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The document advocates for the revitalization of publicly funded classical breeding programs in the U.S., asserting that this low-cost technology is more effective than genetic engineering for developing seeds adapted to sustainable, organic, and regional farming systems. It highlights a severe decline in public breeding resources, noting that the shift toward corporate-led seed development threatens food security by reducing genetic diversity. The author recommends that the USDA's National Institute for Food and Agriculture prioritize long-term funding for cultivars suited to agroecological systems to improve crop resilience, nutrient efficiency, and productivity.

The authors contend that the Clean Power Plan's design and current industry trends allow for significant power sector emission cuts while maintaining reliability. They highlight that existing natural gas and transmission infrastructure, combined with the flexibility of the rule, are sufficient to manage the transition. To further mitigate potential reliability risks, the document advocates for the EPA to establish a mechanism for interstate allowance trading between states in different regions, which would allow states facing local constraints to purchase allowances from those with surplus capacity.

The report identifies the U.S. oil and gas industry as the largest industrial source of methane and argues that the EPA should issue nationwide standards under the Clean Air Act to target the sector's top emitting sources. The authors propose three primary categories of intervention: regular leak detection and repair (LDAR) programs, the replacement of outdated compressors and pneumatic equipment, and the capture of gas from oil and gas wells. These measures are estimated to reduce annual methane emissions by 3.2 to 3.7 million metric tons, a reduction of 42% to 48% of the sector's total. The report emphasizes that direct methane standards would be significantly more effective than regulating volatile organic compounds (VOCs) or relying on voluntary programs. The estimated cost of these measures is low, ranging from $8 to $18 per metric ton of carbon dioxide equivalent, and would represent less than 1% of the industry's sales revenue.

The report advocates for the EPA to establish direct methane standards for the oil and gas industry, which it identifies as the largest industrial source of methane in the U.S. It proposes three primary control measures: regular leak detection and repair (LDAR) programs, upgrading older compressors and pneumatic equipment, and capturing gas from wells. The authors argue these measures are low-cost, commercially available, and would reduce methane emissions by 3.2 to 3.7 million metric tons per year, while also significantly lowering volatile organic compounds (VOCs) and toxic air pollutants.

The report argues that current U.S. distributed solar (DPV) business models are overly customer-centric and fail to capture operational grid benefits, leading to conflict between utilities and solar companies. It proposes three 'bridge' business model building blocks: increasing access via subscription models, optimizing deployment for capacity and grid services, and bundling solar with other distributed energy resources (DERs). The authors emphasize that maximizing DPV value requires collaboration to reduce 'soft costs' and a shift toward standardized valuation methodologies and transparent data sharing between stakeholders.

The Clean Air Task Force asserts that while efforts have been made to reduce methane from oil and gas production, local gas distribution systems—particularly aboveground equipment like city gates and metering stations—have been neglected. Citing EPA data, the author notes that emissions from these large stations are larger than those from outdated underground pipes and can be fixed cheaply. The document emphasizes that reducing methane is critical for slowing the rate of warming in the coming decades, complementing the primary priority of reducing CO2 from power plants.

The author contends that energy efficiency is a disruptive technology that, through 'integrative design,' can provide energy services more cheaply than supply-side production. By optimizing entire systems rather than individual components, the author claims significant reductions in energy use are possible in buildings, industrial processes, and transport. A central focus is placed on the automotive sector, where 'ultralighting' and electrification could realistically eliminate US motor-fuel demand by 2050. The text warns that oil and gas companies face existential risks as demand-side innovations make hydrocarbons uncompetitive, suggesting these firms pivot toward efficiency and renewable energy investments.

A 2013 survey by the Union of Concerned Scientists and Consumer Reports found that 42% of U.S. households with vehicles could potentially use current plug-in hybrid electric vehicles (PHEVs) and 22% could use battery electric vehicles (BEVs) with a 60-mile range. The study identifies charging access as the primary barrier to EV adoption, particularly for those in multi-unit dwellings. Public sentiment is generally positive, with 65% of respondents viewing EVs as essential for reducing oil use and global warming, and 60% considering an EV purchase.

The document asserts that CCS is the only available technology allowing coal and gas power generation at near-zero emissions and is a 'Best System of Emission Reduction' under the Clean Air Act. It highlights the flexibility of the EPA's proposed rules, such as an emission limit of 1100 lbs/MWh and an eight-year compliance window, which allow for partial capture. The testimony provides evidence of CCS deployment in industrial and power sectors, including projects like the Dakota Gasification Plant and the Texas Clean Energy Project. It also addresses the economic viability of CCS, noting that enhanced oil recovery (EOR) can offset costs, and argues that U.S. geologic storage capacity is sufficient to handle power sector emissions for a century or more, countering concerns about induced seismicity.

The report examines the transition of U.S. Navy bases in the Southwest toward microgrids to enhance energy security and integrate renewables. It identifies five key findings: the need for more granular design requirements, a conflict between utility-scale renewable goals and microgrid security, the immediate value of enhanced control systems, the complexities of participating in California's electricity markets, and internal Navy bureaucratic barriers. The document recommends that the Navy, grid operators, and regulators collaborate to define reliability needs, quantify the business case, and remove regulatory hurdles to enable microgrid adoption.

