By EnergyChannel | January 22, 2026 Oil prices edged higher on Thursday as global markets reacted to a combination of easing geopolitical risks and a cautiously improving outlook for oil demand in 2026. While gains were modest, the movement reflected a broader sense of stability returning to energy markets after days of heightened uncertainty. Oil Prices Find Support as Geopolitical Tensions Ease and Demand Outlook Improves Brent crude , the global benchmark, traded slightly above $65 per barrel , while West Texas Intermediate (WTI) hovered near $61 per barrel during early trading hours. The upward trend followed a reduction in political tensions involving the United States and Europe, alongside renewed focus on supply dynamics. Political Signals Calm Energy Markets One of the main drivers behind the price stabilization was a shift in tone from U.S. President Donald Trump, who stepped back from previously suggested tariff measures linked to disputes over Greenland. The earlier rhetoric had raised concerns about a potential escalation in transatlantic trade tensions, which could have weighed heavily on global economic growth and energy consumption. Market analysts note that the de-escalation helped reduce short-term risk premiums in oil prices, restoring a degree of confidence among investors and traders in the commodities sector. Supply Disruptions Add Short-Term Support Beyond geopolitics, supply-side factors also played a role in supporting prices. Temporary production disruptions in Central Asia, particularly in Kazakhstan, limited crude output due to power infrastructure issues, tightening supply expectations in the short term. Although these interruptions are not expected to have a long-lasting impact on global balances, they contributed to the market’s cautious upward adjustment. Demand Outlook Strengthens for 2026 Adding to the positive sentiment, updated projections from international energy agencies suggest that global oil demand in 2026 may be stronger than previously anticipated. Economic resilience in key regions and steady industrial activity are expected to support consumption, helping absorb excess supply in the coming year. Energy analysts emphasize that while structural shifts toward clean energy continue, oil demand remains robust in transportation, petrochemicals, and emerging markets. Rising U.S. Inventories Keep Gains in Check Despite supportive signals, the market remains constrained by elevated crude and fuel inventories in the United States. Recent data indicates continued stock builds, limiting the potential for sharper price increases in the near term. As a result, traders are likely to remain cautious, closely monitoring economic indicators, central bank policies, and further geopolitical developments that could influence both demand and supply fundamentals. Outlook: Stability Over Volatility For now, oil markets appear to be entering a phase of relative balance, with modest price movements driven more by fundamentals than speculation. Analysts expect prices to remain range-bound in the short term, barring unexpected geopolitical or macroeconomic shocks. Oil Prices Find Support as Geopolitical Tensions Ease and Demand Outlook Improves

By EnergyChannel Global In Brazil’s semi-arid hinterland, an innovative project is redefining the role of solar energy beyond electricity generation. By combining sanitation, recycled materials and distributed solar power, the initiative is addressing one of the country’s most severe and often invisible social challenges: families still living without access to a basic bathroom. Solar Energy, Sanitation and Dignity: How a Project in Brazil’s Semi-Arid Region Is Turning Bathrooms into Income for Vulnerable Families Developed by Sertão Solar , a renewable energy company based in northern Minas Gerais, the project integrates sustainable construction with photovoltaic systems, transforming sanitation units into micro energy plants capable of generating income for low-income households. The initiative was presented by Walter Abreu , founder of Sertão Solar, in a conversation with Ricardo Honório , Global Director of the EnergyChannel Group. A hidden reality in Brazil’s semi-arid region Northern Minas Gerais is considered a gateway to Brazil’s Northeast, sharing similar climatic, social and economic conditions with the semi-arid regions of the country. Prolonged droughts, irregular rainfall and structural poverty remain persistent challenges. According to official data, around 11,000 families in the region still do not have a bathroom . These households are forced to meet basic needs outdoors, creating serious risks to public health, environmental preservation and human dignity. “This is not about inadequate bathrooms. It’s about families who simply don’t have one,” says Abreu. The solar bathroom: infrastructure with purpose Sertão Solar’s solution is an industrialized sanitation module , designed to be installed quickly and adapted to rural conditions. What makes the project unique is its integration of multiple sustainable technologies: Structural components made from recycled plastic , sourced from coffee capsule waste; Up to 60% reduction in concrete usage , using intact recycled glass bottles as structural fillers; Biodigester system , minimizing environmental impact; Rainwater harvesting , adapted to local water scarcity; Photovoltaic solar panels installed on the bathroom roof . The result is not just a bathroom, but a functional, durable and energy-generating structure . Solar energy as a source of income One of the project’s most transformative aspects is its ability to turn energy generation into direct income for vulnerable families . Following updates to Brazilian legislation under Law No. 14,620 , families enrolled in social assistance programs are now allowed to sell surplus electricity generated by small solar systems to public authorities. Municipalities can use this energy to power schools, health centers and administrative buildings. Depending on the system size, households can generate monthly revenues of up to R$900 , a significant amount for families previously dependent on social benefits. “Solar energy stops being just consumption and becomes a stable, clean source of income,” Abreu explains. Real integration of public policies According to Abreu, the project succeeds because it breaks with the traditional fragmentation of public policies. The solar bathroom integrates multiple