Patent Grant
12363817
The present invention relates generally to methods of attracting and collecting electrons. More specifically, the present invention is an apparatus for attracting and collecting electrons from cloud bottoms and cloud tubes.
Weather is controlled through gravity and electromagnetism. In the Northern Hemisphere, the atmosphere above the earth is flooded with negatively charged electrons; these negatively charged electrons are supplied by sources such as the sun. Positively charged particles are pulled upward and meet with the negatively charged electrons in the atmosphere. When the oppositely charged particles meet, there is an electric discharge process, and if there is sufficient water vapor in the air, a cloud is formed.
As negatively charged electrons move towards the earth, they create invisible tubes which converge to a point. Positively charged dust and protons on the earth's surface move up to meet them. Moving positive charges diverge and create tubes. Lightning, dust devils, tornadoes, and hurricanes are all formed when a stream of electrons in the atmosphere moves down to earth to discharge dust and other positively charged elements. Lightning Strikes, Dust Devils, Tornadoes, and Hurricanes are all similar phenomena; “electric discharge,” the only difference is the amount of voltage that drives them and the time they take to discharge.
Therefore, there is a need for an invention which allows us to drain the electrons from clouds and cloud tubes. By draining the electrons, we would be able to prevent damage caused by weather phenomena. Further, the collected electrons would be a source of clean energy that may be sold or used to power any number of electrical devices.
The present invention is an apparatus for the collection of electrons from cloud bottoms and cloud tubes comprised of a conductive outer tube, a conductive inner cylinder, an insulating base, a starting power system, and a collection power system. The conductive inner cylinder is mounted concentrically within the conductive outer tube. Both the conductive outer tube and the conductive inner cylinder are mounted to the insulating base, which keeps them electrically isolated. The starting power system supplies a high voltage positively charged current to the conductive outer tube. This high voltage positively charge attracts electrons to the conductive inner cylinder where the electrons are collected and stored by the collection power system.
The present invention provides an apparatus for collecting electrons from clouds and cloud tubes and thereby allows a user to drain electrons from clouds and cloud tubes in any number of locations. The present invention may be utilized to protect residential or commercial locations and cities from lightning, tornadoes, or other severe storms. Further embodiments mounted to a ship may be utilized to drain electrons from the cloud tubes and at the bottom of the ocean which power hurricanes thereby weaking or eliminating these storms. These Hurricane tubes at the bottom of the ocean have the highest concentration of flowing electrons on the planet. According to NOAA.gov, “During just one hurricane, raging winds can churn out about half as much energy as the electrical generation capacity of the entire world, while cloud and rain formation from the same storm might release a staggering 400 times that amount.”
While reducing these weather phenomena, the present invention further provides a source of clean green energy which may be used to charge batteries, used to power devices or other electrical functions, or sold directly to the power grid. The present invention further provides a source of green energy that can be collected from tornado tubes, at the bottom of the ocean from hurricanes, and from clouds in the sky which can be used to recharge batteries run electric motors, or sold directly to the power grid.
All illustrations of the drawings are for the purpose of describing selected versions of the present invention and are not intended to limit the scope of the present invention.
The present invention is an apparatus for collecting electrons from cloud tubes and negatively charged bottoms of clouds which utilizes the following terms and scientific principles:
Atoms of air will fall due to gravity. All other forces and movements are created by electromagnetism as described by Maxwell's 4 equations of divergence and curl.
Wind moves in all directions because the atoms in our atmosphere have positive and negative charges. Positive and negative charges attract each other, while particles of the same charge repel each other.
Temperature is created by charged particles hitting atoms in our atmosphere. When a charge particle, infrared light, or Gama Rays, hits an atom in the air or in the ocean, the charge particle passes on some of their kinetic energy to the atom. This passed kinetic energy makes the atom vibrate and thereby creates heat. An example of this is heating water. Water can be heated via an electric stove or a microwave oven; both devices are electromagnetic. As a further example, gas stoves may also be used to heat water. Gas stoves utilize a flame which is a plasma and full of charge particles. These charged particles hit the iron molecules of your pan and cause them to vibrate, transferring the kinetic energy to the pan. Therefore, all heat is electromagnetic.
