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With this treath we can figure out how the Keshe generator should be made as an energy source. All useful information can be collected here for creating a 3D model or an open source prototype in the future.
Geert
I took a large portion of the patents to create a 3D model or later, an open source model.
What the noble gases concerns, I have found the following:
Gases used in the cores of the reactor-->
[0537] Choice of fuel for the proto type reactor is not very difficult.
To chose gases one has to consider most of properties of the gases under varying pressures and temperatures and magnetic filed forces. As these gases will have different and varying characteristics due to conditions and parameters within both cores of the reactor.
[0538] For the operational condition all gases are considered to be under a vacuum, and centrifuge, rotation, compressive condition, in environment in possession of one or more magnetic fields and variable temperatures.
Hydrogen
[0539] This gas will take the central position of the gases in the hart of the core, this being due to its lowest atomic weight within a vacuum chamber.
[0540] This is the favourable gas for ionisation and heating of the plasma. This element can not create radiation above the extreme ultraviolet (EUV), therefore by low that the hydrogen can release more energy then it has absorbed and by going through energy lose, that hydrogen can not release energy higher then EUV which has received from the scintillated helium.
Therefore there are no possibilities of radiation releasing higher then lower level energy EUV; therefore there is no possibility of radioactive contamination of the Caroline core.
[0541] Hydrogen gas is used for production of the plasma in the center of the core, through ionisation and in conjunction with use of argon gas as catalyst for rapids heating.
Where these ionised particle will give their energy up to the argon gas for the plasma to be heated, before return to their ground state level and trough vacuum and centrifuge back to the center of the chamber. The helium through the central column delivers where they can repeat the same with the next wave of the EUV rays.
Helium
[0542] This gas is used for verities of reasons in this reactor.
[0543] Helium liquid enters the Caroline core of the reactor through central column through separate borehole, after scintillation process, as deliver of the extreme ultraviolet source in to hydrogen gas level of this core.
[0544] Helium gas is used as part of the Caroline core as catalyst for heating up of the core, as it can absorb the right energy from some of the ionised hydrogen.
[0545] The helium can be continually be pumped with right delay factor through the borehole at its gas layer in the caroline core, that it leaves the core and returns back as the scintillators and blackout of the chamber to repeat the cycle.
[0546] Helium has cooling capability. Which this happens at pressures around 300 pisg. So when creating compression this factor becomes important. This could be used to the advantage for some systems operation mode.
[0547] As this gas is chemically and biologically inert. It is non-combustible and non-radioactive as energies at about 27 eV will never enter the core to cause the ionisation of this matter.
[0548] He in some operations could be used as coolant too.
Neon
[0549] This is the cooling gas for the reactor chambers.
[0550] Liquid Neon can be used as the scintillation material instead of liquid helium.
[0551] This is the best gas to chose, as there is little or no chance of neutron leakage from both cores.
This gas is used as insulator where the heat in the plasma needs to be maintained at high temperatures.
[0552] Where the body of the inner core has to be cooler then the outer chamber temperature, this gas is good for the outer or the last gas before the outer wall of the outer core of the reactor, where the temperature of this wall has to be at body temperature, like in cases where the reactor is used in the medical environment.
[0553] Using neon as cooling gas this encourages convection within the material immediately below it.
[0554] This gas has cooling capability of forty times better than He does. This is the cooling gas to be used in these types of systems.
Argon
[0555] The choices of using argon gas for this type of reactor are several folds.
[0556] Under pressure or vacuum argon could be a good insulator.
[0557] Argon gas is the perfect catalyst for extracting the energy from the ionised H and He in different mode of operation. Which this released energy is used to heat the plasma within the core.
[0558] Argon acts as a good electron collector, where by placing of copper electrodes on the wall of the central column at this gas layer in the caroline core, these charges could be picked up from the Argon gas layer of the core, for the reactor to be used as the electric current source of supply.
