Princeton University Undergraduate Task Force on Energy for Sustainable Development Generation, Efficiency, Development, and Implementation Commission on Sustainable Development United Nations May 12, 2006 About the Task Force o Composed of nine undergraduate students of public policy at Princeton University o Directed by Prof. Denise Mauzerall o Consisted of one semester of research and collaboration o Informed by individual research and presentations from outside experts o Focused on the generation, efficiency, development, and implementation of energy services in India, China, and the U.S. Global Energy Consumption Total Carbon Emissions from Energy Consumption, 1880-2002 7000000 Thousand metric tons carbon 6000000 Global United States China India 5000000 4000000 3000000 2000000 1000000 0 1880 1890 1900 1910 1920 1930 1940 1950 1960 1970 1980 1990 2000 Year Figure created from data available at http://cdiac.ornl.gov/ftp/trends/emissions 2010 Per Capita Carbon Emissions (1950-2002) 6 Metric Tons Carbon 5 4 USA Global China India 3 2 1 0 1950 1955 1960 1965 1970 1975 1980 1985 1990 1995 2000 2005 Year Figure created from data available at http://cdiac.ornl.gov/ftp/trends/emissions Objectives of the Task Force o Address the question, how can access to increased sources of sustainable energy be achieved? o Consider the need to balance increased energy services with environmental concerns, specifically climate change and air quality Structure of the Presentation Generation Development – Clean Coal – Wind Power Efficiency – Green Building – Improving Vehicle Fuel Efficiency – Public Transportation – Slum Electrification – Energy Services for Rural Areas Implementation – Mandated Market Systems – Financing Renewable Energy Questions and Comments STRENGTHENING HEALTH, SECURITY, AND ENVIRONMENT Towards a Sustainable Coal-based Development Strategy for China Coal Oil Gas Uranium W. Ulysses Fowler Coal Power Plant Growth Leads to Carbon Lock-in Natural Current Status and Growth Gas Coal China World Natural o Abundant reserves 24% 70% Gas Coal o Electricity demand 3% 26% rising at 15% o Electricity generation 77% Oil Nuclear NonHydro 39% dependent on coal Hydro 8% Hydro Oil Nuclear 2% 2% RE o China responsible for 75% of 24% 1% 1% current global coal growth Annual Carbon Emissions in 2025 from New o Coal electricity generation Chinese Coal Power Plants Exceed Proposed capacity projected to triple by McCain-Lieberman CSA Reductions 2020 MMTCe, o If installed, this new capacity 682.3 will lock-in enormous carbon emissions, due to long lifetimes MMTCe, of power plants and infeasibility 851.5 of retrofits Coal modernization required now to avoid carbon lock-in. Coal Gasification to Avoid Carbon Lock-in What is it? o Process that converts any hydrocarbon into a synthesis gas composed of hydrogen and carbon monoxide Allows production of: o Electricity o Liquid fuels o Petrochemicals Provides a pathway to: o Reducing air pollution o Enhancing energy security by providing alternative to foreign oil and natural gas imports o Potential lower-cost route to reductions in carbon emissions Barriers to Coal Gasification (1) Environmental Policy o Environmental regulations are poorly enforced and not tough enough to justify investment in clean technology (2) Institutional Capabilities o The innovation system is weak and fragmented (3) Intellectual Property Rights Protection o Intellectual property rights protection for coal gasification technology is poor, hindering acquisition and diffusion of the technology (4) Investment and Trade Rules o Ownership restrictions and complex approval processes for foreign investments restrict access to Chinese market for advanced coal technologies (5) Finance and Economics o Coal gasification relies on expensive imported technology that is unfamiliar to the energy sector and not affordable without strong financial incentives Policy Recommendations (1) Environmental Policy o Enforce existing environmental regulations to reward clean technologies. o Require installation of monitoring equipment to enable enforcement (2) Institutional Capabilities o Reform the innovation process to allow coordinated research, development, demonstration, and commercialization of gasification technologies (3) Intellectual Property Rights Protection o Strengthen intellectual property rights protection for advanced coal technologies (4) Investment and Trade Rules o Streamline the approval process for large gasification-related foreign investments o Define priority channels for technology transfer, favoring technology acquisition through foreign direct investment (FDI) and licensing over simple equipment import (5) Finance and Economics