Low pressure is caused by moving electrons. In areas with a higher concentration of free electrons, electrons are repelled from each other, thereby creating an area of lower density and lower pressure. The higher the concentration of electrons, the lower the pressure will be. The lower the concentration of electrons, the higher the pressure will be. When electrons are moving in a tube, adjacent electrons will combine their magnetic field and have one large magnetic field and thereby create a fluid like flow. In this process, the electrons push O2 and N2 molecules out of their path creating a low-pressure tube.
Dust is composed of very small particles of dirt. Dust can easily become airborne. This is highlighted by the yearly dust storms that originate in North Africa, cross the Atlantic Ocean and dump their dust on the southern part of the United States.
Analysis of dust collected from Africa revealed that the dust was comprised of the following elements and that dust is positively charged:
The dust analysis revealed that six of the seven elements are positively charged. Dust is important because it is everywhere. It is in the air, on the land, in the oceans and other bodies of water. The bottom of the oceans has been collecting dust since the beginning of time and the dust layer may be several feet to miles deep. Dust is further seen in dust devils and tornados moving upwards into the atmosphere.
The atmosphere above the earth is flooded with negatively charged electrons, these negatively charged electrons being supplied by sources such as the sun. Clouds are formed or created when positively charged particles are pulled upward and meet with the negatively charged electrons and water vapor in the atmosphere which is:
2H2O→H3O(+)+OH(−).
When the oppositely charged particles meet, there is a discharge process, and a cloud is formed.
The bottoms of the clouds are observed to be mostly dark because they are continually pulling up positively charged dust. This positively charged dust discharges with electrons and further forms clouds. This is difficult to see because dust particles are very small, similar to the dust that sticks to a computer screen. When these fine dust particles are in the air, they are difficult if not impossible to see.
As dust is pulled upward, a flow of dust is formed. As the positively charged dust is pulled upward, negative electrons are pulled downward to further discharge with the positively charged particles of the earth. These two opposing flows create a “McLaine Coaxial Magnetic Tube” where negatively charged particles flow downward towards the earth, while positively charged particles flow up and around the electrons creating a tube. A “McLaine Coaxial Magnetic Tube” is further referred to and also known as a cloud tube 90, shown in
Lightning Strikes, Dust Devils, Tornadoes, and Hurricanes are all similar phenomenon, created by these cloud tubes 90. The only difference is the amount of voltage that drives them and the time they take to discharge. Both of these factors are related to the number of charges available to be discharged. Just think of a dust devil as a small tornado and a Hurricane as a group of Tornadoes in the Ocean.
The present invention is an apparatus for collecting electrons from cloud tubes 90. By collecting these electrons in an orderly fashion, this weather phenomenon should be able to be prevented, controlled or eliminated.
Lightning is created when a cloud collects a high concentration of electrons and forms a voltage greater than 100 million volts. By utilizing the present invention, clouds may be drained of electrons and the voltage would be reduced. If the voltage within a cloud is reduced to below 100 million volts, lightning strikes will be eliminated.
Dust Devils and Tornadoes are formed when a stream of electrons in a cloud tube 90 moves down to earth to discharge dust, protons, and other positively charged elements. The electrons move downward in the center of a tornado. As the electrons move downward, they create spinning magnetic fields which move the air and create the tornado effect. Positively charged particles further create spinning magnetic fields as they are moved upward toward the clouds, creating a tube of positively charged particles which wraps around the negatively charged electron tube.
Dust devils and tornadoes are not able to form when a cloud is drained to a voltage below 20K volts (K=thousand). Therefore, the present invention may be used in locations to protect both people and property from tornadoes. The present invention would be placed in a semi-circle around the protected area on the side where a tornado would normally enter. In some embodiments, they would be placed about five tubes per mile and two to three rows deep around locations such as shopping centers, residential properties, and cities.