[0559] Argon can act as source of EUV/UV emitter catalyst during the operation of the core as it is polarised during the rotation and turbulence of the plasma at right temperatures and pressures in the Caroline core
[0560] The recombination of hydrogen and helium in the chamber during the compression and expansion of ionisation of gases, when the Argon gas is under pressure and it is closely packed in its layer, by pressures created by the outer core magnetic field, this increases the conductivity properties of this gas, this further enhanced by the magnetic pressures of the inner core due to turbulences.
[0561] Thus the circulation and the high conductivity of this gas in a magnetic filed and electrons field, which this gas operates in, this, creates further current flow within this layer of the cores material.
[0562] This is similar to rotation of cooper wire of a rotor cutting through the magnetic lines in a generator that creates the flow of electric current. Where the rotating copper wires is replaced by the rotation of highly conductive Argon gas saturated by charged particles of ionised hydrogen and electrons arriving constantly from the center of the core internally outwards.
[0563] Where the quantity of the electric power produces becomes a function of the speed of the rotation of argon gas. Then this can hold vice versa for the creation of the magnetic filed force too.
[0564] Then the potency and importance of the choice of this gas layer will become apparent.
[0565] An important factor that this gas will have in this reactor will be due to its ability to receive energy from electrons and ionised hydrogen gas, as they return to their ground state, or before they are absorbed by the copper pickup for the current out put of the reactor.
[0566] What is significant with positioning of this gas, is that due to positioning of neon gas in the core, which behaves as insulation in this layer of the caroline core, the neon gas being under pressure due to operation of the reactor and due to its volume ration in the core will become a heat barrier for the separating the heat generated in the hydrogen side away from the argon side of this gas layer causing the plasma to heat up.
[0567] Neon plays the same roll in reveres and keeps the heat created in the argon layer away from the plasma in the center of the core too, up to a large extent.
[0568] Therefore majority of the heat delivered to the argon layer will go up towards the inner core boundary, for it to be transferred to the outer core for its materials to be heated up, helping with input of heat in that core necessary for the convection of the matter needed for creation of current and magnetic field in the outer core.
[0569] Therefore the thickness of the neon layer as its volume ratio of the core will have direct effect on the performance of the core operation and the outcome of the power and gravity produced by the system as a whole.
Krypton
[0570] This gas is primarily used in the Caroline core.
[0571] Krypton has a good insulating properties. Especially when it is used in vacuum in conjunction with magnetic and molecular forces.
[0572] Krypton in the reactors are used where there is a weak possibility of low energy neutrons and gamma rays. This is a better choice of gas than xenon.
[0573] Krypton has to be at lest the last gas in any reactor, as argon can never under any circumstances come in touch directly with body of the inner core. This being due to the fact that argon is the current carrier in the core.
Xenon
[0574] This is good as the last layer gas in the inner chamber.
[0575] Xenon by having a large absorption cross section is the best inert gas for the absorption of any neutron loose in the reactor core.
[0576] This gas layer has to be monitored at all time for it's poisoning neutron effect, that hot spot of the material of the inner core due to this effect does not become a possibility.
[0577] Xenon exhibits a highly non-liner behaviour of density against pressure. That is why it is better to have a layer of Krypton a head of this gas in the Caroline core.
Radon
[0578] This is one of the most important inert gases for this type of reactor operation.
[0579] This gas will carry the element of scintillation of the helium gas, at this stage of patent this gas will not be used as part of the core.
I understood that many components and ways of working are important. Here are some that I collected to broadly understand how the device would look like.
• A spherical self-rotating reactor core spins inside a set(s) of coils. On the reactor-body additional magnets can be mounted.
• The magnetic force field has to be created and maintained from the inner part to radiate out and thus allowing creation of the second magnetic field force inwards, to contain the plasma within the center of the core.