o Encourage gasification-based electricity generation demonstration projects with loan guarantees, capital subsidies, and grants Wind Power: A Clean and Renewable Supplement to the World’s Supply of Energy Michael Treadow How Much Will Wind Help? The answer to this question depends on several factors: 1) Pace of technological advancement in wind industry 2) Ability of wind-generated electricity to compete cost-wise with traditional energy sources 3) Extent of support wind industry receives from governments and policymakers via legal, financial and environmental channels Though wind currently generates less than 1% of the global electricity demand, new installations are increasing worldwide wind capacity at a rate of 3040% per year Key Points on U.S. Wind Power • Currently ranks 3rd in the world in terms of installed wind capacity at 9.149 GW • Financing is vital for wind industry’s growth, but many in U.S. still regard wind power as a novel and risky endeavor • Part of this perception stems from on-again/off-again nature of federal production tax credit (1.5-1.8 cents per kilowatt-hr) • Remoteness of wind in U.S. poses a hurdle to its ability to compete cost-wise with established energy sources; it makes transmitting wind-generated electricity more expensive • There is an enormous potential for U.S. wind power in the offshore setting which is estimated at over 1000 GW Key Points on Chinese Wind Power • Ranks 8th in the world in terms of installed wind capacity at 1.260 GW but had laid out ambitions plans for expansion of its wind industry: 4 GW by 2010, 20 GW by 2020 • Currently generates over 70% of its energy from coal • Overly reliant on imported equipment for wind industry and thus sees higher costs for wind-generated electricity • Antiquated grid system in China incapable of automatically rerouting power to match supply and demand • Control over wind energy policy decisions is not vested in a single government agency which can give rise to bureaucratic delays in implementing reforms Policy Recommendations United States 1) Ensure fair grid access rules regarding electricity transmission system 2) Promote partnerships between wind industry and offshore oil/gas sectors to expand offshore capacity 3) Expand Renewables Portfolio Standard to all 50 states and stabilize Federal Production Tax Credit China 1) Renovate aging grid system to enable wind to be integrated efficiently 2) Drive down wind power’s cost through tax incentives and policy measures which promote renewable sources 3) Encourage homegrown wind industry Reducing Climate Change through Green Building Andrew Turco Picture: Energy Star, 2006 Current Consumption and Future Strategies o Buildings = 39% of energy use in the US (Energy Information Administration, 2004) o Long lifetime / lasting influence o Peak electric loads: lighting and cooling (Tester et al., 2005) o Heating/Cooling & Lighting = 2 largest energy uses in buildings (Energy Star, 2006) o o o o Make buildings more efficient Internalize energy costs Push-pull policies to reduce energy use Factor in life cycle Technologies and Approaches o Energy Star certified equipment: 30% energy savings o Better windows, insulation, site orientation o Geothermal heat pumps - Can reduce energy consumption by 63%-72% - Available everywhere - High Initial Investment but payback: 5-10 yrs (US Department of Energy, 2005) Advantages & Policy Models Advantages: • Reduced operating costs – payback on higher investments is quick • Reduced need for new power plants • Increased property values (David, 2006) Policy Models: • US Green Building Council / Leadership in Energy and Environmental Design (LEED) / Energy Star • NYC LEED certification requirements • Grants, rebates, & tax credits for sustainable energy infrastructure • Fannie Mae and Freddie Mac mortgages Policy Recommendations 1) Implement a carbon tax, paid by consumers, on electricity purchased from non-renewable sources 2) Provide larger subsidies for the initial investment in geothermal heat systems, with funding from the “dirty electricity tax” 3) Partner with programs such as Fannie Mae and Freddie Mac in devising a mortgage program targeted at energy efficient homes 4) Incorporate estimated life-cycle energy operating costs on labels of all energy consuming equipment 5) Mandate a renewable energy component for a portion of the energy used in buildings over a certain size 6) Through Type II partnerships, provide the framework for business alliances that seek to reduce their carbon footprints Raising Automobile Fuel Efficiency: Policy Recommendations Ben Steiner Convergence of Rationale for Higher Standards 1. Climate Change 2. 3. 