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The report reviews multiple global and regional studies to determine the necessity of carbon capture and storage (CCS) for climate mitigation. It concludes that most experts view CCS as a key technology for reducing greenhouse gas emissions to stabilization levels by 2030-2050, often serving as a cost-effective alternative to massive nuclear expansion or extremely ambitious energy efficiency and renewable targets.

The paper analyzes nine Brazilian CDM projects, finding that forecasted CER generation typically decreases as projects move from validation to issuance due to methodology changes, lower-than-expected output, and delays. While additionality arguments are generally credible, they are sometimes weakened by the rapid spread of technology. The study also concludes that the Brazilian national stakeholder consultation process is insufficient for gathering local concerns, as fewer than 5% of projects receive comments through the standard procedure.

The analysis of 23 Indian CDM projects reveals a consistent gap between optimistic initial forecasts and actual CER issuance, with an average reduction of 23.1% in forecasted CERs till 2012. The study finds that additionality argumentation is often poor, frequently lacking independent evidence and relying on unconvincing investment barriers. Furthermore, stakeholder consultation processes are often superficial, frequently conflating general regulatory permits with CDM-specific engagement, and the delivery of sustainability benefits remains largely unquantified and insufficiently monitored.

The document argues that greenhouse gas emissions from shipping are increasing at an alarming rate and calls for immediate regulatory action by the IMO. It proposes short-term measures including vessel speed reductions, which can reduce fuel bills by up to 40%, and a global carbon tax on marine fuels to fund climate mitigation and adaptation, particularly in developing countries. It also suggests shoreside power and wind power as technical solutions while cautioning against relying on reporting or indexing as substitutes for actual reduction measures.

The research demonstrates that creating optimized portfolios of geographically diverse wind and solar sites significantly reduces power output variability compared to individual sites. In the modeled U.S. Midwest region for 2004, combined wind and solar portfolios achieved an average variability reduction of 55% below the average of individual sites. The study finds that a small subset of available sites is often sufficient to achieve most of these variability reductions. To manage remaining variability, the authors propose integrating responsive loads, energy storage via electric vehicles, and intelligent grid communications.

The research demonstrates that geographically distributing wind farms reduces the variability of power output and drastically decreases the frequency of zero-production periods compared to individual sites. Using 2004 data from the U.S. Midwest and Texas, the analysis shows that optimizing portfolios based on negative covariance between sites improves capacity credit and system reliability. The authors argue that this approach, combined with demand-side resources like plug-in vehicles and real-time load response, is essential for the transition to a next-generation utility capable of integrating significantly higher levels of intermittent renewables.

Between 1997 and 2006, fossil fuel consumption in the Southeast grew by approximately 14 percent, significantly exceeding both the national average growth rate of 5 percent and the regional growth of non-fossil energy sources, which was less than 1 percent.

The document provides a comprehensive overview of employment trends in the clean energy sector, contrasting the job-creation potential of renewables and energy efficiency with traditional fossil fuel industries. It highlights specific national and state-level projections in the U.S., international trends in the EU and Brazil, and sector-specific data for wind, solar, biofuels, and geothermal energy, while also noting the decline of coal mining employment.

The Union of Concerned Scientists analysis indicates that a 15 percent by 2020 national renewable electricity standard would reduce consumer energy costs, increase renewable energy capacity, and lower power plant CO2 emissions in the United States.

The House and Senate both proposed significantly higher funding for DOE Energy Efficiency and Renewable Energy (EE/RE) programs for FY 2008 than the Administration's request. The House bill (H.R. 2641) appropriated $1.98 billion, while the Senate bill (S. 1751) appropriated $1.72 billion. Both legislative bodies restored funding for geothermal energy and hydropower, which the Administration had eliminated, and increased budgets for solar, wind, and biomass R&D. Additionally, both the House and Senate increased funding for fossil fuel R&D while appropriating less than the Administration's request for nuclear power.

The document proposes the creation of an Environment Outlook for Canada (EOC), an integrated environmental assessment designed to move beyond traditional state-of-the-environment reporting by focusing on future-oriented scenarios. It details the potential scope of the EOC, including key topical issues like climate change and water quality, and suggests a time horizon of 20 to 30 years. The paper emphasizes the need for a participatory process involving policy-makers, shapers, and takers to ensure the assessment is salient, credible, and legitimate. It recommends a feasibility analysis and the development of a formal proposal by fall 2007, suggesting that the EOC could be hosted by an independent secretariat to maintain credibility.