Hurricanes are formed when multiple tornadoes in the ocean move close together and start rotating around each other. These rotating tornados open up and the eye of a hurricane as it is formed. In the Northern Hemisphere Tornadoes over water work similar to tornadoes on land, with negatively charged electrons moving downward and positively charged particles moving upward. In the Southern Hemisphere the charges are reversed Positive charges are moving down and electrons are coming out of the ground and moving up. In the Northern Hemisphere they spin CCW and in the Southern Hemisphere they spin CW. The difference between tornados over water versus over land is that over water in order to reach dust, the cloud tube 90 must extend to the dust layer on the bottom of the ocean.
When the cloud tube 90 locates a good source of positive charges it will anchor in that location as long as there is a large supply of positive charges. Meanwhile, the part of the cloud tube 90 above the water, the hurricane, gets blown across the ocean. The cloud tube 90 will still hold its anchor in a location as long as the supply of positive charges is available. This phenomenon stretches the cloud tubes 90 under the water. These underwater cloud tubes, 90 have been seen to extend thousands of miles.
Hurricanes can be weakened and eliminated by disrupting the flow of negatively charged electrons and positively charged particles within the cloud tube 90. Draining the cloud tube 90 of the negatively charged electrons would slow and eventually stop the cloud tube 90 powering these large storms. Thereby, the present invention when mounted to a ship may be used to intercept the electrons within these underwater cloud tubes and weaken or eliminate hurricanes. In the Northern Hemisphere these underwater tubes have negative charges moving to the bottom. In the Southern Hemisphere the charges are reversed.
The present invention has the further benefit of providing a low cost clean energy source. When electrons are collected from cloud tubes 90, these electrons may be collected and stored. These collected electrons may then be sold on the commercial energy market or used to power all number of electrical devices.
As an example, it has been found that a single hurricane may generate as much as 1.5 T watts of power. This is half the total electrical generation capacity of the earth. Therefore, capturing even a small fraction of this power would create a huge clean energy source.
In further embodiments, the present invention may use a power source to provide a constant source of positive energy. This high concentration of positive energy or high voltage positive charge allows the present invention to attract negatively charged electrons from both a very close proximity and from longer distances. Thereby, the present invention can be used to attract and absorb any negatively charged electrons within proximity to the present invention.
Referring now to
The conductive outer tube 20 of the present invention serves the function of conducting and holding a high voltage positive charge. The conductive outer tube 20 may have any suitable shape or design including but not limited to boxes, tubes, or bells. In a preferred embodiment of the present invention, the conductive outer tube 20 is shaped as a tube. The tube shape of the conductive outer tube 20 having and having an exterior diameter 21 and an interior diameter 22. The exterior diameter 21 forms the exterior surface of the tube and the interior diameter 22 forms the interior surface of the tube.
The conductive outer tube 20 may be constructed from any suitable material or means for holding and transferring a high voltage such as metals, or other conductive materials. In the preferred embodiment, the conductive outer tube 20 is constructed from a conductive metal such as copper.
The conductive inner cylinder 30 of the present invention serves the function of conducting and holding a high voltage negative charge. In the preferred embodiment, the conductive inner cylinder 30 is further configured to receive a collection of electrical current 61 from a cloud tube 90. The bottom of clouds is negatively charged and in fact is continuously discharging with positively charged dust and free protons on the ground.
The conductive inner cylinder 30 may have any suitable shape or design including but not limited to solid cylinders, tubes, squares, or wires. In the preferred embodiment of the present invention, the conductive inner cylinder 30 has a tube shape. The conductive inner cylinder 30 may be positioned in any suitable location within the present invention. In the preferred embodiment, the conductive inner cylinder 30 is position within the interior diameter 22 of the conductive outer tube 20 with the conductive inner cylinder 30 is concentric with the interior diameter 22 of the conductive outer tube 20. Thereby, in the preferred embodiment, the conductive inner cylinder 30 is concentric or centered within the tube of the conductive outer tube 20.
