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The document details the India-UK Energy for Growth Partnership, focusing on four main areas of cooperation: capacity building for legislators, off-grid renewable ventures, the development of the offshore wind market, and the scaling of solar initiatives. It highlights the UK's role in providing technical advisory, financial modeling, and policy frameworks to help India reach its target of 175GW of renewable energy by 2022. Key efforts include the creation of the 'Renewable Energy Local Area Development toolkit' for legislators and the formulation of the National Offshore Wind Energy Policy in 2016.

ClientEarth's feedback on the EU's Offshore Renewable Energy Strategy emphasizes the need for high environmental standards, public transparency, and regional cooperation. It argues that the strategy must adhere to the 'do no harm' principle and the precautionary principle, ensuring that the deployment of offshore wind and other ocean energies does not compromise biodiversity or ignore the rights of public participation under the Aarhus Convention. The document suggests a regional approach to grid development and targeted financial support for technologies that have not yet reached grid parity, such as wave energy.

The document outlines a 'Rescue Plan for Europe' to address the failure of previous ocean safeguarding strategies. It proposes a detailed timeline of legislative and regulatory actions from 2020 to 2030, focusing on ending overfishing, eliminating pollution, and protecting biodiversity. The plan advocates for a transition to low-impact fishing, the establishment of highly protected marine areas, and a total ban on deep-sea mining and new offshore oil and gas exploration to ensure ocean resilience against climate change.

Atlantic Canada faces significant fiscal and economic risks due to its reliance on oil, gas, and coal, particularly in Newfoundland and Labrador and New Brunswick. While the region shows momentum in clean technology—led by Nova Scotia—and possesses strong natural resource advantages in wind, hydro, and tidal energy, scaling these opportunities is hindered by a lack of capital, a shortage of skilled STEM labour, and a mismatch between the location of new growth and transition-vulnerable rural communities.

The report identifies Atlantic Canada as a leader in decoupling GDP growth from greenhouse gas emissions, though it faces significant fiscal risks due to a reliance on oil, gas, and coal. While Nova Scotia is a hub for transition-related innovation in batteries, smart grids, and low-carbon shipping, regional companies generally remain small and undercapitalized. Vulnerabilities are concentrated in rural areas and specific provinces, notably Newfoundland and Labrador, where oil and gas sectors are critical to government revenue.

The document provides an introductory overview of wind and solar energy, detailing how photovoltaic and turbine technologies convert natural elements into electricity. It highlights the transition from utility-scale to rooftop installations, the challenge of intermittency, and the significant cost reductions in solar and battery technology between 2009 and 2019. The text argues that renewables support more jobs per unit of electricity than fossil fuels and are essential for reaching net-zero emissions to avoid dangerous global warming.

The briefing paper contends that carbon prices in Phase III of the EU ETS will likely fall in the lower end of the €20-40/tCO2 range, contradicting higher projections from the European Commission and other modelling studies. The author bases this on historical evidence showing that costs for environmental regulations—such as CFC phase-outs and sulphur dioxide trading—are consistently overestimated. The analysis highlights that current models often fail to account for the synergy between the EU's carbon cap and its other policy pillars, specifically the 20% energy efficiency target and renewable energy directives. Furthermore, the document notes that the 2007-2008 economic crisis, characterized by lower growth forecasts and higher fossil fuel prices, will further depress emissions and carbon prices. The author also points to the potential for a price collapse if the EU increases its acceptance of international credits from the Clean Development Mechanism (CDM).

The report argues that traditional economic tools, such as cost-benefit analysis and equilibrium models, are inadequate for the structural changes required by the energy transition. It proposes a shift toward 'Risk-Opportunity Analysis' and dynamic modelling that accounts for induced innovation and learning-by-doing. Based on successes in solar PV, LED lighting, and wind power, the authors outline ten principles for policymaking, emphasizing targeted investment, risk management, and adaptive policy packages. National case studies in Brazil, China, and India suggest that while decarbonisation has a negligible impact on overall system costs and GDP, the transition requires significant up-front investment and careful management of distributional impacts, particularly in coal-dependent regions.

The document analyzes Brazil's unique energy landscape, where a predominantly renewable electricity mix coexists with a significant reliance on petroleum for transport and a growing oil production sector. It highlights the tension between the government's climate commitments and its plans to expand oil production, particularly in the Equatorial Margin. The briefing suggests that Brazil can leverage its G20 and COP30 leadership to promote the reduction of fossil fuel subsidies and use oil revenues to fund green innovation and forest conservation, while recommending the introduction of an upstream carbon tax to manage environmental externalities.

India aims for net-zero emissions by 2070, with interim 2030 goals including 500 GW of non-fossil fuel capacity and 50% energy requirements from renewables. The transition faces significant hurdles, including a heavy reliance on coal (84% of power generation) and high import dependency for crude oil and solar components. Financial requirements are immense, estimated between USD 5.7 trillion by 2050 and USD 10.1 trillion by 2070. The report emphasizes the need for a 'just transition' to protect the livelihoods of approximately 13 million people dependent on coal mining and to address regional economic imbalances. Opportunities for acceleration include the green hydrogen policy, expansion of offshore wind, and the development of domestic energy storage manufacturing to reduce reliance on China.

