Forschungszentrum Jülich’s Post

Researchers at the University of Houston, Jackson State University, and Howard University have achieved a major breakthrough in energy storage technology. Their invention, a new capacitor featuring an ultra-thin structure, boasts an unparalleled energy density of about 75 J/cm³, a significant improvement over traditional capacitors. This innovation is detailed in ACS Nano, and utilizes layered polymers combined with oriented 2D nanofillers to achieve these results. This advanced capacitor design has the potential to revolutionize energy storage in various sectors, including medicine, aviation, and electric vehicles. It offers substantial improvements over existing technologies, particularly in enhancing the rapid discharge capability essential for high-power applications. The possibilities for this new technology are endless. #supercapacitors #energy #innovation #energyresearch #ACS_Nano https://lnkd.in/gSNWAMGF

Whether for biological production of hydrogen or solar conversion of light to electricity, electrons are arguably the most basic currency of energy transformation. NREL’s Advanced Spin Resonance Facility has electronic paramagnetic resonance spectrometers that peer into the mysteries of an organism at the electron level. Researchers can probe subatomic, electronic, and magnetic properties of biological chemical materials relevant to catalysis, energy transfer, and conversion. Learn more about how this facility is advancing applied R&D of systems for generating sustainable low-carbon fuels, chemicals, and electricity: https://bit.ly/3RBNsiR

"A research team has successfully enhanced the performance and durability of all-solid-state batteries. This breakthrough was made possible through the implementation of a novel approach known as bottom electrodeposition. Their research has been published in Small. Secondary batteries generally rely on liquid electrolytes when used in various applications, such as electric vehicles and energy storage systems. However, the flammability of liquid electrolytes poses a risk of fires. This prompts ongoing research efforts to explore the use of solid electrolytes and the metal lithium (Li) in all-solid-state batteries, offering a safer option. In the operation of all-solid-state batteries, lithium is plated onto an anode, and the movement of electrons is harnessed to generate electricity." #solidstatebatteries #batterytechnology

New strategy for high-performance cathodes in aqueous zinc ion batteries A new strategy was proposed in the field of aqueous zinc-ion battery to help increase the capacity of the cathodes, making them more efficient, according to a recent study published in ACS Nano. "We converted low-valence vanadium into high-valence vanadium in oxides using an electrochemical method," said Prof. Linhua (Steven) Hu from the 中国科学院合肥物质科学研究院 (Hefei Institutes of Physical Science, Chinese Academy of Sciences, who led the team. Aqueous zinc-ion batteries (AZIBs) are a promising technology for large-scale stationary energy storage. To make this technology more viable for commercial use, researchers have developed innovative cathode materials to improve performance. Vanadium oxides (VOx) have been widely considered a favorable option for AZIBs. However, their low electronic conductivity and slow Zn2+ diffusion kinetics have posed challenges in demonstrating the dominance of VOx. In this study, the researchers constructed an in situ electrochemically induced phase transition to obtain high-performance aqueous zinc ion cathode materials. They used a special process to change the structure of a material called V6O13 to V5O12·6H2O when it was first charged. ---This change made the material better at conducting electricity and allowed the zinc ions to move more easily, increasing its ability to store energy.--- The modified material also had spaces that made it easier for particles to move around, and it remained stable over many charging cycles. As a result, the new material could be charged very quickly, had a high energy storage capacity, performed well at high charging rates, and lasted a long time without losing its ability to store energy. ---This new method provides a new direction for solving the challenges in developing high-performance cathodes for AZIBs, according to the team.--- by ZHANG Nannan, Chinese Academy of Sciences

🔋 Revolutionizing Sodium-Ion Batteries: Introducing High-Entropy Sodium Oxide Cathodes! 🔋 Exciting breakthroughs in sodium-ion battery technology are on the horizon! Researchers have developed a high-entropy strategy for sodium oxide cathodes: O3-type layered transition metal cathodes.  This innovative cathode material showcases a transformative approach to energy storage. 🌟 Key Benefits: Fast Na+ Kinetics: Enables quick and efficient sodium ion movement. Minimal Voltage Hysteresis: Less than 0.09V, improving energy retention. Durable: 79.4% capacity retention after 2,000 cycles at high rates. The high-entropy design of this material leads to better diffusivity and reduced phase transition issues, making sodium-ion batteries more effective and durable. 🚀 Join us in exploring how these advancements redefine energy efficiency and sustainability! For more details: https://lnkd.in/gegqcybU #sodiumionbattery #sodiumionbatteries #SIB