The conductive inner cylinder 30 may be constructed from any suitable material or means for holding and transferring a high voltage such as metals, or other conductive materials. In the preferred embodiment, the conductive inner cylinder 30 is constructed from a conductive metal such as copper.
The first insulating base 40 of the present invention serves the function of being the primary base or structure of the present invention. The first insulating base 40 further serves to keep all of the electrical components electrically isolated or insulated from each other. In further embodiments, the first insulating base 40 may provide a surface which may serve as a mounting surface, allowing the present invention to be mounted to any suitable surface or structure.
The first insulating base 40 may take any suitable shape or design as needed to provide support and insulation. In the preferred embodiment, the first insulating base 40 is a first plate having a flat surface. The first insulating base 40 may be constructed of any suitable means or material needed to provide support and insulation including but not limited to plastics, ceramics, or glasses. In the preferred embodiment, the first insulating base 40 is constructed from an insulating plastic material.
In accordance with some embodiments, the present invention further comprises a second insulating base 110, and a plurality of insulating legs 115. The second insulating base 110 and the plurality of insulating legs 115 serve as the secondary base structure. The second insulating base 110 provides the means for the present invention to be rested or placed on a ground or a flat surface, while at the same time providing electrical isolation or insulation from said ground or flat surface. The plurality of insulating legs 115 are mounted to the second insulating base 110. The first insulating base 40 can be mounted on the plurality of insulating legs 115. The second insulated base 110 and the plurality of insulating legs 115 provide further electrical isolation or insulation from said ground or flat surface. The second insulating base 110 may take any suitable shape or design as needed to provide support and insulation. In the first preferred embodiment, the second insulation base 110 is a second plate having a flat surface. The second insulating base 110 may be constructed or any suitable material as needed to provide support and insulation including but not limiting to plastics, ceramics, or glasses. In the preferred embodiment, the second insulating base 110 is constructed from said insulating plastic material.
The conductive outer tube 20 and the conductive inner cylinder 30 are attached to the first insulating base 40. In the preferred embodiment, the conductive outer tube 20 is attached to the flat surface of the first insulating base 40. The conductive inner cylinder 30 is further attached to the flat surface of the first insulating base 40 centered within the conductive outer tube 20. The electrical insulating and isolating properties of the first insulating base 40 provides electrical insulation between the conductive outer tube 20 and the conductive inner cylinder 30. Thereby, the conductive outer tube 20 is electrically isolated from the conductive inner cylinder 30. Components such as the conductive outer tube 20 and the conductive inner cylinder 30 may be attached to the first insulating base 40 through any suitable means for attachment or mounting such as threaded fasteners or adhesives.
Referring now to
As seen in
As seen in
In a first preferred embodiment of the present invention, the starting power source 52 is comprised of at least one starting battery 53. The starting battery 53 may be comprised of a single battery or a bank of batteries. In other words, the starting battery 53 is configured to provide a source of direct current power to the starting power system 52. To that end, the starting power source 53 is electrically connected to the starting switch 57. Further, the starting transformer 55 is electrically connected to the starting switch 57. It should be noted that electrical connections between components may be made through any suitable means or types of electrical connection such as wires, copper bus bars, or direct connections.
The starting switch 57 of the starting power system 50 serves the function of turning the starting electrical current 51 on or off. In other words, the starting switch 57 is configured to interrupt the starting electrical current 51. The starting switch 57 may be comprised of any suitable means or method for interrupting or turning an electrical current on and off, such as switches or circuitry. Further, the starting switch 57 may be operated by any suitable means or methods such as manually, remotely, or computer controlled.
In the preferred embodiment of the present invention, the starting switch 57 is a remote-controlled electrical switch 58. Remotely controlled, meaning that a user is able to operate the starting switch 57 from a great distance. The starting switch 57 has an on state in which the starting electrical current 51 is allowed to flow freely through the switch. Similarly, the starting switch 57 has an off state in which the starting electrical current 51 is interrupted or stopped from passing through the starting switch 57.
