Revolutionary Magnetic Motor Generator Load Test Results

Table of Contents

1. Introduction
2. Design and Components
   1. Electronics
   2. Wiring
3. Performance Test
4. Load Testing
5. Efficiency Analysis
6. Short-circuiting Experiment
7. Robert Adams' Commutator System
8. Adams' Feedback and Collapsing Magnetic Field
9. The Adams Thermoelectric Motor Generator
10. Conclusion

Introduction

In this article, we will explore the performance and capabilities of a newly finished motor slash generator. The generator will be presented at the Energy Science and Technology Conference, and we will discuss the design, components, and various experiments conducted to evaluate its efficiency. Throughout the article, we will delve into the performance test results, load testing, and explore different methods to enhance the generator's power output. Additionally, we will explore the concept of Robert Adams' unique star wheel commutator system, Adams' feedback mechanism, and the groundbreaking Adams Thermoelectric Motor Generator. By the end of this article, you will have a comprehensive understanding of the generator's capabilities and potential areas for improvement. So, let's dive in and explore the fascinating world of motor slash generators!

Design and Components

The generator comprises several key components that contribute to its functionality and performance. In this section, we will take a closer look at the electronics and wiring of the generator.

Electronics

At the heart of the generator lies an Arduino and a single transistor, forming the core electronic components. These components control the delay of the pulse and the duty cycle, enabling precise control over the generator's operation.

Wiring

All the wiring is neatly placed underneath the generator's top surface, providing a clean and organized appearance. The design incorporates two drive coils and four generator coils, following the design principles established by Atoms. The laminated construction of the coils further enhances their efficiency, ensuring optimal performance.

Performance Test

To evaluate the generator's performance, a comprehensive test was conducted. Initially, the generator was tested without any load connected, resulting in an impressive speed of 2100 RPM at a 26% duty cycle. However, when a load was introduced, the performance declined significantly. With an eight-LED setup and a 100-ohm resistor, the generator achieved only 740 RPM, drawing a mere 70 milliamps.

Load Testing

To assess the generator's ability to power different loads, several load tests were conducted. With an eight-LED and 100-ohm resistor setup, along with the addition of a 470 microfarad capacitor and a diode recommended by John Bedini and Peter Lindemann, the generator achieved a speed of 1800 RPM while drawing 37 milliamps. Although the performance improved, it did not meet expectations.

Efficiency Analysis

The efficiency of the generator was a crucial factor in the evaluation. Unfortunately, the generator's efficiency fell short of the desired 100%. The input current, measured as a pulsing voltage due to the generator's design, made accurate measurements challenging. Further experimentation is required to precisely determine the true efficiency of the generator.

Short-circuiting Experiment

To explore the effects of short-circuiting, an experiment was conducted wherein the generator output was short-circuited by bypassing the LEDs, resistor, capacitor, and diode. This experiment led to a significant slowdown in the generator's speed, requiring an increase in voltage to maintain rotation. The behavior of the generator during short-circuiting warrants further investigation to comprehend its potential application.

Robert Adams' Commutator System

Robert Adams proposed a unique star wheel commutator system as the ideal method for switching the coils. This system holds promising potential, and plans are underway to fabricate a brass commutator design utilizing laser cutting. The implementation of this switching method may facilitate recharging the source batteries, leading to improved performance.

Adams' Feedback and Collapsing Magnetic Field

Adams also emphasized the importance of utilizing the collapsing magnetic field for the motor's advantage. By incorporating Adams' feedback mechanism into the circuit, it may be possible to harness the collapsing magnetic field more effectively. John Bedini's research and ideas offer valuable insights to further enhance the generator's performance, presenting exciting avenues for exploration.

The Adams Thermoelectric Motor Generator

An intriguing alternative approach to motor generation is the Adams Thermoelectric Motor Generator. This unique design harnesses etheric heat generated during operation, requiring cooling via a water tank. The excess heat can be utilized to power steam turbines, potentially achieving power outputs in the megawatt range. Further research and replication efforts are underway to uncover the full potential of this revolutionary motor generator.

Conclusion

In conclusion, the newly finished motor slash generator showcased promising performance, albeit with room for improvement. Through various tests and experiments, we explored the generator's capabilities and identified potential areas for optimization. The implementation of Robert Adams' commutator system, Adams' feedback mechanism, and the exploration of the Adams Thermoelectric Motor Generator present exciting opportunities to enhance the generator's performance. As research continues and advancements are made, the possibilities for improving generator efficiency and power output are endless. With ongoing exploration, we can pave the way for the development of groundbreaking motor slash generators with remarkable potential.