Zero Point Switching - A New and Improved Self-Recovering Bedini Circuit
A new and improved version of the self-recovering Bedini circuit takes into consideration the new Maxwell interactions. Identifying all the interactions is one thing, but developing practical applications takes time. The work on these applications has led to a revised version of the self-recovering Bedini circuit, which has attracted considerable attention recently.
Before getting into the circuit, there is an opportunity to look at the power cell that was built around March. It is the Zamboni Power Cell One, featuring an ice tray design. Despite the time that has passed, it is still capable of powering an LED quite brightly. This provides an update on the earlier cell and demonstrates that it is still working well.
The First Revision and the New Design
The main focus is the self-recovering Bedini circuit. The first revision has now been improved following further consideration of the new interactions. The revised circuit introduces several modifications intended to make the system more efficient.
The new circuit diagram is available through the provided link. The PDF is also recommended because it contains a more detailed description of the interactions and the operating principles involved.
The new Maxwell equations and solutions point toward the zero-point interaction. This is consistent with what Tom Bearden discussed regarding very transient, extremely sharp, brief events. However, his discussions did not include the mathematical framework provided by the new interactions.
One important finding from the new interactions is the significance of very sharp spikes. The difficulty is that producing these spikes through conventional electronic switching becomes extremely challenging, even when using MOSFETs and switches operating in the nanosecond (ns) range.
A different approach is therefore proposed: using the inherent properties of magnetics to generate the required spike naturally, without having to rely on extremely fast switching to produce it.
How the Revised Circuit Works
The revised circuit is somewhat more complicated than the original, but its central modification involves an additional set of MOSFETs operating with 50/50 switching.
Instead of using two coils, the arrangement uses two MOSFETs switching into a single coil. This keeps the magnetization energized in the coil continuously, maintaining the magnetic field rather than allowing it to exist only partially during the operating cycle.
The magnetic field effectively acts as an energy reservoir. During the next cycle, the circuit does not have to recover and reestablish the entire magnetic field from scratch.
Although the switching remains a 50/50 square wave, with one MOSFET on while the other is off, the inherent transient behavior of this dual-switching arrangement is precisely what the design seeks to exploit.
The objective is to obtain the nanosecond-range spike without having to generate it through an additional extremely fast switching operation.
This approach is intended to provide an efficient way of interacting with the zero point while retaining the energy-recovery characteristics of the original circuit.
As shown in the revised design, some modifications also allow the recovered energy to be directed into what is described as a tank: a supercapacitor bank used for recharging.
By keeping the magnetic field open, the arrangement is intended to achieve a zero or near-zero counter-electromotive-force (CEMF) interaction.
Potential Applications as a Motor Driver
This arrangement could also serve as a highly efficient motor driver.
Consider a conventional motor driven using this approach. The objective would be to obtain nearly 100% of the input energy as useful output, rather than losing a substantial portion through CEMF.
In addition to the CEMF interaction, the proposed approach considers interactions with the surrounding environment, including Earth's fields, magnetic potential, and zero-point interactions. Several different interactions are involved.
The broader possibility is that a motor could initially be started using a relatively small energy source, such as a precharged supercapacitor. It could then potentially sustain its operation by drawing whatever energy it requires from the environment through these various interactions.
This represents a proposed approach to achieving a much more efficient operating system.
Why the Circuit Uses 50/50 Switching
The 50/50 switching arrangement is important because the circuit needs to operate at a relatively high frequency.
At a 50/50 duty cycle, sufficiently high switching frequency allows the transient behavior to produce the desired spike-like effect.
Using a single power supply with a 99% duty cycle would be problematic. Such an arrangement would essentially approach a dead short, resulting in substantial heating and the loss of most of the intended effect.
This is why the dual-switching configuration is used.
At high frequencies, well within the operating range of MOSFETs, the circuit can run at approximately 40 kHz or even somewhat higher if desired.
The resulting arrangement retains the intended characteristics while providing a continuous magnetic-field reservoir. Consequently, the circuit does not need to expend as much energy during every event to reestablish the full magnetic field.
Although a 50/50 duty cycle means that each switching state occupies half of the cycle, there is still an inherent transient interval associated with the switching process. That transient interval is precisely what the design seeks to utilize.
The intended result is reduced CEMF and an enhanced interaction with the potential zero point and other nearby fields.
Conclusion
These modifications represent a direction worth considering for the development of the self-recovering Bedini circuit.
The revised design retains the energy-recovery concept of the original circuit while introducing a dual-MOSFET switching arrangement and a continuous magnetic-field reservoir.
The accompanying PDF provides a more detailed explanation of the different systems and interactions involved. Since the available space on YouTube is limited, the PDF is provided through a separate link for those who want to examine the complete description.
Thank you very much for watching.
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