulating Energy Projects October 16, 2013.
WIND ENERGY Is there a Latvian Master Plan? CHRISTIAN KJÆR Chief Executive Officer European Wind Energy Association SSE Riga, 4 December 2008 © EWEA/L.
“Getting a foot into the Door” SITEBC September 06 th, 2008.
UK Renewable Energy Policy with particular reference to bioenergy
Financial Executives Institute Greenhouse Gas Emissions and Canadian Environmental Policy This presentation includes forward-looking statements. Actual.
Electricity Supply in the New Century Dr Malcolm Kennedy Chairman PB Power Ltd including the power businesses of Merz and McLellan and Kennedy & Donkin.
1 Status of and Outlook for Coal Supply and Demand in the U.S. Imagine West Virginia Spring 2010 Board of Governors Meeting April 13, 2010 Scott Sitzer.
Freeport Generating Project Project Description Modernization projects at Power Plant #2 Developers – Freeport Electric and Selected Development Company.
International Energy Markets Calvin Kent Ph.D. AAS Marshall University.
1 IEA Energy Scenarios for India for 2030 Lars Strupeit Malé Declaration: Emission inventory preparation / scenarios / atmospheric transport modelling.
US Priorities for New and Renewable Energy Technologies Cary Bloyd Argonne National Laboratory APEC Expert Group on New and Renewable Energy Technologies.
Natural Resource Partners L.P. SMH Capital Investor Growth Conference New York, NY November 8-9, 2007.
Investing in America’s Electric Future Morry Markowitz Group Director, External Affairs New Mexico Utility Shareholders Alliance October 7, 2009.
Global energy, trends and figures Global energy demand:  will grow by more than 30% over the period to 2035,  China, India and the Middle East accounting.
1. 2 Objectives  Describe how hydrogen may help improve public health  Describe the benefits to the environment  Explain how hydrogen may help stimulate.
Northwest Power and Conservation Council Slide 1 Accelerating Energy Efficiency To Reduce the PNW Power System's Carbon Footprint Tom Eckman Manager, Conservation.
World Energy Outlook 2006 Scenarios for the World and the European Union Presentation to European Wind Energy Conference Milan, Italy, 7-10 May 2007.
Coal and Sustainable Development David Cain of Rio Tinto for the World Coal Institute UNECE Ad Hoc Group of Experts on Coal and Thermal.
© OECD/IEA Mtoe Other renewables Hydro Nuclear Biomass Gas.
10 th Annual IOF WV Symposium November 9, 2006 Energy Recycling – A Convenient Truth! Thomas R. Casten Past Chairman & CEO Primary Energy, LLC.
Delivering commercial insight to the global energy industry Wood MackenzieEnergy Natural Gas Markets Enter an Era of Unprecedented Uncertainty.
Anni Podimata MEP Member, Committee on Industry, Research and Energy 8th Inter-Parliamentary Meeting on Renewable Energy and Energy Efficiency Budapest,
The Status and Future of Transportation Fuel Technologies for Wisconsin Maria Redmond Wisconsin State Energy Office 2013 Sustainability Summit and Exposition.
Johnthescone The IPCC Special Report on Renewable Energy Sources and Climate Change Mitigation UN Climate Change Conference June 2011 Bonn, Germany, 7.
2  World oil reserves  U.S. owns 2-3%  U.S. uses 25% The Importance of Energy Independence.
Greening Asia’s Infrastructure Development 1 Herath Gunatilake Director Regional and Sustainable Development Department Asian Development Bank.
THE LONG-TERM ENERGY SUPPLY AND DEMAND OUTLOOK IN TAIWAN ENERGY COMMISSION MINISTRY OF ECONOMIC AFFAIRS AUGUST 2001 MOEA -15-
WORLD ENERGY PICTURE. Figure 1 World Energy Consumption Projections indicate continued growth in world energy use, despite world oil prices that are.
NS4054 Fall Term 2015 Prospects for Alterative Energy.
© OECD/IEA 2015 Budapest, 19 October © OECD/IEA 2015 Energy & climate change today A major milestone in efforts to combat climate change is fast.
© OECD/IEA 2015 China launch of the World Energy Outlook Tangla Hotel, Beijing 24 November 2015.
NS4054 Fall Term 2015 North America Energy Trilemma.
Carbon Abatement Technologies – A new Strategy Brian Morris Head Cleaner Fossil Fuel Technologies Unit.
Energy and the Environment. Background Americans only make up 5% of world’s population but consume 20% of its energy Americans only make up 5% of world’s.
U.S. Energy Information Administration Independent Statistics & Analysis Outlook for coal and electricity for National Coal Council November.
HRM Council Environment & Sustainability Standing Committee July 7, 2011.
Current Energy Use in America. How much energy we use The United States only makes up 5% of the worlds population however consumes 25% of the worlds total.
NATURAL GAS – EFFICIENT INSTRUMENT FOR TRANSITION TO LOW CARBON ECONOMY Svetoslav Ivanov Deputy Executive Director Overgas Inc. AD Sofia,
Welcome Carol Berrigan Nuclear Energy Institute July 13, 2015.
Chapter 4 An Enduring Energy Future. Cont. キ Central electric generating stations will continue to be part of the electricity supply system in order.
ГММ -1( а ) Li Jianfei. By 2040, the world and, in particular, countries which have large and technologically advanced economies – such as the USA,
Energy Demand Analysis and Energy Saving Potentials in the Greek Road Transport Sector Dr. Spyros J. Kiartzis Director Alternative Energy Sources & New.
World Energy and Environmental Outlook to 2030
Global Energy Problems and Counter Policies and Measures of Korea
NS4960 Spring Term 2017 Korea: Energy Policy
James L. Plummer, President, Climate Economics Foundation
Coal and Sustainable Development
NS4960 Spring Term 2018 Korea: Energy Policy
New England Economic Partnership James Daly Vice President Energy Supply Energy Market Perspectives Reliable Energy, Competitive Prices and.
Canadian Gas Association CGA Regulatory Course MARCH 2019
Presentation transcript:

