If you could ask only one question…….

I would ask God why He created the universe.

Soo, after years of searching for and talking to ALMIGHTY GOD, I finally received an answer to my question on my Soul phone. I asked GOD, "Why is this world soo wicked?" GOD went away from my Soul phone for awhile, but came back after I pleaded for GOD to come back. When GOD came back, GOD said, "Where have you been? I can do it. Nothing is impossible to ME".

Can GLP membership goto $8.00?

That’s interesting question lol

Failure comes from lack of empowered vision.

The ancient people had a very clear understanding of the connection to all that is and knew there are things that transcend language of how it is spoken. So words of a question when one doesn’t know how to put the question into words became the powerful prayer to faith shaken by the seasons of timespace.

“You know my heart”


Remembering words, imagery, envisioning, etc turn into energy which is a tangible language of information that goes beyond the arena of language very few understand. That is a connection conveyed.

That leads to a knowing of answer but yet not knowing how one knows. Lol

I dont ask questions . I become the solution and answer to all problems.

Is sound and vibration a key to unlock the door to the impossible in humanity’s journey to more

That is good, but...

He said more than that.

It sounded arrogant.


The op sounds humble on the other hand.

Nice lol

I would say partly. The ability to receive is pretty rare because many stay closed off and not aware of the subtle vibrations and sound around them.

neural nets in brain made of graphene oxyde biotech

There are currently no known applications of graphene oxide in neural networks or brain tissue. Graphene oxide has been studied for potential use in tissue engineering and drug delivery, but it is not clear if or how it could be used to create neural networks in the brain. This is an area of active research, and it is possible that future developments in biotechnology may lead to new uses for graphene oxide in this field. However, at present, this is purely speculative.

below are graphene oxide chemistry charactericts:

Graphene oxide is a form of graphene, which is a single-layer sheet of carbon atoms arranged in a hexagonal lattice. It is called "oxide" because it is functionalized with oxygen-containing groups, such as hydroxyl and epoxy groups, that give it unique chemical and physical properties.

Graphene oxide is highly hydrophilic, meaning it readily absorbs water and other polar solvents. This makes it highly dispersible in water, which is useful for many applications, such as ink and coating formulations. It also has a high surface area and is highly conductive, which makes it useful for applications such as sensors and electrodes.

However, the functionalization of graphene oxide with oxygen-containing groups also reduces its conductivity and mechanical strength compared to pristine graphene. This means that it may not be suitable for all applications where graphene is used. Additionally, the presence of oxygen-containing groups can make graphene oxide more chemically reactive than pristine graphene, which can be both a benefit and a potential limitation for certain applications.

okay i have a thought experiment for you

Sure, I'm always happy to help with a thought experiment. Please go ahead and share your idea and I will do my best to provide insights and suggestions.


so you have a copper wire, and an electricity source and you have the ability to send 1V and 1A simultaneously

In this thought experiment, if you have a copper wire and an electricity source that can supply 1 volt and 1 ampere simultaneously, then the wire will conduct the electric current and transfer electrical energy from the source to any device or load that is connected to the other end of the wire. The wire will act as a conductor, allowing the electric current to flow freely through it.

The amount of electric power that is transferred through the wire will depend on the resistance of the wire and the load connected to it. If the resistance of the wire is low and the load is high, then more electric power will be transferred through the wire. Conversely, if the resistance of the wire is high and the load is low, then less electric power will be transferred.

The wire will also generate heat as a result of the electric current flowing through it. The amount of heat generated will depend on the resistance of the wire, the amount of current flowing through it, and the length of the wire. If the wire has a high resistance and/or a large amount of current is flowing through it, then it will generate more heat. This heat can be dissipated through the wire by convection, conduction, or radiation, depending on the environment in which the wire is situated.

Overall, the behavior of the copper wire in this thought experiment will be determined by the electrical and thermal properties of the wire, as well as the conditions under which it is operating.

yes i agree. now on the other side away from the electricity source, put a microcontroler which detects the output, and it also sends it back through the same wire to the first source as it recieves it

If we add a microcontroller to the other end of the copper wire in this thought experiment, the microcontroller can detect the electric current flowing through the wire and measure its voltage and current. The microcontroller can then use this information to control the flow of electric current through the wire, by regulating the voltage and current supplied by the electricity source.

