With U.S. electricity demand projected to surge by as much as 60% through 2050 to fuel the AI boom—initiating a race against time to build sufficient power generation—the strong old bones of closed or retiring coal plants offer a shortcut to get new power projects online much more quickly. They can skip the two-year queue for high-voltage grid connections—regardless of whether these projects are for gas, wind, solar, geothermal, or even new-age nuclear. ModEnvo Gerard Reid #energy #investment #energytransition #decarbonisation #AI #environmental #policy #development ##netcarbonzero #Technology #renewables #power #fuels #bess #geothermal #hydrogen #hydro #solar #solutions #jobs #social #wind #esgstrategy #esg #nuclear #coal #powerstations
How old coal plants can speed up new power projects
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Pink Hydrogen Market : Powering the Future with Nuclear-Backed Clean Energy 𝐃𝐨𝐰𝐧𝐥𝐨𝐚𝐝 𝐑𝐞𝐩𝐨𝐫𝐭 : https://lnkd.in/dR2D5dT6 (Use Corporate mail ID for Quick Reply) Pink Hydrogen Market is anticipated to expand from $30.0 billion in 2024 to $351.7 billion by 2034, growing at a CAGR of approximately 28.6%. Global Insight Services #Pink_Hydrogen-Market is emerging as a pivotal segment in the global clean energy transition, harnessing nuclear power to produce hydrogen through advanced electrolysis technologies. Unlike other hydrogen variants, pink hydrogen leverages the reliability of nuclear energy, ensuring large-scale, carbon-free production with minimal intermittency. This unique advantage positions pink hydrogen as a critical enabler of decarbonization across multiple industries. The Pink Hydrogen Market focuses on the production of hydrogen via nuclear-powered electrolysis, delivering a consistent, clean, and scalable energy source for diverse applications. #Type : Alkaline Electrolysis – proven and cost-effective method for large-scale hydrogen production. Proton Exchange Membrane (PEM) Electrolysis – offering high efficiency, flexibility, and rapid response to power fluctuations. Solid Oxide Electrolysis – enabling high-temperature hydrogen generation with superior energy efficiency. #Application : Transportation – fueling hydrogen-powered vehicles with zero-emission solutions. Power Generation – integrating hydrogen into grids for clean, reliable electricity. Industrial Feedstock – replacing fossil fuels in refining, chemicals, and steel production. Heating – providing clean energy for residential, commercial, and industrial heating systems. Portable Power – supporting off-grid applications and emergency solutions. Backup Power – ensuring reliable, sustainable energy for critical infrastructure. The pink hydrogen market is gaining global momentum as countries seek energy security, net-zero commitments, and reduced dependency on fossil fuels. Nuclear-powered hydrogen offers unmatched reliability, making it a cornerstone of resilient clean energy systems. Supported by government initiatives, technological advancements, and growing industrial adoption, the market is poised for exponential growth over the next decade. #pinkhydrogen #cleanenergy #nuclearinnovation #greenfuture #energytransition #hydrogeneconomy #sustainablepower #netzero #climateaction #globalenergy 'This image is shared solely for reference. Copyright remains with the original creator(s), and no infringement is intended'.
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"Nuclear. Natural gas. Hydrogen. These three fuel sources have played a starring role in recent discussions about the future of data center power in the U.S. as tech titans scramble to meet AI-driven demand for more compute. But renewable options have been noticeably sidelined after years in the spotlight thanks to sustainability efforts. Amazon (times two), Google and Microsoft all quietly inked power purchase agreements with wind farms over the past few months. But these barely registered. The only real blip on the renewables radar was Google’s big hydropower deal and even that was mostly because it was just something different." #RenewableEnergy #WindPower #Hydropower #SustainableTech #PowerPurchaseAgreements https://lnkd.in/gffvsUJV
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𝑫𝒊𝒇𝒇𝒆𝒓𝒆𝒏𝒕 𝒄𝒐𝒍𝒐𝒓𝒔 𝒐𝒇 𝑯𝒚𝒅𝒓𝒐𝒈𝒆𝒏! I thought H2 as an energy source is classified in just two colors – Blue and Green. But I came across an interesting article from EPC consultant about 𝗳𝗶𝘃𝗲 different colors H2! The color code is related to the method for H2 production. 𝗕𝗹𝘂𝗲 𝗛𝘆𝗱𝗿𝗼𝗴𝗲𝗻: Splitting Natural Gas (mostly methane) into H2 and CO2. The process is Steam Methane Reforming (SMR). CO2 is a by-product but captured through CCS. 𝗚𝗿𝗲𝘆 𝗛𝘆𝗱𝗿𝗼𝗴𝗲𝗻: This one probably has no future, at least no one wants to talk about it. H2 is produced by SMR (like blue hydrogen), but CO2 is not captured. If I am right, most of the current refineries produce grey H2. 𝗚𝗿𝗲𝗲𝗻 𝗛𝘆𝗱𝗿𝗼𝗴𝗲𝗻: Splitting water into H2 and O2. The process is electrolysis. The Source of electricity is a combination of renewables like solar and wind. 𝗬𝗲𝗹𝗹𝗼𝘄 𝗛𝘆𝗱𝗿𝗼𝗴𝗲𝗻: Similar to Green H2 but the electricity source is only solar (not a combination of other renewables). 𝗣𝗶𝗻𝗸 𝗛𝘆𝗱𝗿𝗼𝗴𝗲𝗻: Again, similar to Green H2 but using nuclear energy for electrolysis.
