Electrochemical method boosts battery performance and energy density

🎉 Thrilled to Announce Our Latest Publication Acceptance! 🎉 I’m delighted to share that our research article titled: “An extensive study on multiple ETL layers to design and simulation of high-performance Ag₂MgSnSe₄-based chalcogenide solar cells for photovoltaic applications” has been officially accepted for publication in Optical and Quantum Electronics (Springer, Q2 journal). This study presents a comprehensive simulation-based approach to optimizing electron transport layers (ETLs) in Ag₂MgSnSe₄ chalcogenide solar cells, aiming to enhance their efficiency, stability, and real-world applicability for next-generation photovoltaic devices. I would like to express my sincere gratitude to my co-authors and collaborators for their invaluable contributions and discussions throughout this work. 🙏 🔗 Journal: Optical and Quantum Electronics 🧠 Focus: Advanced photovoltaic modeling and high-performance solar cell design 📖 Status: Accepted for publication — proof stage #Research #SolarCells #Photovoltaics #Chalcogenides #RenewableEnergy #Simulation #SCAPS1D #Optoelectronics #SpringerNature #OpticalAndQuantumElectronics

We are delighted to share the successful publication of our patent titled: 💡 “AI-Guided Fabrication of Mg-Substituted Copper Chalcogenide Solar Cells for Enhanced Efficiency.” This pioneering work represents a significant stride in the intersection of Artificial Intelligence and Renewable Energy Materials. By integrating AI-driven process optimization with nanostructured chalcogenide semiconductor design, this innovation aims to enhance solar energy conversion efficiency while maintaining cost-effectiveness and environmental sustainability. 🔬 Key Highlights: Development of Mg-substituted Cu-based chalcogenide materials with improved optoelectronic properties. Utilization of AI algorithms to guide fabrication parameters, accelerating material optimization and performance prediction. Achieving higher photo-response and device stability, vital for next-generation thin-film solar technologies. This patent underscores our ongoing commitment to advancing green energy research and AI-assisted material discovery, aligning with global sustainability goals and the transition toward a clean energy future. Heartfelt congratulations to my scholar M Shankar for his contribution to renewable energy innovation! 👏 🌞🔋 #Patent #Innovation #RenewableEnergy #SolarCell #Chalcogenide #ArtificialIntelligence #Nanomaterials #CleanEnergy #Sustainability #ResearchExcellence #SRUniversity SR University School of Sciences and Humanities SR University

A remarkable advance in energy science: researchers in Japan have demonstrated quantum energy harvesters that may surpass the Carnot efficiency, long considered the theoretical ceiling of thermodynamic performance. By exploiting non-thermal quantum states in a Tomonaga-Luttinger liquid system, the team achieved unprecedented heat-to-power conversion efficiency. Read the full article on Phys.org: https://lnkd.in/eSnNMPaT If verified, this discovery could transform energy recovery in microelectronics, quantum technologies, and green energy systems — redefining what’s possible in thermodynamics. 

Superconducting Materials Market Size, Share, Trends, Forecast & Growth Analysis 2034 To Know More : https://lnkd.in/dx-SRqXD Superconducting Materials Market is about to enter a period of rapid expansion; its value is predicted to increase at a robust CAGR of 10.5%, from $7.3 billion in 2024 to $19.2 billion by 2034. Zero electrical resistance and the expulsion of magnetic fields at critical temperatures are two characteristics that distinguish superconducting materials. Because of this, they are extremely valuable for a variety of applications, including electronics, transportation, quantum computing, medical imaging, and power grids. Superconducting materials are at the forefront of innovation due to the growing demand for sustainable and energy-efficient technologies worldwide, especially in sectors looking to improve performance while lowering energy losses. #superconductingmaterials #quantumtech #highenergyefficiency #futureelectronics #materialscience

Zintl-Phase Quantum Dots Shine Bright for Next-Gen Optoelectronics Introduction Researchers at the National Renewable Energy Laboratory (NREL) have synthesized a new class of Zintl-phase quantum dots that combine chemical stability, strong photoluminescence, and sustainable, Earth-abundant materials. This breakthrough could accelerate advances in optoelectronics, from displays to solar cells. Key Details • Rediscovering Old Materials • Scientists revisited compounds developed 40–50 years ago for modern applications. • Zintl-phase materials—specifically BaCd₂P₂—stood out for their optimal bandgap, long carrier lifetimes, and defect tolerance. • The Breakthrough • First-ever synthesis of BaCd₂P₂ colloidal quantum dots. • Published results in ACS Nano. • Overcame challenges that previously made Zintl-phase materials impractical for device integration. • Why Quantum Dots Matter • Nanoscale crystals that absorb light and transport charge. • Emit strong, tunable photoluminescence (“big glow from tiny crystals”). • Serve as foundational materials for advanced semiconductors. • Potential Applications • High-efficiency solar panels. • Brighter, more efficient LED displays. • Next-gen sensors and energy storage devices. • Sustainable manufacturing due to reliance on Earth-abundant elements. Why It Matters This innovation expands the material toolbox for optoelectronics by unlocking the potential of Zintl-phase quantum dots. With their unique stability and glow, they could transform how light and electricity are harnessed—paving the way for cleaner energy technologies and more sustainable electronic devices. ⸻ 🔒 Ready or Not: CMMC Rule Cleared for DoD Contractors 👤 CEOs, COOs, CFOs, CISOs, CCOs, Heads of Procurement — the clock is ticking. Proud to spotlight @Churchill & Harriman and Ken Peterson, CTPRP, for demonstrated leadership in CMMC readiness. Why it matters • You must be able to accurately attest to your CMMC environment. • The Churchill & Harriman (C&H) delivery team has delivered or is currently working on over 50 CMMC Level 2 engagements. • 30 years of successful execution across government and industry. If you’re not ready, expect: • ❌ Lost contracts • ❌ Forfeited revenue • ❌ Reputational damage ⚠️ Your Value at Risk is real. Next step 👉 Partner with validated experts to get C3PAO assessment-ready and protect what matters most. 🔗 https://lnkd.in/gp-WhRW4 📧 info@chus.com @Ken Peterson #CMMC #CyberSecurity #DefenseIndustrialBase #AuditReadiness #RiskManagement #DoD #Compliance