objectives into a single solution: Basic sanitation Public health improvement Energy transition Job and income generation Fiscal efficiency Environmental protection By reducing diseases related to poor sanitation, the project also lowers long-term healthcare costs. By generating income, it reduces dependence on social welfare programs. And by using clean energy, it contributes to climate and sustainability goals. “It’s cheaper to invest in dignity today than to pay for exclusion tomorrow,” Abreu states. Conscious capitalism, not welfare dependency Despite its strong social impact, the project operates within a clear business framework. Sertão Solar emphasizes that profitability and social impact are not contradictory. “This is not charity or ideology. It’s conscious capitalism. Companies must be profitable, pay taxes and salaries — but they can also solve real problems,” says Abreu. He argues that governments should focus on removing regulatory barriers and aligning existing public policies instead of creating conflicting rules. One story that represents thousands The first unit was delivered to an 80-year-old rural resident who had not taken a proper shower in over 15 years. His previous “sanitation system” consisted of improvised pits and bricks. “That moment changed everything for me. It showed the real meaning of what we’re building,” Abreu recalls. The long-term goal is ambitious: to eliminate the sanitation deficit for all 11,000 families in the region using a scalable, industrialized and financially viable model. A model for Brazil — and beyond For EnergyChannel, the Sertão Solar initiative demonstrates how the energy transition can also be a social transformation . “This is not just a solar project. It’s a development model,” says Ricardo Honório. The expectation is that this approach can be replicated in other regions of Brazil and in semi-arid areas worldwide, especially where energy access, sanitation and poverty intersect. 📌 EnergyChannel Global Covering energy, innovation, sustainability and public policy worldwide 🌐 EnergyChannel Global Portal Solar Energy, Sanitation and Dignity: How a Project in Brazil’s Semi-Arid Region Is Turning Bathrooms into Income for Vulnerable Families

As solar energy moves into a new phase of maturity, the inverter is no longer just a conversion device it has become a strategic component that directly affects energy yield, operational costs, system reliability, and long-term project returns. Hopewind 150 kW Solar Inverter: A Strategic Asset for High-Performance C&I and Utility-Scale Projects In this context, the Hopewind 150 kW string inverter stands out as a solution engineered to deliver maximum energy production, lower operating costs, and dependable performance under real-world conditions , particularly in demanding commercial, industrial, and distributed utility applications. This EnergyChannel special report examines why the 150 kW power class has become a key benchmark and how Hopewind positions this inverter as a value-driven solution for global and Brazilian solar markets. From Power Rating to Strategic Value In high-capacity rooftop and ground-mounted solar projects, scale alone is not enough. The real competitive advantage lies in how efficiently that scale is managed. The 150 kW inverter class enables developers and EPCs to: Reduce the number of inverters per project Simplify electrical architecture Lower balance-of-system (BOS) costs Improve system reliability and uptime Hopewind’s approach transforms the 150 kW inverter into a central operational asset , rather than a passive component. Maximizing Energy Yield Where It Matters Most Energy production is the first metric that defines project success. The Hopewind 150 kW inverter is designed to extract the maximum possible value from every installed kilowatt. Its multi-MPPT architecture allows independent string optimization, which is critical in real installations affected by: Partial shading Different roof orientations Irregular module layouts Aging or mixed PV module fleets In high-irradiance regions, such as Brazil, the inverter’s ability to maintain performance under elevated temperatures significantly increases annual energy yield , directly improving project economics. Lower Operating Costs, Stronger Financial Performance Beyond energy generation, the true cost of a solar asset is defined over decades of operation. The Hopewind 150 kW inverter contributes to OPEX reduction through: Higher power density, reducing equipment quantity Simplified installation and commissioning Integrated monitoring and diagnostics Reduced maintenance interventions By minimizing system complexity while increasing output, the inverter plays a decisive role in lowering the Levelized Cost of Energy (LCOE) — a critical factor for investors, asset owners, and corporate energy buyers. Designed for Harsh Environments and Grid Realities Solar assets must operate reliably under conditions that are far from ideal. Heat, humidity, dust, voltage fluctuations, and grid disturbances are everyday realities in many emerging markets. The Hopewind 150 kW inverter is built with: Industrial-grade enclosure and thermal management Advanced electrical protections Grid-support functionalities that enhance stability during voltage events This robustness ensures consistent performance, reduced downtime, and predictable cash flow , even in regions with challenging environmental and grid conditions. A Strong Fit for the Brazilian Solar Market Brazil’s commercial and industrial solar segment continues to expand, driven by high electricity tariffs, decarbonization goals, and distributed generation policies. In this scenario, the 150 kW inverter offers clear advantages: Ideal sizing for large rooftops and industrial facilities Compatibility with common three-phase grid configurations High efficiency under tropical climate conditions Scalability for expanding energy demand For Brazilian projects, the Hopewind 150 kW inverter is not simply compliant — it is strategically aligned with local operational realities . Applications That Demand Performance and Reliability The Hopewind 150 kW inverter is particularly well suited for: Large commercial rooftops Industrial self-consumption systems Distributed solar plants Corporate decarbonization initiatives Projects focused on long-term asset value In all these scenarios, the inverter acts as a performance enabler , ensuring that installed capacity translates into consistent, monetizable energy production. Conclusion: More Than an Inverter, a Business Enabler The Hopewind 150 kW solar inverter represents a shift in how high-power inverters are positioned in modern solar projects. Rather than focusing solely on specifications, Hopewind delivers: Higher energy yield Lower operating costs Robust performance under stress Strategic alignment with market needs For developers, EPCs, and asset owners seeking reliable returns and operational excellence , the 150 kW inverter is not just a component it is a core business enabler in the evolving solar energy landscape. Hopewind 150 kW Solar Inverter: A Strategic Asset for High-Performance C&I and Utility-Scale Projects

