By EnergyChannel – Global Affairs Desk Representatives from the United States and Iran met this week in Muscat, Oman, to reopen diplomatic negotiations focused on Iran’s nuclear program, in what is widely seen as one of the most consequential diplomatic efforts in the Middle East in recent years. United States and Iran Resume High-Stakes Nuclear Talks Amid Rising Regional Tensions The talks take place against a backdrop of heightened military alert, growing regional instability and deep mutual distrust. Washington has reinforced its naval and air presence in the Gulf, while Tehran continues to advance its nuclear capabilities under heavy international scrutiny. Geopolitical context: diplomacy under pressure The renewed dialogue comes after months of indirect confrontations, sanctions enforcement and escalating rhetoric. The United States has made clear that it will not accept an Iran with the capability to produce nuclear weapons, framing the talks as a final opportunity to re-establish enforceable limits on uranium enrichment. Iranian authorities, meanwhile, insist that their nuclear program is peaceful and refuse to expand negotiations to include missile development or regional proxy activity. This narrow scope reflects Tehran’s broader strategy of preserving strategic leverage while seeking limited sanctions relief. Economic and energy implications Any failure in the talks could have immediate consequences for global energy markets. The Persian Gulf remains a critical artery for oil and gas flows, and even limited military incidents could disrupt supply chains, trigger price volatility and increase geopolitical risk premiums. Sanctions remain a central economic pressure point. Iran’s economy continues to face restricted access to international capital and trade, while companies operating in the region must navigate an increasingly complex regulatory and security environment. Institutional risks and outlook From an institutional perspective, the talks highlight a broader challenge: managing security risks without expanding state control or destabilizing regional markets. A breakdown in negotiations would likely reinforce hardline positions on both sides, narrowing diplomatic options and increasing the likelihood of coercive measures. The coming weeks will be decisive. Whether diplomacy can produce enforceable commitments rather than temporary political understandings will determine not only the future of U.S. - Iran relations, but also the stability of global energy markets and regional security. United States and Iran Resume High-Stakes Nuclear Talks Amid Rising Regional Tensions

Shenzhen, 3rd Feb Hopewind, a prominent provider of comprehensive renewable energy solutions, announced a landmark corporate achievement: cumulative product shipments dedicated to renewable energy have exceeded 235 Gigawatts (GW) as of 2025. This monumental figure, equivalent to powering tens of millions of homes with clean electricity, underscores Hopewind's established role as a key architect and enabler of the global energy transition. Reaching this milestone highlights the success of the company’s strategic diversification, worldwide expansion, and deep-rooted culture of innovation.   A Foundation Built on Cross-Spectrum Mastery Hopewind’s journey to 235GW is founded on its comprehensive expertise across the entire renewable energy ecosystem. The company has evolved from a specialist provider into a full-scenario solutions partner, demonstrating proven capability in wind, solar, energy storage, and emerging hydrogen technologies. In wind power, its high-reliability converters have become indispensable to both onshore and offshore projects globally, leveraging deep domain knowledge to perform even in harsh environments like high-altitude plateaus. Within the solar sector, Hopewind’s portfolio of utility-scale and string inverters maximizes energy harvest in diverse climates. Recognizing the imperative for grid stability, the company provides integrated energy storage systems that are crucial for enabling higher renewable penetration. Furthermore, Hopewind is actively shaping the future energy landscape through its involvement in the green hydrogen value chain, supplying critical power conversion for electrolysis. Cross-Spectrum Solutions   Cross-Spectrum Solutions This cross-spectrum mastery allows Hopewind to design and deliver optimized, synergistic energy systems that address the most complex challenges of modern power grids. Globalizing Impact Through Strategic Overseas Expansion The scale of this achievement is profoundly international, reflecting Hopewind’s successful transformation into a truly global enterprise. The company’s strategic "Glocalization" model—combining global technological leadership with deep local engagement—has fueled its rapid expansion across key international markets. Hopewind has established a formidable presence through local subsidiaries, service centers, and engineering teams in regions including Europe, South America, Asia-Pacific, Middle East and Africa. This growing infrastructure supports landmark projects worldwide, from vast desert solar parks to demanding offshore wind farms, each testament to the adaptability and resilience of Hopewind’s solutions. A significant step in 2025 was the establishment of a manufacturing base in Hungary, enhancing local production and logistics capabilities. Hungary Manufacturing Base   Hungary Manufacturing Base By forging strong partnerships with local developers, utilities, and communities, the company ensures its technology not only meets regional standards and grid requirements but also drives sustainable economic development, making clean energy accessible and reliable on a global scale. Pioneering Technologies for a New Energy Era Underpinning this global reach and product diversity is an unwavering commitment to technological leadership. Hopewind invests relentlessly in research and development—devoting nearly 10% of its revenue to R&D and employing a team where over 30% of the staff are R&D engineers—to pioneer the solutions that will define the next generation of renewable energy systems. A prime example is its advanced work in grid-forming technology, essential for building stable and resilient power grids dominated by inverter-based resources like wind, solar, and storage. Hopewind earned the world's first grid-forming certificate from DNV in 2022 and commissioned China's first grid-forming wind farm, followed by a series of grid-forming solar and energy storage projects, establishing itself as a pioneer with full-spectrum application expertise. Grid-Forming Applications in Wind, Solar and Energy Storage   Grid-Forming Applications in Wind, Solar and Energy Storage In 2025, Hopewind introduced the world's first all-SiC wind power converter, a strategic innovation that affirms its position as a technology leader. These innovations empower renewable plants to actively strengthen grid stability, enabling a safer and more reliable transition to high renewable energy penetration. For Hopewind, surpassing 235GW is both a reflection of the path already