rexresearch1
Andrii SLOBODYAN
Magnet Generator &c
Magnet Generator &c
https://www.researchgate.net/publication/356969854_New_Sources_of_Energy_English_version
New Sources of Energy (English version)
Alexander Frolov // Faraday Lab ltd
Andrei Slobodyan's magnet generators.
...This author demonstrated a 10 kW generator in 2016. In the photo Fig. 133 he demonstrates the operation of his generator under load (lighting lamps).
Fig. 133. Andrey Slobodyan and his magnet generator
During several years in his laboratory, various generator designs were actively developed.
The last video was made by Andrew in 2019, it was video about magnet generator that can charge an electric vehicle battery. Later his laboratory was burned and Andrei Slobodyan died in a fire. Also there is information about other events. Perhaps, Andrew still alive but he works in hidden mode.
Today there is a lot of negative information about his work. Critics claim Slobodyan used secret batteries in the device. There's a photo from his lab showing different types of batteries, including battery packs for an electric vehicle. I believe these were accumulators to test the possibility of charging from Andrey Slobodyan's generators. His work inspires me with respect and I do not allow the thought of deception.
https://www.youtube.com/watch?v=2Jy_RIBCzUI
SECRET OF GENERATOR SLOBODYAN. Engineering solution. // Wise Eye OverUnity
Slobodian OverUnity // D. Bautin
https://www.youtube.com/watch?v=VgV91CgcwYk
“FE generator or...” by Dmitri Bautin
https://www.youtube.com/watch?v=cGHjaMWTVms
“FE generator or...” by Dmitri Bautin
https://electrogravityphysics.com/infinity-sav-free-energy-device/
Infinity SAV Free Energy Generator - My Thoughts...
The late Andrii Slobodian from Infinity SAV (a company in Korea) is a clever Russian inventor that claims he has built several free energy generators.
On this page, I will share my thoughts and details on why I believe Andrii is not telling it like it is.
Indoor demonstration of the Free Energy Device
The new motor-generator design looks very nice and futuristic. But this motor raises more questions than it answers.
All these lights that are driven by the generator look impressive, but there are a couple of red flags we will talk about now
1) The electrical details of the light bulbs are not specified. The lights could be self-powered with a small built-in battery either in the bulb base or in the back of the light panel.
The lights could be triggered by a low-voltage pulse generated by another small battery, hidden in the motor-generator, that will signal when to turn on the hidden battery power for the lights.
2) Full-power light from three hundred light bulbs mounted on three floor-standing panels, would be blinding the camera and eyes. This would flood the lab with so much light it would be impossible to film anything.
However, the bulbs are probably low-wattage LED lights if they are not fake i.e. magic bulbs . Here are some off-the-shelf 3-watts LED lightbulbs from Amazon.com.
Three hundred light bulbs at 3-watts each will draw a total of 900 watts of power. That is less power than a regular electric house heater.
3) The sound from the motor does not change when increasing the load, for example when switching on (or off) the light panels. This is very telling and shows that the power is not coming from the motor generator.
The sound from an electrical generator always changes when a big load (like 300 light bulbs) is turned on or off.
In the video I saw and heard, the motor sound of the RPM does not change at all with or without load (lights on and off). This is VERY suspicious.
Outdoor demonstration of the Free Energy Device (10 kW)
The inventor and his staff took a boat out to an island in Korea to test the machine. Perhaps this was done to convince the skeptics that there are no hidden wires from a power source in the company office.
However, there are still a few suspicious issues remaining with this outdoor demonstration.
Is there some fluid or pressurized gas being consumed during the 5-hour test? You can see a falling fluid line on the big drum when viewing the video.
See the red arrow pointing to the falling horizontal line Click on the video link to see the video in real-time.
What is the cause of this moving shadow line?
Is it a partially transparent drum, showing the internal contents? Perhaps the inventor did not realize that it is a partially transparent drum, showing the contents of the drum, in the bright afternoon sunlight?
Or, is this a shadow from the machine s metal frame on this clear sunny day?