4. Transportation responsible for 33% of US CO2 emissions and 23% of emissions worldwide Developing world demanding more personal automobiles Energy Security US oil imports at new high Hubbert’s Peak Environmental Effects Air pollution major problem in India and China Feasibility Shorter lifecycle than other fossil fuel burning infrastructure Bipartisan political support Current Situation in US: CAFE Standards • • History Rules • Established in midst of Arab Oil Embargo in 1975 Standards stagnant since mid-1980s Separate standards for light truck and passenger car fleets Light trucks to be split into 5 “footprint” groupings in 2009 Current regulations: 27.5 mpg for cars, 22.5 mpg for light trucks Opportunity Great chance to improve fuel efficiency while rectifying market failure • • Current Situation in China: New Fuel Efficiency Standards History Rules • China set fuel efficiency standards in 2004, above US but below EU and Japanese levels Separate standards for 16 vehicle weight classes Each model meets standard Current regulations: between 19 and 38 mpg by 2005, and between 21 and 43 mpg by 2008 Opportunity Chinese car market to be largest in world by 2020 China will set global standard for fuel efficiency Policy Recommendations 1. Raise and reform CAFE standards and suggest improvements in Chinese standards 2. Follow McCain-Kerry plan to raise standards 40% by 2015 Create one fuel efficiency standard for entire vehicle fleet Make credits tradable Most politically feasible option Increase gas tax to $1.20 a gallon in US and suggest higher gas tax rates in China Eliminates “rebound effect” of 1 extra mile driven for every 5 mpg improvement in fuel efficiency Economically cheapest solution, but least politically feasible 3. Implement feebate system that subsidizes high efficiency vehicles with fees collected on low efficiency vehicles Eliminates market failure by bringing total lifecycle costs to foremarket Program is revenue neutral if pivot point is set properly Provides constant incentive to improve fuel efficiency Promoting Public Transportation for Sustainable Development Nikki Laffel The Problem • Personal vehicle use is increasing increasing emissions • Vehicle emissions have two negative effects – Global climate change – Air pollution • United States – World leader in carbon emissions • China – World’s second leader in carbon emissions – Projected to become top emitter by 2020 • India – Current carbon emissions are low – National population growth rate exceeds global rate which means increasing global share of emissions Existing Public Transportation o General trends: road based and rail based transit – Some public transit systems exist, other locations lack – Private vehicle use • more convenient/appealing due to independence/flexibility • Increase with increasing wealth o United States – In 2000: 88% use private vehicles for commuting – New York, Chicago, Atlanta: good public transportation systems o China – Guangzhou: 18 % use public transportation – Shanghai: impressive magnetic-levitation rail link o India – Delhi: 34% use public transportation (effective bus transit) – Mumbai: 86% commuter trips by bus system and suburban rail – Calcutta: impressive 17 km metro The Problem (continued) o Public transportation systems are not ubiquitous in nature o Current systems cannot meet increasing commuter demand o % annual change in per capita vehicle ownership 1990-2020 – US: 0.1% - China and India: 7.5% 1999 2005 2010 2015 2020 20 15 20 1998 20 1990 10 0 20 100 05 200 20 300 99 400 19 500 98 600 60 50 40 30 20 10 0 19 700 90 800 China and India Per Capita Vehicle Ownership 19 Vehicles/1000 population Vehicles/1000 Population 900 US Per Capita Vehicle Ownership Policy Recommendations • Allocate more money to build new subway and bus systems and expand or improve old systems • Encourage citizens to use public transportation systems – subsidize mass transit fees for employees – reward carpooling – educate citizens to dismantle negative stigmas of public transportation • Discourage citizens from using personal vehicles for travel – increase the price of personal vehicle travel – reduce the number of vehicles allowed in urban areas • Change urban plans and city designs – build more walking and biking paths and bike racks – build cities to link resident zones to business zones Clean Distributed Generation for Slum Electrification: The Case of Mumbai David A. Schaengold Current Situation o o o Electrification is important: Better worker productivity, increasing wealth, air quality, and empowering Unsafe, expensive electricity widely available, due to theft from power lines Three kinds of barriers to traditional electricity service in poor urban