As can be seen in
The present invention further comprises an AC to DC power converter 126. The present invention may further comprise a first switch 127, a second switch 128, a third switch 137, a fourth switch 138, and an adjustable resistor 129. The AC to DC power converter 126 is electrically connected to the starting transformer 55. The AC to DC power converter 126 is configured to convert the AC power output from the starting transformer 55. The first switch 127 is electrically connected to the AC to DC power converter 126. The first switch 127, the second switch 128, the third switch 138 and the fourth switch 137 may be comprised of any suitable means or method for interrupting or turning an electrical current on and off, such as switches or circuitry. As can be seen in
As can be seen in
In accordance with some embodiments and as seen in
This high voltage or potential difference is needed by the present invention in order to attract and start pulling in electrons from a long distance. This positive high voltage is applied to the conductive outer tube 20 which then in turns is able to attract electrons from not only a short range but also a long range such as a cloud or a cloud tube 90.
In further embodiments, the starting transformer 55 may be used to adjust the voltage of the starting electrical current 51 from the starting voltage 56 to a second voltage setting. Said second voltage setting is being used after the starting of the present invention.
The starting system may further comprise at least one ammeter, and at least one voltmeter. At least one amp meter may be electrically connected in series at any location along the starting power system 50 to monitor the starting current 51. At least one voltmeter may be electrically connected to any point along the starting power system 50 and also grounded to monitor the starting voltage 56.
As shown in
As seen in
In a preferred embodiment, the collection electrical current 61 has a high voltage and the collection transformer 64 adjusts the voltage down to the preferred voltage. Further embodiments may utilize higher or lower voltages.
The collection transformer 64 is further electrically connected to the collection power bank 65. Electrical connections between components may be made through any suitable means or types of electrical connection such as wires, copper bus bars, or direct connections.
In further embodiments, the collection power system as seen in
The collection power bank 65 of the collection power system 60 serves the function of storing the collected power of the collection electrical current 61. The collection power bank 65 is designed and configured to store the electrons of the collection electrical current of 61.
In reference to
In a preferred embodiment, the collection power bank 65 is further comprised of at least one collection capacitor 66 and at least one collection battery 67 as seen in
The electrons stored within the collection power bank 65 may then be utilized for any purpose as desired by the user such as powering devices, utilizing the charged batteries or selling power directly to the commercial power grid.
In the preferred embodiment and as seen in
In the preferred embodiment, the collection power system 60 further comprises a collection voltmeter 63. The collection voltmeter 63 is configured to measure the voltage, referred to as the collection voltage, of the collection electrical current 61. The collection voltmeter 63 is electrically connected to the conductive inner cylinder 30 and further, electrically connected to the collection transformer 64. Thereby, the collection voltmeter 63 is able to monitor and provide a user with the collection voltage of the collection electrical current 61 as it is being collected from the conductive inner cylinder 30. In other embodiments, the collection voltmeter 63 may be electrically connected to the collection transformer 64 and further electrically connected to the collection capacitor 66. In some further embodiments, the collection voltmeter 63 may be electrically connected to the collection capacitor 66 and further electrically connected to the connection battery 67.
In the preferred embodiment, the collection power system 60 further comprises a temperature meter 69. The temperature meter 69 is configured to measure a collection temperature of the system. The temperature meter 69 is electrically connected to the conductive inner cylinder 30 and further, electrically connected to the collection transformer 64. Thereby, the temperature meter 69 is able to monitor and provide a user with the temperature of heat dissipated by the collection electrical current 61 as it is being collected from the conductive inner cylinder 30. In other embodiments, the temperature meter 69 may be electrically connected to the collection transformer 64 and further electrically connected to the collection capacitor 66. In some further embodiments, the temperature meter 69 may be electrically connected to the collection capacitor 66 and further electrically connected to the connection battery 67.
