The D-Extended Tesla Bifilar Coil: A New Geometry for a Compact Wireless Power System
Bismillah ar-Rahman ar-Rahim.
This article presents an extension of Part 2 of the document The Resonant Energy Device Explained. It introduces a new model intended to describe the operation of an extended Tesla bifilar coil. The proposed model is still incomplete because finding a suitable solution to the underlying problem is not straightforward.
1. The Problem with the Original Wireless System
The original idea is to create a compact Tesla wireless power system that can operate within a small area and transfer power at radio-frequency rates.
Looking at the original drawing, the operating principle can be described as follows. The emitter sends power toward a sphere, the receiver receives that power and returns it to the flat coil, and the resulting power is available at the output.
However, transferring power through this arrangement is not the only consideration. To achieve the intended operation at radio frequencies, both sides must work together. In other words, the system needs an emitter and a receiver operating simultaneously.
As illustrated by the red and blue sections in the drawing, when one side operates as an emitter, the corresponding side must operate as a receiver. At the same time, the opposite side must also perform the complementary function. One side acts as an emitter while the other acts as a receiver, and their roles must work together.
This arrangement is important because the objective is to cancel Lenz effects within the system.
An open coil presents a particular difficulty. Whenever power is drawn from the coil, the extraction of that power affects the behavior and results of the device. A different geometry is therefore needed to address this problem.
This leads to the proposed D-Extended Tesla Bifilar Coil geometry.
2. The D-Extended Tesla Bifilar Coil Geometry
The initial name given to this design was the D-Extended Tesla Bifilar Coil. However, after examining its geometry more closely, it became clear that the structure is not simply a conventional bifilar coil.
The design combines two coil sections into a single working structure. One section is arranged on one side, and another section is arranged on the opposite side. Although they are separate sections, they function together as a single coil.
An initial test was performed using this coil, with voltage measurements taken from each side. The geometry was tested using a single-transistor oscillator circuit.
The important observation was that when one side of the coil produced voltage, the other side produced electric current, and vice versa.
The voltage waveforms, shown in green and yellow, exhibit a phase shift. A closer examination of the waveform indicates an approximate phase difference of 90 degrees between the two sides.
However, the coil still presents an important practical difficulty: whenever power is drawn from one side, the other side is affected. This makes the operation of the mixed extended Tesla bifilar coil difficult.
A different arrangement is therefore proposed: the D-Extended Tesla Bifilar Coil, designed to produce two opposing electric currents within the same coil structure.
3. The Principle of Two Opposing Electric Currents
The proposed design uses two extended Tesla bifilar coil sections arranged within the same overall geometry.
For example, one side can be considered Extended Tesla Bifilar Coil No. 1, while the opposite side is Extended Tesla Bifilar Coil No. 2.
The letter labels in the drawing should not be followed too literally. The important point is understanding the actual geometry and how the connections are arranged.
Consider one side of the structure. There are several connections, and the drawing can initially appear complicated. The same coil geometry is then viewed from the opposite side.
When the structure is turned around, the same geometry becomes visible on the other side. This is the central idea behind the D-Extended Tesla Bifilar Coil: two different coil sections are incorporated into one overall structure.
The reason for using this arrangement is to produce two different electric currents within the same coil structure.
A photograph of Coil No. 1 illustrates the construction. The coil contains multiple turns, and beneath this winding structure there is another flat coil section. The diagram also shows eight connections, numbered from one to eight.
Despite these eight connections, the completed coil has only two output terminals.
The purpose of this geometry is to create a structure in which two different electric currents can operate within the same coil, potentially addressing the Lenz effect.
The design uses foil rather than conventional wire. The underlying idea is that if the magnetic field produced by each section can be divided and controlled appropriately, two different electric currents may be established within the same coil, flowing in opposite directions.
One current flows in one direction, while the other current flows in the opposite direction.
4. Understanding the Voltage Distribution
The voltage arrangement follows the same technique previously described in Part 1 of the PDF document.
Consider the voltage distribution shown in the drawing. One reference point is designated as X = 0, followed by the voltage points V and 2V.
