Charles Crawford III discusses Alexey Chekurkov’s Graviflyer Kit and provides a detailed technical overview & analysis of the Graviflyer equipment he received. He describes his current research & future experimental plans, and also provides updates on his efforts to get the Graviflyer functioning & flying, and the experimental process he is using to test it.

Alexey Chekurkov’s Graviflyer is a controversial device purportedly capable of levitation. This presentation included a deep dive into the Graviflyer’s schematics, components (including a Slayer Exciter Tesla coil and ultrasound device), construction, and operational parameters. Significant attention is given to troubleshooting, modifications, and safety precautions. A live demo was attempted, showcasing the device’s spinning motors and wireless energy transfer capabilities. The discussion also touched upon the theoretical principles behind the Graviflyer’s operation, focusing on the interaction of electromagnetic and torsion fields.

The Graviflyer Unveiled: A Technical Deep Dive

Charles Crawford III, a PhD candidate with a background in relevant fields, presented a meticulous breakdown of the Graviflyer kit he purchased from inventor Alexey Chekurkov. This isn’t your average toy; it’s a complex system incorporating several key components:

• The Slayer Exciter Tesla Coil: This high-frequency coil plays a crucial role in the Graviflyer’s operation, generating a high-voltage, high-frequency field. Crawford detailed the specific coil parameters (4 turns primary, ~1055 turns secondary, using a 2N3055 transformer), emphasizing the importance of precise construction. He also highlighted the significant heat generated by this component.
• The Ultrasound Device: A piezoelectric device operating at approximately 200,000 Hz, this component interacts with the spinning disk and the electromagnetic fields. Crawford discussed the circuit’s design, including the use of an LM317T regulator (which requires a heatsink due to heat generation), and the importance of precise frequency control.
• The High-Voltage Circuit: This circuit, generating approximately 20,000V, is a critical element. Crawford highlighted the use of a flyback transformer, specific resistor values (5-watt 220-ohm), and the importance of a large heatsink for the transistor to manage the heat generated.
• The Gravitometer: This device, using three antennas to detect electromagnetic fields, provides feedback on the system’s operation. The red and green LEDs indicate the presence of electromagnetic fields and torsion vortices, respectively. Crawford stressed the importance of limiting exposure to the torsion fields due to potential health risks.
• The Mechanical Frame and Spinning Disk: The Graviflyer utilizes a spinning disk with six N42 neodymium magnets embedded in a steel casing. The design, materials, and precise dimensions of the disk and its supporting structure are critical for optimal performance. Crawford discussed the challenges faced during assembly, including damage to the disk during shipping.

The Levitation Mechanism: A Puzzle Still Being Solved

The Graviflyer’s purported levitation is attributed to a complex interplay of electromagnetic and torsion fields, along with the influence of the ultrasound device. Crawford emphasized that achieving levitation requires precise adjustment of several parameters, including pulse duty cycle, voltage, and ultrasonic frequency. He likened the process to finding a “safe combination” and acknowledged that the underlying mechanisms are still not fully understood.

Replicating the Graviflyer: Challenges and Considerations

Crawford’s presentation highlighted several challenges in replicating the Graviflyer:

• Component Sourcing: Many components are repurposed, requiring resourcefulness and potentially hindering reproducibility.
• Precise Tuning: Achieving levitation requires meticulous adjustment of various parameters, demanding patience and precision.
• Safety Precautions: The high voltages involved necessitate strict adherence to safety protocols.

Addressing the Controversy: Authenticity and Replication

The Graviflyer has generated significant controversy, with skepticism surrounding the authenticity of videos showing apparent levitation. Crawford addressed these concerns by providing detailed schematics, part numbers, and even a live demonstration during the APEC session. He emphasized the open-source nature of the project, encouraging replication and further investigation.

The Live Demo and Beyond

The APEC session included a live demonstration of the Graviflyer kit, showcasing the spinning motors and the wireless energy transfer using a neon bulb. This provided compelling visual evidence supporting Crawford’s detailed explanation. However, challenges with audio interference during the live demo highlighted the complexities of working with high-voltage, high-frequency systems.

Future Directions and Ongoing Research

Crawford outlined future plans, including the construction of a mercury engine apparatus inspired by WWII anti-gravity research. He also highlighted the ongoing collaboration with other researchers and ongoing communication with Alexey Chekurkov, emphasizing the open-source nature of the project and the potential for significant breakthroughs in alternative propulsion.

Conclusion: A Promising but Unproven Technology

The Graviflyer remains a controversial but fascinating device. While the presented information provides a detailed technical overview and compelling evidence, further research and independent verification are crucial to fully understand its capabilities and potential. The open-source nature of the project, however, encourages further investigation and collaboration, potentially leading to significant advancements in the field of alternative propulsion.