i-battery’s Post

📚 Exciting Announcement: Journal Article on "Divalent Co-Dopant's Role as Structure Stabilizer in Scandia-Stabilized Zirconia Electrolyte for SOFC" 🚀 Thrilled to share my recent publication in the Journal of the Electrochemical Society, exploring the impact of divalent cations' atomic size on ionic conductivity and long-term aging in scandia-stabilized zirconia electrolytes for SOFCs. These findings open avenues for stable, highly conductive electrolytes, contributing to more sustainable and efficient energy solutions. 🌐💡 🙌 Special thanks to my outstanding team and collaborators for their dedication and expertise in achieving this milestone. 📖 If you're passionate about clean energy and solid oxide fuel cell technology, check out the full article at https://lnkd.in/dhkxkY9T via @ioppublishing Your valuable feedback is always welcome! #FuelCellTechnology #CleanEnergy #ResearchPublication #ElectrolyteInnovation #SOFC #EnergySustainability Let's advance the frontiers of science and technology together! 💼🔍

Here is a compelling hands-on workshop on Electrochemical Energy Storage technologies which is contemporary and brings researchers together. Details in the brochure attached - from an absolutely worldclass faculty.

Dive deeper with us in the second episode of i-Battery's "23 Questions of Vanadium Flow Battery" on YouTube! This time, we're exploring the mechanisms behind all-vanadium flow batteries. #EnergyStorage #VanadiumFlowBattery #IBTR #23Qs https://lnkd.in/dnkmVraC

💡A promising RES Success Story for developing better, sustainable batteries💡 📋 "Optimization of composition and interfacial properties of halide solid electrolytes" led by Javier Carrasco from CIC energiGUNE 🔋The research tackled a crucial challenge in the development of high energy, sustainable solid state #batteries: the compatibility between the anode and the electrolyte They used highly conductive solid electrolytes of the argyrodite family, particularly Li6PS5Cl, and partially substituted the Sulfur with Selenium, increasing its ionic conductivity. However, the effect in the stability of the anode/electrolyte interface was still unknown 🖥 Thanks to RES supercomputer #Calendula from RES node SCAYLE Supercomputación Castilla y León, they could perform complex molecular simulations that unveiled how the selective substitution of anions accelerates the creation of an stable interface, solving compatibility issues 🚀 The results suggest that kinetic factors are key in an anode/electrolyte highly-ordered interface formation, which sets a promising milestone to develop more efficient, reliable and #sustainable batteries

⚡ Revolutionizing #LithiumSulfurBatteries: Ideal Separator Materials Quest from Dr. Ryohei Mori's popular preprint⚙️ 🔍 Explore latest advancements in LSBs, touted as future secondary batteries! Despite potential, they face hurdles from lithium polysulfide shuttle effect. 💡 Review focuses on separator materials and barrier layers' role in mitigating challenges. Discover optimization strategies reshaping LSB technology for enhanced recyclability. 👉 Read more: https://lnkd.in/gtaD799Q 📰 Peer-reviewed article is out in Electrochem MDPI 👏: https://lnkd.in/g_Ctdibc #Electrochemistry #EnergyStorage

I am delighted to my participation in the RSC poster competition, where I am presenting a poster titled "Unraveling the Pseudocapacitive Traits of Two-Dimensional Titanium Carbide as an Electrode Material." This research delves into the unique electrochemical characteristics of two-dimensional titanium carbide, shedding light on its potential as an innovative electrode material. Through meticulous investigation, my work aims to contribute valuable insights to the field of energy storage and advance our understanding of materials with pseudocapacitive behavior. I share our findings with the scientific community and engage in discussions that could shape the future of energy storage technologies. #RSCposter2024 #RSCMat #RSCEnergy

Delighted to share that our recent paper, titled "Efficient #hydrogen splitting via single atom catalysts supported on Zn12O12 nanocage for sustainable clean fuel production" has been published at the International Journal of Hydrogen Energy (Q1 Journal). Hydrogen, as a #renewable_energy source, offers numerous advantages such as high energy density, zero carbon dioxide emissions, lightweight properties, and non-toxicity, making it a promising candidate for future #energy_systems. In many industrial processes, #hydrogen_dissociation reactions play a crucial role. These reactions involve breaking down H2 molecules into reactive hydrogen atoms, which then bind with support materials or catalysts. This enables the storage of significant amounts of hydrogen at low temperatures and pressures. The primary objective of our study is to design first-row transition metals (Sc–Zn) doped zinc oxide (Zn12O12) and investigate their thermodynamic stability, electronic properties, and ability to facilitate hydrogen dissociation reactions through DFT simulations. For more details, the paper is attached.

🔋#Solidstate #sodium-air/O2 #batteries offer a promising alternative to traditional #lithium-ion batteries, overcoming challenges such as limited lithium availability and cobalt scarcity. 🔬Projects such as #OXBLOLYTE seek to develop solid electrolytes to improve their stability and performance, paving the way towards a more 🌱#sustainable and efficient ⚡#energy future. 🆕Today, on CIC energiGUNE's blog, Dr Mohamed Yahia, Postdoctoral Researcher of the Organic and Hybrid Materials research Line delves into the challenges and strategies of this project that represents a crucial step towards the large-scale commercialization of solid-state sodium-air/O2 batteries. 👇👇 https://lnkd.in/d7YgXF9f

🚀 Exciting Breakthrough Alert! Exploring nature-behaviour relationship of carbon black materials for potassium-ion battery electrodes! Federico Bella 🧪 In this groundbreaking study, the authors delve into the essential conductive additives – Super P, Super C65, and Super C45 – unveiling their electrochemical nuances in the realm of potassium-ion battery systems. 🌐 Discover the pseudocapacitive response arising from potassium ion adsorption on their surfaces, and explore surface-dominated reactions through Dunn’s and Trasatti’s methods. 📊 The correlation with surface properties and functional groups is illuminated using X-ray photoelectron spectroscopy. 📚 Ready to explore the forefront of energy storage? Delve into the full research: https://lnkd.in/gPf2ghWW Download the full research: https://lnkd.in/g7J3HTvz #EnergyInnovation #BatteryTech

Happy National Periodic Table Day from #NETL, where breakthroughs in #chemistry are helping advance #CarbonCapture, #CarbonConversion and other technologies critical for a #CleanEnergy economy. What’s your favorite element?