Dow’s Post

🌟 Mastering Thermal Management with DOW & CARBICE 🌟 As devices get smaller, faster, and more powerful, the need for effective thermal management has never been greater. Enter DOW and CARBICE, two innovators delivering advanced materials to tackle the toughest heat challenges across industries. 🔹 DOW: Renowned for their cutting-edge thermal interface materials (TIMs), DOW offers solutions that combine high thermal conductivity, durability, and reliability. From electric vehicles to industrial electronics, DOW materials ensure consistent heat dissipation for optimal performance. 🔹 CARBICE: Pioneering with their revolutionary Carbon Nanotube Thermal Tapes, CARBICE redefines thermal management with lightweight, ultra-efficient, and mechanically robust solutions. Their technology sets a new standard for cooling in applications like semiconductors, aerospace, and telecommunications. Why Choose DOW & CARBICE? ✅ Enhanced heat transfer and thermal conductivity ✅ Lightweight and sustainable materials ✅ Long-term reliability under extreme conditions ✅ Solutions for high-power and high-density applications From electric vehicles and 5G networks to renewable energy and beyond, DOW and CARBICE empower innovators to design more efficient, reliable, and sustainable systems. 💡 Want to explore how these advanced materials can elevate your projects? Let’s connect and start a conversation! hashtag #ThermalManagement#DOW #CARBICE #AdvancedMaterials #HeatDissipation #Innovation #Sustainability

Collaboration powers the future of innovation. Carbice is creating a new business model of thermal innovation and working across all teams to solve interface challenges. We’re proud to collaborate with Dow Performance Silicones in a groundbreaking partnership that offers advanced thermal interface materials for various industries, including mobility, industrial, consumer electronics, and semiconductors.  #BuildStronger and #AchieveMore

🔋Understanding the operation of a battery cell at the material level is essential for creating new battery solutions. Battery manufacturers rely on experimental techniques to determine battery material properties, which are time-consuming, resource-intensive, and often involve trial and error. To power the future of the battery industry, you need to: • Enhance energy density to pack more power • Enable rapid charging to reduce downtime • Minimize degradation to ensure long-lasting performance and reliability Join our webinar on February 11 to learn how to employ virtual testing techniques to design the complete chemistry of a battery cell. Register here: https://sie.ag/y2GFp

📚👨🔬🔥 Since it is one of the hottest days of the year, let's celebrate the contributions of thermal engineers on "National Thermal Engineer Day"! This book presents research on the applications of thermogravimetric analysis. It also presents a detailed analysis of thermoelectric devices for electricity production as well as the challenges and advantages of using approximate analytical model to simulate the performance of thermoelectric devices. https://lnkd.in/eSPqVqau

We're taking a look back at 2024 with some materials science highlights! For the lithium-ion batteries that power today's electric vehicles, innovative inspection solutions are needed to help ensure the quality of critical components. In this video, we discuss how our industrial microscope systems can perform a variety of inspections on lithium-ion battery materials, overcoming common challenges and performing analysis at scale. Discover our many microscopy solutions for EV battery inspection: https://brnw.ch/21wPANL

🎤 Webinar Wednesday Oct 16 | Connecting IC Designers to Package and PCB Thermal Analysis Securely in the Supply Chain https://lnkd.in/gq6FBksE Learn how IC designers and thermal engineers can collaborate for successful development with thermal simulation from nanometer to system level. A focus topic is the generation and use of a new type of accurate secure, shareable 3D CFD-ready, reduced order IC package thermal models and how these compare to typical 2R and DELPHI approaches.

🎉 The Big Day is Here! 🎉 Today’s the day: the exclusive MG Chemicals webinar on the secrets of electromagnetic compatibility (EMC) 🌐 kicks off soon! 📅 When? Today at 2:00 PM (CET) 📍 Where? Online – join us to discover innovative and practical solutions. 🎙️ What’s on the agenda? ✔️ The fundamentals of effectively reducing electromagnetic interference (EMI). ✔️ How to integrate conductive paints into your designs. ✔️ Insights into the technical and economic benefits of these technologies. Don’t miss the presentation by our expert, Michael Strong, who will share actionable tips and advanced solutions to ensure EMC compliance for your projects. 👉 Already registered? Perfect, see you at 2 PM! 💻 Not yet registered? There’s still time! 🔗 https://ow.ly/Pnfv50UbB2S 📢 Now is the time to transform your designs and tackle EMI challenges with our advanced solutions. See you soon! 🚀

To power the future of the battery industry, you need to: • Enhance energy density to pack more power • Enable rapid charging to reduce downtime • Minimize degradation to ensure long-lasting performance and reliability Understanding the operation of a battery cell at the materials level is essential for creating new battery solutions. Battery manufacturers rely on experimental techniques to determine battery material properties, which are time-consuming, resource-intensive, and often involve trial and error. Join our webinar to learn how to employ virtual testing techniques to design the complete chemistry of a battery cell. Register here: https://sie.ag/y2GFp

When designing a battery pack to manage thermal runaway, there are several factors to consider: 1. Potential Cell Failure Mechanisms 2. Cell Format, Chemistry, State of Charge, and Operating Temperatures 3. Heat Management during Thermal Runaway 4. Ejecta Management during Thermal Runaway 5. Cell-to-Cell and Module-to-Module Spacing Learn more about each of them here: https://lnkd.in/g5TJgNBy 

Every battery undergoes some amount of testing, whether it is a prescribed formation test in a manufacturing line or a fundamental electrochemical test done at bench-top level. Even given the variety of use cases, all battery testing seeks to answer one question: Is my cell any good? In manufacturing, I check essential KPIs to see if a cell meets specification. If I'm out of spec somewhere, there is no shortage of potential root causes. A cell can be doomed before materials even ship, or spoiled in the eleventh hour of assembly. Ideally, I would use electrochemical techniques typically reserved for the R&D level to aid in root cause analysis. But these are data and time intensive–not exactly conducive to getting good, quality cells out the door quickly. We need the best from both worlds - A scalable battery test that narrows down failure modes from a long list of possibilities requires careful consideration, but has tremendous impact. I'll be talking about possible solutions that balance deep insight with scalability in my talk, "Electrochemical Analysis to Accelerate Factory Scale-Up" at PlugVolt Battery Seminar 2024 in San Jose next month. For anyone attending, register at www.batteryseminars.com. Looking forward to meeting you there!