areas: 1. Sociological: unfamiliarity with traditional payment methods, anti-slum sentiments 2. Infrastructural barriers: poor access for vehicles, no legal rights or existence, no property rights 3. Economic barriers: extreme poverty, not costeffective for most utility companies Distributed Generation (DG) is a possible solution o Can be a small investment, compared to expanding traditional service o Flexible - parts reusable o Low transmission costs, and hard to steal o Empowering for residents - DG can allow slum-dwellers to control their own power sources Renewable DG best option (solar and wind, specifically) o Photovoltaic (PV) and Wind have no fuel costs – reduces recurring expenses – no need for fuel distribution network, which would be difficult in slums o Adverse health effects of non-renewable DG, such as diesel generators o Climate conditions in Mumbai ideally suited for wind and PV o If necessary, can be combined with diesel generator for increased reliability (useful for refrigeration) Financing & Implementation o Micro-credit to local actors through existing banks or new subbank of Indian Renewable Energy Development Agency (IREDA) o Allow for entrepreneurship (eg if one slum-dweller can pay, allow him/her to establish generators and charge others) o Utility companies can be a source of capital for loans, since they have a financial incentive o Variety of non-traditional payment options (for instance, upfront) o Gender-conscious — women have most to gain from electrification, and are traditionally more reliable investors o Community-focused Off-grid Energy in Rural India Antonio I. Lacayo Rural Energy Electric Connectivity in Rural Areas o World: 1.6 billion, 1.3 in rural areas (80%) o India: 580 million, 400 in rural areas – Too expensive, poor people, difficult terrain. Dependence on traditional biomass o 2.4 billion people worldwide – Negative effects: time spent finding fuel, wood, indoor air pollution, other hazards, environmental degradation – Energy for development: wellbeing, education, health, income. – Energy ladder: biomass is free, use of electricity selectively, moving up is dependent on three factors. Government of India’s Goals o Government of India’s Goals – Extend electricity grid to every village by 2008 and every household by 2012 (Rural Electricity Act 2003). • Necessary yearly investments: $ 15 billion. • Current energy investments: $ 350 million. – Over-ambitious, too expensive. – No coordination between institutions (3 ministries). – Does not attend end-uses, just focuses on access. o Off-grid Alternatives Focusing on End-use • Efficient wood fueled cookers, solar thermal cookers. • Biogas digesters for fuel, wind power for water pumping, photovoltaic panels for stand-alone systems. • Small hydropower and biomass gasifiers for electricity micro-grids. Policy Recommendations o Renewable Energy Technologies (RETs) – Offer a variety of direct-end uses, lower costs for transmission and distribution, environmentally friendly, and low operating costs. 1. Focus on micro-credit to overcome high capital costs. 2. Provide consultancy to families. o Targeting Women’s Energy Needs – Women suffer the most from energy scarcity, provide higher benefits to the household, and 70% of the world poor are women. 1. Focus to women’s energy needs, like cooking and water. 2. Provide financing for women’s businesses, like baking and pottery. Policy Recommendations o Capacity Building and using Local Resources – Allow community members to operate, maintain and repair energy technologies to foster self sufficiency and overcome cultural barriers. 1. Form partnerships with community members for energy provision. 2. Include capacity building on all projects. o Energy through micro-enterprise – Use energy as a means to increase income and reduce reliance on subsidies and hand-outs. 1. Provide financing for energy-dependent businesses and energy service providers. 2. Promote the creation of micro-enterprise zones. Building Markets for Renewable Energy in China Renewable Portfolio Standards, Feed-In Tariffs, and Tendering Sabina Sequeira AP Multimedia Archive China’s Capacity for Renewables Wind Solar Photovoltaic •253 GW onshore capacity, 1000 GW offshore •Majority of materials imported •Has 1.2GW; 20GW planned by 2020 • 2,000 hours of sunlight/year , 170 Btce annual solar insolation •Vibrant PV manufacturing industry: 85% exported •In 2003, had 50MW Barriers to RE Growth http://www.agu.org/journals/jd /jd0512/2004JD005462/ •High initial costs for developers •Nascent industries: investor http://grid2.cr.usgs.gov/ms_dem uncertainty o2/swera/china/template.html •High market prices: 79cents/KWh wind, 42cents/KWh