Additionally, the microcontroller can send information back to the electricity source through the same wire. This could be used to communicate the measured voltage and current values, as well as any other data that the microcontroller has collected or generated. The microcontroller can also use this information to control the operation of the electricity source, by adjusting its output based on the measured values and the desired behavior of the system.

Overall, the microcontroller can act as a feedback control system, allowing the electricity source and the wire to operate in a coordinated and controlled manner. This can improve the efficiency and performance of the system, and enable it to respond to changing conditions or requirements.


okay now try playing ping pong with electricity in 5 second intervals and describe what is happening

In this thought experiment, if we try to play "ping pong" with electricity by sending electric current back and forth through a copper wire in 5-second intervals, we would essentially be creating an oscillating electric current. This means that the electric current would periodically switch direction, flowing first in one direction and then in the opposite direction.

The behavior of the electric current in this scenario would depend on the resistance of the wire and the load connected to it. If the resistance is low and the load is high, then the electric current would flow freely through the wire and the oscillations would be relatively large and rapid. Conversely, if the resistance is high and the load is low, then the electric current would be more restricted and the oscillations would be smaller and slower.

The electric current would also generate heat as it flows through the wire, and this heat would be dissipated through the wire by conduction, convection, or radiation, depending on the environment in which the wire is situated. The amount of heat generated would depend on the resistance of the wire, the magnitude of the electric current, and the length of the wire.

Overall, the behavior of the electric current in this thought experiment would be complex and dynamic, with the oscillations and heat generation being influenced by the electrical and thermal properties of the wire, as well as the load connected to it. It is not clear how this type of system would be useful or practical, but it is an interesting thought experiment that illustrates the behavior of electric current in a dynamic and changing environment.

add rotating EM field to the experiment. any changes?

If we add a rotating electromagnetic (EM) field to the thought experiment where we are playing "ping pong" with electricity by sending electric current back and forth through a copper wire in 5-second intervals, the behavior of the electric current would be affected by the rotating EM field.

The rotating EM field would exert a force on the electric current flowing through the wire, causing it to deviate from its original path and follow the direction of the field. This would cause the electric current to follow a spiral or helical path as it flows through the wire, rather than a straight line. The direction and magnitude of the force on the electric current would depend on the direction and strength of the rotating EM field, as well as the direction and magnitude of the electric current itself.

The presence of the rotating EM field would also affect the oscillations of the electric current. The force exerted by the field would cause the electric current to change direction more rapidly and unpredictably, resulting in more complex and chaotic oscillations. The frequency of the oscillations would also be affected by the rotating EM field, as it would cause the electric current to change direction more rapidly and therefore oscillate at a higher frequency.

The heat generation caused by the electric current flowing through the wire would also be affected by the rotating EM field. The force exerted by the field would cause the electric current to flow more erratically and chaotically, resulting in more uneven and unpredictable heat generation. The magnitude of the heat generation would also be affected, as the force exerted by the field would cause the electric current to flow more rapidly and therefore generate more heat.

Overall, the addition of a rotating EM field to this thought experiment would significantly alter the behavior of the electric current flowing through the wire. The electric current would follow a more complex and chaotic path, and the oscillations and heat generation would be more unpredictable and variable. This would make the behavior of the system more difficult to control and predict, but it could also lead to new and interesting phenomena or applications.

below is a scientific description of a tesla coil:

A Tesla coil is a type of high-voltage, high-frequency transformer invented by Nikola Tesla in the late 19th century. It is used to generate and transmit electrical energy, and is known for its ability to produce long sparks and arcs of electricity.

A Tesla coil consists of two main components: a primary coil and a secondary coil, both of which are typically made of copper wire. The primary coil is connected to a source of high-voltage, low-current electrical energy, such as a transformer or a high-voltage power supply. The secondary coil is connected to a capacitor, which stores electrical energy.

