"Spark Gap Lingam" Technology

John Bidwell - January 1, 2024

The future is back.


ABSTRACT

Mankind has come a long way during the past few centuries, and now, because of the most recent technological achievements of my own inventions (WCSG technology, Fig. 1), we can no longer ignore the many truths that directly link the implementation of high voltage science to our ancient past. From showing how a lingam is indeed an extreme, high-voltage, high-amperage water-cooled spark gap, to some of the ancient practical uses it had, this will be the first paper in our current civilization detailing the basic functionality of an SGL (Spark Gap Lingam, Fig. 2), explain it's primary use as an electromagnetic flux engine, and show how this technology can be applied in our own fast-paced, high-voltage world of today along with where it most-certainly will at some point be implemented into the future of our tomorrow.

Fig. 1



Fig. 2

INTRODUCTION

After decades and countless personal hours spent studying over ancient global histories, observing all their archeological and unmistakable, similar architectures (which also directly connect ancient sites together around the world throughout every known time period), I have come to the incredible conclusion as to what part of this mystery the lingam represents and without a doubt, have also demonstrated the high science and application of this advanced technology - for it simply cannot be denied that SGL's are a part of an elegant electrical machine - and they were obviously used for electromagnetic flux / power regulation which is harnessed for several purposes; all of which and more can be applied to benefit today's growing technological societies.

Fig. 3


First, when one understands how a basic WCSG "Fig. 3" system functions (see links below, "How a Water-cooled Spark Gap Works"), then you too must logically conclude that an SGL "Fig. 4" is the next obvious step in this advanced spark gap evolution, the next great leap towards powering extreme, high voltage, high amperage scientific applications - on almost unfathomable scales; which until the recent introduction of my WCSG and SGL technologies, there have been no such simplistic devices capable of providing an ample space for mass dielectric breakdown of a spark - without quickly overheating or melting - especially one spanning from inches to meters in-between electrodes, or a high-amperage spark gap suitable for handling millions to billions of volts with only a few basic, readily available components...




Fig. 4


MATERIALS AND METHODS

The system is comprised of 6 main components.

Component overview "Fig 4"

1) Trident PFR (Positive Flow Receiver)

2) IEA (Intermediary Electrode Array)

3) GFE (Ground Flow Emitter)

4) Lingam stone

5) Non-conductive water bowl, reservoir or surface

6) Trident holder / adjustment mechanism


I've found the best materials observed so far are the same used across countless ancient temples (mostly India), which is copper or brass for the Trident PFR (Positive Flow Receiver), a copper, brass or even gold IEA (Intermediary Electrode Array) and steel would seem, to date as of testing, the better material for a GFE because of both its electromagnetic and thermal properties (other metals are also observable being used here, however note that copper does not make an ideal GFE).


The methodology of implementing an SGL is by first positioning the IEA over the lingam stone. This is achieved by tilting the lower electrode ring so that it rests at a desired angle and distance congruent to the GFE (Fig. 5) which creates a control area (Fig. 6); this is a key element of an SGL's operation as the adjustment here directs the primary point at which voltage is regulated before flowing through the rest of the system.

Fig. 5




Fig. 6


The next step of voltage regulation is also both the position and distance of the Trident PFR to the Intermediary Electrode Array's tip or tips (this array can have multiple tips and flow exit transfer points). The IEA shown here (Fig. 7), especially at this much smaller introductory scale, has only 1 tip.




Fig. 7


When the system is running nominally (Fig. 8), the Trident PFR, IEA and GFE all work together to keep temperatures below their native ignition points, allowing for high-voltage, high-amperage energy transfers and any coil or coils connected to the system will then act as an "electromagnetic flux engine", by fluctuating high amperage current through the wires at an incredibly fast oscillation and inducing a high-voltage, high-amperage current in any secondary coils or other conductive elements involved.




Fig. 8


A higher-amperage, lower-capacitance capacitor type, such as salt-water capacitors (Fig. 9) are required to properly run the system and gain the advantage that a "Water-cooled Spark Gap" offers; the ability to easily utilize high-voltage, high-amperage current flow. Higher-capacitance capacitors will only slow the passable amperage available that can be harnessed for 'work', however too little capacitance will result in a plasma ignition instead of a spark.