Well, if you believe it is just an exterior shadow from the setting sun that gets longer as the sun is setting, then how do you explain a rising shadow line in the latter part of the same video?
Perhaps he used another video clip played in reverse to make it look like his video was 5 hours long when in reality this test was much shorter. This would explain why the sun shadow on the drum is moving up, in the latter half of the video.
If the inventor faked his video editing, you got to ask what kind of integrity this person has? Also, is the actual test is only a couple of hours long? This is very concerning, and begs to ask: what else is the inventor faking?
The inventor Andrii is holding the internal rotor of the machine:
See the shadow of the two battery wires, from sunlight shining through the transparent white drum.
This photo of the white cylinder/drum (from another video) shows the white drum is basically empty. You can clearly see the shadows of the assistant holding two wires to the startup battery. A few minutes later in the video when the assistant disconnects the wires the shadows of the two wires disappear
Other points to consider that could be used to trick the observer:
The white drum may be used only as a decoy, much like magicians do when performing a trick.
The energy could be coming from a hidden battery or another source not seen in the video.
Batteries could be pre-installed under the ground (prior to the test), where the lamps are standing.
The lamps might be low-wattage or LED magic lamps, with self-powered batteries.
The heater might have a self-contained battery or be connected via thin wires to a battery hidden under the soil.
And, perhaps this Infinity SAV free energy machine has some energy storage inside the white drum, and/or the content of the white drum is not as described?
Tabletop Demo of the Free Energy Device (1 kW)
The inventor built a small table-top device and disassembled the machine in front of the camera.
However, this demonstration could easily be done with a hidden battery in a secret bottom of the plastic container for the control board.
See screenshot from the Tabletop Demo video that shows a possible hidden floor (see red arrow):
Screenshot of DC-to-AC power inverter with a possible hidden/secret bottom.
The inventor also shows in his video how he easily stops the motor with his fingers. It might be possible to stop a small 1-watt motor with the skin of his fingers, but not a big 1 kW device (as he claims the power generated by this generator).
A simple lawnmower is using 1200 watts of power. I do not recommend putting any fingers anywhere near a running shaft of a 1.2 kW motor!
A 1.2 kW motor can not be stopped with just the skin of a finger contrary to what the inventor Andrii seems to show. It would be very dangerous since the forces from a 1.2 kW motor are so large.
In summary:
This free energy generator looks similar to a magician s trick. It looks good, but it is most likely to be a scam for the reason listed above.
The inventor claims that free energy can be obtained by using bucking coils. These are sometimes also referred to as bifilar coils.
I did some experiments on this topic but did not find any extra energy to be true. (See my bucking coil test page for more info.)
The inventor may be using several tricks to fool the curious or pseudo-scientist, into believing this is a free energy generator.
Think VERY carefully before putting any money into Infinity SAV projects or to buy any of their products!!!
Also, ask yourself why this inventor has not delivered a single product anywhere in the world since they started the company in 2013?
Nils Rognerud
HYBRID POWER GENERATING APPARATUS HAVING BOILING FUNCTION
KR101898278
[ PDF ]
The present invention relates to a hybrid power generating device having a boiler function which can reduce energy consumption by providing a weight of a fluid to a rotor to generate an inertial force and compression-heats and provides the fluid, thereby heating a heating target fluid. The hybrid power generating device having a boiler function comprises: a rotation motor providing a rotation force; the rotor connected to the rotation motor, and rotated by the rotation motor since a magnet is provided on an outer circumferential surface; a stator which is fixed to the outside of the rotor, and in which a coil facing the magnet of the rotor is located; an inertial force generating part generating the inertial force to the rotor through accumulation of the weight by the fluid while supplying the fluid to the rotor; and a boiler compressing the fluid discharged from the rotor, and generating high heat.
Thermoelectric power generator for air conditioner
KR20160149083
[ PDF ]
The present invention relates to a thermoelectric generator for an air conditioner that generates electrical energy by using waste heat generated from the air conditioner.