traveled and a compass pointing toward the future. This milestone solidifies the company’s role not merely as a supplier, but as a foundational partner in the world’s energy transition. Moving forward, Hopewind will continue to channel its expertise and innovative spirit into solving the next generation of energy challenges. The journey continues, powered by 235GW of trust and the relentless pursuit of what comes next. About Hopewind Established in 2007 and listed on the Shanghai Stock Exchange ( 603063.SH ) in 2017, Hopewind is a global leader in renewable energy technology. The company specializes in designing and producing critical solutions, including wind power converters, PV inverters, energy storage systems (ESS), and industrial drives. As a pioneer in technical innovation, Hopewind participated in the EU Horizon 2020 scientific research project Wingrid through the DNV Netherlands Laboratory. Its wind power converter received the world's first grid-forming certificate from DNV in 2022, and the company has been recognized by Bloomberg New Energy Finance as a Tier 1 inverter manufacturer. Hopewind has shipped over 235GW of renewable energy products worldwide as of 2025. Hopewind Surpasses 235GW Global Shipment Milestone, Powering the Renewable Energy Transition

U.S. space-related stocks moved higher this Tuesday following the announcement of a landmark strategic merger between SpaceX and xAI , the artificial intelligence company founded by Elon Musk. The deal creates a new private tech powerhouse with an estimated valuation of US$1.25 trillion , reinforcing the growing convergence between the space economy, artificial intelligence and global digital infrastructure. Space and AI Converge: SpaceX–xAI Merger Sparks Rally in U.S. Space Stocks Market reaction: confidence returns to the space sector Although SpaceX remains privately held, the announcement immediately lifted investor sentiment across the publicly traded space ecosystem. Shares of companies such as Rocket Lab, Planet Labs, AST SpaceMobile, Intuitive Machines and Redwire  posted gains, reflecting renewed confidence in long-term growth prospects for the commercial space industry. For investors, the merger signals that space is no longer a niche or speculative market, but a core pillar of next-generation infrastructure , closely tied to data, connectivity and AI. AI beyond Earth: data centers in orbit? The strategic rationale behind the merger goes far beyond corporate restructuring. By combining SpaceX’s launch capabilities, satellite networks and Starlink infrastructure  with xAI’s artificial intelligence platforms , Musk is positioning the new entity to explore AI computing beyond Earth’s surface . According to industry analysts, one of the most disruptive ideas behind the merger is the potential deployment of AI-focused data centers in space , powered by constant solar energy and benefiting from natural cooling conditions. Such systems could dramatically reduce energy and cooling costs compared to terrestrial hyperscale data centers an increasingly critical issue as AI models become more energy-intensive. From an energy and sustainability perspective, this concept challenges traditional assumptions about where and how digital infrastructure should be built. Strategic implications for energy, connectivity and geopolitics The fusion of AI and space infrastructure could reshape multiple sectors simultaneously: Global connectivity , through smarter and more autonomous satellite networks Energy efficiency , by leveraging uninterrupted solar generation in orbit Data sovereignty and security , with computing resources distributed beyond national borders Defense and government services , where AI-driven space systems play a strategic role For the clean energy transition, the move highlights a paradox: while AI increases global electricity demand, it may also accelerate innovation in alternative energy generation and ultra-efficient computing architectures . IPO expectations and a new tech category The merger is also widely interpreted as a preparatory step toward a future SpaceX initial public offering , potentially as early as 2026. Market estimates suggest a public valuation could exceed US$1.5 trillion , placing the company among the most valuable technology groups in history. More importantly, the deal may mark the birth of a new tech category : companies that simultaneously operate in space, energy, artificial intelligence and global communications sectors that will define economic and geopolitical power over the next decades. Space and AI Converge: SpaceX–xAI Merger Sparks Rally in U.S. Space Stocks

Russia has carried out what Ukrainian authorities describe as one of the largest and most coordinated attacks on the country’s energy infrastructure this year , intensifying pressure on the power system at the height of winter. Russia Launches Major Strike on Ukraine’s Energy Infrastructure, Deepening Winter Power Crisis According to Ukrainian officials and energy companies, the offensive involved dozens of missiles and a large number of drones , targeting thermal power plants, substations and key electricity distribution facilities  across multiple regions, including areas surrounding Kyiv, Kharkiv and central Ukraine. The national energy operator reported severe operational constraints , forcing emergency power cuts to prevent a wider collapse of the grid. As a result, thousands of households were left without electricity and heating , a critical issue as temperatures in parts of the country remain well below freezing. Energy as a strategic target The latest strike reinforces a pattern that has defined the conflict since late 2022: energy infrastructure has become a central battlefield . By disrupting electricity generation and transmission, Russia seeks to undermine not only Ukraine’s economy but also civilian resilience during the winter months. Ukrainian energy company DTEK confirmed damage to several facilities and warned that repairs could take weeks , depending on security conditions and the availability of equipment. End of an informal pause The attack comes shortly after the expiration of an informal pause in strikes on energy assets, which had offered temporary relief to Ukraine’s power system. Analysts interpret the renewed offensive as a signal that no de-escalation is currently underway , despite ongoing diplomatic efforts. President Volodymyr Zelensky condemned the attacks, accusing Moscow of deliberately targeting civilian infrastructure and calling for stronger international support , particularly in air defence systems capable of protecting critical energy assets. System under stress Ukraine’s electricity grid, already weakened by repeated attacks over the past two years, continues to operate under emergency protocols , including rolling blackouts and load management measures. While decentralised generation and rapid repairs have helped avoid a total blackout, experts warn that each new strike reduces the system’s margin of safety . For the global energy sector, the situation underscores how energy security has become inseparable from geopolitical stability , with modern conflicts increasingly aimed at power systems rather than traditional military targets. Russia Launches Major Strike on Ukraine’s Energy Infrastructure, Deepening Winter Power Crisis