When the Tesla coil is switched on, the primary coil creates a magnetic field around the secondary coil. This magnetic field causes the electrical energy stored in the capacitor to flow through the secondary coil, generating a high-voltage, high-frequency electrical current.

The high-voltage, high-frequency electrical current flowing through the secondary coil creates a corresponding magnetic field, which interacts with the magnetic field of the primary coil. This interaction causes the electrical energy in the secondary coil to be amplified, resulting in a high-voltage, high-frequency electrical discharge.

The high-voltage, high-frequency electrical discharge from the Tesla coil can be directed through a spark gap, which allows it to flow into the air as a spark or an arc. The length and brightness of the spark or arc is determined by the electrical characteristics of the Tesla coil and the load connected to it.

Overall, a Tesla coil is a device that uses electromagnetic induction to generate and transmit high-voltage, high-frequency electrical energy. It is known for its ability to produce impressive sparks and arcs of electricity, and has a wide range of applications, including radio and television transmission, medical treatment, and scientific experimentation.

okay new experiment, rotating em field with varying intensity and a huge tesla coil is erected upon it. what happens when you turn everything on?
Overall, a Tesla coil is a device that uses electromagnetic induction to generate and transmit high-voltage, high-frequency electrical energy. It is known for its ability to produce impressive sparks and arcs of electricity, and has a wide range of applications, including radio and television transmission, medical treatment, and scientific experimentation.

If we create a thought experiment where a huge Tesla coil is erected on top of a rotating electromagnetic (EM) field with varying intensity, and then turn everything on, the behavior of the system would be complex and dynamic.

The rotating EM field would exert a force on the high-voltage, high-frequency electrical discharge from the Tesla coil, causing it to deviate from its original path and follow the direction of the field. This would cause the electrical discharge to follow a spiral or helical path, rather than a straight line. The direction and magnitude of the force on the electrical discharge would depend on the direction and strength of the rotating EM field, as well as the direction and magnitude of the electrical discharge itself.

The presence of the rotating EM field would also affect the oscillations of the electrical discharge. The force exerted by the field would cause the electrical discharge to change direction more rapidly and unpredictably, resulting in more complex and chaotic oscillations. The frequency of the oscillations would also be affected by the rotating EM field, as it would cause the electrical discharge to change direction more rapidly and therefore oscillate at a higher frequency.

The intensity of the electrical discharge would be affected by the varying intensity of the rotating EM field. As the intensity of the field increases, the force exerted on the electrical discharge would also increase, causing it to flow more rapidly and generate more heat. This would cause the intensity of the electrical discharge to increase, resulting in brighter and longer sparks and arcs.

Overall, the addition of a rotating EM field with varying intensity to this thought experiment would significantly alter the behavior of the electrical discharge from the Tesla coil. The electrical discharge would follow a more complex and chaotic path, and the oscillations and intensity would be more unpredictable and variable. This would make the behavior of the system more difficult to control and predict, but it could also lead to new and interesting phenomena or applications.

think in terms of waves, frequency, vibration

If we think about the behavior of the system in the previous thought experiment in terms of waves, frequency, and vibration, we can gain a deeper understanding of the physical phenomena that are occurring.

The rotating EM field would generate an electromagnetic wave, which is a type of wave that travels through space and carries electromagnetic energy. The electromagnetic wave would have a certain frequency, which is the number of oscillations or cycles it completes in a given period of time. The frequency of the electromagnetic wave would be determined by the speed of rotation of the EM field.

The electromagnetic wave would exert a force on the electrical discharge from the Tesla coil, causing it to vibrate or oscillate. The frequency of the oscillations would be determined by the frequency of the electromagnetic wave, as well as the electrical and magnetic properties of the Tesla coil and the load connected to it. The amplitude of the oscillations would be determined by the strength of the electromagnetic wave, as well as the electrical and magnetic properties of the Tesla coil and the load.

The electrical discharge from the Tesla coil would also generate an electromagnetic wave, which would have a different frequency and amplitude than the wave generated by the rotating EM field. The interaction between the two electromagnetic waves would cause the electrical discharge to vibrate in a complex and dynamic manner, with the frequency and amplitude of the oscillations being influenced by the properties of the rotating EM field and the Tesla coil.