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What do AI and coal have in common? In Trump’s plan, everything. President Trump’s AI Action Plan has tied U.S. energy dominance to artificial intelligence competitiveness, beginning with a $1 billion Hitachi Energy investment in the grid. The policy favors fossil fuels and nuclear over renewables, creating winners and losers across industries. 🔗Read more: https://ow.ly/s8yH50WUqkn #AI #Energy #Infrastructure
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#Tulane University will convene a powerhouse lineup of leading #energy executives, researchers, policy experts and innovators for its second annual Future of Energy Forum, Sept. 10–12, a free three-day event exploring the biggest challenges and opportunities shaping the energy sector in #Louisiana and across the globe. The Forum announced an initial lineup of programming centered on the theme "Powering the Future: Innovation, Competition and Collaboration." Topics include how emerging technologies, rapidly evolving regulations and strategic partnerships are reshaping the energy landscape — from critical minerals and AI data centers to nuclear energy and next-generation grid infrastructure. https://lnkd.in/e8GgE_72
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300MW data center could be built at power station in Metz, France Energy facility is being converted to #biogas A 300MW #datacenter could be set up at a coal-fired #powerplant in Metz, #France, which is being converted to biogas. The data center would be built at the Saint-Avold #industrial site in the Moselle department, outside Metz in eastern France. It is home to the Émile-Huchet power plant, a coal-fired site that will close in 2026. Operator GazelEnergie is in the process of #redeveloping the #powerstation so that it runs on biogas, with a view to it resuming operations in 2027. The plan is for work on the data center to start in 2028, and GazelEnergie executives said they are in discussions with potential partners about #investing in the scheme. The site is already home to a battery storage facility of 35MW, and has other backup power and cooling #infrastructure that could speed up any data center development. In comments reported by DCMag, Antonin Arnoux, director of the Saint-Avold site, said: “There is land, good infrastructure, including important connections to the electricity #transmission network, all of which ticks the boxes of what a data center needs. It needs space and low-carbon energy.” France is in the midst of an #AI data center build-out, and co-locating #digitalinfrastructure with power plants is an idea floated by state-backed energy firm EDF last year. In March, it followed this up with a call for expressions of interest from firms interested in developing on its land. This week, data center firm Data4 announced it had agreed to offtake 40MW of nuclear power from EDF to serve its facilities in France. https://lnkd.in/eXU_rtGU
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The next big #climate unicorn isn’t solar or nuclear—it’s #geothermal. Bill Gates-backed Fervo Energy is drilling deep to light up 180,000 homes with nonstop clean power. #energy #futuretech #climatetech #geothermal https://lnkd.in/eiWtDxEZ
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Hitachi Energy is expanding the capability for transformers in #Virginia to power future U.S. data centers. Caveat, per Steven Dickens (HyperFrame Research): “The longer-term power implications [of more data center development] for local communities are less transparent, and many areas will need significant investment in power generation infrastructure to keep up with rampant demand. The US will need to invest in natural gas, and more pertinently, nuclear, to keep up.” (Comment: these concerns may drive the resistance in some communities where data centers are planned or under construction.) https://lnkd.in/gJeNQgX9?
