Adam Szabo’s Post

🚀 New Release: Norway 🇳🇴 Energy Storage Outlook 🌍 We are excited to present Sustainable Energy Analytics' latest report on the future of energy storage in Norway. Norway is set to revolutionize energy storage solutions with its rich hydropower heritage and pioneering spirit. 🔑 Key Insights: Hydropower as Energy Storage: Leveraging Norway's reservoirs as natural batteries to maintain grid stability. Battery Boom: From repurposed EV batteries to the rise of new giga-scale battery factories. Hydrogen Potential: Pioneering green hydrogen initiatives to complement existing renewable energy sources. Sustainability Focus: Strong collaborations in research and development drive efficiency and innovation. This report dives deep into how Norway’s advanced technologies and strategic investments will shape the future of sustainable energy storage globally. 📘 Download the report and learn more: [link] #EnergyStorage #Norway #Sustainability #RenewableEnergy #GreenHydrogen #BatteryStorage #SustainableFuture

Blog 2 Part 2 A System of Systems: How IES Works At its core, an Integrated Energy System brings together multiple energy sources and subsystems— such as solar panels, hydrogen hubs, and battery storage—to create a flexible and efficient energy network. This system-of-systems approach allows for smart resource optimization. For example, when the sun isn't shining, the system can switch to stored energy or another renewable resource, ensuring continuous, efficient power with minimal waste. In Voltage Valley, this approach is already being applied to industrial complexes, manufacturing plants, and community infrastructures, ensuring the region's energy needs are met with minimal transmission losses and maximum sustainability. Integrated Energy Systems in Appalachia: A Tailored Solution The unique geography and industrial needs of Greater Appalachia make IES an ideal solution for the region's energy challenges. In an area historically dependent on coal and heavy industry, the shift to clean energy isn't just an environmental necessity—it's an economic imperative. IES is location dependent, meaning each system is custom-built to leverage the region's natural resources— solar, wind, or hydrogen. Why Voltage Valley Needs IES The Voltage Valley Revolution is more than just a shift in energy generated—it's a comprehensive transformation of how we think about power, industry, and sustainability. IES allows Appalachia to take advantage of new technologies while addressing past inefficiencies. By cutting down on line losses, promoting clean energy, and supporting advanced manufacturing, IES is helping to create a more sustainable and resilient future for the region. In conclusion, as Voltage Valley grows as a hub of clean energy and advanced manufacturing, Integrated Energy Systems will be essential for reducing energy losses and building a sustainable future. Appalachia is once again on the front lines of an industrial revolution, and this time, it's powered by a more innovative, greener approach to energy. Join the Voltage Valley Revolution and learn how Integrated Energy Systems shape a cleaner, more efficient future. #VoltageValleyRevolution #IntegratedEnergySystem #CleanEnergy #Sustainability #EnergyEfficiency #GreenEnergy #AdvancedManufacturing #GreaterAppalachia #EconomicResilience #IES #HydrogenEnergy #Innovation

Here is your daily dose of renewable energy: New materials being developed for use in solar energy - Van der Waals Heterostructures: Van der Waals heterostructures are composed of layered two-dimensional materials held together by van der Waals forces. These structures can be engineered to create new materials with unique properties, such as enhanced light absorption and improved efficiency in solar cells. Follow for more ☀️ #renewableenergy #energy #material #newmaterials

Texas startup delivers landmark results with ‘earthen’ battery technology: ‘The opportunities … are significant’ Field tests from 2022 to 2023 demonstrated that Sage’s system, marketed as EarthStore, can provide more than 18 hours of energy storage, with the ability to give 24/7 power “when paired with solar or wind generation,” a news release on the results stated. The water is pumped underground by energy bought from the grid (the video clip shows wind turbines supplying the juice) when there’s a glut of electricity. The water is stored below until it is needed. Sage has a couple of variations of the tech. One version with deeper wells uses heat to help push the water to the surface and is more efficient. EarthStore is what the company calls its “mechanical” version of the concept, which boasts a still impressive efficiency rate of 70%, all according to the clip. https://lnkd.in/gd_M4uD3 https://lnkd.in/gVg4j4bx #carbonneutral #renewableenergy #geothermal #baseloadpower

We are delighted to announce that our recent paper entitled "Exploring synergistic ecological and economic energy solutions for low-urbanized areas through simulation-based analysis" has been published. Researchers who are interested in Hybrid Renewable Energy Systems can read and enjoy through this link: #renewableenergy #research #paper #energymanagement

🔋 Exploring the World's 5 Largest Batteries On our latest adventure into the vast expanse of energy storage, we stumbled across some truly colossal titans. These aren't just batteries; they are a peek at what is possible, ensuring energy demands, stabilizing power grids, and optimizing renewable energy use. Not to keep you in suspense any longer, here are the current (because things are changing fast ⚡️) largest batteries mankind has to offer: 1️⃣ The Edwards & Sanborn Solar Plus Storage Project (California, USA)  2️⃣ Moss Landing Energy Storage Facility (California, USA)   3️⃣ The Dalian Flow Battery Energy Storage Peak-Shaving Power Station (Liaoning, China)   4️⃣ Pacific Gas & Electric (PG&E) Battery Energy Storage (BESS) Elkhorn Battery Project (California, USA)  5️⃣ The Victorian Big Battery (Victoria, Australia) Each of these behemoths isn't just a technological marvel; they're beacons of hope for a sustainable future. Craving more? Get further insights about the world's 5 largest batteries and what they are capable of: https://lnkd.in/eYsmyWEs If this post has sparked your curiosity, light up that Like button and follow us for more awesome science! ✔️ ℹ️ Follow the hashtag #ACoffeeWithQuantistry ☕️ and never miss any news from us. #battery #energy #research #science #technology

