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The US power sector is experiencing unprecedented load growth, requiring the grid to expand more than five times faster than in the previous two decades. To address this, the report recommends maximizing existing grid value through grid-enhancing technologies (GETs) and demand-side flexibility, accelerating connections via 'energy parks' and streamlined interconnection processes, and adopting proactive, scenario-based planning. It also suggests targeted affordability measures for low-income customers and specialized rate designs for large loads to prevent cost-shifting and stranded-asset risks.

The report finds that emission targets in the tech sector are losing meaning as actual emissions rise and accounting frameworks remain inconsistent. While some companies like Google, Microsoft, and Apple are implementing promising renewable energy and supply chain strategies, these are not yet industry standards. The document warns that 1.5 °C-aligned validations may mislead stakeholders by ignoring rising emissions and recommends transition-specific targets, robust electricity accounting standards, and government regulation of energy consumption growth.

The Corporate Responsibility Monitor 2025 finds that the tech sector faces a credibility crisis as AI growth drives exponential energy demand and emissions. The report argues that current accounting practices, which favor market-based over location-based reporting, obscure the true environmental impact of tech giants. While some companies like Google, Microsoft, and Apple show early leadership in renewable energy procurement and supply chain employment, the sector generally lacks transparency regarding third-party data centers, mineral sourcing, and device lifespans. The document calls for the GHG-Protocol and SBTi to mandate location-based reporting and for companies to adopt 24/7 renewable energy procurement targets to align with a 1.5°C pathway.

The report emphasizes that grid capacity is now a primary driver for data centre investment in Europe. To avoid downgraded forecasts and remain competitive in the global AI race, the author recommends that governments treat grids as strategic infrastructure. Key proposals include the creation of priority AI zones outside congested capital cities, joint spatial planning to locate demand nodes near clean energy sources, and the implementation of non-firm grid connection options to reduce queues. Additionally, the document calls for increased research into data centre flexibility and improved data availability regarding demand profiles and grid capacity maps to inform planning and policy.

The report examines how smarter grid strategies can unlock digital infrastructure investments, particularly for AI and data centres. It highlights that long grid connection queues in Europe are deterring developers, but suggests that phased connections, non-firm (flexible) agreements, and strategic siting in priority zones can significantly reduce wait times and infrastructure costs. The document emphasizes that data centres often underutilize their contracted capacity and can offer flexibility to the grid, which could potentially double available capacity if implemented.

The report argues that proactive grid planning is essential for Europe to meet its goal of tripling data centre capacity and capturing the economic benefits of AI. It highlights a shift in investment from traditional hubs (FLAP-D markets) to regions with lower grid congestion, such as the Nordics and Southern Europe. The analysis suggests that innovative connection agreements, data centre flexibility, and strategic spatial planning can significantly reduce connection wait times and infrastructure costs.

The report argues that while the EU aims to triple data centre capacity within five to seven years, grid congestion in traditional hubs like Dublin, Frankfurt, and Amsterdam is creating a primary barrier to growth. This is shifting investment toward markets with better grid preparedness, such as the Nordics and Belgium. Data centres are identified as unique grid challenges due to their large, localised, and continuous loads. Despite their economic benefits—including GDP growth and job creation—forecasts suggest the EU will likely only double its capacity by 2030, falling short of its target.

The report finds that the tech sector is facing a "climate strategy crisis" as soaring energy demands from AI and the use of outdated market-based accounting methodologies undermine the integrity of corporate climate targets. While some companies like Google and Microsoft are pioneering 24/7 hourly renewable electricity matching, others like Amazon and Meta advocate for looser accounting rules through the Emissions First Partnership. The analysis reveals that absolute location-based emissions for all five companies increased from 2019 to 2023, and critical transitions—such as decarbonising third-party data centres and hardware supply chains—remain largely neglected or poorly reported.

The report examines the energy demands of data centres in ASEAN, particularly those driven by AI, and argues that a dual approach of increasing solar and wind power procurement and enhancing energy efficiency is essential. It highlights that current grid emission targets in key hubs are insufficient and suggests that at least 30% of electricity demand in five ASEAN data centre hubs could be met by wind and solar by 2030 without immediate battery storage. The document emphasizes the critical role of cooling systems in tropical climates and the potential for software optimisation to reduce energy consumption.

The report examines the surge in data centre development in Southeast Asia, highlighting how increasing electricity demand—particularly in Malaysia, Indonesia, and the Philippines—threatens climate targets due to reliance on fossil-fuel-dominated grids. It argues that without significant investment in solar and wind energy and improved energy efficiency, the digital boom will lead to a substantial rise in greenhouse gas emissions.

