By integrating these components and mechanisms, the system can potentially generate a pulling effect using plasma and microwaves while also recapturing energy to sustain itself.
To design a system where the plasma and microwaves can create a pulling effect and potentially charge themselves, we can consider the following approach:
### Components and Design:
1.
Power Source and Management:
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Internal Power Source: Rechargeable lithium-ion battery.
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Power Management Circuit: To regulate and optimize power delivery.
2.
Wireless Power Transfer and Microwave Generation:
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Receiver Coil: Embedded within the hilt for inductive power transfer.
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Miniature Magnetron: Generates microwaves to create and sustain the plasma.
3.
Plasma Generation and Control:
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Plasma Chamber: Contains the plasma with electrodes for ionization.
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RF Oscillator: To stabilize the plasma and enhance its properties.
4.
Pulling Effect and Self-Charging:
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Second RF Signal: Creates interference patterns to induce a pulling effect.
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Energy Recapture Mechanism: Uses the interaction of microwaves and plasma to generate feedback energy.
### Detailed Design Steps:
1.
Internal Power Source and Management:
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Battery Pack: High-capacity lithium-ion battery (e.g., 12V, 3000mAh).
-
Power Management Circuit: Ensures stable power supply to all components.
2.
Wireless Power Transfer and Microwave Generation:
-
Receiver Coil: Designed for resonant inductive coupling.
-
Miniature Magnetron: Converts received power into microwaves.
3.
Plasma Generation:
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Plasma Chamber: Compact and robust, containing electrodes for ionization.
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Gas Supply: A noble gas like argon or neon for stable plasma.( magnetron holds electrical plasma)
4.
Pulling Effect with Secondary RF Signal:
-
RF Oscillator: Generates a second RF signal to create constructive and destructive interference patterns within the plasma.
-
Energy Recapture: Design the plasma and microwave interaction to produce feedback energy that can be harnessed and fed back into the system.
### Energy Recapture Mechanism:
To achieve a self-charging effect, we can use a method similar to energy harvesting where the interaction of microwaves and plasma generates additional electrical energy. Here's how:
1.
Electromagnetic Induction:
- Place a secondary coil near the plasma chamber to capture induced electromagnetic waves.
- The induced current in the secondary coil can be fed back into the power management circuit.
2.
Plasma-Microwave Interaction:
- Design the plasma chamber to maximize the interaction between microwaves and plasma.
- Utilize this interaction to generate additional energy in the form of heat or electromagnetic waves.
3.
Feedback Loop:
- Integrate a feedback loop that captures the additional energy and converts it back into electrical power.
- Use this power to sustain the system, reducing the load on the primary battery.
### Formulas and Calculations:
1.
Inductive Power Transfer:
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Resonant Frequency (\(f_r\)): \( f_r = \frac{1}{2\pi\sqrt{LC}} \)
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L: Inductance of the coil
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C: Capacitance of the system
2.
Plasma Frequency (\(f_p\)):
- \( f_p = \sqrt{\frac{n e^2}{m \epsilon_0}} \)
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n: Plasma density
-
e: Electron charge
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m: Electron mass
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\(\epsilon_0\): Permittivity of free space
3.
Energy Recapture:
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Induced Voltage (V): \( V = -N \frac{d\Phi}{dt} \)
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N: Number of turns in the secondary coil
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\(\Phi\): Magnetic flux
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t: Time
### Blueprint Overview:
1.
Hilt Design:
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Lower Section: Contains the battery pack and power management circuit.
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Central Section: Houses the receiver coil, miniature magnetron, and plasma chamber.
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Upper Section: Contains electrodes and the RF oscillator.
2.
Component Layout:
-
Battery Pack: Positioned for balance and stability.
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Power Management Circuit: Ensures efficient power distribution.
-
Receiver Coil: Embedded within the central section for inductive power transfer.
-
Plasma Chamber: Centralized with integrated electrodes and gas supply. ,,maybe
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Secondary RF Oscillator and Coil: Positioned near the plasma chamber for energy recapture.
### Safety Considerations:
- Shielding: Proper shielding for magnetron and RF components to protect the user.
- Cooling: Adequate cooling systems to prevent overheating.
- Power Management: Ensure stable and controlled power supply to prevent surges.
By integrating these components and mechanisms, the system can potentially generate a pulling effect using plasma and microwaves while also recapturing energy to sustain itself.
I'd like to patent it and make it smaller , are you interested in helping , I'm transit backpacking , looking to be less homeless
Hopefully to be branched off like a power bar.