By EnergyChannel As renewable energy rapidly expands across global power systems, the challenge is no longer just generating clean electricity but ensuring grid stability in a landscape increasingly dominated by solar and wind. In this context, Hopewind, a global leader in power electronics and renewable energy solutions, is advancing grid-forming technology , a development that could significantly reshape how modern power grids operate. Hopewind Advances Grid-Forming Technology That Could Redefine the Stability of Power Systems Worldwide Why Grid-Forming Technology Matters Now Most renewable energy systems today rely on grid-following inverters, which depend on an already stable electrical grid to synchronize voltage and frequency. This approach works well when renewable penetration is limited. However, as solar and wind become dominant energy sources, grid-following systems reveal critical weaknesses especially during disturbances, faults, or sudden variations in supply and demand. Hopewind’s grid-forming technology represents a structural shift. Instead of merely following the grid, these systems actively establish voltage and frequency , behaving much like traditional synchronous generators. In practical terms, this allows renewable plants to contribute directly to grid stability rather than relying on fossil-fuel-based generation to provide inertia and control. This capability is becoming increasingly essential as countries move toward power systems with very high shares of renewable energy. Is This Relevant for All Countries? While grid-forming technology is not yet mandatory everywhere, its importance is global . Any country aiming for high renewable penetration whether developed or emerging will eventually face the same challenge: maintaining stability in a low-inertia power system. Without grid-forming solutions, power systems may experience: Increased frequency instability Higher risk of blackouts Greater dependence on fossil backup generation Rising costs for grid reinforcement and ancillary services For developing nations or regions with weaker grid infrastructure, these risks are even more pronounced. In such contexts, advanced inverter technologies can reduce the need for costly conventional power plants while strengthening energy security. Strategic Implications for Energy Security Energy security is no longer defined solely by fuel availability, but by system resilience . Grid-forming technology enables renewable assets to act as stabilizing elements, supporting national grids during faults and extreme events. In countries like Brazil, where solar and wind capacity is expanding rapidly, grid-forming solutions can help avoid curtailment, support large-scale storage integration, and enable a smoother transition toward a decentralized and renewable-based power system. In Europe, where renewable penetration is already high, grid-forming inverters are increasingly viewed as essential infrastructure to maintain system reliability without reverting to carbon-intensive generation. A Foundation for the Next Energy Era Hopewind’s advancements signal a broader transformation underway in the energy sector. As power systems evolve from centralized, fossil-based models to distributed, inverter-dominated architectures, technologies that combine efficiency with stability will define the winners of the energy transition. Grid-forming technology is not simply an innovation it is a cornerstone of future power systems , enabling countries to pursue aggressive decarbonization targets without compromising reliability. In this new era, stability will no longer depend on combustion, but on intelligence embedded in power electronics. Hopewind Advances Grid-Forming Technology That Could Redefine the Stability of Power Systems Worldwide

Over the past two years, the involvement of brothers Joesley and Wesley Batista in Brazil’s energy sector has continued to evolve with consequences that go far beyond the provisional measure issued in 2024. The Batista Brothers, Lula’s Government and Brazil’s Energy Sector (Feb 3, 2026) 1. From Provisional Measure 1,232/2024 to the impact on consumers On June 13, 2024 , the government of President Luiz Inácio Lula da Silva (PT) issued Provisional Measure 1,232/2024 , allowing contracts from thermoelectric plants acquired by Âmbar Energia the energy arm of the J&F Group , controlled by the Batista brothers to be converted into Energy Reserve Contracts (CER) .These contracts are funded through charges passed on directly to electricity consumers. The original report published by Gazeta do Povo estimated that this change could increase electricity bills by more than R$ 2 billion per year for 15 years . 2. Expansion of Âmbar Energia’s presence in the power sector Since then, Âmbar Energia has continued to expand its asset portfolio and strengthen its position in strategic segments of the electricity market: Acquisition of thermoelectric plants in Acre: In 2025, Âmbar acquired three thermoelectric plants in the state of Acre, responsible for approximately 20% of local electricity supply, expanding both geographic reach and installed capacity. Acquisition of Eletronuclear: In October 2025, J&F, through Âmbar, acquired a controlling stake in Eletronuclear , the company that operates Brazil’s nuclear power plants in Angra dos Reis (Angra 1, 2 and 3). The transaction involved around R$ 535 million , along with debt and guarantee commitments totaling R$ 2.4 billion , consolidating the group’s presence in the nuclear energy segment. Eletrobras divestment: In October 2025, Eletrobras finalized the sale of its last thermoelectric plant to J&F for approximately R$ 703.5 million , completing its exit from thermal generation and reinforcing Âmbar’s portfolio. 3. Political controversy and public scrutiny The relationship between the Batista brothers and the Lula administration has drawn criticism from political and civil society actors: Congress and Public Prosecutors: Members of Congress, along with institutions such as the Public Prosecutor’s Office and the Federal Court of Accounts (TCU), requested clarifications regarding possible preferential treatment linked to the MP, including alleged advantages in negotiations with Eletrobras and debt restructuring. Senate criticism: In November 2025, Senator Izalci Lucas (PL-DF) publicly accused the government of favoring the J&F Group and cited the provisional measure as a factor contributing to higher energy costs. Transparency watchdogs: Organizations such as Transparency International – Brazil raised concerns about privileged access to government decision-making by business groups previously involved in major corruption cases. 4. Government and Âmbar deny favoritism Both the Ministry of Mines and Energy and Âmbar Energia have publicly stated that: No informal negotiations or undue advantages were granted in relation to the provisional measure or meetings between company executives and government officials. All transactions were conducted within legal frameworks, aiming to ensure the economic sustainability of Brazil’s power sector amid financial stress and risks faced by utilities. 5. What changes in 2026 In 2026, the debate over Âmbar Energia’s role in Brazil’s power sector remains central to discussions about: Transparency and governance in public and private sectors; Energy regulation and policy design; Economic impacts on residential and industrial consumers; The role of large corporate groups in critical infrastructure. The trajectory of the Batista brothers, long associated with past scandals and still under public scrutiny, continues to be closely monitored by regulators, lawmakers and energy sector specialists. The Batista Brothers, Lula’s Government and Brazil’s Energy Sector (Feb 3, 2026)

