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Everything You Learned About Resistance Is Wrong Start Here - Resistors Part 1

405 views· 8 likes· 4:22· Jan 3, 2026

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Get Altium, Professional ECAD Software: https://www.altium.com/yt/kirschmackey Resistors Part 1 - https://youtu.be/_kZyQ2Wv5OY Resistors Part 2 - https://youtu.be/gd90vDcnIYA Resistors Part 3 - https://youtu.be/HNPxuc2b-Xc Resistors Part 4 - https://youtu.be/vAT-Caoc7b8 🎓 You've been taught resistance through analogies. Water. Pipes. Flow. ❌ The truth? That model breaks down when you start working with real-world electronics. In this video, I show you the actual essence of resistance — from a holistic, academic, and industry-level perspective. This is the foundation I wish I had when I was studying electrical engineering. You’ll learn: Why traditional explanations of resistance are misleading What’s actually happening when electrons “resist” How this affects how you build, design, and think like an engineer 📍 This is part 1 of my “Electronics From The Ground Up” series — no fluff, just real-world intuition. 💥 Whether you're self-taught or formally trained, if you’ve ever felt like something was missing in how resistance was taught… you were right. And this will fill in the blanks. 📌 Subscribe to the channel if you're done with surface-level content. 📩 Click the bell to get the rest of this real series. @AltiumStories #altiumstories

About This Video

Whatever you think you know about resistance, I want you to completely forget it—especially the water pipe analogy. In this video (Resistors Part 1), I rebuild resistance from the ground up the way I wish it had been taught to me, even back when I was a senior electrical engineer at Intel and later a university professor. Resistance isn’t a cute metaphor; it’s literally how easy or difficult you make it for electrons to move through a material, and that framing changes how you think about real circuits. I walk through what’s physically happening: electrons carry negative charge, they repel each other, and when you apply an electric field (a voltage potential difference), they respond by moving. But they don’t “zip” through copper at the speed of light—electron drift velocity is slow (millimeters per second). What moves fast is the electromagnetic field. The key is collisions: electrons bump into the material lattice and each other, and that kinetic energy gets dissipated as heat that doesn’t return to the system. That’s the essence of resistance, and it’s the foundation for designing industry-ready electronics instead of memorizing surface-level rules.

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