Advocacy Messages for the Natural Gas Sector November 2010

Natural Gas CARES for the World Global production will increase over the next 20 years, with growing supplies from both conventional and unconventional resources. The natural gas sector has the best safety record in the industry. Natural gas is clean. Natural gas produces less nitrogen oxide than coal, and more than 50% less CO 2. Gas produces no sulphur and no solid waste. Natural gas promotes sustainable transport. Natural gas vehicles can improve air quality and energy efficiency in large cities. Natural gas is abundant. Natural gas is safe. Natural gas is available now. Natural gas is flexible. Gas can serve as a flexible partner in power generation for intermittent energy sources like wind and solar, facilitating the phase-in of renewables. Natural gas is the affordable choice. Modern gas-fired plants have a capital cost that is half that of coal, one-third the cost of nuclear and one- fifth the cost of onshore wind. Natural gas does not require subsidies. Unlike heavily subsidized renewable technologies, natural gas use allows countries to affordably reduce their emissions. Natural gas is efficient. Modern gas-fired power plants are 40% more efficient than coal plants. Natural gas saves time. Gas-fired plants require less construction time than nuclear or coal plants. A ffordable R eliable E fficient Gas is readily available from a variety of sources, both pipeline and LNG. The environmental benefits of gas can be realized immediately. Natural gas is a clean, affordable, reliable, efficient, and secure energy source. It has a vital role to play in a sustainable energy future. C lean S ecure

Natural Gas is Clean  Natural gas produces lower emissions than any other fossil fuel. –Natural gas combustion produces an average of 60 kgCO 2 /MMBtu, while burning coal produces kgCO 2 /MMBtu.  Gas-fired power generation produces far lower emissions. –The most advanced combined cycle gas turbine (CCGT) power plants can produce less than 350 kgCO 2 per MWh—half the amount produced by the most efficient coal-fired power plants.

Natural Gas Promotes Sustainable Transport  Natural gas vehicles can promote air quality. Delhi’s switch to compressed natural gas (CNG) vehicles for public transport helped to reduce carbon monoxide and particulate levels.  Over the past decade, the number of natural gas vehicles worldwide has grown from 1.3 million to 11.4 million, and the number of countries using CNG in transportation has doubled.  Although the vast majority of CNG vehicles are passenger cars, CNG could play a larger role in long-haul trucking and transportation in the future. Source: IANGV, PFC Energy Million

Natural Gas is the Affordable Choice  The capital costs for gas-fired power plants in the United States and Europe are far lower than the costs per kW for coal and nuclear.  Even in China, the capital costs for gas-fired power generation are competitive with coal. Source: PFC Energy $ On a per kW basis, natural gas is very competitive relative to other fuels.