How advanced storage systems, digital control and cybersecurity are redefining reliability, resilience and sovereignty in the new energy landscape Energy security in the renewable era: why energy storage is the foundation of 24/7 clean power The global energy transition has entered a new phase. The discussion is no longer limited to generating renewable energy , but to ensuring continuous, stable and secure supply 24 hours a day, seven days a week . In this context, energy storage is no longer optional; it has become a strategic asset , essential for energy security, social stability and technological sovereignty. Making renewables dispatchable: the strategic role of energy storage Solar and wind energy are inherently variable. Without storage, this variability translates into risk: peak loads, voltage instability, supply disruptions and dependence on fossil backup generation. Modern storage systems solve this challenge by allowing renewable energy to be: stored during periods of surplus delivered instantly when demand increases used to stabilize the power grid under critical conditions In practice, storage is what makes clean energy dispatchable, reliable and economically viable at scale . Peak shaving: stability as a strategic asset One of the key advantages of energy storage is its ability to compensate peak demand using stored energy . This enables: avoidance of expensive and carbon-intensive peak generation protection against high peak tariffs reduced stress on transmission and distribution infrastructure For governments, this means energy resilience .For investors, it translates into predictable cash flows and lower operational risk . Ultra-fast response: flexibility measured in milliseconds Next-generation storage systems operate with extremely fast charge and discharge response times . Energy can be absorbed or injected into the grid within milliseconds. This flexibility allows: precise frequency control immediate voltage stabilization reliable operation in increasingly digital and decentralized grids In modern power systems, speed equals security . Maximizing returns with energy storage Beyond grid stability, storage unlocks new revenue streams : energy arbitrage ancillary grid services demand charge reduction higher utilization rates for renewable assets The result is clear: higher returns on investment with reduced exposure to market volatility . Two system architectures: AC-coupled and DC-coupled AC-coupled systems AC-coupled battery storage systems are ideal for: retrofitting existing photovoltaic plants projects requiring high integration flexibility They store excess energy and make it available again within milliseconds, optimizing load management and enhancing grid stability. DC-coupled systems DC-coupled systems are particularly suited for: new large-scale solar plants projects based on 1,500 V technology In this architecture, both the PV array and the battery are connected to the central inverter on the DC side, enabling: higher efficiency lower conversion losses improved operational control This configuration is increasingly favored in utility-scale and government-backed projects . Four decades of engineering credibility: the role of SMA With 40 years of market presence , Germany-based SMA has built its reputation not on volume, but on engineering reliability, system robustness and long-term vision . In the new energy paradigm, companies with this profile play a strategic role: supplying mission-critical infrastructure supporting national-scale projects operating at the intersection of energy, digitalization and security SMA’s experience in plant control, grid integration and large-scale storage positions the company as part of the energy backbone , rather than merely an equipment supplier. Energy security is also cybersecurity As renewable plants, storage systems and grids become fully connected, energy security and cybersecurity are inseparable . A central question for governments is: How secure are the technologies that underpin national energy infrastructure? Asian vs. European equipment The origin of technology increasingly matters, particularly regarding: cybersecurity standards data governance software transparency regulatory compliance European manufacturers such as SMA operate under strict frameworks for: data protection cybersecurity certification compliance and auditing These factors are especially critical in large-scale public infrastructure and government-led projects . Intelligent grid management: restoring stability in seconds Advanced storage solutions enable: active frequency control voltage restoration within seconds prevention of costly demand spikes intelligent load shifting Charging batteries during low-cost periods and discharging during peak demand improves system efficiency while protecting the grid. For investors, this means risk mitigation .For governments, it ensures continuity of essential services . Energy, society and the role of government Power outages are not merely technical failures. They directly impact: healthcare systems water supply transportation communications public safety Energy disruptions amplify social vulnerability. Governments therefore play a crucial role by: planning long-term resilient infrastructure enforcing strict security standards treating energy as a strategic national asset A successful energy transition must be built on reliability, security and technological governance . EnergyChannel Insight Energy storage has moved beyond trend status; it is now a foundational requirement . In a world that is increasingly electrified, digital and interconnected, clean energy without security is not enough . The convergence of storage, intelligent control and cybersecurity will determine which nations are prepared for the next economic cycle — and which remain exposed. What to watch next Expansion of public policies focused on energy storage Cybersecurity requirements in auctions and concessions Consolidation of suppliers with proven engineering track records Energy security in the renewable era: why energy storage is the foundation of 24/7 clean power