** Exciting News ** I’m thrilled to announce that my paper has been published in Advanced Energy Materials (IF: 26)! In this work, we developed, for the first time, an integrated system that enables simultaneous energy generation and storage. Our DC-Tribovoltaic Nanogenerator (DC-TVNG) is based on a metal-semiconductor heterojunction. It directly charges a supercapacitor without any external wiring or circuitry (i.e. self-charging supercapacitor), and the system even facilitates a smart recommendation system that suggests movement breaks to reduce risks associated with prolonged screen time. This research presents a novel pathway where a supercapacitor is directly charged through a tribovoltaic mechanism, opening new possibilities in tribovoltaic energy systems and intelligent health-care electronics. I’m proud to share this milestone with first co-author Shital Sharma, and deeply grateful to my co-authors, mentors, family, and loved ones for their incredible support. **Research is truly a journey of persistence, curiosity, and teamwork, and I’m excited for what comes next! Read more here: https://lnkd.in/gSUqntGG #Research #Publication #Gratitude #ScientificCommunity #DCTVNG #Supercapacitor #Tribovoltaic #EnergyStorage #SmartSystems

Recent advances in quantum energy harvesting have demonstrated the potential to exceed traditional thermodynamic efficiency limits, such as the Carnot and Curzon-Ahlborn efficiencies. By utilizing non-thermal electron states in Tomonaga-Luttinger liquids, researchers have converted waste heat into electricity with significantly higher efficiency than conventional methods. This approach leverages quantum properties to avoid thermalization, enabling more effective energy recovery from electronic devices. These findings suggest promising applications for sustainable low-power electronics and quantum computing, offering new strategies to recycle waste heat and improve overall energy utilization in various technologies.

Cambridge scientists have made a groundbreaking discovery in quantum physics that could transform solar energy, as reported by SciTechDaily. By unraveling a century-old quantum mystery, researchers have identified a new mechanism to enhance solar cell efficiency, potentially revolutionizing renewable energy. This breakthrough leverages quantum coherence to improve how solar cells capture and convert light into electricity, addressing long-standing limitations in photovoltaic technology. As the world races toward sustainable energy solutions, this discovery highlights the power of interdisciplinary research in driving innovation. By merging quantum mechanics with solar technology, we’re one step closer to making clean energy more efficient and accessible. This is an exciting time for scientists, engineers, and sustainability advocates to collaborate and translate such findings into real-world applications. At a time when climate change demands urgent action, advancements like these inspire hope. They remind humans that curiosity-driven science can yield transformative solutions for global challenges. Let’s continue to support and invest in research that pushes the boundaries of what’s possible for a greener future. Related News: https://lnkd.in/gP3CMpXM #QuantumPhysics #SolarEnergy #RenewableEnergy #Innovation #Sustainability #Cambridge

Silicon Carbide (#SiC) is reshaping power electronics, and we're excited to be part of that story. ⚡ Great to see SMC Diode Solutions featured in Ultra Librarian’s latest article on SiC technology. With higher efficiency, faster switching, and better thermal performance than traditional silicon, SiC is enabling the next generation of #EVs, #renewables, and industrial systems. Our SiC solutions, including high-performance #MOSFETs and Schottky diodes, are helping engineers push boundaries in high-voltage, high-temperature applications. Check out the article here 👉 https://lnkd.in/eHaeY32A #SiliconCarbide #PowerElectronics #Engineering #Semiconductors #Innovation

As global electricity demand rises, the need for efficient, sustainable energy solutions becomes increasingly urgent. Recent advances in computer simulation and machine learning have enabled significant progress in understanding halide perovskites, a class of materials with strong potential for next-generation solar cells and optoelectronics. By accurately modeling the low-temperature phase of formamidinium lead iodide, researchers have clarified a key structural question, paving the way for improved material design and stability. These insights are crucial for developing flexible, lightweight solar technologies that could transform energy conversion across industries.