When public leadership, regulation, and markets fail to move in sync, a strategic agenda turns into systemic risk. By Laís Victor – Renewable Energy Specialist and Executive Director of Partnerships Brazil’s Energy Transition Is Misaligned — and the Costs Are Already Showing The paradox of Brazil’s transition Throughout my career in the energy sector—following expansion cycles, regulatory reforms, and structural market shifts—it is rare to see a country so well positioned in terms of natural resources and yet so strained by a lack of systemic coordination. Brazil’s largely renewable power mix remains a relevant strategic asset, often highlighted in international forums as a competitive differentiator. Operationally and institutionally, however, Brazil’s energy transition is advancing in speed and scale without a matching evolution in coordination tools. This mismatch is already reflected in operational, economic, and regulatory signals that can no longer be dismissed as short-term noise. As the transition accelerates, the need to align planning, regulation, and system operation becomes increasingly evident—a recurring theme in technical discussions I hold with market players, investors, and policymakers. When curtailment stops being an exception and becomes a structural symptom A consistent reading of recent operational data shows that curtailment has shifted from an isolated event linked to specific contingencies to a phenomenon with structural characteristics. Reports from Brazil’s National System Operator (ONS)—particularly the Monthly Operation Programs (PMO) and System Interconnected Network monitoring bulletins published between 2023 and 2025—have repeatedly recorded transmission and operational constraints in regions with strong wind and solar expansion, especially in the Northeast. These restrictions are not the result of energy scarcity, but of the system’s difficulty in transmitting, absorbing, or flexibly managing generation when it occurs. From a market perspective, analyses released by the Electric Energy Trading Chamber (CCEE) throughout 2024 and 2025 indicate that rising curtailment has coincided with increased volatility in the Settlement Price for Differences (PLD) and a greater use of out-of-merit dispatch, even under more favorable hydrological conditions. For those who follow these indicators closely and discuss their impacts with companies and investors, the signals converge: renewable supply is expanding faster than transmission capacity, operational flexibility, and demand-response mechanisms. This diagnosis is not new to sector planning. In Brazil’s Decennial Energy Expansion Plans (PDE 2032 and PDE 2034), the Energy Research Office (EPE) highlights that a higher share of intermittent sources increases the need for transmission reinforcements, regional integration, and the valuation of attributes such as flexibility, reliability, and capacity. When these elements fail to advance in a coordinated way, curtailment ceases to be merely a physical loss of generation and becomes a source of economic value destruction and heightened investor risk. From curtailed generation to systemic cost When renewable energy that is already contracted cannot be delivered due to structural constraints, the impact goes far beyond the lost megawatt-hours. To maintain balance and operational security, the system turns to alternative sources and services—often more expensive and less economically efficient. This is where curtailment directly connects to price formation, sectoral charges, and risk perception. This dynamic helps explain why, even amid rapid renewable expansion, system costs do not fall proportionally. The problem is not the abundance of clean energy, but the fragmented way the system is being managed. The invisible cost of poor coordination When decisions are made in silos accelerated renewable expansion on one side, reactive regulatory adjustments on another, and an increasingly strained system operator in between the cost does not disappear. It is simply redistributed. The system becomes more expensive to operate, more complex to balance, and less predictable for investors and consumers. Consolidated CCEE data show that expenses related to out-of-merit thermal dispatch, security services, and system charges have gained relevance in recent cycles. In strategic discussions with investors, this issue surfaces repeatedly: perceived risk is not driven by a lack of energy, but by a lack of institutional coordination. An energy transition that should reduce long-term uncertainty instead introduces new layers of complexity when not managed in an integrated manner. Governance as the next stage of the transition This context reinforces a conclusion shaped over many years: the main challenge of Brazil’s energy transition is not technological. The country has abundant natural resources, competitive projects, and widely recognized technical expertise. The challenge is institutional. The transition has been conducted as a collection of parallel agendas rather than as a cohesive, system-wide state policy. EPE’s own planning documents stress that generation expansion must move in lockstep with the evolution of transmission, system operation, and market design. The absence of such integration creates an environment in which technical and regulatory decisions fail to reinforce one another, increasing system complexity at precisely the moment when predictability and clarity should be core assets. Coordination is not a choice it is a condition International experience supports this assessment. Recent reports from the International Renewable Energy Agency (IRENA), including Innovation Landscape for Sustainable Development Powered by Renewables (2026), show that countries making the most consistent progress in energy transition are those that treated institutional coordination as a strategic priority. Clear governance, defined roles, coherent economic signals, and regulatory predictability emerge as just as critical as technology or natural resources. The next phase of Brazil’s energy transition will not be defined solely by the number of new projects or the pace of installed capacity growth. It will be defined by the country’s ability to align public leadership, regulation, and markets within an increasingly complex system. Without coordination among these pillars, the transition stops being a driver of competitiveness and becomes a systemic risk—a cost no country, investor, or consumer can afford to bear. About the author Laís Victor is a renewable energy specialist and Executive Director of Partnerships, with more than 15 years of experience in the energy sector. She works in business development, the structuring of strategic alliances, and supporting investment attraction for energy transition projects, with a focus on governance, systemic integration, and continuous monitoring of regulatory, operational, and market developments in Brazil and internationally. Brazil’s Energy Transition Is Misaligned — and the Costs Are Already Showing

La Paz, January 2026 — Bolivia has taken a decisive step to restore credibility in its energy and mining sectors by reaffirming its commitment to honor existing contracts related to energy production and lithium development. The move is part of a broader strategy by the country’s new administration to reposition Bolivia as a reliable destination for international investment in strategic natural resources. Bolivia Reinforces Commitment to Energy and Lithium Contracts to Restore Investor Confidence The government’s message to the global market is clear: previously signed agreements will be respected, regardless of political transitions or internal criticism surrounding how some of these contracts were negotiated. The approach signals a shift toward pragmatism as Bolivia seeks to overcome years of uncertainty that have limited foreign participation and slowed project execution. Lithium and Energy at the Center of a New Economic Strategy Bolivia holds some of the world’s largest lithium resources, a mineral considered essential for the global energy transition due to its role in electric vehicle batteries and energy storage systems. In parallel, the country also possesses significant natural gas reserves. Despite this potential, restrictive regulatory frameworks and prolonged state control have historically constrained production growth and investment inflows. By reaffirming contractual stability, Bolivian authorities aim to reverse this trend and rebuild trust among international companies operating in the lithium and energy value chains. The government views legal certainty as a cornerstone for unlocking long-term capital and accelerating project development. Regulatory Reforms and Market Opening Alongside the commitment to existing agreements, Bolivia is preparing a new regulatory framework for the hydrocarbons and lithium sectors. Proposed reforms are expected to introduce clearer rules, more competitive conditions and improved incentives for private and foreign participation. If approved, the new legislation could pave the way for future exploration rounds in oil and gas, while also creating more transparent models for lithium extraction and industrialization. The state energy company will remain a key player, but with a more flexible approach that allows for partnerships and joint ventures aimed at boosting efficiency and output. Balancing Economic Adjustments and Social Pressure The renewed focus on investor confidence comes amid broader economic adjustments, including the reduction of long-standing fuel subsidies. While these measures are designed to stabilize public finances, they have also triggered social resistance and political debate within the country. The government faces the challenge of balancing fiscal responsibility with social stability, while ensuring that reforms translate into tangible economic growth. For the energy sector, however, the direction is increasingly defined by market logic and long-term sustainability rather than ideological positioning. Bolivia Signals a Pragmatic Shift For global energy and mining investors, Bolivia’s latest moves represent a significant signal of change. By prioritizing contract stability, regulatory reform and openness to international cooperation, the country is attempting to reposition itself within the global energy transition landscape. As demand for lithium and cleaner energy solutions continues to rise worldwide, Bolivia’s ability to deliver predictability and execution will be critical in determining whether its vast natural resources can finally be transformed into sustainable economic value. Bolivia Reinforces Commitment to Energy and Lithium Contracts to Restore Investor Confidence

Advances in experimental reactors place the country at the center of the global race for a nearly limitless, carbon-free energy source China Accelerates Nuclear Fusion Research and Moves Closer to the Most Ambitious Clean Energy Source of the Century While much of the world advances cautiously in the energy transition, China has chosen a far more ambitious path. The country is making steady progress in nuclear fusion research, a field that seeks to replicate on Earth the same physical process that has powered the Sun for billions of years. If mastered, this technology could redefine how humanity produces energy. At the heart of this effort is a next-generation experimental reactor designed to study fusion under extreme conditions. In recent years, the project has drawn global attention for achieving unprecedented levels of plasma stability a critical requirement for making fusion viable beyond theory. Why nuclear fusion is a game changer Unlike conventional nuclear power, which relies on splitting heavy atoms through fission, nuclear fusion works by combining light hydrogen nuclei to form helium, releasing massive amounts of energy in the process. The reaction produces no carbon emissions and generates far less long-lived radioactive waste, making it one of the cleanest energy options ever envisioned. In theory, fusion offers an abundant, safe and virtually inexhaustible energy source. In practice, however, the