solar PV •Supply/demand alignment Policy: engage private sector, expand development Mandated Market Share Policies • Renewable Portfolio Standards - Gradually increasing purchase obligation for electric utilities, Tiers, credit multipliers, credit trading system Competition, innovation drive down price • Feed-in Tariffs - Fixed cost of RE (subsidized), Optional purchase Set price lessens investor uncertainty • Tendering - Competitive bidding process Economies of scale, competition, promote lower prices Wiser et al, 2004 Key Considerations - Market development stage of technology, presence of competition - Costs, Market distortions - Efficiency, results Renewable Energy Policy in China • Goal-setting: Five-Year plans and growing energy concerns • Tenth Five-Year Plan and 2005 Renewable Energy Law: First target set: 15% RE by 2020 • Many organizations, lack of coordination - Agencies, programs, province, local, and village governments - Currently under National Reform and Development Commission, National Energy Leading Group • Still, lack of concrete implementation processes • Steps toward MMS: Wind Resource Concession Program, province-level feed-in tariffs, considering national feed-in tariff or RPS Recommendations • Policy Design - Carefully Consider renewable energy capacity and market conditions - RPS in urban areas, feed-in tariffs for rural, tendering for high capacity rural sites, separate purchase obligations for solar PV and wind • Transparency and Coordination - Create a department of energy, require monthly energy reports from provinces - Compliance incentives for provinces • Supply and Demand - Nationwide credit trading: allow urban electric utilities to purchase rural credits - Restructure transmission system, develop with R&D • Costs - Spread costs of across all energy consumers: fund initiatives through electricity surcharge, public benefits fund, reductions of fossil fuel subsidies - China pledged to spend $1.84 Billion by 2020 on renewable energy, can be used on MMS policies to promote rapid private sector expansion of renewable energy Financing Renewable Energy Karis Anne Gong The Export-Import Bank of the United States o An independent agency of the United States, chartered by the U.S. Congress o An export-credit agency, a “financial institution whose purpose is to promote the exports of their respective countries by providing loans, guarantees, insurance, technical assistance, and more with the backing or approval of the national government” – ECAs directly finance 1/8 dollars of world trade (Gianturco) o The Export-Import Bank of the U.S. (ExIm Bank) finances $10-13 billion of U.S. exports per year Ex-Im Bank Energy Financing o 98% of energy financing (~ $1-3 billion/year) is authorized for the export of fossil-fuel based energy projects, including generation and extraction o Climate Change contribution: by 2012, the Bank’s power project will contribute to at least 450 million tonnes of CO2 emissions annually; this is on par with Mexico and Canada. In addition, its extraction projects financed from 1989-1999 in their lifetimes will generate about 14.1 billion tonnes of CO2 emissions. (ExIm Bank) Policy Recommendations • Partnerships between the ExIm Bank and private banks should be established to support sustainable energy technologies in developing countries • These partnerships should be accompanied by reduced subsidies for fossil-fuel based technologies • Financing programs should be designed to support renewable energy technologies Overall Recommendations Energy Generation o Promote advanced technology to decarbonize fossil fuels o Increase the proportion of energy generated from renewable sources o Internalize all costs associated with energy generation Energy Efficiency o o o o Internalize the costs of energy inefficiency Promote green building, from construction to operation Reform and raise fuel efficiency standards Improve public transportation services Overall Recommendations Development o Finance renewable technologies that facilitate electricity generation and cooking fuels close to end-users in slums and rural areas. o Focus on women and capacity-building projects for community empowerment. o Use micro-credit to support local entrepreneurs who could either benefit from energy access or supply their communities with energy services. Implementation o Implement market systems where appropriate administrative infrastructure exists o Use existing public finance institutions to provide incentives for renewable energy exports for an online version of this presentation and copies of complete student reports please see: http://www.wws.princeton.edu/mauzerall/dlm_teaching .htm/WWS402d_reports_S2006