In general, refrigeration technology is based on freezing the refrigerant by the heat of evaporation through repeated compression and expansion, and vapor compression refrigerators are the main type. Recently, absorption refrigerators are being widely used to keep up with the trend of energy saving. In addition to these general refrigeration technologies, refrigeration technologies using special methods are being developed and applied domestically and internationally along with the recent development of cutting-edge industries, and their scope is gradually expanding.
[0004]
Recently, the refrigeration and air-conditioning industry is expanding its application range to various industrial environments through high-performance, miniaturization, energy-saving, low-noise, and environmentally friendly technology development, and its importance as an essential item of modern life and advanced industrial technology environment is increasing. In addition, the demand for indoor environments that require highly clean conditions, such as the rapid development of architectural facilities due to the emergence of intelligent buildings due to office automation, the production process of the advanced electronic semiconductor industry, and biotechnology-related facilities due to the development of genetic engineering, is also increasing. In the automobile industry, too, there is an urgent need for the supply of high-performance, high-efficiency, low-noise refrigeration and air-conditioning.
[0005]
A refrigeration cycle is a cycle that performs a refrigeration action during the process of returning to its initial state.
In a refrigerator, the refrigerant passes through an expansion valve and then enters the evaporator after being reduced to a low pressure, where the liquid refrigerant takes on latent heat of vaporization and evaporates.
And the evaporated refrigerant vapor receives work from an external source, that is, from a compressor, which compresses the refrigerant vapor and creates high temperature and high pressure. The compressed high-pressure vapor is sent to the condenser, where it releases the heat of condensation and condenses. The condensate then re-enters the expansion valve, forming a cycle. Refrigerant continuously circulates in the refrigerator, changing from liquid to gaseous state.
[0006]
The refrigeration cycle is divided into compression, condensation, expansion, and evaporation processes, and each of these processes has four main devices: ? compressor, ? condenser, ? expansion valve, and ? evaporator. If we analyze an air conditioner, we can see that it connects these four main devices with pipes (copper pipes), charges the inside with refrigerant, and equips an electronic controller to smoothly control their flow.
[0007]
However, in the conventional refrigeration cycle described above, waste heat is generated when the refrigerant changes phase from a high-temperature, high-pressure liquid state to a low-temperature, low-pressure gas state, but this waste heat is not reused but rather radiated to the surroundings, which has the problem of inefficient use of energy.
[0008]
Thus, to solve these problems, a power generation device using the refrigeration cycle of a refrigerator was introduced as Republic of Korea Patent No. 10-0756879.
A power generation device utilizing the refrigeration cycle of the refrigerator includes a first conductive member having one end in contact with an evaporator of the refrigerator and the other end in contact with an outlet of a compressor of the refrigerator, a second conductive member having both ends respectively connected to opposite ends of the first conductive member to form a closed circuit, and a storage battery connected to a connection point of the first conductive member and the second conductive member and storing thermal current generated in the closed circuit.
[0009]
However, the power generation device utilizing the refrigeration cycle of the above refrigerator had a problem in that the power generation efficiency was significantly reduced because the lengths of the first and second current-conducting members were significantly long.
[0011]
The present invention is intended to solve the above problems, and provides a thermoelectric generator for an air conditioner having a very simple configuration, low manufacturing cost, and improved thermoelectric performance by forming a first thermoelectric generator between a condenser and the air inside an outdoor unit (or a cooling unit) and a second thermoelectric generator between an evaporator and indoor air (or a heat source unit).
[0013]
In order to achieve the above-mentioned purpose, a thermoelectric generator for an air conditioner according to the present invention comprises: an air conditioner including a compressor for compressing a refrigerant, a condenser for condensing the compressed refrigerant, an expansion valve for expanding the condensed refrigerant, and an evaporator for evaporating the expanded refrigerant, the air conditioner including: a first thermoelectric generator having the condenser as a high-temperature part and the air inside an outdoor unit in which the condenser is installed as a low-temperature part; and a second thermoelectric generator having the evaporator as a low-temperature part and the indoor air exchanging heat with the evaporator as a high-temperature part.