In recent days, the Northern Hemisphere has faced devastating snowstorms, record-breaking temperatures, and even deaths linked to extreme cold. In a previous column, I wrote that this type of event is a consequence of global warming. Since then, I have received criticism from readers who consider this statement incoherent. After all, how can the planet be warming while experiencing historic freezes? The Northern Hemisphere and the Winter of Global Warming: Between Snowstorms, Ocean Currents, and the Future of the World Economy I am an economist by training, not a climatologist. Biology and physics were never my strongest subjects. But by choosing to defend this issue, I feel compelled to dive into the scientific literature to deliver a message that is honest, free from ideological bias, and grounded in science. Science, after all, is not ideological it is a method of investigation that seeks to understand reality through observation, experimentation, and validation. Being a climate scientist is a harsh vocation. It means watching the world deteriorate, seeing models confirm bleak scenarios, and still facing a polarized society that insists on denying evidence. My admiration for these professionals is profound. They validate simulations, refine methodologies, and provide early warnings that are, unfortunately, often ignored. The core of this discussion is the AMOC (Atlantic Meridional Overturning Circulation), an ocean current system that functions as the heart of the global climate system. In simple terms, we can imagine the planet as a human body: just as blood circulation keeps organs alive, ocean currents transport heat and nutrients, regulating the global climate. The AMOC, in particular, carries warm Atlantic waters northward and returns cold waters southward. This movement is sustained by thermohaline circulation, which depends on water temperature and salinity. The problem is that the accelerated melting of glaciers releases massive amounts of freshwater into the ocean, altering water density and weakening this flow. It is as if the planet’s heart were beginning to fail. The IPCC, in its 2023 report, already warned of signs of a potential collapse. Recent studies reinforce this concern. The Hollywood film The Day After Tomorrow dramatized this scenario, depicting a sudden and catastrophic freeze. While the movie exaggerates the speed of events, the scientific logic behind the plot is real: a collapse of the AMOC could trigger a new glacial era. It is worth remembering that ocean gyres follow distinct circular patterns: counterclockwise in the Northern Hemisphere and clockwise in the Southern Hemisphere, due to the Coriolis force. Currents such as the Gulf Stream, the Humboldt Current, and the Brazil Current illustrate how oceans directly influence climate, shaping winds, rainfall, and temperatures. Unfortunately, the environmental agenda has been held hostage by the interests of the oil industry, geopolitics, and trade wars. Never before have we had so much technology to solve our problems and yet, paradoxically, we often use it to create new ones. The Organisation for Economic Co-operation and Development (OECD) projects that climate change impacts could drastically reduce global GDP, with devastating effects on agriculture, forests, and regions vulnerable to sea-level rise. The risk is real and greater than previously anticipated. It is essential to distinguish between weather and climate. Weather refers to short-term conditions, such as a snowstorm. Climate refers to long-term patterns, which clearly show a trend of global warming. The weakening of ocean currents is driven by our greenhouse gas emissions. Natural causes do exist, but they operate on cycles lasting thousands of years. We are accelerating this process into centuries perhaps even decades. It is like being on a plane in free fall: everyone can see the ground approaching and the control panels flashing warnings, yet many choose denial. If, fifty years from now, someone reads this article and says I was wrong, it will be a victory. It will mean we overcame intolerance, doubt, and denialism. But if scientific warnings continue to be ignored, the point of no return will draw ever closer. The solution lies in the energy transition. This is the banner I defend: replacing fossil fuels with renewable sources, investing in efficiency, expanding distributed generation, and betting on batteries and smart grids. The energy transition is not merely an economic agenda — it is the primary way to mitigate the effects of climate change. I conclude with a reflection: we are facing a civilizational choice. We can continue to deny reality, trapped by short-term interests, or we can act with courage and responsibility. The future is not a distant abstraction; it is being shaped right now. And if we fail to change course, the day after tomorrow may arrive much sooner than we imagine. Renato Zimmermann Sustainable business developer and energy transition activistContact: rena.zimm@gmail.com The Northern Hemisphere and the Winter of Global Warming: Between Snowstorms, Ocean Currents, and the Future of the World Economy

By Laís Victor – Renewable Energy Specialist and Executive Director of Partnerships The energy transition has definitively moved beyond an environmental or technological debate. It has become one of the main drivers of the global reorganization of economic power. Clean energy now represents influence, industrial competitiveness, energy security, and the ability to shape international regulatory standards. In other words, it has become synonymous with power. The New Geopolitics of Clean Energy: Is Brazil Ready to Compete for Leadership or Will It Continue Exporting Potential? In this new geopolitical landscape, countries that have understood this shift are advancing in a coordinated manner, integrating energy, industry, innovation, and foreign policy. Others, even those endowed with extraordinary natural advantages, still operate under fragmented and reactive frameworks. This is precisely where Brazil must take a more strategic look at itself. Brazil has sun, wind, land, scale, and one of the cleanest electricity matrices in the world. But the central question is no longer whether we have potential. The question that truly matters is this: are we transforming this abundance into economic and geopolitical leadership, or will we once again settle for exporting potential while others capture value, technology, and power? Clean Energy as an Instrument of Global Power The global race for clean energy is not driven solely by climate commitments. It is a response to an increasingly unstable world marked by trade disputes, geopolitical tensions, and the restructuring of global value chains. Cheap, secure, low-carbon energy has become a prerequisite for reindustrialization, investment attraction, and strategic autonomy. According to IRENA, renewable sources accounted for more than 92% of global electricity capacity expansion in 2024 a historic record that confirms the transition has moved from promise to concrete reality. This shift is accompanied by unprecedented capital flows: BloombergNEF data show that global investments in the energy transition reached approximately USD 1.77 trillion in 2023 