technological challenges remain enormous. Extreme temperatures and precise control For fusion to occur, temperatures must exceed 100 million degrees Celsius hotter than the core of the Sun. Under these conditions, matter turns into plasma, an extremely unstable state that must be kept suspended without touching the reactor walls. To achieve this, scientists rely on powerful magnetic fields inside a donut-shaped structure known as a tokamak. These magnetic fields confine and control the plasma, preventing material damage and energy loss. Maintaining this balance is one of the most complex challenges in modern physics. Breaking technical barriers Recent experiments have demonstrated the ability to operate the reactor at higher plasma densities while maintaining stability, surpassing limits long considered major constraints in fusion research. Increasing plasma density without instability is essential for future reactors to produce more energy than they consume. Although fusion is still far from commercial deployment, each technical milestone brings the technology closer to practical application. China gains strategic ground in the global race China’s steady progress has placed it in a strong strategic position within the global fusion landscape. While major international fusion projects continue to move through long development phases, China’s program already benefits from years of operational testing, real-world data and continuous experimental refinement. This combination of scale, funding and long-term scientific planning gives the country a clear advantage in a race that could shape the future of global energy systems. A long-term promise, now within reach Despite growing optimism, nuclear fusion is not yet a commercial solution. No fusion reactor in the world currently produces more energy than it consumes, and turning this technology into operational power plants will require breakthroughs in materials science, efficiency, plasma control and cost reduction. Even so, recent advances reinforce a growing consensus across the energy and scientific communities: humanity has never been closer to harnessing the same energy source that powers the stars. If successful, nuclear fusion could become a cornerstone of a cleaner, safer and more resilient global energy system and China appears determined to play a leading role in that transformation. China Accelerates Nuclear Fusion Research and Moves Closer to the Most Ambitious Clean Energy Source of the Century

The escalation of geopolitical tensions in Greenland triggered renewed turbulence across global financial markets this week. Greenland crisis rattles global markets as gold climbs to new record Stock markets fell sharply worldwide, while gold surged to a new all-time high, reinforcing its role as a safe-haven asset amid growing uncertainty. The situation in the region considered strategically important for energy security and geopolitics has heightened risk aversion and revived concerns over global supply chains, Arctic routes and access to critical natural resources. Global stocks retreat amid rising uncertainty Major stock indices posted significant losses as investors reacted to fears that the Greenland crisis could evolve into broader economic and geopolitical disruptions. Risk-sensitive sectors such as technology, industrials and transportation led the declines. In response, market participants shifted capital away from volatile assets, increasing exposure to cash and defensive instruments — a classic move during periods of heightened geopolitical stress. Gold strengthens its role as a safe haven While equities moved lower, gold rallied strongly and reached a new historical price record. The precious metal once again proved its importance as a hedge against political instability, market volatility and macroeconomic uncertainty. The rally reflects not only rising demand for capital preservation but also expectations that prolonged tensions could fuel inflationary pressures, affect interest rate trajectories and weigh on global growth. Energy and critical resources at the center of tensions Greenland occupies a strategic position in the global race for energy and critical minerals essential to the energy transition, including rare earth elements, as well as potential Arctic oil and gas reserves. Any escalation increases the risk of project delays, trade restrictions and disputes over resource control. This backdrop has amplified volatility in energy, mining and infrastructure-related assets, especially those linked to the clean energy supply chain and long-term resource security. Energy markets remain on alert Market anxiety also spilled into the energy sector, with investors closely monitoring potential impacts on global supply. Although no immediate disruptions have been reported, geopolitical risk premiums increased, particularly in futures contracts and strategic energy assets. The episode reinforces the importance of diversified energy sources, resilient infrastructure and accelerated investment in decentralized renewable generation. Outlook remains uncertain Market expectations point to continued volatility until clearer signs of political stabilization emerge. In the meantime, defensive positioning, safe-haven demand and cautious portfolio adjustments are likely to dominate global markets. For EnergyChannel, the Greenland crisis highlights how geopolitics, energy systems and financial markets are increasingly interconnected and how regional tensions can rapidly translate into global shocks affecting investments, energy transition strategies and economic stability. Greenland crisis rattles global markets as gold climbs to new record