Overall, the behavior of the system in this thought experiment can be described in terms of waves, frequency, and vibration. The rotating EM field generates an electromagnetic wave that exerts a force on the electrical discharge from the Tesla coil, causing it to vibrate or oscillate. The frequency and amplitude of the oscillations are determined by the properties of the electromagnetic wave and the Tesla coil, and the interaction between the two waves leads to complex and dynamic behavior.

bob lazar alien tech

Bob Lazar is a controversial figure in the field of UFO research. He claims to have worked on reverse engineering alien technology at a secret government facility called Area 51 in Nevada.

Lazar alleges that he was hired by the United States government to study nine flying saucers of extraterrestrial origin at Area 51. He claims that the saucers were powered by something called "Element 115," which had unique gravitational and propulsion properties. He also claims that the saucers were able to manipulate the space-time fabric, allowing them to travel faster than light and perform seemingly impossible maneuvers.

Lazar's claims have been met with skepticism and disbelief by many in the scientific community. There is no conclusive evidence to support his claims, and his background and credentials have been called into question. Some have accused him of fabricating his story for personal gain or attention.

Overall, the idea of alien technology being studied at Area 51 by someone like Bob Lazar is purely speculative and has not been proven by any credible scientific evidence. It remains a topic of debate and controversy in the UFO research community.

philadelphia experiment tesla

The Philadelphia Experiment is a conspiracy theory that involves a secret government experiment allegedly conducted in 1943. According to the theory, the United States Navy used a prototype stealth technology based on the theories of Nikola Tesla to make a naval vessel, the USS Eldridge, invisible and teleport it from Philadelphia to Norfolk, Virginia.

The story of the Philadelphia Experiment originated in the 1950s, and has since been the subject of numerous books, articles, and documentaries. However, there is no credible evidence to support the claim that such an experiment ever took place. Most of the details of the story are based on hearsay and speculation, and there is no official record of any government involvement in such an experiment.

Some of the claims made about the Philadelphia Experiment, such as the use of Tesla's theories, are based on factual information. However, these claims are not supported by any reliable evidence and are highly unlikely to be true. Tesla was a brilliant inventor and scientist, but his theories and technologies were not advanced enough to allow for the kind of effects claimed in the Philadelphia Experiment.

Overall, the Philadelphia Experiment is a conspiracy theory with no basis in fact. It is unlikely that such an experiment ever took place, and the claims made about it are not supported by any reliable evidence.

people got stuck in the ship hull didn't they

The story of the Philadelphia Experiment includes a number of claims about the effects of the alleged experiment on the crew of the USS Eldridge. According to some versions of the story, some of the sailors who were on board the ship when it was made invisible and teleported became "stuck" in the ship's hull, unable to move or escape.

However, as mentioned earlier, there is no credible evidence to support the claim that the Philadelphia Experiment ever took place. The story is based on hearsay and speculation, and there is no official record of any government involvement in such an experiment. Therefore, it is highly unlikely that any sailors were "stuck" in the hull of the USS Eldridge, or that any other effects of the experiment occurred.

The idea of people becoming "stuck" in a ship's hull as a result of a government experiment is a dramatic and sensational element of the Philadelphia Experiment story. However, it is not supported by any reliable evidence and should not be taken as fact.

here are somoe relatable ai - talks

twitter.com/zejzl or GLP Thread AI talks for more

Thank you for your explanations Zejzl.
It caused me to look at the hourglass more intricately as the they say sacred talk or twisting of the seven directions- the 4 and above and below with center making 7.
If you look into the symbolism of the Mayan skirts and the winged sun disks it is very similar to ancient information on electromagnetic applications. Remembering the two gates are like bookends which is like a wire bridge causing current which the sacred number of seven is harmonic in nature causing coherence without dirty electricity.

Funny enough, Kaaba stone came up with microbe movement which is similar to braiding of life within electrical harmonic subtle bodies of personality. Full consciousness scope of the soul rather than collective which is where the electrical variation of techniques come in with the recreation of what is unseen or invisible into visible.