and exceeded USD 2 trillion in 2024. More important than volume, however, is where this capital is going. The United States, the European Union, and China are not investing only in renewable generation. They are building complete industrial value chains, internalizing technology, protecting strategic markets, and defining standards that are likely to become global. The U.S. Inflation Reduction Act allocated over USD 369 billion to green industrial incentives. The European Union has set explicit targets for domestic clean technology production. China has consolidated its global leadership in the manufacturing of solar panels, batteries, electrolyzers, and wind equipment. Reports from the International Energy Agency show that these countries dominate not only generation capacity, but also the industrial command of the transition. In this context, clean energy has ceased to be merely an input. It has become an instrument of economic and diplomatic power. Those who control technology, manufacturing, and financing define the rules of the game. Those who only supply energy or raw inputs remain on the periphery of decision-making. Brazil at the Center of the Map — and at a Crossroads Brazil occupies a singular position in this dispute. Few countries combine an abundance of renewable resources, territorial scale, a significant domestic market, and consolidated experience in operating complex power systems. According to EPE, Brazil’s electricity matrix has reached nearly 90% renewable participation in recent years — far above the global average. In wind energy, Brazil ranks among the world’s top five markets, while solar energy continues to grow rapidly, especially in distributed generation, according to ABEEólica and ABSOLAR. Despite these structural advantages, Brazil still operates under a predominantly sectoral logic. We expand installed capacity, celebrate generation records, and attract relevant infrastructure investments. All of this is necessary — but insufficient. What is missing is a clear strategy to convert this energy advantage into industrial, technological, and geopolitical leadership. The risk is familiar and historical: exporting natural resources with low value capture. Now, under a new guise — exporting clean energy, green hydrogen, or derivatives, while importing electrolyzers, batteries, inverters, digital systems, and know-how. Exporting Energy or Exporting Intelligence? The central question facing Brazil is straightforward: do we want to be an efficient exporter of clean energy, or an industrial leader in the low-carbon economy? The world is not looking only for renewable electricity. It is looking for decarbonized industrial products, sustainable value chains, certifications, technology, and predictability. IRENA reports indicate that countries with abundant clean energy tend to position themselves as exporters of low-carbon hydrogen. However, the agency itself warns that without an associated industrial policy, these countries become locked into a low-value model: exporting molecules while importing technology. This risk becomes even clearer when observing the concentration of global value chains. OECD data show that more than 70% of global manufacturing of solar and battery equipment is concentrated in Asia. Those who fail to internalize technology capture only a fraction of the economic benefits of the transition. Leadership, therefore, does not arise from natural potential alone. It is built through strategy, institutional coordination, and political decision-making. Brazil’s Bottleneck: Systemic Coordination and Infrastructure There is another point rarely discussed outside technical circles, yet central to Brazil’s energy future: the lack of systemic coordination between renewable expansion, transmission, flexibility, and storage. The rapid growth of intermittent sources is already placing pressure on Brazil’s power system. ONS has signaled increasing operational challenges, including grid constraints and curtailment events. CCEE data also point to higher price volatility during certain periods, reflecting the absence of adequate flexibility mechanisms. Without coordinated investment in transmission, storage, and grid digitalization, Brazil risks turning energy abundance into economic inefficiency. Energy without flow, flexibility, or proper price signals does not generate power — it generates waste. The Role of the State: Coordination, Not Substitution In this context, the debate over the role of the State must be elevated. This is not about intervention versus market. It is about strategic coordination. The energy transition is capital-intensive, technology-driven, and long-term by nature. It requires regulatory stability, clear economic signals, and integration across public policies. Major economies have understood that clean energy is industrial policy, innovation policy, and foreign policy. In Brazil, fragmented policies, frequent rule changes, and the absence of a long-term integrated vision still prevail. Without coordination, the market advances in a disorganized manner, opportunities are lost, and the country remains trapped in a model of quantitative leadership rather than qualitative leadership. Three Strategic Choices for Brazil If Brazil wants to compete for real leadership in the new geopolitics of clean energy, three strategic choices must be made clearly: Industrial policy for key technologies Electrolyzers, storage systems, power electronics, grid digitalization, and energy software cannot be treated as peripheral items. Infrastructure and flexibility as national priorities Transmission, storage, and power system modernization are prerequisites for turning abundance into competitiveness. Active international engagement Brazil must participate in defining standards, certifications, and agreements for the green economy, rather than remaining a rule-taker. The Future Is Already Being Disputed The new geopolitics of clean energy is already underway. Value chains are being structured now, standards are being defined now, and capital flows are being contracted now. IRENA is clear: success in the transition depends less on the availability of natural resources and more on institutional capacity to convert them into development, innovation, and competitiveness. Brazil has resources, scale, and accumulated knowledge. What is still missing is turning energy into strategy. Because in the world that is emerging, leadership does not belong to those with the most sun or wind it belongs to those who understand that energy is, above all, power. About the Author Laís Victor is a renewable energy specialist and Executive Director of Partnerships, with over 15 years of experience in the energy sector. She works in business development, strategic alliance structuring, and investment attraction for energy transition projects, focusing on governance, systemic integration, and continuous monitoring of regulatory, operational, and market developments in Brazil and internationally. The New Geopolitics of Clean Energy: Is Brazil Ready to Compete for Leadership or Will It Continue Exporting Potential?

