RMT device about ideas

[Sunnycapps]

Here's a simplified summary:

Innovative Magnetic Transformer Design

A compact, efficient, and reliable magnetic transformer design that:

• Utilizes a small, static triangle coil design to step up voltage
• Drives a larger device with stationary secondary coils and a center ring
• Employs a rotating magnetic field created by electromagnets turned on and off in a circular pattern
• Induces voltage in the secondary coils, powering the larger device

Key Features:

• No moving parts
• High efficiency
• Compact design
• Solid-state, static transformer

Open Source Publishing:

This design is ideal for open source publishing, as it offers a unique and innovative approach to magnetic transformers. By sharing the design and principles, it can be adapted and improved upon by the community, leading to new applications and innovations.

License and Collaboration:

To be determined (e.g., Creative Commons, MIT License). Collaboration and contributions are welcome to further develop and improve the design.

[Sunnycapps]

Let's break down the building instructions for the 12-sided die formation with 12 electromagnets into manageable steps:

Step 1: Design and Simulation

• Create a detailed computer-aided design (CAD) model of the device
• Simulate the magnetic field and energy harvesting performance using finite element analysis (FEA) or computational magnetics

Step 2: Material Selection and Preparation

• Select and procure the necessary materials, including:
  • High-temperature superconducting wire or tape
  • Ferroelectric ceramic or other energy-harvesting materials
  • Graphene or carbon fiber-reinforced polymers (CFRP) for structural components
• Prepare the materials for assembly, including cutting, shaping, and surface treatment

Step 3: Electromagnet Assembly

• Wind and assemble the electromagnets using the superconducting wire or tape
• Integrate the ferroelectric ceramic or other energy-harvesting materials
• Connect the electromagnets to the power conditioning and control systems

Step 4: Structural Assembly

• Assemble the 12-sided die structure using the graphene or CFRP components
• Integrate the electromagnets into the structure

Step 5: Power Conditioning and Control

• Design and assemble the power conditioning and control systems
• Integrate the systems with the electromagnets and energy-harvesting materials

Step 6: Testing and Validation

• Perform detailed testing and validation of the device
• Measure the magnetic field, energy harvesting performance, and power output

Step 7: Integration and Deployment

• Integrate the device into the desired application or system
• Deploy the device in the intended environment

[FredrikAugust]

Could you please update the issue to use the template you are prompted with when creating an idea?

[FredrikAugust]

I'm sorry, but I'll close it until it's updated. You can just copy it into a the issue description.