The Versatile Uses of Tungsten 🍃Green Energy In green energy technologies, amoungst others, tungsten is used in wind turbines and solar panels. Its resilience and efficiency in energy conversion make it essential for sustainable energy solutions. The Science Behind It: 🔵 Resilience: Tungsten's strength and durability make it ideal for components exposed to harsh environmental conditions. For example, tungsten is used in the blades and structural components of wind turbines, where it can withstand high winds and other severe weather conditions. 🔵 Efficiency: Tungsten's properties enhance the efficiency of energy conversion in wind and solar power systems. In solar panels, tungsten is used in the coating of photovoltaic cells to improve their efficiency in converting sunlight into electricity. 🔵 Sustainability: Tungsten's use supports the growth of renewable energy technologies. Its durability reduces the frequency of replacements and maintenance, leading to more sustainable and cost-effective energy solutions. 📊 Interesting Stat: Tungsten components can increase wind turbine efficiency by up to 20%, significantly enhancing energy output by reducing mechanical wear and extending the lifespan of critical components. #GreenEnergy #RenewableEnergy #Tungsten #WindPower #SolarPower #SustainableInnovation

In projects like these, the full versatility of our wide delivery range comes into play. 🤩🫶🏻💚🩷🤍🌱🌎🍀💫⚡️💪🏻🏗️👷👷🏼♂️🦺🔋💡🔌🇲🇽 #rehau #rehauindustries #rehaubuildingsolutions #rehauglobal #geothermal #sustainability #engineeringprogress #enhancinglives #ecoefficiency #energysupply

When it comes to sorting through the many energy transition technologies out there, it can definitely be overwhelming. NEAH: New Energy Advancement Hub's #ET_Fundamentals_by_NEAH series aims to simplify this by breaking it down in a structured way. One way to categorize these technologies is by looking at whether they're implicitly green (meaning they don't rely on hydrocarbons), or explicitly green with a focus on hydrocarbons but also mitigating carbon emissions. Implicitly green technology relies primarily on renewables such as solar, wind, hydroelectric, and geothermal energy, freeing itself from dependence on fossil fuels, while explicitly green technology incorporates hydrocarbons with carbon solutions. We should note, however, that despite their eco-friendliness, implicitly green tech still bears carbon footprints in the supply chain (such as solar cell manufacturing) and faces challenges such as capacity factors, operational hurdles, limitations on their feasibility and scalability. Nevertheless, these technologies contribute negligible greenhouse gas emissions compared to conventional fossil fuel-based energy sources. Moreover, technological advances and evolving market designs offer hope.  Either way, this dichotomy remains an issue for policy design, financial incentives, and resource allocation. Tough choices need to be made! #NEAH_sustainablefacts #EnergyTransition #EnergyTechnology #GreenEnergy #RenewableEnergy #SolarPower #WindEnergy #Hydroelectric #Geothermal #CarbonMitigation #FossilFuels #EcoFriendly #Sustainability #ClimateChange #TechnologicalAdvances #PolicyDesign #FinancialIncentives #ResourceAllocation

Power-to-x facilities can be integrated into the future energy system with sufficient flexibility to balance optimally between the fluctuating renewable energy and the dynamics on the demand side. That was one of the key messages made by Gunnar Rohde, senior specialist at Teknologisk Institut, in his status update on the project DynFlex yesterday at this year’s general assembly for MissionGreenFuels. - Power-to-x can make an essential contribution to the energy transition by a conversion from a fossil-based to an electrochemical industry. With its modern electricity grid and large share of renewable power, Denmark is one of the key players to pave the way for a power-to-x sector. Due to the economy of scale with such chemical process plants, this also represents a challenging paradigm shift for the Danish energy sector as a whole. It is possible, however, to integrate even large-scale power-to-x facilities in an energy system so they can serve the demand for synthetic chemical energy carriers and raw materials as well as adding the necessary flexibility to the electricity grid to even increase the utilization of renewable power, says Gunnar Rohde. In DynFlex, Teknologisk Institut, together with 18 strong partners, will develop and demonstrate optimal strategies for a flexible operation of power-to-x facilities. With these operating strategies and the test facilities supporting them, the project can help ensure a both effective and efficient integration of even large-scale power-to-x facilities in the energy system with a focus on constructive sector coupling. Read more about the project, which is funded by Innovationsfonden, here: https://lnkd.in/dZ7S-bGi #powertox #greenenergy #DynFlex #energysystem #sectorcoupling #energyflexibility #greentransition 2-Control, Dynelectro, EMD International A/S, Energicenter Nord, ENFOR A/S, Green Hydrogen Systems, Skovgaard Energy, DTU - Technical University of Denmark, Syddansk Universitet - University of Southern Denmark, Aalborg Universitet, Alexandra Institute, Copenhagen Infrastructure Partners, EWII, Center Denmark, Aabenraa Havn, European Energy, Energinet