Fig. 9


OPERATION / SETUP



Fig. 10


The basic steps for setting up an SGL (Fig. 10) are:

1) Fill up the water reservoir until water is only touching the lower GFE ring level.

2) Place your lingam stone securely onto the GFE ring (rotate until there is a fit) and recheck that water is only touching the lower part of the GFE and not at or above the ring's top level.

3) Position the Intermediary Electrode Array onto the lingam stone, making sure to both distance and tilt it at high enough of an angle so that sparks emitted are contained in a projected control area (Fig. 11) on the corresponding GFE ring (usually away from the rear ground wire). Be certain that the rear of the IEA is also angled at a high enough distance away from the rear GFE's bottom ring than at your desired control area, or it can spark at this unfavorable location. The ideal distance between the IEA and your projected control area is approximately 3.5 - 6 millimeters for an SGL at this size and scale.

Fig. 11


4) Once the lingam and IEA have been preliminarily adjusted, the Trident PFR can lastly be added into the system by positioning it securely in its holder and pointing the middle tip towards the tip of the IEA. There are several configurations available here, as the distance from, angle and position to the PFR will also control voltage flow throughout the entire system - this distance can be anywhere from about 4 - 6 millimeters for your SGL's size and scale. The PFR holder is movable and can rotate left and right; use this feature to help align your electrodes.



Fig. 12


A properly configured SGL will resemble the one in the above pictures (Fig. 12), considering each rule of Trident angle, IEA tilt and electrode distances have all been followed.

5) Power on the system briefly. The first few firings of an SGL right after setting up a fresh system will usually quickly ground out until either there is enough water between the lingam stone and lower GFE ring (water must both saturate this location and move slightly up the lingam walls before it will run reliably); an effect of which is naturally attained by current moving throughout the system while it's running, and why a fresh setup must more-than-likely be pre-fired or even adjusted possibly several times.

You can see some of the more common setup failures in the pictures below (Fig. 13), caused by either improper water levels, electrode misalignment or too much amperage being applied. The first few firings of a freshly setup lingam may resemble these illustrated failures, however do not get discouraged, and do not allow the electrodes to burn for any longer than is required to restart.




Fig. 13


RUNNING THE SYSTEM



Fig. 14


Once power is applied, a distinctive roar or 'banshee scream' will be heard when the system is pulling water and voltage properly (Fig. 14). With practice, you will become very familiar with this sound and how it correlates to the voltage and amperage flowing, and you can also eventually use this tone to gauge how the system is performing at several deeper levels.

The power of an SGL can be harnessed in many ways, one of which is when integrated into a Tesla coil system. An 'SGLTC' (Fig. 15), or 'Spark Gap Lingam Tesla Coil' is in fact a new type of Tesla coil, one we now as a civilization have an exciting ability to explore. The following pictures are of a quick overview for setting up an SGLTC - and the next step up, a 'Double Primary Spark Gap Lingam Tesla Coil' (Fig. 16), or the 'DPSGLTC' for short...




Fig. 15




Fig. 16


RESULTS

By applying a high-voltage, high-amperage current supplied through lower capacitance, a true ungodly amount of voltage can be then fluctuated throughout the SGL and its connected systems (Fig. 17). A thermal balance is achieved in many ways and by several factors, mainly, the continual cooling / thermal dissipation of the GFE by water, in conjunction with the superpositioned IEA above, as it is named, which functions as an Intermediary Electrode Array. This array acts as a kind of 'buffer zone' between the GFE negative and the positive receiver; it is this 'buffer zone' which takes the majority of abusive heat generated by an active system and why these main types of stones found in ancient lingams, such as granite, are the types used and needed to help maintain the adjustable hot IEA in place during operation.




Fig. 17


The IEA can also be water-cooled in larger-scale applications, by dripping water onto the IEA's upper shaft (and water must also in most cases be then routed away or around the lingam stone, as water in-between the lingam and IEA can cause a short and burn a hole into the stone). This IEA water-cooled functionality will be discussed in a more detailed, upcoming paper.