EnergyChannel Special Series | Artificial Intelligence: Everything We Need to Know The technology that stopped being futuristic Artificial Intelligence (AI) is no longer a distant concept from science fiction. It has become one of the most influential technologies of the 21st century, embedded in smartphones, digital platforms, companies, governments and everyday decisions. More than a technological innovation, AI represents a structural transformation in how society produces information, works and makes decisions. What exactly is Artificial Intelligence? In simple terms, Artificial Intelligence is a field of computer science focused on developing systems capable of performing tasks that normally require human intelligence , such as learning, pattern recognition, language understanding and decision-making. Unlike traditional software, AI systems do not rely solely on fixed rules they learn from data and improve over time. How AI works in practice At the core of Artificial Intelligence are algorithms mathematical models that analyze large volumes of data. By identifying patterns, these systems can predict outcomes, classify information and recommend actions. The more high-quality data an AI system receives, the more accurate it becomes. This explains the rapid acceleration of AI development in recent years. Types of Artificial Intelligence Most current applications rely on narrow or weak AI , designed for specific tasks such as: Speech recognition Machine translation Content recommendation Image and video analysis Artificial General Intelligence (AGI) capable of reasoning like a human does not yet exist and remains one of the most debated topics in science and ethics. Why has AI become so important now? Three key factors explain AI’s rise: Massive data availability Increased computing power Advances in machine learning algorithms Together, these elements have enabled AI to scale globally and impact sectors such as healthcare, energy, finance, agriculture, education and media. AI is already shaping your life often invisibly From facial recognition on smartphones to personalized recommendations and virtual assistants, AI operates quietly in daily life. This invisible presence makes AI both powerful and challenging, especially when it comes to ethics, regulation and social impact. Artificial Intelligence: opportunity or risk? AI offers enormous potential for efficiency, productivity and innovation. At the same time, it raises critical concerns: Job automation Data privacy Algorithmic bias Technological dependence Understanding what AI is represents the first step toward informed and responsible engagement with this transformation. EnergyChannel’s role in the AI debate Throughout this special series, EnergyChannel will explore Artificial Intelligence in depth, connecting technology, society, economy and the future. This first episode opens a journey that goes far beyond technology and directly addresses the role of humans in an increasingly intelligent world. 🇺🇸 EP1 – What Is Artificial Intelligence and Why It Matters

The ozone layer is one of the most precious structures in Earth’s atmosphere. Invisible to the eye yet essential to life, it acts as a shield that absorbs much of the ultraviolet radiation emitted by the Sun. Without this protection, the risks to human health would be devastating: increased cases of skin cancer, cataracts, genetic mutations, and ecological imbalances affecting everything from the oceans to agriculture. It is hard to imagine life on Earth without this natural barrier, which is why the shock was so great when, in 1985, scientists announced the discovery of a hole in the ozone layer over Antarctica a direct result of human activities. The Hole in the Ozone Layer: The Lesson the World Needs to Relearn The origin of the problem lay in chlorofluorocarbons, the well-known CFCs, used in aerosols, refrigeration systems, and air conditioning. When these molecules reached the stratosphere, they destroyed ozone, opening an atmospheric wound that grew year after year. Science, with the technology available at the time, was able to identify the anomaly and alert the world. And the world, surprisingly, responded. In 1987, the Montreal Protocol was signed—an international treaty that mandated the gradual elimination of CFCs and other harmful gases. It was a rare example of global cooperation in which rich and poor countries united around a common goal: saving the ozone layer. Brazil played an important role in this process. In addition to adopting legislation that restricted the use of ozone-depleting substances, the country participated in technological substitution and atmospheric monitoring programs. The national industry was forced to adapt, replacing harmful gases with less damaging alternatives. This transition was not simple, but it demonstrated that, when there is political will and international support, it is possible to align economic development with environmental preservation. Today, thanks to these measures, the ozone hole is recovering, and scientists estimate that by the middle of the 21st century it may be almost completely closed. This episode proves that science, when combined with technology and international cooperation, can reverse environmental damage. But it is also a reminder that not all problems have such clear solutions. Unlike ozone, which protects against ultraviolet rays, greenhouse gases act in a different way. Carbon dioxide, methane, nitrous oxide, and hydrofluorocarbons do not destroy the ozone layer, but they trap heat in the atmosphere, preventing infrared radiation from escaping into space. The result is global warming. CO₂ is the most significant due to its volume, but the other gases are even more potent molecule by molecule. And unlike the ozone hole, whose effects are already being reversed, global warming brings irreversible consequences: melting glaciers, rising sea levels, and increasing average temperatures are processes far more difficult to undo. Here lies the key difference between the two cases. With the ozone hole, there was a clear cause, an identified culprit, and a viable technological solution. With global warming, the causes are multiple, economic interests are deeply entrenched, and the solution requires a radical transformation of the world’s energy matrix. Reaching consensus among nations is increasingly difficult. Countries dependent on fossil fuels resist changes that could affect their industries, while disinformation campaigns funded by vested interests spread doubt about the severity of the climate crisis. In addition, global inequality weighs heavily: developing nations demand climate justice, pointing out that wealthy countries were the largest historical emitters. The ozone hole stands as a shining example of how humanity can unite to confront an existential threat. But global warming demands even greater courage, as it challenges deep-rooted economic and political structures. The lesson we must relearn is clear: when science and society move forward together, it is possible to reverse mechanisms of planetary degradation. The challenge is to turn this awareness into collective action before the climate clock demands a price too high to pay. Renato Zimmermann is a sustainable business developer and an activist for the energy transition. The Hole in the Ozone Layer: The Lesson the World Needs to Relearn