The 'HALF THE OIL' plan outlines a pathway for the United States to halve its projected oil use by 2035. The strategy relies on two main pillars: efficiency (improving passenger and commercial vehicles, and retrofitting buildings) and innovation (scaling electric vehicles, cellulosic biofuels, and smart transportation systems). The plan argues that these steps will save billions of dollars, reduce pollution, and establish U.S. leadership in transportation technology.

The report analyzes the energy landscape of Central America, noting a contradictory trend where the region leads in geothermal and hydroelectric power but faces increasing dependence on imported fossil fuels. It argues that while the region has the potential to meet 100% of its electricity needs through renewables, significant gaps in data, administrative inefficiency, and fossil fuel subsidies hinder progress. The document recommends integrating technical resource assessments with socio-economic analysis (LCOE+), simplifying bureaucratic processes through 'single-window' permitting, and strengthening regional interconnection via SIEPAC to manage variability in wind and solar power.

The report finds that current algal biofuel technologies are not yet economically or environmentally superior to fossil fuels, citing low energy return on investment (EROI) and high greenhouse gas emissions. While theoretical yields are high, large-scale commercialization is estimated to be years or decades away. The document argues that viability depends on integrating production with wastewater treatment, industrial flue gas for CO2, and the development of marine algae strains via molecular engineering to reduce freshwater and land demands.

Combined heat and power (CHP) systems integrate heat and electric power production, achieving efficiencies of 70 percent or more compared to less than 45 percent for separate production. In the United States, there are over 4,100 systems with more than 82 GW of installed capacity, primarily in the chemical (29%), petroleum refining (18%), and pulp and paper (14%) industries. The DOE and EPA estimate an untapped potential of 130 GW, which could save U.S. businesses $10 billion annually and further reduce CO2 emissions by 150 million tons per year. Beyond efficiency, CHP provides critical resilience during extreme weather events, as demonstrated during Hurricane Sandy and Hurricanes Katrina and Rita. While biomass-fueled CHP offers a path to net carbon negative operations by avoiding methane emissions from waste, widespread deployment is hindered by regulatory and legal barriers, including interconnection standards and backup power rates.

Combined heat and power (CHP) systems in the U.S. offer significantly higher energy efficiency (70% or more) than separate heat and power production. With over 82 GW of installed capacity, CHP is widely used in industrial sectors, particularly chemicals, petroleum refining, and pulp and paper. The document highlights CHP's ability to provide resilient power during extreme weather events, such as Hurricane Sandy, and its potential to reduce CO2 emissions. While there is an untapped potential of 130 GW, deployment is hindered by regulatory and legal barriers. The text also emphasizes the climate benefits of biomass-fueled CHP, which can be net carbon negative and provide reliable baseload power.

Landfills are the third largest source of anthropogenic methane in the U.S., contributing 17.7 percent of all U.S. methane emissions. The EPA regulates large municipal solid waste landfills through the Clean Air Act and RCRA, while the voluntary Landfill Methane Outreach Program (LMOP) facilitates the development of energy projects. As of October 2012, 605 operational energy projects exist across 48 states, producing 15 billion kWh of electricity and 100 billion cubic feet of gas for direct use annually. The economic viability of these projects depends heavily on whether capture systems are already in place; for example, a 3 MW turbine project with an existing system can yield a net return of $590,000 over 15 years, whereas one without a system may lose $3.5 million without additional tax credits or carbon offsets.

The report examines the growth of wind and solar power in the U.S. and globally, asserting that the technical challenges of variable energy sources are manageable. It highlights successful integration by utilities like Xcel Energy and countries like Denmark and Germany. The document details various tools for maintaining reliability—including geographic dispersion, improved forecasting, transmission upgrades, and energy storage—and cites studies suggesting that renewables could provide 80% of U.S. electricity by 2050.

The document identifies short-lived climate pollutants (SLCPs)—including black carbon, methane, tropospheric ozone, and hydrofluorocarbons (HFCs)—as gases and particulates with atmospheric lifetimes of less than 20 years that contribute to approximately half of global warming. It argues that while CO2 reduction is vital for long-term stability, SLCP mitigation offers faster results to slow the rate of warming, particularly in sensitive regions like the Arctic and Himalayas. The text details the specific radiative forcing and warming potentials of these pollutants, their primary sources (such as oil and gas production and biomass burning), and the associated co-benefits for food security and public health.

The report argues that instead of risky whole-vehicle redesigns, the automotive industry should adopt carbon fiber composites starting with specific high-value parts and subassemblies. It identifies promising candidates such as door inners, engine cradles, and seats, noting that while these parts cost significantly more than steel counterparts, the value from weight reduction and fuel savings can make them cost-competitive. The document outlines technical gaps in material characterization, predictive modeling, and fiber cost, and recommends the creation of a 'Parts Campaign' and an 'Innovation Hub' to coordinate efforts between industry, government, and academia.

The document proposes a 'parts approach' to overcome barriers to the adoption of automotive carbon fiber composites. Rather than attempting whole-vehicle integration, it suggests targeting specific parts (such as rear hatches or door inners) for mainstream volumes of 50,000 to 100,000 units per year by model year 2018. This strategy aims to create a viable business case, drive scale, and identify technology and funding gaps through a collaborative supply chain team including OEMs, Tier 1 suppliers, and material producers.