Magnetic Current Flow: Project Summary Inspiration: The project was inspired by the need for efficient energy management solutions, focusing on harnessing and controlling electrical currents to support modern technological demands and renewable energy integration.

What I Learned: I deepened my knowledge of electromagnetism principles, learned how to integrate various programming languages and frameworks, and developed problem-solving skills through overcoming challenges.

How It Was Built:

Research & Planning: Conducted extensive research on electromagnetism to inform the project. Tech Stack Selection: Chose Python for backend development, React for the frontend, and PostgreSQL for database management. Development Phases: Created prototypes using Arduino. Developed REST APIs for frontend-backend communication. Deployed the project on AWS for reliability and scalability. Challenges Faced:

Overcame technical hurdles related to hardware-software integration. Managed complex real-time data flow, requiring effective database handling. Debugged API communication issues to ensure smooth user experiences. Overall, Magnetic Current Flow expanded my technical skills and emphasized resilience in addressing challenges, showcasing the potential for improved energy effic

Built With

  • apis
  • arduino-cloud-services:-aws
  • built-with:-languages:-python
  • c++-frameworks:-django
  • cloud-services
  • databases
  • docker
  • firebase-other-technologies:-graphql
  • frameworks
  • google-cloud-platform-databases:-postgresql
  • javascript
  • mongodb-apis:-restful-api
  • platforms
  • react-platforms:-node.js
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Magnetic Current Flow: Revisiting a Forgotten Concept

While electric current (movement of electrons) is widely understood, the idea of magnetic current flow—proposed by scientists like Edward Leedskalnin—offers a fascinating, if unconventional, perspective. Rather than focusing only on electrons, Leedskalnin suggested that magnetism flows in streams of magnetic "north" and "south" particles, moving in opposite directions.

Modern physics interprets magnetism as a result of moving electric charges and quantum spin, but Leedskalnin's concept remains popular among alternative theorists and enthusiasts exploring free energy, magnet motors, and magnetic monopoles.

Though not mainstream science, revisiting magnetic current theory can spark innovation and curiosity about the deeper nature of electromagnetism and field interactions.

Whether you're an engineer, researcher, or just curious, it's a great time to explore how magnetic fields really move.

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