Princeton Applied Research and Solartron Analytical’s Post

Learn how battery analysers from AMETEK Scientific Instruments are being put to use in applied R&D and production. Check out the latest sponsored article from Physics World and Ametek Scientific Instruments. Let me know if you would like to learn how Physics World can help you connect with the global battery research community. https://lnkd.in/eTkvJfKw #batteries #electrochemistry #electrochemicalsociety #batteryresearch

A great opportunity to learn more about modeling of battery systems, electrical motors, fuel cells or the new capability with surrogate models and digital twins. #comsol #digitaltwin #multiphysics https://lnkd.in/eQbKet7g

🔬 Exciting News in Battery Technology! 🔋 Introducing CellSage, the cutting-edge battery and cell aging modeling, simulation, and analysis (MS&A) software tool! 🚀 Here's why it's a game-changer: 1️⃣ Precision Analysis: CellSage delves deep into how various battery chemistries age and degrade under diverse usage profiles and environmental factors. 2️⃣ Proven Accuracy: Backed by over a decade of rigorous research in electrochemistry, physics, and thermodynamics, CellSage accurately models path-dependent aging conditions for lithium-ion batteries. 3️⃣ Global Insights: With access to annual temperature profiles from over 130 cities in the US and worldwide (available upon request), CellSage offers unparalleled insights into battery performance across diverse climates. Ready to revolutionize your battery innovation? Learn more about CellSage today! #BatteryTechnology #Innovation #CellSage #MSATools 💡

🔋xEV & Battery Engineering Tips : Following our latest post on #BYD an its ending of #pouch cells production in the near future, let's have a look at prismatic cells. How to develop Battery Thermal Models for #lithiumionbatteries #prismatic Format? What are the key findings and key parameters to get started with these digital twins developments ? 🔋In this post we analyze the methodology of the following paper : "An Electrothermal Model of an NMC Lithium-Ion Prismatic Battery Cell for Temperature Distribution Assessment" Batteries 2023, 9(9), 478;  We summarize the process and hypothesis adopted. Let us know if you like this analytics template 🔋Practical Information - Models Equation for the thermal balance - Heat Generation using a Quasi Static Approach - Heat Generation comprising Reversible and Irreversible contributions - Model Prediction vs Experimental Data overlayed for Discharge, Rest, Charge, Rest Profile 🔋If you want to know more about EV, Batteries Performance, modeling and simulation, let us know and contact us at info@baettery.com or visit www.baettery.com . DM for access to more analysis and reports. Stay tuned and contact us if you want to share more info to this battery engineering tips series. If you #like this content, #share and comment what you would like to see in next posts. #battery #design #technologies #review #lithium #researchanddevelopment #electricvehicles #energystorage #batterymanagementsystems #engineering #power #energy #simulation #aging #degradation #batteries #motorsport

Materys has been hard at work developing its platform and running tests and benchmarks. In a recent screening test, the band gap of 5000 oxides was successfully calculated automatically with the press of a button. This small and simple example showcases the utility of atomistic simulation technology. Here are a few reasons why the band gap of an oxide is useful: 🔌 Electrical Conductivity: By determining whether an oxide is an insulator, semiconductor, or conductor, the band gap plays a crucial role in understanding its electrical properties. 🔦 Optoelectronic Applications: The band gap directly influences the optical characteristics of an oxide, including light absorption and emission. For instance, oxides with wide band gaps offer transparency to visible light, making them ideal for applications like transparent conductive coatings in solar cells and touchscreens. 🧪 Catalytic Activity: An oxide's band gap significantly impacts its catalytic properties. With the right band gap, certain oxides can serve as catalysts, facilitating chemical reactions by providing energy levels for reactants and intermediates. 🔋 Energy Storage: The band gap of an oxide plays a crucial role in its performance within energy storage devices such as batteries and supercapacitors. It influences the mobility of charge carriers and the oxide's capacity to store and release energy. Atomistic Simulations empowers us to select the most suitable materials for specific applications, optimize device performance, and even design new materials with desired properties. At Materys, we are dedicated to offering a straightforward, versatile, and potent gateway to this technology. Stay tuned for more 💪💡 #MaterialsScience #optoelectronics #catalysis #energystorage

Explore the Fundamentals of Particle Characterization in Lithium-ion Battery Research! Learn how understanding particle properties like size, shape, and composition is crucial for improving battery efficiency and safety. Read more: https://lnkd.in/ewU8Mfe5 HORIBA #ParticleCharacterization #LithiumIonBatteries #BatteryResearch #SRC #batterylife #batteryquality

This year, I am representing SEMI-THERM again as a Topic Champion! SEMI-THERM fosters knowledge exchange, collaboration, and innovation in thermal engineering. As a Topic Champion, I am organizing together with Navid Kazem a session on Advanced Semiconductor Packaging. Please find a more detailed call for paper for this session below. Do you want to contribute? Submit your paper and have the opportunity to present on stage at SEMI-THERM 41 in Silicon Valley! Access the SEMI-THERM website: SEMI-THERM, #thermal_managment #advanced_packaging #TTV #chiplet

📯 Stay Ahead in High-Frequency Power Electronics with Cergen GmbH's Cutting-Edge Nanocrystalline Soft Magnetic Solutions! The power electronics industry is experiencing a transformative shift fueled by innovations like Silicon Carbide (SiC) and Gallium Nitride (GaN). These advancements not only enable higher frequency power conversion but also pave the way for more compact and efficient systems. However, the trend towards miniaturization poses considerable challenges for traditional soft magnetic materials and components. Ahmed Nabih et al's recent review (2023) highlights significant progress in Magnetic Integration for Power Electronics, offering a comprehensive roadmap for achieving higher power density integration. As we navigate this road, the demand for innovative solutions has never been more critical. 🢡 Key Insights: 🟢 High-Frequency Power Conversion Rise: Driven by SiC and GaN technologies, this trend demands increased component density, placing significant pressure on conventional soft magnetic materials. 🟢 Inductor Challenges: High-voltage and high-current inductors are pivotal components in diverse applications, including electric vehicles (EVs), industrial automation, and renewable energy (solar + wind). Optimizing these inductors requires careful consideration of material selection, core shape design, and wire winding strategies. 🟢 Cergen GmbH's Expertise: We comprehend the intricacies of high-frequency power electronics and possess the expertise to provide tailored soft magnetic nanocrystalline solutions. Whether you're working with EMC filter, Dual Active Bridge (DAB), LLC, LLCL, or LCL topologies, our nanocrystalline materials and know-how ensure optimal performance. 🢡 Don't lag behind in the high-frequency race! Partner with Cergen GmbH to future-proof your power electronics designs and meet the demands of modern applications. 📞 Connect with Cergen GmbH today to discover how we can empower your projects with cutting-edge nanocrystalline soft magnetic solutions. wolfgang.senftinger@cergen.com 📌 NEW! Checkout our new line of high-end ferrite products, also custom designed! #nanocrystalline #emc #emi #powerelectronics #evehicles #evbattery #evinverter