In accordance with some embodiments, the collection power system 60 further comprises a telemetry transceiver 123. The telemetry transceiver 123 monitors voltage, current, and temperature. The telemetry transceiver 123 can increase or decrease the voltage current in the collection power system 60. The telemetry transceiver is electrically connected to the conductive inner cylinder 30.
In accordance with some embodiments, the collection transformer may be replaced with a bridge rectifier 201 as shown in
The present invention may be utilized by first setting up the apparatus in a location as desired by the user. Desired locations include but are not limited to the perimeters of residential or populated areas mountain ranges, or other high places. The apparatus is started by turning on the starting switch 57 which allows the starting electrical current 51 to flow from the starting power source 52 through the starting transformer 55 to the conductive outer tube 20 thereby, creating a high positive charge voltage on the conductive outer tube 20.
At this point in the operation, the present invention is in a starting state of operation. In the starting state of operation, the starting electrical current 51 is set to a high voltage setting known as the starting voltage 56. As seen in
Once the present invention has begun pulling in electrons from a cloud tube 90, the starting voltage 56 may be reduced to a lower voltage setting known as the second voltage setting. This is because the cloud tube 90 has already been attracted so the high voltage of the starting voltage 56 is not needed. In further embodiments, the starting electrical current 51 may be completely shut off via the starting switch 57 once the cloud tube 90 is attracted. If needed the starting voltage 56 may be left on as needed, allowing the present invention to attract any electrons or cloud tubes 90 within a proximity to the present invention.
The present invention may be utilized in several different embodiments. In a vehicle embodiment, the apparatus for collecting electrons from cloud tubes 15 is mounted to a vehicle. The type of vehicle including but not limited to aircraft, automobiles, and other mobile vehicles.
In reference to
In a further ship embodiment, the apparatus for collecting electrons from cloud tubes 15 is mounted to a water or ocean-going vessel. The type of water or ocean-going vessels including but not limited to ships, barges, or rigs.
In the preferred ship embodiment as shown in
In the preferred ship 80 embodiment, the electrons from underwater hurricane cloud tube are attracted by the number of positively charged rings 82 and then guide into and up the extended inner tube 81. The electrons are finally collected by the conductive inner cylinder 30.
In a yet further embodiment, and as seen in
In some other embodiments pertaining to the Southern hemisphere, the polarity of the present invention can also be reversed. In the Southern Hemisphere, the tornado tubes rotate in the opposite direction relative to the tornado tubes in the Northern Hemisphere, so the charged particles are moving in the opposite direction and the polarity of the present invention would be turned upside down for the collection of the electrons. As shown in
The grounding tube 120 is buried between 20-80 feet, depending on the conductivity of the ground. The grounding tube 120 may have multiple grounding tubes. One of the pluralities of tubules 125 comprises a tubule core and a tubule outer cylinder. The present invention may also be used in conjunction with a solar farm. The solar farm comprises at least one solar panel, and a storage system. The present invention may enhance the solar farms' efficiency. The solar farm may not generate solar energy during the night or a cloudy and/or rainy day. Also, the solar farm only works about 6-8 hrs/day while the electron from clouds will work 24 hrs/day. Many of the mid-western states have 50 days of rain a year so their solar system in these states will not produce electric power 50 days/year. This system will fill the gap for those 50 days and will produce electricity 24 hours per day and produce which would be equivalent to 150 days of sunshine if we had an equal number of electrons from the clouds devices and solar cells. The present invention can generate energy during the night and also during cloudy and/or rainy days. The present invention may be positioned around the periphery of the solar farm. In some embodiments, the present invention may include many collection power systems that are positioned around the solar farm. The present invention may also be positioned between a city and tornadoes, storms, or the like to collect electrons. The plurality of collection power systems may be positioned in rows between the storms and the city.
Although the invention has been explained in relation to its preferred embodiment, it is to be understood that many other possible modifications and variations can be made without departing from the spirit and scope of the invention.
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| 2021055549 | Mar 2021 | WO |