Natural Gas Does Not Require Subsidies  Unlike heavily subsidized renewable technologies, natural gas use allows countries to affordably reduce their carbon emissions.  Government subsidies and direct spending accounted for about one-third of the $145 billion invested in clean energy projects worldwide in 2009.¹  In the United States, for example, subsidies provided for energy include: –Renewable Energy Production Tax Credit –Nuclear Energy Production Tax Credit –Energy Investment Tax Credit –Loan Guarantees –Clean Coal Technologies Investment Tax Credit –Local and State Incentives 1. Bloomberg New Energy Finance Natural gas, unlike most renewable technologies, does not require government subsidies to remain competitive—allowing countries to achieve emissions targets while avoiding market distortions.

Natural Gas is Available Now  In contrast to renewable technologies that in some cases will require decades of research and innovation, the environmental benefits of gas can be realized today.  Using gas to displace coal in power generation offers an immediate opportunity to reduce emissions. In the United States, coal accounts for 80% of CO 2 emissions from the power sector and 33% of all US CO 2 emissions—and doubling the utilization rates at existing gas- fired plants could displace enough coal to reduce coal-related emissions by 20%.¹ The Intergovernmental Panel on Climate Change (IPCC) has noted that as the fossil fuel with the lowest CO 2 intensity, natural gas offers an immediate opportunity to reduce emissions. 1. Source: US Congressional Research Service

Natural Gas is Flexible  Gas can serve as a flexible partner in power generation for intermittent technologies like solar and wind, facilitating the phase-in of renewables.  Wind power, for example, typically has a very low capacity factor—in most cases between 20% and 40%—meaning that those energy sources are effectively idle for 60% to 80% of the time.  Because gas is a load-following resource—gas turbines can be adjusted upward and downward fairly rapidly according to load changes—gas is essential to complement the growth in variable energy sources. Renewable Energy Research Laboratory, University of Massachusetts, and US DOE

Natural Gas is Efficient  Modern gas-fired power plants are 40% more efficient than coal-fired plants. Combined cycle gas turbine (CCGT) plants can achieve thermal efficiency rates of 55-60%, compared with thermal efficiency of 42% for coal and 33% for nuclear.  CCGT plants—producing both electricity and heat—have boosted overall plant efficiencies considerably, reducing GHG emissions per unit of energy generated.  Natural gas transmission, distribution and consumer use have become more efficient— and sound energy policies can lead to further improvements. In a 2008 survey of natural gas utilities in 33 US states with energy efficiency programs, reported energy savings averaged 9% for residential users and 7% for all users.¹ Sample Gas Turbine Performance First operation year of prototype machine Gas Turbine Power Output (MW) Gas Turbine Efficiency (% Lower Heating Value, or LHV) Combined Cycle Efficiency (%LHV) Source: Mitsubishi Heavy Industries Review, Dec American Gas Association, 2008

Natural Gas Saves Time  Gas-fired power plants require less construction time than either coal- fired plants or nuclear facilities.  A typical gas-fired power plant can take only two years to construct— less than half the lead time required to build a coal-fired plant, and less than one-third the time required to construct a nuclear plant.  This shorter construction time makes it easier for firms to make efficient investment decisions.  Nuclear plants in particular have been subject to extreme cost overruns and larger-than-expected decommissioning costs. The lengthy construction time (often more than six years) and the volatile regulatory climate for nuclear are serious disincentives for potential investors. Natural gas-fired plants have a clear advantage over coal and nuclear with regard to construction time.

Natural Gas is AbundantConventional Gas Production to Grow Over Next Two DecadesNatural Gas is AbundantConventional Gas Production to Grow Over Next Two Decades  Global gas production will increase over the next 20 years, with growing supplies from both conventional and unconventional resources.  Australasia, Russia and the Former Soviet Union and the Middle East are all expected to increase gas production over the next years.  There are many questions still to be answered about the extent of unconventional gas resources, but the potential resources are enormous. Source: PFC Energy, Global Gas Supply Forecast Natural Gas is Abundant Conventional Gas Production to Grow Over Next Two Decades