Now focus on one side of the coil and imagine its magnetic field pointing in a particular direction.
When the same coil is turned around, the geometry appears again, but the reference positions are reversed.
The original zero point takes the position of the opposite reference point, while the voltage positions change accordingly. The same arrangement applies to the other side of the structure.
This explains why the negative connection is taken from one side and the positive connection from the opposite side.
The important principle is that when current is drawn from the D-Extended Tesla Bifilar Coil, two opposing electric currents are intended to flow within the same coil structure.
This arrangement is considered a potentially useful way to address the Lenz effect.
Rather than relying only on a conventional bucking coil arrangement, the proposed geometry attempts to establish two electric currents flowing in opposite directions within the same coil.
The underlying idea is that this configuration may reduce the Lenz effect. In this case, drawing power from the output is intended not to affect the input in the same way as it does in the original open-coil arrangement.
The output is therefore intended to operate with greater independence from the input.
5. Applying the New Coil to the Wireless Power System
Returning to the wireless power system, Part 2 of the original PDF explains only one section of the device: the sphere and the large flat coil.
However, the input section, represented by the red coil in the drawing, was not explained in sufficient detail. This is an important part of the system that was missing from the previous document.
The proposed arrangement introduces two opposing coils as the primary excitation structure.
Consider the drawing with the permanent magnets. The primary coil arrangement is used to establish the magnetic field configuration required by the system.
The intended configuration uses a step-down arrangement. This means that the D-Extended Tesla Bifilar Coil is expected to operate at a lower voltage while providing a higher electric current.
To excite this coil, a bucking-coil configuration is used.
For example, one coil is wound clockwise, while the other is wound counterclockwise. A high-voltage electric current is applied to excite this arrangement.
The objective is to produce opposing magnetic fields, similar to two permanent magnets facing one another with their corresponding poles arranged in opposite directions.
In the illustrated configuration, the two coils are arranged so that a North Pole is produced on one side and another North Pole on the opposite side.
This creates the intended opposing magnetic-field arrangement, with a relatively symmetrical magnetic field between the two sections.
The D-Extended Tesla Bifilar Coil is designed to take advantage of this magnetic-field configuration.
For this reason, the position of the D-Extended Tesla Bifilar Coil must be adjusted whenever this arrangement is constructed. It needs to be placed precisely in the center of the magnetic-field structure.
This positioning is important because the coil must be divided symmetrically into two identical sections.
The internal geometry of the D-Extended Tesla Bifilar Coil must therefore be aligned with the two corresponding parts of the magnetic-field arrangement.
6. Voltage Connections in the Excitation Configuration
The voltage distribution follows the same principle described earlier.
Consider the upper section, where the reference points are 0, V, and 2V. The same voltage arrangement is repeated in the corresponding section.
For example, the upper section contains the corresponding voltage points, while the lower coil section has zero-voltage reference points.
The negative connection is taken from the designated point, while the positive connection is taken from the corresponding opposite side.
As shown in the drawing, the coil has eight connections during construction, but the final arrangement combines these connections into a single working structure.
The excitation coil is located in the middle. One section is wound clockwise, while the other section is wound counterclockwise.
The winding directions are arranged so that the two sections produce the intended opposing magnetic fields.
Two wires are connected together at the designated connection point. On one side, an extended Tesla bifilar coil section is formed, while the opposite side contains the corresponding second section.
The two sections are then connected according to the illustrated configuration.
The drawing also identifies a particular connection as the excitation position. This is associated with the proposed electron-spin-change mechanism, in which the electron spin direction is expected to change.
The corresponding connection arrangement is repeated on the opposite side.
For example, the first connection remains free, while another connection is joined to its corresponding wire, as shown in the diagram.
The positive and negative terminals are identified separately.
The final output is taken from the two designated output connections, while the other connections are joined together according to the illustrated wiring arrangement.
This completes the electrical connection between the two coil sections.
7. How to Construct the D-Extended Tesla Bifilar Coil
The construction process can be explained step by step.