[0014]
In addition, in an air conditioner including a compressor that compresses a refrigerant, a condenser that condenses the compressed refrigerant, an expansion valve that expands the condensed refrigerant, and an evaporator that evaporates the expanded refrigerant, the air conditioner includes a first thermoelectric generator having one side in contact with the condenser, which is a high temperature part, and the other side in contact with the cooling part, which is a low temperature part; and a second thermoelectric generator having the other side in contact with the evaporator, which is a low temperature part, and one side in contact with the heat source part, which is a high temperature part; wherein a fluid from the cooling part is circulated back to the cooling part through a heat dissipation part by a pump, and the heat dissipation part is cooled by a blower fan installed inside an outdoor unit, and a fluid from the heat source part is circulated back to the heat source part through a heat absorption part by a pump, and the heat absorption part can be heated by a blower fan installed inside an indoor unit.
[0015]
An insulating ring may be formed on the periphery of the first thermoelectric power plant or the second thermoelectric power plant.
[0017]
The present invention has a very simple configuration of the device, which significantly reduces the manufacturing cost, and can utilize the current generated from the first and second thermoelectric generators, thereby having the effect of significantly reducing the power consumption of the air conditioner.
[0018]
In addition, by forming an insulating ring on the edges of the first and second thermoelectric power plants, there is also an effect of improving thermoelectric performance by uniformly increasing the temperature difference between both sides of the thermoelectric power plant.
[0020]
Figure 1 is a schematic diagram of a thermoelectric generator for an air conditioner according to one embodiment of the present invention.
Figure 2 is a schematic diagram of a thermoelectric generator for an air conditioner according to another embodiment of the present invention.
[0021]
When describing a preferred embodiment of the present invention in detail, if it is determined that a specific description of a related known configuration or function may obscure the gist of the present invention, a detailed description will be omitted.
[0023]
Figure 1 is a schematic diagram of a thermoelectric generator for an air conditioner according to one embodiment of the present invention.
[0024]
According to one embodiment of the present invention, a thermoelectric generator for an air conditioner comprises a compressor (10) that compresses a refrigerant, a condenser (20) that condenses the compressed refrigerant, an expansion valve (30) that expands the condensed refrigerant, and an evaporator (40) that evaporates the expanded refrigerant, the air conditioner comprises: a first thermoelectric generator (50) in which the condenser (20) is a high-temperature section and the air inside an outdoor unit in which the condenser (20) is installed is a low-temperature section; and a second thermoelectric generator (60) in which the evaporator (40) is a low-temperature section and the indoor air that exchanges heat with the evaporator (40) is a high-temperature section.
[0025]
A thermoelectric generator for an air conditioner according to one embodiment of the present invention includes a first thermoelectric generator (50) and a second thermoelectric generator (60) that generate electricity by using high temperature and low temperature waste heat generated from a refrigerant that undergoes phase change while passing through a compressor (10), a condenser (20), an expansion valve (30), and an evaporator (40).
[0026]
The first thermoelectric power plant (50) uses the condenser (20) in which the high-temperature refrigerant discharged from the compressor (10) is condensed as the high-temperature part, and the air inside the outdoor unit where the condenser (20) is installed as the low-temperature part, and generates electricity by utilizing the temperature difference between the high-temperature part and the low-temperature part. At this time, the air inside the outdoor unit flows by the blower fan (58) installed inside the outdoor unit.
[0027]
The second thermoelectric power plant (60) uses the evaporator (40) that evaporates the refrigerant expanded in the expansion valve (30) as a low-temperature part, and the indoor air that exchanges heat with the evaporator (40) as a high-temperature part, and generates electricity by utilizing the temperature difference between the high-temperature part and the low-temperature part.
At this time, the air inside the indoor unit flows by the blower fan (68) installed inside the indoor unit.
[0028]
As the first thermoelectric power plant (50) and the second thermoelectric power plant (60), a thermoelectric module that utilizes the Seebeck effect, a phenomenon in which electromotive force is generated by the temperature difference between a high temperature area and a low temperature area, is used.
Here, the Seebeck effect is a phenomenon in which an electromotive force is generated due to the temperature difference when the two ends of two different metals are connected and the temperatures of the two ends are different.