• The method which is claimed in this patent application is such that - under centrifugal and vacuum conditions - a turbulence, rotation, compressive and heating of a gaseous matter is created in a reactor by at least one central rotative magnetic field with the purpose of creating plasmatic conditions leading to various physical phenomena.
• Scintillation is the ignition key for start of creation of any system.
• From past research it is understood that gases in a vacuum and centrifuged encapsulate each other according to their atomic weight, from the lighter gases in the center of the cluster and the heaviest on the outer layers.
• This means that neon will encapsulate helium and heavier gas will encapsulate the neon and so on.
• The second important principal for inert gas laws is that they do not mix with each other in a vacume and centrifuges condition.
• Either is completely immobile (fixed)(Fig. 9) but which has on it's surface at least one set of electro-magnets (90) and/or coils which can be activated (92A) or deactivated (92D) - possible wise controlled by electronic means (i.e. a microchip 93) - in a preferred periodical and/or positional way, which - preferable - can change polarity and/or strength (92A, 92B, 92C), that way able to create turbulence in the center core, and/or in other superior cores.
• The central column possible wise can have at least one electrode (17B) - but very preferable several - to collect electric current for transportation (17C) to the outside of the reactor. This way the currents can be collected for several purposes.
• After the initial mechanical rotation (i.e. at 3,000 rpm) and/or electromagnetic triggered rotation the internal rotation (50) will be continued due the interaction of the magnetic fields involved (self-sustained process), in correspondence with one of more core-layers and their containment.
• The reactor body contains at least two separate hollow spaces of identical or different dimensions,
• The reactor body may contains at least two separate material cores (i.e. by a wall-layer 14A), a larger encircling a smaller, and each may have a proper internal independent process, and magnetic interactions may occur between their magnetic fields, and matters may be exchanged between physically separated chambers (28C and 28D) by connection means (58).
• Of course an very important application and method is related to the generation of electrical power, using one or more materials in the cavities, by the use of collection of the appropriate charge particles from the right electrodes specially positioned in the He (83) and Ar (82) layers or on the appropriate material layer.
With this treath we can figure out how the Keshe generator should be made as an energy source. All useful information can be collected here for creating a 3D model or an open source prototype in the future.
Geert
I took a large portion of the patents to create a 3D model or later, an open source model.
What the noble gases concerns, I have found the following:
Gases used in the cores of the reactor-->
[0537] Choice of fuel for the proto type reactor is not very difficult.
To chose gases one has to consider most of properties of the gases under varying pressures and temperatures and magnetic filed forces. As these gases will have different and varying characteristics due to conditions and parameters within both cores of the reactor.
[0538] For the operational condition all gases are considered to be under a vacuum, and centrifuge, rotation, compressive condition, in environment in possession of one or more magnetic fields and variable temperatures.
Hydrogen
[0539] This gas will take the central position of the gases in the hart of the core, this being due to its lowest atomic weight within a vacuum chamber.
[0540] This is the favourable gas for ionisation and heating of the plasma. This element can not create radiation above the extreme ultraviolet (EUV), therefore by low that the hydrogen can release more energy then it has absorbed and by going through energy lose, that hydrogen can not release energy higher then EUV which has received from the scintillated helium.
Therefore there are no possibilities of radiation releasing higher then lower level energy EUV; therefore there is no possibility of radioactive contamination of the Caroline core.
[0541] Hydrogen gas is used for production of the plasma in the center of the core, through ionisation and in conjunction with use of argon gas as catalyst for rapids heating.
Where these ionised particle will give their energy up to the argon gas for the plasma to be heated, before return to their ground state level and trough vacuum and centrifuge back to the center of the chamber. The helium through the central column delivers where they can repeat the same with the next wave of the EUV rays.
Helium
[0542] This gas is used for verities of reasons in this reactor.
[0543] Helium liquid enters the Caroline core of the reactor through central column through separate borehole, after scintillation process, as deliver of the extreme ultraviolet source in to hydrogen gas level of this core.