FRG Media & Events Group officially announces the launch of its 2026 events calendar, reinforcing its commitment to sustainable development, innovation, and the strengthening of the renewable energy and clean technology markets in Brazil and Latin America. In a landmark initiative aligned with global best practices, FRG Group confirms that 100% of its 2026 events will be held as carbon-neutral , consolidating a responsible approach closely connected to ESG agendas, decarbonization strategies, and the energy transition priorities guiding governments, companies, and investors worldwide. With an exclusive focus on sustainability, renewable energy, energy efficiency, and low-carbon industry, the company is also launching a special campaign for sponsors and partners. The initiative invites companies to actively engage in a strategic agenda that goes far beyond brand exposure—aiming to drive sector growth, accelerate innovation, and generate real market impact. A Strategic Agenda for Those Leading the Future The 2026 calendar brings together more than 10 established events and new launches, connecting the entire energy value chain from public authorities to industry leaders, from manufacturers to investors, from integrators to end consumers. Key highlights include: Energy Storage Brasil , a dedicated event platform focused on energy storage, reaching its 7th edition and firmly established as one of the sector’s leading forums for debate, business development, and technological advancement; The launch of a new event focused on Energy Transition and Low-Carbon Industry , addressing the challenges of decarbonization, industrial competitiveness, and the development of new sustainable production models; Fórum GD – Regional Forum on Distributed Generation from Renewable Sources , the most traditional event in the Brazilian power sector, approaching its 40th edition and remaining a national benchmark for business generation, professional training, and institutional dialogue. Building the Future of the Sector Together Throughout its history, FRG Group has established itself as an active driver of the energy market, creating environments that foster high-quality connections, stimulate innovation, and promote the development of new regional markets. The 2026 calendar represents an open invitation to companies, institutions, and leaders who want to be where decisions are made, contribute to the advancement of the energy transition, and engage in an agenda that brings together strategy, sustainability, and economic growth. Taking part in this journey means expanding institutional presence, strengthening dialogue with key sector stakeholders, and aligning brands with initiatives that promote positive impact, innovation, and environmental responsibility. More than a series of events, the FRG 2026 Calendar is a platform for transformation —an opportunity to walk alongside those helping to shape the future of energy, industry, and the low-carbon economy in Brazil. Contact Information General Contact – contato@grupofrg.com.br | +55 (41) 99106-6463 Commercial – comercial3@grupofrg.com.br | +55 (41) 99176-2634 FRG Group Launches 2026 Events Calendar with a Focus on Sustainability, Innovation, and Real Impact in the Energy Sector

The automotive giant unveils an ambitious plan for the continent, focusing on commercial vehicles, a new line of electrified passenger cars, and key alliances to redefine its presence in the European market. Credit: Ford | Ford Accelerates in Europe with New EV Generation and Strategic Partnerships Ford Motor Company is redefining its trajectory in the European automotive landscape with a multifaceted strategy designed to ensure profitability and agility amidst the industry's greatest transformation in a century. The plan, revealed in early 2026, signals a robust commitment to electrification, but with a pragmatic approach that balances innovation, affordability, and market realities. The company's new roadmap rests on three fundamental pillars: the strengthening of its commercial vehicle division, **Ford Pro**; the launch of an exciting new generation of electrified passenger vehicles starting in 2028; and the optimization of its manufacturing structure to increase scale and reduce operational costs. This approach aims to position Ford not just as a participant, but as a leader in the new era of electric mobility on the continent. The Electric and Hybrid Offensive Unlike a purely electric approach, Ford has opted for a "multi-energy" strategy. The company plans to offer a range of vehicles that includes both 100% electric and hybrid models, allowing consumers to adopt electrification at their own pace. This decision reflects a careful reading of the European market, where the adoption of electric vehicles, while growing, still faces challenges such as charging infrastructure and acquisition costs. Recent data shows that electric vehicles account for just over 16% of the total market in Europe, a figure that highlights the need for a more gradual and flexible transition. Ford bets that by offering diverse options, it will be able to serve a broader customer base, maintaining competitiveness in a rapidly changing scenario. The new generation of passenger vehicles, scheduled to hit the market in 2028, promises to combine the brand's design DNA with cutting-edge technology and, crucially, more accessible prices. Flexibility will be key, with multi-energy platforms that can adapt to the different speeds of electrification adoption in each European country. Ford Pro: The Engine of Commercial Growth The **Ford Pro** division continues to be a pillar of success for the company in Europe, and the new strategy further deepens its role. Ford is transforming Pro from a simple vehicle seller into an integrated productivity ecosystem for commercial customers. The **FORDLiive Uptime** platform, for example, has already demonstrated its value by providing significant additional uptime for fleet operators in 2024, translating telemetry data into actionable intelligence for management and maintenance. The focus on small and medium-sized enterprises (SMEs), which form the backbone of the European economy, is evident. Ford argues that the transition to electrification must be inclusive, offering