🔋 Revolutionizing Sodium-Ion Batteries: Introducing High-Entropy Sodium Oxide Cathodes! 🔋 Exciting breakthroughs in sodium-ion battery technology are on the horizon! Researchers have developed a high-entropy strategy for sodium oxide cathodes: O3-type layered transition metal cathodes.  This innovative cathode material showcases a transformative approach to energy storage. 🌟 Key Benefits: Fast Na+ Kinetics: Enables quick and efficient sodium ion movement. Minimal Voltage Hysteresis: Less than 0.09V, improving energy retention. Durable: 79.4% capacity retention after 2,000 cycles at high rates. The high-entropy design of this material leads to better diffusivity and reduced phase transition issues, making sodium-ion batteries more effective and durable. 🚀 Join us in exploring how these advancements redefine energy efficiency and sustainability! For more details: https://lnkd.in/gegqcybU #sodiumionbattery #sodiumionbatteries #SIB

Energy storage breakthrough: New carbon nanotube wires show record conductivity https://lnkd.in/ebs6hHDX

📢New review paper on gel-based electrochemical energy storage I am happy to see our review article “Functional Gel-Based Electrochemical Energy Storage” now online at Chemistry of Materials (American Chemical Society). This work is a significant leap forward in the field of flexible and wearable electronics, aiming to meet the increasing demand for reliable and safe energy storage devices. 🔋⚡ Our research dives into the fascinating, flexible world of gel polymer electrolytes (GPEs), which (ideally 😉) combine the ionic conductivity of liquid electrolytes with the mechanical stability of solid materials. GPEs are versatile materials in various electrochemical applications, including sensors, actuators, and energy storage devices. These quasi-solid materials can withstand significant mechanical stress, making them ideal for flexible and wearable electronics. 👕 In this review, we explore the potential of GPEs for functional energy storage solutions. Looking ahead, the field is poised to address several challenges and opportunities: 🏁 Enhanced ionic conductivity: Efforts are ongoing to optimize preparation and functionalization methods to boost performance. This includes polymer-salt interactions and the incorporation of advanced nanomaterials. 💪🏻 Mechanical strength and flexibility: The incorporation of nanomaterials and optimized polymer formulations is expected to further improve the mechanical properties of GPEs, making them more robust and durable under various operational conditions. 🦺 Safety and stability: Ensuring thermal and chemical stability under non ambient conditions is critical. This will involve enhancing resistance to thermal and mechanical stress, which is crucial for the safe operation of energy storage devices. 🔗 Interface compatibility: Improved compatibility with existing and emerging electrode materials and a deeper understanding of interfacial processes are necessary to preserve performance and extend the lifespan of devices. Our review highlights these future directions and emphasizes the potential of GPEs to offer efficient, safer, and longer-lasting solutions for energy storage applications. 🚀 Big thanks to our (co)-author Jean Gustavo De Andrade Ruthes, Stefanie Arnold, Kaitlyn Prenger, Ana C. Jaski, Vanessa Klobukoski, and Izabel C. Riegel-Vidotti in this German ⚫🔴🟡 / Brazilian 🟢🟡🔵⚪ collaboration 🌻 Thank you for your support and let's keep pushing the boundaries of science and technology together! 🔬 Here is the link to our publication: 👇🏻👇🏻👇🏻👇🏻👇🏻 https://lnkd.in/e-AXcC6k #research #energystorage #flexibleelectronics #wearabletechnology #supercapacitors #Electrochemistry #batteries #ACS

🔋 Revolutionizing Sodium-Ion Batteries: Introducing High-Entropy Sodium Oxide Cathodes! 🔋 Exciting breakthroughs in sodium-ion battery technology are on the horizon! Researchers have developed a high-entropy strategy for sodium oxide cathodes: O3-type layered transition metal cathodes.  This innovative cathode material showcases a transformative approach to energy storage. 🌟 Key Benefits: Fast Na+ Kinetics: Enables quick and efficient sodium ion movement. Minimal Voltage Hysteresis: Less than 0.09V, improving energy retention. Durable: 79.4% capacity retention after 2,000 cycles at high rates. The high-entropy design of this material leads to better diffusivity and reduced phase transition issues, making sodium-ion batteries more effective and durable. 🚀 Join us in exploring how these advancements redefine energy efficiency and sustainability! For more details: https://lnkd.in/gegqcybU #sodiumionbattery #sodiumionbatteries #SIB

🔋 Revolutionizing Sodium-Ion Batteries: Introducing High-Entropy Sodium Oxide Cathodes! 🔋 Exciting breakthroughs in sodium-ion battery technology are on the horizon! Researchers have developed a high-entropy strategy for sodium oxide cathodes: O3-type layered transition metal cathodes.  This innovative cathode material showcases a transformative approach to energy storage. 🌟 Key Benefits: Fast Na+ Kinetics: Enables quick and efficient sodium ion movement. Minimal Voltage Hysteresis: Less than 0.09V, improving energy retention. Durable: 79.4% capacity retention after 2,000 cycles at high rates. The high-entropy design of this material leads to better diffusivity and reduced phase transition issues, making sodium-ion batteries more effective and durable. 🚀 Join us in exploring how these advancements redefine energy efficiency and sustainability! For more details: https://lnkd.in/gegqcybU #sodiumionbattery #sodiumionbatteries #SIB