EnergyChannel Special Series | Artificial Intelligence: Everything We Need to Know Why understanding how artificial intelligence algorithms work matters To many people, AI looks like magic. Understanding how artificial intelligence algorithms work helps demystify the technology and set realistic expectations about what AI can and cannot do. Behind every intelligent system are mathematics, statistics and data. What algorithms are and why they power artificial intelligence Algorithms are logical instructions designed to solve problems. In AI, they analyze data, detect patterns and generate outputs. Understanding how artificial intelligence algorithms work means recognizing that intelligence is engineered, not spontaneous. How artificial intelligence algorithms work in practice In real-world applications, AI algorithms follow three core steps: Data input Mathematical processing Output or decision Better data usually leads to better performance. Machine learning and self-improving algorithms A key part of how artificial intelligence algorithms work is machine learning. Instead of fixed rules, systems learn from examples and adjust themselves over time. This training process allows continuous improvement. Algorithms do not think they calculate AI algorithms do not reason or understand meaning. They calculate probabilities based on patterns. Understanding how artificial intelligence algorithms work prevents confusion between human intelligence and machine computation. Where artificial intelligence algorithms are used today AI algorithms power: Recommendation engines Speech and image recognition Medical analysis Financial forecasting Industrial automation Each application follows the same fundamental logic. The limits of how artificial intelligence algorithms work Algorithms reflect the data they are trained on. Biased data leads to biased outcomes, reinforcing the need for transparency and oversight. Algorithms enhance humans, they do not replace them Artificial Intelligence extends human capabilities but does not replace human judgment. Algorithms are tools responsibility remains human. 🇺🇸 EP3 – Artificial Intelligence is not magic: how artificial intelligence algorithms work

By EnergyChannel | January 30, 2026 Global oil markets remain under pressure as prices hover near multi-month highs, driven by growing geopolitical tensions in the Middle East and renewed concerns over a possible U.S. military action against Iran. Even without a confirmed escalation, the prospect of supply disruptions is enough to keep traders, investors, and energy companies on alert. Oil Prices Rise on Geopolitical Risk as Markets React to Potential U.S. Action Against Iran Oil Markets Price in Risk Premium Brent crude futures climbed above the US$70 per barrel level, marking their strongest performance since mid-2025. U.S. benchmark West Texas Intermediate (WTI) also posted solid gains, positioning January as one of the strongest months for oil prices in more than two years. Market analysts note that the current rally reflects not only fundamentals but also a geopolitical risk premium being rapidly incorporated into prices. In highly interconnected energy markets, expectations alone rather than confirmed events often drive short-term price movements. Middle East Tensions Drive Volatility The main source of uncertainty stems from increasingly firm rhetoric from Washington regarding Iran’s nuclear program. Statements from U.S. officials have revived speculation about targeted military actions should diplomatic talks fail to progress. For oil markets, the concern is less about the scale of a potential strike and more about its consequences. Any disruption involving Iran raises immediate fears about the Strait of Hormuz , a strategic chokepoint through which roughly 20% of global oil trade flows. Even temporary disruptions or heightened security risks in the region could significantly impact global supply chains. Analyst View: Limited Action, Significant Impact Several financial institutions believe that a large-scale conflict remains unlikely. The prevailing expectation among analysts is that any U.S. or allied action would be limited and carefully calibrated , designed to apply pressure without triggering a broader regional war. However, energy markets tend to react disproportionately to uncertainty. According to EnergyChannel’s analysis, even a controlled military scenario could push oil prices higher in the short term, as traders hedge against risks such as export restrictions, shipping delays, or retaliatory measures affecting infrastructure. Market Fundamentals Add to the Pressure Geopolitics is not the only factor supporting higher prices. Oil markets are also absorbing the effects of: Temporary production issues in key producing regions; Seasonal maintenance at major refineries; Continued production discipline by OPEC+ members. Together, these elements have tightened supply expectations at a time when global demand remains resilient, particularly across Asia and emerging markets. As a result, Brent crude is on track to post monthly gains exceeding 15% , while WTI is approaching similar levels—an unusual performance for the start of the year. Broader Impacts on the Energy Sector Rising oil prices have broader implications across the global energy landscape: Increased fuel costs place pressure on inflation and transportation sectors; Energy-intensive industries face higher operational expenses; Governments may revisit energy security strategies and fuel subsidy policies; Investors reassess risk exposure in fossil fuels, renewables, and storage technologies. For energy companies, the current environment reinforces the importance of risk management, diversification, and long-term planning amid a volatile geopolitical backdrop. EnergyChannel Perspective From an EnergyChannel standpoint, the current oil rally highlights a structural reality of global energy markets: geopolitics remains one of the most powerful price drivers , often outweighing short-term supply and demand data. While the energy transition continues to gain momentum worldwide, oil markets remain highly sensitive to instability in key producing regions. Until alternative energy systems fully scale and reduce dependence on critical oil routes, episodes like this are likely to remain part of the market cycle. Conclusion As negotiations between the U.S. and Iran unfold, oil markets are expected to remain volatile. Even without confirmed military action, the possibility of disruption in the Middle East is enough to sustain elevated prices and cautious sentiment. For investors, policymakers, and energy professionals, the message is clear: geopolitical risk is once again a central factor shaping global energy prices in 2026 . Oil Prices Rise on Geopolitical Risk as Markets React to Potential U.S. Action Against Iran