[0544] Helium gas is used as part of the Caroline core as catalyst for heating up of the core, as it can absorb the right energy from some of the ionised hydrogen.
[0545] The helium can be continually be pumped with right delay factor through the borehole at its gas layer in the caroline core, that it leaves the core and returns back as the scintillators and blackout of the chamber to repeat the cycle.
[0546] Helium has cooling capability. Which this happens at pressures around 300 pisg. So when creating compression this factor becomes important. This could be used to the advantage for some systems operation mode.
[0547] As this gas is chemically and biologically inert. It is non-combustible and non-radioactive as energies at about 27 eV will never enter the core to cause the ionisation of this matter.
[0548] He in some operations could be used as coolant too.
Neon
[0549] This is the cooling gas for the reactor chambers.
[0550] Liquid Neon can be used as the scintillation material instead of liquid helium.
[0551] This is the best gas to chose, as there is little or no chance of neutron leakage from both cores.
This gas is used as insulator where the heat in the plasma needs to be maintained at high temperatures.
[0552] Where the body of the inner core has to be cooler then the outer chamber temperature, this gas is good for the outer or the last gas before the outer wall of the outer core of the reactor, where the temperature of this wall has to be at body temperature, like in cases where the reactor is used in the medical environment.
[0553] Using neon as cooling gas this encourages convection within the material immediately below it.
[0554] This gas has cooling capability of forty times better than He does. This is the cooling gas to be used in these types of systems.
Argon
[0555] The choices of using argon gas for this type of reactor are several folds.
[0556] Under pressure or vacuum argon could be a good insulator.
[0557] Argon gas is the perfect catalyst for extracting the energy from the ionised H and He in different mode of operation. Which this released energy is used to heat the plasma within the core.
[0558] Argon acts as a good electron collector, where by placing of copper electrodes on the wall of the central column at this gas layer in the caroline core, these charges could be picked up from the Argon gas layer of the core, for the reactor to be used as the electric current source of supply.
[0559] Argon can act as source of EUV/UV emitter catalyst during the operation of the core as it is polarised during the rotation and turbulence of the plasma at right temperatures and pressures in the Caroline core
[0560] The recombination of hydrogen and helium in the chamber during the compression and expansion of ionisation of gases, when the Argon gas is under pressure and it is closely packed in its layer, by pressures created by the outer core magnetic field, this increases the conductivity properties of this gas, this further enhanced by the magnetic pressures of the inner core due to turbulences.
[0561] Thus the circulation and the high conductivity of this gas in a magnetic filed and electrons field, which this gas operates in, this, creates further current flow within this layer of the cores material.
[0562] This is similar to rotation of cooper wire of a rotor cutting through the magnetic lines in a generator that creates the flow of electric current. Where the rotating copper wires is replaced by the rotation of highly conductive Argon gas saturated by charged particles of ionised hydrogen and electrons arriving constantly from the center of the core internally outwards.
[0563] Where the quantity of the electric power produces becomes a function of the speed of the rotation of argon gas. Then this can hold vice versa for the creation of the magnetic filed force too.
[0564] Then the potency and importance of the choice of this gas layer will become apparent.
[0565] An important factor that this gas will have in this reactor will be due to its ability to receive energy from electrons and ionised hydrogen gas, as they return to their ground state, or before they are absorbed by the copper pickup for the current out put of the reactor.
[0566] What is significant with positioning of this gas, is that due to positioning of neon gas in the core, which behaves as insulation in this layer of the caroline core, the neon gas being under pressure due to operation of the reactor and due to its volume ration in the core will become a heat barrier for the separating the heat generated in the hydrogen side away from the argon side of this gas layer causing the plasma to heat up.
[0567] Neon plays the same roll in reveres and keeps the heat created in the argon layer away from the plasma in the center of the core too, up to a large extent.