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Basic Energy Facts The following information should support an understanding of the transition to renewable energy. All energy except for nuclear energy and energy from the Earth's core comes from the sun. For this discussion we will talk about solar energy. When the sun shines it provides light for our daily activities and heats the atmosphere to keep us warm. This energy is used as soon as it reaches the Earth. Nature can save energy for times when the sun is not available. It accomplishes this through a process known as photosynthesis. Photosynthesis combines energy from the sun with CO2 to create compounds that can later be used to release the stored energy. Regarding a annual cycle plants absorb energy and CO2 and release it at another time.. In other words, we grow corn in the spring and summer we use it in the fall and winter to provide the energy we need until we can start the next crop of corn. The energy cycle for trees is a lot longer. They absorb CO2 and create compounds which might release the energy up to 100 years later and in the process releasing the CO2 captured earlier. Fossil fuel energy is CO2 and sunlight that was absorbed millions of years ago. We use it today to create energy and in the process release CO2. Solar panels convert the energy from the sun to electricity which must be used immediately or stored for future use. Wind turbines or hydroelectric turbines convert the kinetic energy of moving air or falling water to electricity which again must be used immediately. We have the capacity to store energy in several ways. One way is with batteries which involve a fairly short cycle between creation and consumption. Hydroelectric facilities can lengthen the storage cycle to a year or several years in some cases. Rainfall follows an annual cycle with most of the rain in the winter months. In order to use the rain that fell in the winter months during the summer the water is stored behind dams which can then be released according to the demand for electricity. Some people point out that wind and solar cannot create energy when the sun doesn't shine or the wind doesn't blow. This is true but the cycles can be balanced by the use of hydroelectric which has a much longer cycle and is very efficient as a storage mechanism. Over the long run fossil fuels may also be used to balance out supply with consumption but will be used in much smaller proportion than it is today. Over the long run backup supply may also be provided by nuclear energy https://lnkd.in/efZstDjp
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Pioneering a New Era of Fusion Power Helion Energy is advancing one of the most ambitious projects in clean energy with the goal of delivering commercial fusion electricity to the grid by 2028. Unlike conventional fusion machines that rely on massive toroidal magnets, Helion is developing a radically different approach that could transform the global energy sector by providing virtually limitless, zero-carbon electricity at an exceptionally low cost. With this vision, Helion stands at the forefront of a possible new era in power generation. The company’s objective is to build the world’s first grid-connected fusion power plant capable of achieving net-positive energy output and delivering electricity directly to consumers. Backed by over $1 billion in funding and strategic partnerships with major players such as Microsoft and Nucor, Helion is positioning fusion as a scalable and practical solution to global decarbonization. Their cost target of producing electricity at roughly one cent per kilowatt-hour highlights the disruptive potential of their technology. What makes Helion unique is its departure from conventional fusion designs. Instead of the complex and costly infrastructure of tokamaks, Helion employs a linear pulsed system that forms and accelerates plasma rings, known as Field Reversed Configurations, which are then merged and compressed at supersonic speed to reach fusion conditions. Unlike traditional systems that rely on heating water to drive turbines, Helion captures the charged fusion products directly as electricity, avoiding intermediate steps and inefficiencies. Furthermore, the company’s chosen fuel cycle—deuterium and helium-3—produces very few neutrons, dramatically reducing radiation concerns and nearly eliminating the issue of long-lived nuclear waste. At the heart of this approach is a three-step process: the creation and merging of high-energy plasmas, their rapid compression with pulsed magnetic fields, and the triggering of aneutronic fusion reactions. Most of the energy released comes in the form of charged particles, which are harnessed directly by induction coils. To ensure a steady fuel supply, Helion also produces helium-3 on-site through side reactions of deuterium and the decay of tritium, addressing one of the major challenges of aneutronic fusion. If successful, the implications for the clean energy sector are profound. Fusion promises an inexhaustible supply of power derived from readily available resources, without carbon emissions or the environmental challenges associated with fission. Helion’s technology could deliver the kind of reliable baseload power needed to decarbonize heavy industries such as steelmaking and to meet the growing demands of data centers. With minimal neutron emissions and inherent safety features that allow for immediate shutdown, the regulatory environment is likely to be far less stringent than that of traditional nuclear power, enabling faster deployment and reduced costs.
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The key is to use those interconnections successfully to repower with more efficient and more clean energy resources