solutions that do not economically penalize these businesses, which depend on the reliability and low operating cost of their commercial vehicles. Strategic Alliances and Production Optimization To enable this ambitious vision, Ford is strengthening its strategic partnerships. The collaboration with Volkswagen for the use of the MEB platform in the production of new EVs in Cologne, Germany, is a clear example of this approach. More recently, a new alliance with the **Renault Group** was announced, focused on sharing technologies for electric vehicles and the potential co-development of light commercial vehicles, seeking gains in efficiency and scale. Simultaneously, Ford is optimizing its manufacturing footprint in Europe. The Halewood plant in the United Kingdom has received a substantial investment to produce electric drive units, while the Cologne center is establishing itself as a hub for electric vehicle production. These moves are crucial for building a leaner and more efficient EV supply chain. A Call for Regulatory Action Alongside its investments, Ford is also appealing to European lawmakers for a more balanced regulatory environment. The company advocates that CO₂ emission targets and electrification mandates must be aligned with the actual readiness of the consumer and the market. This includes creating consistent purchase incentives and developing a charging infrastructure that extends beyond major urban centers, reaching rural areas and supporting small businesses. By combining product innovation, strategic partnerships, and an open dialogue on regulation, Ford charts a pragmatic and confident course to navigate the electric transition in Europe, seeking not only to adapt but to shape the future of mobility on the continent. Ford Accelerates in Europe with New EV Generation and Strategic Partnerships

The race for ever-increasing numbers has dominated the discourse of electric mobility . In Brazil and globally, the metric for success in charging infrastructure seems to have been reduced to maximum power: 120 kW, 180 kW, 300 kW . This obsession, however, is proving to be a financial and operational trap for investors and Charge Point Operators (CPOs). Charging Intelligence: Why Strategic 60 kW Outperforms Idle 120 kW in the New Era of Electric Mobility EnergyChannel has found that the true charging revolution lies not in peak power, but in Charging Intelligence and the economic viability of the project. The theoretical capacity of equipment is irrelevant if it spends most of its time idle. The End of the Brute Power Myth Installed power is just one variable in a complex equation. What truly sustains the *business case* of a Direct Current (DC) charging station is its Utilization Rate . A 120 kW charger, no matter how modern, will not generate a return if it is only used for two hours a day. The market is beginning to recognize a fundamental maxim: in various operational contexts, a well-planned 60 kW charger delivers superior economic value compared to a poorly sized 120 kW unit. The difference lies in the ability to generate net revenue consistently and predictably. The Oversizing Trap The justification of "installing big to be prepared for the future" often translates into unnecessary costs in the present. Oversizing DC chargers, especially in locations with medium or long dwell times, entails a series of financial burdens: 1. High CAPEX: The acquisition cost of a 120 kW unit can be more than triple that of a 60 kW unit [1]. 2. Grid Connection Costs: Higher power demand requires more robust transformers, more expensive cables, and more complex civil works. 3. Demand Charges: The electricity demand contract becomes heavier, increasing the fixed monthly cost (OPEX), regardless of actual utilization. 4. Extended Payback: The low utilization rate (often below 15%) stretches the Return on Investment (ROI) timeline into an uncertain horizon. A high-power DC charger that operates 23 hours a day as an immobilized asset is a financial engineering error, not infrastructure. The 60 kW Strategy: Where Efficiency Wins The ideal power of a charging point is defined by user behavior and dwell time at the location, not the vehicle's maximum capacity. In scenarios where the driver stays for 30 to 60 minutes, a 50 kW to 60 kW charger is the perfect balance between charging speed and economic viability. The table below illustrates the contrast between the two approaches, focusing on financial performance: Performance Metric 120 kW Charger (Idle) 60 kW Charger (Strategic) Typical Location Fast transit point (highway) Retail, Urban Centers, Fleets Average Utilization Rate 10% to 15% 40% to 60% Fixed Cost (OPEX) High (Contracted Demand) Controlled Revenue per Session High (but few sessions) Moderate (but many sessions) Economic Viability Risk of Immobilized Asset Consistent Cash Flow Generation Scenarios Optimized for Moderate Power The 60 kW strategy shines in locations where charging is complementary to the user's main activity: Commercial Areas and Retail: With an average *dwell time* of 40 minutes or more, the goal is to provide a partial charge (15–30 kWh), maximizing the number of daily sessions. Dense Urban Centers: In areas with grid power limitations, choosing 60 kW allows for better management of the total infrastructure and optimizes availability. Corporate Parking Lots and Hospitals: Locations with stays exceeding one hour and a predictable usage profile (employees, visitors) benefit from stable, controlled charging, where reliability outweighs extreme speed. Fleets with Rotating Charging: Software-managed fleets that plan the vehicle sequence and charging window benefit from well-managed 60 kW, which avoids wasting capacity on underutilized high-power chargers. The Future is Modular and Intelligent The next generation of winning projects in charging infrastructure will prioritize modularity and progressive sizing . Instead of a massive initial investment in excessive power, the trend is to start with the ideal capacity for current demand (often 60 kW) and plan expansion based on real utilization data. Electric mobility is not a race for the highest number of kW. It is an equation of balance between engineering, consumer behavior, and, crucially, economic viability . The smartest solution is always the best planned, not necessarily the most powerful. Charging Intelligence: Why Strategic 60 kW Outperforms Idle 120 kW in the New Era of Electric Mobility