[0568] Therefore majority of the heat delivered to the argon layer will go up towards the inner core boundary, for it to be transferred to the outer core for its materials to be heated up, helping with input of heat in that core necessary for the convection of the matter needed for creation of current and magnetic field in the outer core.
[0569] Therefore the thickness of the neon layer as its volume ratio of the core will have direct effect on the performance of the core operation and the outcome of the power and gravity produced by the system as a whole.
Krypton
[0570] This gas is primarily used in the Caroline core.
[0571] Krypton has a good insulating properties. Especially when it is used in vacuum in conjunction with magnetic and molecular forces.
[0572] Krypton in the reactors are used where there is a weak possibility of low energy neutrons and gamma rays. This is a better choice of gas than xenon.
[0573] Krypton has to be at lest the last gas in any reactor, as argon can never under any circumstances come in touch directly with body of the inner core. This being due to the fact that argon is the current carrier in the core.
Xenon
[0574] This is good as the last layer gas in the inner chamber.
[0575] Xenon by having a large absorption cross section is the best inert gas for the absorption of any neutron loose in the reactor core.
[0576] This gas layer has to be monitored at all time for it's poisoning neutron effect, that hot spot of the material of the inner core due to this effect does not become a possibility.
[0577] Xenon exhibits a highly non-liner behaviour of density against pressure. That is why it is better to have a layer of Krypton a head of this gas in the Caroline core.
Radon
[0578] This is one of the most important inert gases for this type of reactor operation.
[0579] This gas will carry the element of scintillation of the helium gas, at this stage of patent this gas will not be used as part of the core.
I understood that many components and ways of working are important. Here are some that I collected to broadly understand how the device would look like.
• A spherical self-rotating reactor core spins inside a set(s) of coils. On the reactor-body additional magnets can be mounted.
• The magnetic force field has to be created and maintained from the inner part to radiate out and thus allowing creation of the second magnetic field force inwards, to contain the plasma within the center of the core.
• The method which is claimed in this patent application is such that - under centrifugal and vacuum conditions - a turbulence, rotation, compressive and heating of a gaseous matter is created in a reactor by at least one central rotative magnetic field with the purpose of creating plasmatic conditions leading to various physical phenomena.
• Scintillation is the ignition key for start of creation of any system.
• From past research it is understood that gases in a vacuum and centrifuged encapsulate each other according to their atomic weight, from the lighter gases in the center of the cluster and the heaviest on the outer layers.
• This means that neon will encapsulate helium and heavier gas will encapsulate the neon and so on.
• The second important principal for inert gas laws is that they do not mix with each other in a vacume and centrifuges condition.
• Either is completely immobile (fixed)(Fig. 9) but which has on it's surface at least one set of electro-magnets (90) and/or coils which can be activated (92A) or deactivated (92D) - possible wise controlled by electronic means (i.e. a microchip 93) - in a preferred periodical and/or positional way, which - preferable - can change polarity and/or strength (92A, 92B, 92C), that way able to create turbulence in the center core, and/or in other superior cores.
• The central column possible wise can have at least one electrode (17B) - but very preferable several - to collect electric current for transportation (17C) to the outside of the reactor. This way the currents can be collected for several purposes.
• After the initial mechanical rotation (i.e. at 3,000 rpm) and/or electromagnetic triggered rotation the internal rotation (50) will be continued due the interaction of the magnetic fields involved (self-sustained process), in correspondence with one of more core-layers and their containment.
• The reactor body contains at least two separate hollow spaces of identical or different dimensions,
• The reactor body may contains at least two separate material cores (i.e. by a wall-layer 14A), a larger encircling a smaller, and each may have a proper internal independent process, and magnetic interactions may occur between their magnetic fields, and matters may be exchanged between physically separated chambers (28C and 28D) by connection means (58).
• Of course an very important application and method is related to the generation of electrical power, using one or more materials in the cavities, by the use of collection of the appropriate charge particles from the right electrodes specially positioned in the He (83) and Ar (82) layers or on the appropriate material layer.