The document argues that traditional integrated resource planning (IRP) is too generation-centric and fails to account for the specific operational, financial, and grid-side benefits of distributed and renewable energy. It introduces the Energy Resource Investment Strategy (ERIS) methodology, which uses probabilistic load and fuel forecasting and portfolio theory to value these resources. Key technical discussions include the use of Effective Load Carrying Capability (ELCC) to measure reliability contributions, the role of geographical dispersion in reducing portfolio variability, and the financial advantages of modular, short-lead-time resources in mitigating the risk of overbuilding capacity.

The Environmental and Energy Study Institute (EESI) argues that the 2007 Farm Bill should transition agriculture policy to treat renewable energy as a core component. The report identifies a gap between the authorization of programs in the 2002 Farm Bill and the Energy Policy Act of 2005 and the actual appropriations provided. It recommends expanded funding for biomass research, the creation of a national biomass assessment, and incentives for small-scale, farmer-owned biorefineries to ensure rural economic benefits. Additionally, it proposes enhancing federal procurement of biobased products and implementing a Renewable Portfolio Standard of 25 percent by 2025.

The workshop brought together practitioners and policymakers to discuss early lessons from adaptation projects in south-eastern Africa. Key discussions focused on coping with extreme events, health impacts, and energy vulnerabilities, while exploring the distinction between development and adaptation projects. The event highlighted the need for participatory, community-led approaches and better access to climate data and international funding.

The document explains how wind energy integrates into the New England electricity grid to displace polluting fossil fuels, particularly natural gas, oil, and coal. It highlights the importance of siting turbines in high-wind areas to maximize pollution reduction and discusses policy mechanisms like cap-and-trade and renewable portfolio standards to accelerate the transition to clean energy.

The document advocates for wind power as a sustainable alternative to fossil fuels and nuclear energy, particularly in New England. It details the severe environmental and health costs of conventional energy—including CO2 emissions, air pollution, water consumption, and land degradation—while positioning wind energy as a low-impact solution with minimal land footprints and no operational emissions.

The document identifies wind power as the most cost-effective near-term option for increasing renewable electricity in New England, noting that the region's onshore wind resources have the technical potential to supply approximately 60 percent of its current electricity use. It frames this within the broader need to transform the energy system to limit global warming, noting that the Northeast United States emits more CO2 than all but six countries globally. While other solutions like energy efficiency and carbon capture are discussed, wind is presented as more viable than solar, bioenergy, or geothermal power in the region due to cost and resource availability. The document states that if all currently proposed wind projects in New England were completed, they would generate over 5,700 gigawatt-hours of CO2-free electricity annually, representing about seven percent of the electricity used in the proposing states.

The document outlines the advantages of wind energy for New England, focusing on reducing dependence on imported fossil fuels, stabilizing energy costs, and generating local economic growth through taxes, lease payments, and jobs. It highlights specific projects in Massachusetts and Vermont to demonstrate positive community impact and environmental gains.

The document outlines the potential for wind energy in New England, emphasizing that the region has "excellent wind resources, particularly on mountain ridges and along the coast." It details the criteria for optimal siting—primarily wind speed, topography, and proximity to transmission lines—and highlights economic benefits such as tax revenues for towns and lease payments for landowners. The text addresses environmental concerns, noting that modern turbines cause significantly fewer bird fatalities than other human structures and that wind power does not reduce property values. It also discusses human impacts, including visual aesthetics, noise, and aviation lighting, while noting that 81 percent of surveyed Vermont residents find turbines "beautiful or acceptable."

The document outlines the environmental and economic benefits of wind energy in New England, noting that over 60 percent of the region's electricity was generated from fossil fuels in 2005. It explains how wind power integrates into the grid via ISO New England to displace more expensive and polluting plants, particularly oil-fired plants during winter peaks. The text highlights that 18 proposed wind projects with a total capacity of 1,890 MW could avoid millions of tons of pollution annually, including over 3 million tons of CO2. It also discusses the importance of siting for efficiency and the role of policy mechanisms like cap-and-trade and renewable portfolio standards in accelerating the transition.