The report highlights that data centres in ASEAN could account for 2% to 30% of national power demand by 2030, risking a significant increase in emissions, particularly in Malaysia, Indonesia, and the Philippines. It argues that approximately 30% of this demand can be met by solar and wind via grids without battery storage. The document advocates for more accessible corporate Power Purchase Agreements (PPAs), national sustainability frameworks, and advanced cooling technologies to ensure the sector's growth does not derail regional decarbonisation targets.

The statement highlights the conflict between the growing water demands of Big Tech data centres and the global crisis of water scarcity, noting that AI training is driving further demand. It criticizes the UN Pact for the Future for ignoring the water footprint of digitalization and suggests taxing Big Tech to fund equitable water management.

The Private Equity Stakeholder Project argues against the University of California (UC) potentially reversing its 2020 decision to divest from fossil fuels. The letter asserts that fossil fuel investments are financially risky, citing the underperformance of fossil-fuel-heavy portfolios and the volatility of the LNG market. It further highlights the material threats of climate change to California, including astronomical wildfire costs, and warns that demand forecasts for data center power may be overstated, potentially misleading investors.

The report highlights solar power as the primary engine of the global energy transition, noting it surpassed 2,000 TWh of generation in 2024 and doubles every three years. While emerging drivers such as data centres, EVs, and heat pumps have structurally increased electricity demand, clean generation is projected to grow fast enough to meet this demand and drive a structural decline in fossil fuels by 2030. Central to this shift is the progress in China and India, where clean power deployment is breaking the historical link between economic growth and fossil fuel expansion, potentially tipping the global balance toward a decline in fossil generation.

In 2024, clean power reached a milestone of 40.9% of global electricity generation, driven by a record surge in solar and a rebound in hydropower. Despite this growth, global power sector emissions reached a record high of 14.6 billion tonnes of CO2 because extreme heatwaves drove a 4.0% increase in electricity demand, forcing a 1.4% rise in fossil fuel generation to meet the additional cooling needs.

In 2024, global electricity demand rose by 4% to 30,856 TWh, driven largely by China and extreme heatwaves. Low-carbon sources reached a historic high of 40.9% of global generation, with solar and wind combined surpassing hydropower. Despite this, global power sector emissions hit a record high, increasing by 1.6% due to a rise in fossil generation linked to cooling demand during heatwaves.

In 2024, clean power surpassed 40% of global electricity generation for the first time since the 1940s, driven by record solar growth. Despite this, global power sector emissions reached an all-time high of 14.6 billion tonnes of CO2 because heatwaves drove a 1.4% increase in fossil generation to meet cooling demand. Solar generation doubled over the last three years, reaching 2,131 TWh, while emerging drivers like AI data centres, EVs, and heat pumps structurally increased demand growth. China and India are increasingly decoupling their electricity demand growth from fossil fuel expansion, with China's clean generation meeting 81% of its demand increase in 2024.

The U.S. currently leads the private fusion energy sector with 25 companies and over $6 billion in investment, but faces significant competition from China's state-funded programs. The report highlights fusion's potential to provide clean, firm power, support AI-driven energy demand from data centers, and create a new export market. To maintain leadership, the author recommends a $9.25 billion one-time appropriation for the 2025 Reconciliation Package, reorienting Department of Energy research toward commercialization gaps like breeding blankets, and streamlining regulatory and export frameworks.

In 2024, low-carbon electricity generation exceeded 40% of the global total for the first time in decades, driven by unprecedented solar energy growth. Despite this, extreme heatwaves increased electricity demand for cooling, leading to a slight rise in fossil fuel generation and record-high sector emissions. Solar energy has doubled its generation over the last three years, with China contributing over half of the 2024 increase. The report concludes that while short-term weather fluctuations can cause temporary fossil fuel spikes, the long-term trend is dominated by clean energy growth and electrification.

Geothermal energy in the U.S. is positioned for rapid growth due to bipartisan support and advancements in Enhanced Geothermal Systems (EGS), with 1.16 GW of capacity expected to come online by 2028. While the Trump administration has deprioritized wind and solar, geothermal has benefited from new categorical exclusions in permitting and expanded tax credits. EGS technology, leveraging oil and gas drilling techniques, allows for expansion beyond traditional geological constraints and is increasingly viewed as a viable 24/7 power source for AI data centers. However, the report notes that geothermal alone cannot meet 2030 electrical demand without the continued rollout of prospective wind and solar capacity.