The document argues for a broad interpretation of Just Transitions that encompasses procedural and distributional justice across multiple sectors, moving beyond a narrow focus on the energy workforce. It provides six practical recommendations for operationalisation, including the need for reliable data, stakeholder forums, and place-based solutions. The submission highlights specific challenges in the Global South, such as high employment informality and unequal energy access, and suggests that the JTWP can enhance ambition by integrating Just Transitions into NDCs and fostering high-level political buy-in. It includes case studies from various countries to illustrate different transition pathways and the importance of coordinating top-down and bottom-up approaches.

The Climate Policy Initiative finds that while sufficient capital exists to meet Germany's renewable energy expansion goals, the specific mix of investors and the design of regulations are critical for cost-efficiency. Key regulatory areas include auction design, support mechanisms, and long-term targets. The report highlights that instability or poor design—such as delays in auction rounds or shorter support periods—can significantly increase bid prices and overall costs. It also emphasizes the need for energy market flexibility to avoid negative electricity prices and investor risk.

The analysis finds that while sufficient capital exists to meet Germany's renewable energy targets, a diverse mix of investors is required to minimize costs. Key policy levers include auction design, support schemes, and long-term targets, with a critical need for electricity system flexibility to avoid increasing bid prices and managing risks associated with curtailment and negative electricity prices.

The document details the technical approach for calculating and harmonising monthly wind and solar capacity data. It defines 'installed capacity' as the maximum potential output and explains the process for converting solar data between AC and DC values, using a default conversion factor of 1.3. The methodology describes how onshore and offshore wind are distinguished, often relying on IRENA data when primary sources lack a breakdown. It also specifies the publication schedule (twice monthly) and the use of proxies and linear interpolation to estimate missing data for global aggregates and specific countries. Detailed country-specific sections list data sources, publication lags, and specific adjustments for 25 territories, including the US, China, and the EU.

Ember argues that the UK can achieve clean power by 2030 to combat inflation and energy price volatility. The organization identifies planning delays as a primary barrier and criticizes the economic efficiency and sustainability of biomass and BECCS subsidies.

The report evaluates 16 Indian states on their electricity transition across four dimensions: decarbonisation, power system performance, ecosystem readiness, and policy commitments. Karnataka is identified as the top performer across all dimensions, while states like Bihar, Uttar Pradesh, and West Bengal are urged to ramp up efforts. The analysis highlights that many renewable-rich states have significant untapped potential and recommends improving data transparency, strengthening transmission infrastructure, and expanding green market mechanisms to accelerate the transition.

A technical analysis indicates California can reach 85 percent carbon-free electricity by 2030 even under extreme stressors, such as the August 2020 heat waves and the retirement of one-third of natural gas capacity. To support this, the brief recommends diversifying clean energy resources (including offshore wind and geothermal), phasing out natural gas plants—particularly in disadvantaged communities—and leveraging demand-side resources like energy efficiency and demand response. It also suggests improving regional coordination across Western states and refining reliability evaluation tools used by the CPUC, CEC, and CAISO.

The California Energy Policy Simulator (EPS) indicates that a 55 percent reduction in emissions by 2030 is achievable without new technologies and would generate significant economic and social benefits. The scenario projects a $55.4 billion increase in state GDP, the creation of 235,000 total jobs, and the avoidance of 1,829 premature deaths by 2030. Achieving this target requires accelerating the deployment of electrification, hydrogen, and carbon capture in industry, as well as reaching 90% clean energy for grid-scale generation by 2030.

The document finds that reaching an 85% clean electricity target by 2030 is feasible and reliable for California, even under most simultaneous stress conditions. Analysis indicates that while solar and battery storage are primary drivers, a diverse portfolio including offshore wind and geothermal reduces dependence on imports and gas. Battery storage specifically reduces the 'duck curve' ramping requirements by an average of 42%. While the state can retire nearly a third of its in-state gas fleet under certain conditions, some gas remains necessary for reliability unless replaced by comparable firm clean resources. The study emphasizes that sharing power with the rest of the Western United States is more optimal than a 'go it alone' approach.

The report argues that the United States can leverage its vast offshore wind potential to provide 10-25% of its total electricity generation by 2050 without significantly increasing wholesale costs. It details three ambition scenarios (Low, Medium, and High), noting that a High Ambition target of 750 GW by 2050 would result in wholesale costs only 0.25% higher than a baseline scenario. The analysis emphasizes that offshore wind complements land-based renewables, reducing the required installation rate of the latter. However, scaling the industry requires substantial capital investment—exceeding $260 billion in the supply chain through 2045—and a shift toward clustered transmission planning to reduce interconnection costs by 35%. The report also projects that a High Ambition scenario could support approximately 390,000 jobs by 2050.