Natural Gas is AbundantUnconventional Gas Resources (in-place) Natural Gas is AbundantUnconventional Gas Resources (in-place) Sources: PFC Energy Global LNG Service, Rogner 1997 Unconventional gas resources are nearly five times as large as the global conventional gas reserves, according to some estimates. The key question is: how much of it is recoverable? ( 232 Tcm) ( 96 Tcm) ( 156 Tcm) ( 28 Tcm) ( 31 tcm) ( 275 Tcm) ( 96 Tcm) Natural Gas is Abundant Unconventional Gas Resources (in-place)

Natural Gas is Safe  The natural gas industry has an excellent safety record, with fewer risks for severe accidents than those presented by other energy sources.  Gas-fired power generation also excels in terms of local environmental safety. Gas- fired plants produce fewer pollutants than coal-fired plants, generating far lower levels of sulfur oxides and nitrogen oxides—primary contributors to acid rain and smog—as well as mercury.  The favorable safety and environmental profile of gas power plants aids in the siting and permitting process. Source: Canadian Energy Research Institute, 2008

Natural Gas Generates Jobs and Growth  Natural gas can play a key role in sustainable economic growth.  The natural gas sector generates jobs. –In Canada, the natural gas sector directly employs nearly 190,000 people, and this number rises to 600,000 when indirect employment is included—or more than 3.5% of Canada’s labor force¹ –In the United States, the natural gas industry directly employs more than 620,000 people—and indirectly employs an additional 2.2 million people—for a total of 2.1% of US employment.²  Natural gas creates economic growth. –In the US, the economic value directly added to the economy by the gas sector is more than $170 billion annually³, in the form of: Worker salaries Federal, state and local tax revenue Royalties Spending and savings generated from revenues and worker compensation 1.Canadian Natural Gas Association 2.America’s Natural Gas Alliance 3.America’s Natural Gas Alliance Indirect Employment 2.6 million Direct Employment 811,000 Natural Gas-Related Employment in Canada and the US

UK: Natural Gas in the Power Sector Case Study  UK gas demand experienced a jolt in the early 1990s with the introduction of CCGTs into the power mix. –Since 2000, gas demand growth in the UK has come from power, while all other sectors have trended downward.  Beginning in the early 1990s, the UK system has relied increasingly on CCGTs, which accounted for some 45% of power generation in 2009, growing 10% since  Due to the rise in natural gas penetration in the power mix since 1990, PFC Energy estimates that the UK achieved a 22% reduction in CO 2 emissions by 2007, as compared with the “business as usual” case. A supportive government with a clear agenda to boost the role of natural gas in power generation created significant efficiency gains in the UK.

Argentina: Natural Gas in the Transport Sector Case Study NGV growth in Argentina resulted from: domestic market dynamics (higher prices for gasoline relative to natural gas) and policy interventions (early support for infrastructure and campaigns emphasizing CNG safety).  Argentina has the world’s second-largest NGV fleet, and one of the world’s highest penetration rates for NGVs at approximately 20% of the total vehicle fleet. More than 80% of the NGV fleet consists of non-commercial users (private vehicles rather than trucking or taxi fleets).  CNG use in vehicles began in the 1980s, but accelerated throughout the 1990s and particularly the early 2000s due to increasing investments in retail networks. The development of Argentina’s gas pipeline network also facilitated the expansion of CNG.  The initial phase ( ) of the CNG program involved extensive state support and guidance.  In the mid-1980s, early investments in refueling stations and CNG conversions for municipal vehicles were led by the state.  The state company Gas del Estado played a key role in publicizing the virtues of natural gas—promoting it as an inexpensive, safe and environmentally sound alternative—and in certifying the early conversion kits.  Over time, independent retailers became the dominant players in expanding the retail network, and the state’s role diminished to cover only regulations. Argentina: NGV Vehicle Fleet Millions Source: IANGV, PFC Energy

South Korea: Natural Gas in the Residential Sector Case Study  The residential sector in South Korea has been quite successful in replacing coal with cleaner- burning natural gas for its heating needs.  PFC Energy calculates a 12% reduction in CO 2 emissions by 2007 relative to the “business as usual” case if South Korea had maintained its 1990 fuel mix.  Looking to the future, South Korea plans to further reduce its dependence on oil and coal in its total energy mix and to increase the share of natural gas. –Between 2009 and 2013, oil is expected to lose 3.3% of its market share and coal 1.6%. Over the same period, natural gas’ market share will rise by more than 2%. South Korea’s concerted efforts to prioritize gas rather than coal have allowed it to cut emissions and achieve greater efficiency—while still meeting rapidly growing demand.