Infinite Induction Generator Project

[Sunnycapps]

Project Description Welcome to the Infinite Induction Generator Project! This initiative aims to revolutionize power generation through innovative electromagnetic induction technology. Designed for efficiency, stability, and scalability, our generator produces high-voltage output with minimal input, leveraging cutting-edge concepts in electromagnetics and feedback mechanisms.

Key Features:

Innovative Electromagnetic Design: Utilizing inverted pole electromagnets and custom wire coils for optimal magnetic field generation.

Feedback Mechanism: Self-powering system that maximizes efficiency and power output.

High Voltage & Current Output: Capable of producing up to 60V at 300 Hz with a steady 100A current, suitable for various applications.

Advanced Filtering: LC filter stages ensure smooth and stable voltage across storage capacitors.

Setup Instructions:

Place three electromagnets (EMs) in a triangle configuration, 1 cm apart.

Position coils of 18 AWG copper wire with variable turns in the gaps between the EMs.

Configure Pulse Width Modulation (PWM) to drive the EMs sequentially at 300 Hz with a 33% duty cycle.

Connect capacitors in line with the EMs for filtering, and link additional capacitors to the wire coils for energy storage.

Observe the system’s performance: Rotating the magnetic field via PWM generates electricity efficiently by creating a dynamic induction environment with no moving parts.

Octave Simulation: To simulate the system in Octave, use the following script:

octave

Copy pkg load signal

% Parameters num_turns_coil = 300; num_turns_em = 50; cap_filtering = 5.18e-6; % EM filtering capacitors (F) cap_storage = 51.8e-6; % Storage capacitors (F) inductor_filter = 1e-3; % Inductor for filter (H) pwm_freq = 300; % Starting PWM frequency (Hz) duty_cycle = 0.33; % Change duty cycle to 33% sequence_speed = pwm_freq; % Initial sequence speed damping_factor = 0.01; % Reduced damping factor for stability

% Coil and EM inductance (H) inductance_coil = 330e-6; % Inductance of each coil (H) inductance_em = num_turns_em * 1e-3; % Simplified inductance calculation for EM

% PWM setup pwm = @(t) square(2 pi pwm_freq t, duty_cycle 100);

% Time vector t = linspace(0, 60, 1000);

% EM voltage and current v_em = pwm(t) 5; % 5V input i_em = v_em ./ inductance_em . exp(-damping_factor * t); % Apply damping factor

% Induced voltage in coils v_induced = num_turns_coil i_em sequence_speed;

% Single LC filter for smoothing l_filter = inductor_filter; c_filter = cap_filtering; lc_transfer_function = tf([1], [l_filter*c_filter, l_filter, 1]); v_filtered = lsim(lc_transfer_function, v_induced, t);

% Storage capacitor voltage after smoothing v_cap_storage = cap_storage * v_filtered;

% Plot results figure; subplot(4,1,1); plot(t, v_em); title('Voltage Across Electromagnets'); xlabel('Time (s)'); ylabel('Voltage (V)');

subplot(4,1,2); plot(t, v_induced); title('Induced Voltage in Coils'); xlabel('Time (s)'); ylabel('Voltage (V)');

subplot(4,1,3); plot(t, v_filtered); title('Filtered Voltage Across Coils'); xlabel('Time (s)'); ylabel('Voltage (V)');

subplot(4,1,4); plot(t, v_cap_storage); title('Voltage Across Storage Capacitors'); xlabel('Time (s)'); ylabel('Voltage (V)');

% Display results disp('Voltage and current across electromagnets:'); disp(['Voltage: ', num2str(max(v_em)), ' V']); disp(['Current: ', num2str(max(i_em)), ' A']);

disp('Voltage across storage capacitors:'); disp(['Voltage: ', num2str(max(v_cap_storage)), ' V']); Relevant Technology This project utilizes Octave for simulations and tests. Key technologies include electromagnetic induction, Pulse Width Modulation (PWM), and advanced LC filtering circuits.

Complexity and Required Time Complexity [ ] Beginner - This project requires no or little prior knowledge of the technologies specified to contribute to the project

[ ] Intermediate - The user should have some prior knowledge of the technologies to the point where they know how to use them, but not necessarily all the nooks and crannies

[x] Advanced - The project requires the user to have a good understanding of all components of the project to contribute

Required Time (ETA) [ ] Little work - A couple of days

[ ] Medium work - A week or two

[x] Much work - The project will take more than a couple of weeks and serious planning is required

Categories [ ] Mobile app

[ ] IoT

[ ] Web app

[ ] Frontend/UI

[x] AI/ML

[x] APIs/Backend

[ ] Voice Assistant

[ ] Developer Tooling

[ ] Extension/Plugin/Add-On

[ ] Design/UX

[ ] AR/VR

[ ] Bots

[ ] Security

[ ] Blockchain

[x] Futuristic Tech/Something Unique