First, prepare two identical foil sections. They must have exactly the same shape and should be made as symmetrical as possible.
Each foil section has four designated connections.
The upper foil is identified as Coil No. 1, while the lower foil is identified as Coil No. 2.
On the upper foil, two connections are positioned on one side, with the corresponding connections arranged on the opposite side.
The lower foil has its own corresponding connections, which are identified in red in the drawing.
Some of these connections are not visible from a particular viewing angle because they are located underneath the other foil section.
The four initial connections must therefore be identified carefully. Any wire colors can be used, provided the geometry and connection positions are understood correctly.
The construction requires particular attention to the symmetrical arrangement of the two foil sections.
The design has not yet undergone extensive experimentation because the available time for testing has been limited. Further experiments are intended to be carried out as soon as possible.
Olive oil is used during the soldering process. This is important for soldering the copper connections to the aluminum foil.
After completing the first set of connections, another two blue connections are prepared in the same way on the opposite section.
The same procedure is repeated for the other foil.
Once all the connections are prepared, the two sections can be placed together to form the final configuration.
A black piece of tape is used to mark a particular wire, as shown in the photograph. The negative connection is also marked for identification.
Although the designation may not represent the exact electrical current direction, marking the connections makes the construction process easier to follow.
The wires can be numbered or identified using any convenient method, as long as their positions remain clear.
When assembling the coil, the corresponding wires are connected together according to the drawing.
The lower blue connection is joined to its designated counterpart, and the upper blue connection is connected to the corresponding wire.
The two red connections are also identified and arranged as shown.
The two red wires remain free because they are not required for the intended output connections. They are associated with the oscillation arrangement of the device.
The power output is taken from the designated positive and negative sides.
The accompanying drawing provides a clearer understanding of the complete connection arrangement.
8. Oscillation of the D-Extended Tesla Bifilar Coil
The oscillation observed in the D-Extended Tesla Bifilar Coil is particularly interesting.
A low voltage of approximately 12 volts was used for the experiment.
The bucking coil was excited using the configuration described earlier. A 12-volt discharge was applied across the coil, with the D-Extended Tesla Bifilar Coil positioned precisely in the middle of the arrangement.
Power was then taken from the D-Extended Tesla Bifilar Coil.
The resulting oscillation displayed an unusual waveform.
Although the oscilloscope trace is not completely clear, the waveform shows a relatively regular oscillation beginning at the indicated point.
The oscillation follows a particular direction, then returns, while the device continues oscillating for a relatively long time.
The measured voltage was very low, but the waveform still indicated a form of electrical activity.
The complete behavior of this oscillation is not yet fully understood, but the observed waveform was present during the experiment.
9. The Lorentz Force in This Configuration
Another important aspect of this configuration concerns the Lorentz force.
As shown in the drawing, the magnetic field on one side points upward because the arrangement contains two opposing magnetic fields.
Consider an electron in the illustrated position.
The magnetic field is directed upward, and the direction of the current is represented by the corresponding arrow.
Under these conditions, the Lorentz force acts in a particular direction, as indicated in the diagram.
The same principle applies to the opposite section, where the force acts in the opposite direction.
Consequently, the geometry creates another possible movement of electrons within the specially arranged coil structure.
This is an additional aspect of the proposed D-Extended Tesla Bifilar Coil configuration.
10. Conclusion
The D-Extended Tesla Bifilar Coil is a proposed geometry designed to establish two opposing electric currents within the same coil structure.
Its purpose is to investigate a different approach to addressing Lenz effects and to explore how the arrangement might operate within a compact wireless power system.
The configuration combines two symmetrical coil sections, an opposing magnetic-field arrangement, and a specific connection geometry.
The initial 12-volt experiment showed an unusual oscillation that continued for a relatively long time, although the voltage was low and the complete behavior has not yet been explained.
The design is also referred to as the Muhammad Coil, although the technical name D-Extended Tesla Bifilar Coil can be used to describe the geometry.
This is the current state of the proposed idea. The design may provide a starting point for further investigation, and additional experimentation will be needed to understand its operation more completely.
Thank you for your attention.
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