DISCUSSION




Fig. 18


There is no doubt that by all incredible facts, traditional 'lingams' function as robust, well designed, high-voltage, high-amperage water-cooled spark gaps, and are a testament to the incredible power our ancient ancestors once so masterfully wielded. The odds of arranging these same components into a working device as elegant as a lingam, or one that might achieve the same kind of constant high-amperage voltage flow an SGL so easily handles - without melting within seconds - are no way favorable to this as being a 'random' development by any means. The only logical conclusion is; this kind of an advanced "electromagnetic flux engine" is a purposeful, well designed tool, used for creating electromagnetic fluctuations which are harnessed for extreme high-voltage implementations, such as a multitude of stonework applications (Fig. 18).




Fig. 19


One of these uses I have also recently discovered by understanding and implementing the unique high-voltage, high-amperage output (Fig. 19) of both an SGL and my original WCSG's, is the ability to heat materials such as stones (Fig. 20) to thousands of degrees and accurately control their temperatures. The hot electromagnetic plasma reaches deep into the rocks and can bring them to near or above their melting points - which then creates a malleable, easily manipulated and carvable surface; such as seen in the many intricate stone artworks we observe across countless ancient temples today, and this process can especially be used for quarrying and building safe structures in our current civilization that will last the enduring tests of earthquakes, weather and time.




Fig. 20


The SGL is a type of advanced "electromagnetic-flux engine" which can particularly be utilized in today's wireless world, because this is what the great Nikola Tesla once dreamed of; true 'Radiant Energy', as it carries amperage and the ability to perform 'physical work'. In fact, I've already designed and tested an entire wireless energy transfer system (Fig. 21 plus see link, "radiant energy demonstration"), using this small-scale setup to wirelessly power a video game in the live demonstration.




Fig. 21


What comes next relies solely on those who read this paper and act on the divine power which I have discovered and shared. If one understands the impact that this technology will eventually have for our entire civilzation's future, then one must also take it upon themselves to share this knowledge with others and at least, speak about these incredible developments. Or perhaps, if one is a little more daring, then they too, might, very much like I have already done, don a white lab coat and try honorably making a few new discoveries on their own - maybe in the amazing fresh field of exciting WCSG technologies, even...




Fig. 22




Fig. 23


A great future is a collaborative effort. I've done more than my share by single-handedly discovering, creating and focusing a brand-new science, with proper terms, diagrams and written papers, I've introduced two new Tesla coil types and even contributed several new science experiments (Bidwell's Bird, Fig. 22, and Bidwell's Bee, Fig. 23) purveying solo these new scientific achievements including working products laboriously built and sold entirely myself, an innovative world-first website with intricate information about WCSG technology, produced detailed YouTube videos, a chat room, created high-voltage related 3D printable models you can download, plus soley orchestrated 2 successful Kickstarter campaigns and much, much more - all towards humbly helping further humanities sciences - however, as of right now, the time has come for you yourself to choose your own part, whatsoever it may be; a personal contribution must be made from everyone - whether simply by sharing this knowledge you've experienced here with another, or admirably experimenting with it yourself. The gift of your time right now for the greater good, however large or small, is what will ultimately help solidify a much-needed, very prosperous high-voltage future that benefits everyone's brighter tomorrow...


...Thank you and volt on, my friends!






Links

How a Water-cooled Spark Gap Works
https://www.youtube.com/watch?v=mjeaYCkkxnI

Radiant Energy Demonstration
https://www.youtube.com/watch?v=XrcThBgGiCc

The Greatest Mystery, Solved.
https://www.youtube.com/watch?v=n8hRsg8tWXg

How a Spark Gap Lingam Works
https://www.youtube.com/watch?v=91cjP0m-dtU

Bidwell's Bird - A Brand-new Science Experiment
https://www.youtube.com/watch?v=bY8FVpOmw5Y

Bidwell's Bee - Another New Science Experiment
https://www.youtube.com/watch?v=tOct273eW0k

This website
https://www.WCSG-Science.com

Kickstarter WCSG-Mini campaign
https://www.kickstarter.com/projects/johnbidwell/wcsg-mini

Kickstarter SGL campaign
https://www.kickstarter.com/projects/johnbidwell/spark-gap-lingam-sgl