AddMorePower Horizon Europe project 101091621

🔡 The #AddMorePower Alphabet Series continues! This week: M for MODA! MODA (Materials MOdeling DAta) is a systematic method for describing and documenting material data from various sources. In #AddMorePower, MODA plays a key role in: 📌 Creating data-driven models to predict material properties 📌 Enhancing material design for improved performance 📌 Ensuring structured & standardized data management By leveraging MODA, researchers can optimize materials more efficiently, driving innovation in power applications! ⚡ #AddMorePower #MODA #MaterialsScience #DataDriven #Innovation #HEU

📢 #AddMorePower Newsletter Issue #3 is out! 📢 We’re excited to share the latest updates from the #AddMorePower project! In this issue we highlight: ✅ Progress made in the second project year 🔬⚡ ✅ Key conferences & events we participated in throughout 2024 🌍🎤 Stay informed about our advancements - read it now! 👉 https://lnkd.in/ggFExgYS #AddMorePower #Newsletter #MaterialsScience #Innovation #HEU

🔡 The #AddMorePower Alphabet Series continues! This week: L for Lab-Based Transmission X-ray Microscopy! This cutting-edge imaging technique allows high-resolution visualization of internal sample structures at the microscopic level - without destroying them. In #AddMorePower, material scientists use it to analyze materials with exceptional detail, helping to optimize their properties for power applications. By unveiling hidden structures, Lab-Based Transmission X-ray Microscopy plays a crucial role in materials research and innovation! #XrayMicroscopy #MaterialsScience #PowerElectronics #Innovation #HEU

The #AddMorePower Alphabet Series is back! This week: K for Kinetic Processes! 🔡 In #AddMorePower, kinetic processes refer to the dynamic changes and reactions occurring in systems over time, influenced by fundamental principles of kinetics - the science of reaction rates and the factors affecting them. Why are kinetic processes important? ⚡ Understanding Material Behavior – Helps predict how materials evolve under different conditions. ⚡ Optimizing Performance – Enables fine-tuning of processing techniques for better efficiency. ⚡ Enhancing Reliability – Critical for ensuring stable and long-lasting materials in power applications. Kinetic processes shape the way materials perform in real-world applications. By studying these dynamics, #AddMorePower drives innovations in power electronics and materials science! #Kinetics #MaterialsScience #PowerElectronics #Innovation #HEU

#AddMorePower Consortium Meeting – Planning the Road Ahead! Yesterday, the AddMorePower team gathered virtually to align on the next steps for the project. With exciting progress already made, we focused on key topics that will shape the upcoming months: 📌 CHADAs & MODAs – Structuring material characterization and modeling data for better research transparency and reproducibility. 📌 GaN & Cu Use Cases – Advancing materials research for power applications. 📌 Scientific Publications – Strategizing how to share our findings with the wider research community. Collaboration is at the heart of innovation, and we are looking forward to the next phase of the project! 🚀 #AddMorePower #ConsortiumMeeting #MaterialsScience #GaN #Copper #Innovation #HEU

### AddMorePower at the Industry Satellite Meeting 2025 hosted by Deutsches Elektronen-Synchrotron DESY & LEAPS - League of European Accelerator-based Photon Sources & Hi-Acts | Helmholtz Innovation Platform for Accelerator-Based Technologies & Solutions On January 22, 2025, our project partners from Fraunhofer IKTS and KAI / Infineon Technologies participated in the "Analysing Power Semiconductors at Synchrotrons" workshop, held as part of the Industry Satellite Meeting 2025 at the DESY Campus in Hamburg, Germany. This event brought together industry experts and researchers to discuss the latest advancements in power semiconductor analysis using synchrotron radiation. Representing #AddMorePower, André Clausner (Fraunhofer IKTS) and Michael Reisinger (KAI/Infineon) highlighted the unique challenges in power electronics and showcased how our project contributes to overcoming these obstacles. ### What is DESY? Deutsches Elektronen-Synchrotron DESY is a world-renowned research center specializing in particle acceleration and synchrotron radiation. It provides cutting-edge facilities for exploring materials at the atomic level, enabling breakthroughs in various fields, including semiconductor research. By participating in this workshop, #AddMorePower strengthened its ties with the scientific community and industry and reinforced its commitment to advancing power electronics through innovative material analysis. #PowerSemiconductors #SynchrotronResearch #DESY #HEU

🔥 This week in #AddMorePower: Joule Heating! 🔥 Joule heating, also known as resistive heating, occurs when an electric current passes through a conductor, generating heat due to the material's resistance. This effect, described by James Prescott Joule, is fundamental in electrical and thermal applications. How does it work? The heat produced is given by Joule’s Law: ➡️ Q = I² × R × t, where: 🔹 Q = Heat energy 🔹 I = Current 🔹 R = Resistance 🔹 t = Time Where is Joule Heating used? ⚡ Heating Elements – Found in electric stoves, toasters, and industrial furnaces. ⚡ Fuses & Circuit Protection – Used to prevent overheating and electrical failures. ⚡ Microelectronics – Critical in semiconductor design, where heat dissipation affects performance. While essential for many applications, excessive Joule heating can lead to energy loss and overheating, making efficient thermal management a key focus in materials science and engineering. #JouleHeating #MaterialsScience #EnergyEfficiency #Innovation #HEU

🔬 This week in #AddMorePower: In-Situ Experiments! In scientific research, context matters! In-situ experiments allow us to study materials and systems directly in their operating environment, rather than under artificial conditions. Why is this important? ✅ Real-World Accuracy: Captures how a system behaves in actual conditions. ✅ Better Predictions: Reduces discrepancies between lab results and real-world performance. ✅ Critical for Materials Science: In AddMorePower, understanding materials under real environmental conditions is key to optimizing performance. From semiconductors to energy storage, in-situ experiments provide actionable insights where it truly matters! #InSitu #MaterialsScience #Innovation #Experiments #HEU

#AddMorePower Project Alphabet: I 📢 This week in #AddMorePower, we’re shedding light on the term Ion Source! An ion source is a device that generates ions from neutral atoms or molecules using electric or electromagnetic fields. These ions are then harnessed for a variety of applications, such as: 🔹 Semiconductor Manufacturing: Precise ion implantation to modify materials. 🔹 Medical Imaging: Enhancing accuracy in diagnostic tools. 🔹 Particle Accelerators: Fueling research in physics and beyond. Ion sources play a pivotal role in advancing technology by enabling precise control at the atomic level. #IonSource #MaterialsScience #Innovation #HEU

As we kick off 2025, we're excited to continue our Alphabet Series for the AddMorePower project! 📢 ### H is for Horizon Europe! #HorizonEurope is the European Union’s key funding program for research and innovation, aiming to tackle climate change, support sustainable development, and boost the EU's competitiveness. We extend our heartfelt thanks to the #HorizonEurope program of the European Commission for their trust in our research and the vital funding they provide. Their support empowers us to push the boundaries of innovation in materials science. Stay with us as we explore more key terms and concepts shaping our journey in the #AddMorePower project! #Innovation #MaterialsScience #ResearchFunding #EU