What was once seen as an environmental add-on is now emerging as a strategic asset for solar developers, investors and utilities Native Vegetation Is Redefining Rural Solar Projects Cutting Costs, Boosting Performance and Winning Local Support As utility-scale solar continues to expand across rural landscapes, technical feasibility is no longer the only hurdle. Social acceptance, long-term operational costs and climate resilience have become decisive factors in project viability. Increasingly, a seemingly simple design choice is reshaping this equation: the integration of native perennial vegetation into solar plants and grid infrastructure. Far from a cosmetic or symbolic sustainability measure, native groundcover is proving to be a data-backed solution that delivers lower operating expenses, higher energy yields, stronger infrastructure resilience and reduced community opposition. Across multiple regions, projects that work with local ecosystems rather than against them are demonstrating measurable economic and operational advantages. The hidden financial cost of ecological neglect Ignoring nature-based solutions often creates long-term financial liabilities that rarely appear in initial project budgets. Soil degradation, runoff pollution, erosion and biodiversity loss tend to surface later as regulatory challenges, infrastructure repairs and social backlash all of which translate into higher costs and delayed returns. International case studies show that the removal of native vegetation near critical infrastructure has led to contaminated water sources, accelerated erosion and the need for costly remediation projects. These expenses disproportionately affect rural communities and increase political resistance to new energy developments. For solar projects, failing to integrate ecological resilience into site design increases operational risk, regulatory exposure and community opposition , directly impacting project bankability. Lower O&M costs, higher energy output From a technical perspective, native low-growing vegetation delivers clear performance benefits. Unlike gravel or conventional turfgrass, native plants create a cooler and more stable microclimate beneath photovoltaic modules . Through natural shading and evapotranspiration, ground temperatures drop and soil moisture improves — conditions that directly enhance PV efficiency. Field comparisons indicate that solar arrays installed over native vegetation can achieve energy generation gains of up to 10% , particularly in hot and dry climates. At the same time, maintenance requirements fall sharply. Native habitats require minimal mowing, no chemical fertilizers and far less mechanical intervention. Over a 20-year project lifecycle, maintenance costs per acre with native vegetation can be several times lower than traditional grass cover. For large-scale solar plants, this represents millions of dollars in cumulative O&M savings. Deep roots, stronger infrastructure Soil stability is a foundational element of grid resilience. Native perennial plants develop deep, fibrous root systems that act as natural soil reinforcement. These roots significantly improve water infiltration, reduce runoff and stabilize slopes around solar foundations, access roads, substations and transmission corridors. As extreme weather events become more frequent, this form of biological soil engineering helps protect critical infrastructure from erosion, flooding and structural failure — delivering resilience at a fraction of the cost of conventional civil works. From land conflict to shared value with farmers Roughly 70% of utility-scale solar projects are built on agricultural land , making land-use conflict one of the sector’s biggest challenges. However, when solar sites incorporate pollinator-friendly native habitats , the relationship with surrounding farms can shift dramatically. Native flowering plants support bees and other pollinators essential to agricultural productivity. Research shows that crops grown near restored habitats can see yield increases of up to 20% in pollinator-dependent agriculture. At scale, this translates into hundreds of millions of dollars in indirect value for farmers. Instead of competing with agriculture, solar plants become ecological partners , supporting food production while generating clean energy. Reduced legal risk and greater investor confidence Local opposition is a major cause of project delays, legal disputes and even cancellations. Permitting challenges and environmental lawsuits increase development timelines and erode financial predictability a key concern for investors. By integrating native vegetation from the outset, developers can significantly reduce social resistance, strengthen environmental licensing processes and align projects with ESG requirements demanded by global capital markets. The result is greater certainty, faster deployment and stronger long-term asset performance . A strategic decision, not an aesthetic one From the EnergyChannel perspective, the conclusion is clear: vegetation management has become a strategic lever for solar project success . Native groundcover is no longer just about sustainability branding it is a proven tool for cost reduction, energy optimization, climate resilience and community engagement. As the solar industry matures, projects that embrace nature-based solutions will set a new standard for performance and acceptance. Those who move early will capture not only more energy, but also greater financial stability and long-term value . Native Vegetation Is Redefining Rural Solar Projects Cutting Costs, Boosting Performance and Winning Local Support