[0029]
That is, the first thermoelectric power plant (50) and the second thermoelectric power plant (60) are applied with thermoelectric modules that generate electromotive force using the Seebeck effect, and receive waste heat from the high temperature part through indoor air that exchanges heat with the condenser (20) or the evaporator (40), and receive waste heat from the low temperature part through the air inside the outdoor unit where the condenser (20) is installed or the evaporator (40), thereby generating electromotive force using the temperature difference between the high temperature part and the low temperature part.
[0030]
Since these thermoelectric modules are a widely used known technology in the technical field to which the invention belongs (a module that generates electricity by utilizing various effects resulting from the interaction of heat and electricity), a more detailed description of their configuration will be omitted in this specification.
[0031]
Electricity generated from the first thermoelectric power plant (50) and the second thermoelectric power plant (60) can be charged into a capacitor (not shown) and used to drive a compressor (10) or a blower fan installed inside an outdoor unit.
[0032]
Additionally, an insulation ring (51) may be formed on the edge of the first thermoelectric power plant (50) and/or the second thermoelectric power plant (60).
The insulation ring (51) prevents waste heat transferred to one side and the other side of the first thermoelectric power plant (50) and/or the second thermoelectric power plant (60) in contact with the high temperature section and the low temperature section from escaping through the edge, thereby improving the thermoelectric performance of the first thermoelectric power plant (50) and/or the second thermoelectric power plant (60).
[0033]
Meanwhile, when the air conditioner enters a steady state, the noise generated according to the cycle of the refrigeration cycle will also change according to the cycle, so by forming a noise input section inside the outdoor unit and/or the indoor unit, detecting the size and phase of the noise input to the noise input section according to the frequency, and generating a sound having the opposite phase of the size corresponding to the noise, the noise can be significantly reduced by the canceling effect of the two sounds.
At this time, a microphone can be used as a noise input unit, and a sound with an opposite phase to that corresponding to the noise can be output through a speaker.
These noise reduction devices can be formed in the outdoor unit and/or the indoor unit.
[0035]
Figure 2 is a schematic diagram of a thermoelectric generator for an air conditioner according to another embodiment of the present invention.
[0036]
According to another embodiment of the present invention, a thermoelectric generator for an air conditioner comprises a compressor (10) that compresses a refrigerant, a condenser (20) that condenses the compressed refrigerant, an expansion valve (30) that expands the condensed refrigerant, and an evaporator (40) that evaporates the expanded refrigerant, wherein the thermoelectric generator comprises: a first thermoelectric generator (50) having one surface in contact with the condenser (20) which is a high temperature section and the other surface in contact with the cooling section (55) which is a low temperature section; And a second thermoelectric generator (60) which is in contact with an evaporator (40) which is a low-temperature section on one side and a heat source section (65) which is a high-temperature section on one side; the fluid of the cooling section (55) is circulated back to the cooling section (55) through a heat dissipation section (57) by a pump (56), and the heat dissipation section (57) is cooled by a blower fan (58) installed inside the outdoor unit, and the fluid of the heat source section (65) is circulated back to the heat source section (65) through a heat absorption section (67) by a pump (66), and the heat absorption section (67) is heated by a blower fan (68) installed inside the indoor unit.
[0037]
A thermoelectric generator for an air conditioner according to another embodiment of the present invention includes a first thermoelectric generator (50) and a second thermoelectric generator (60) that generate electricity by using high temperature and low temperature waste heat generated from a refrigerant that undergoes phase change while passing through a compressor (10), a condenser (20), an expansion valve (30), and an evaporator (40).
[0038]
One side of the first thermoelectric generator (50) is in contact with the high-temperature section, the condenser (20), and the other side is in contact with the low-temperature section, the cooling section (55), so that the first thermoelectric generator (50) generates electricity by utilizing the temperature difference between the high-temperature section and the low-temperature section.
[0039]
At this time, the fluid in the cooling unit (55) is circulated back to the cooling unit (55) through the heat dissipation unit (57) by the pump (56), and the heat dissipation unit (57) is cooled by the blower fan (58) installed inside the outdoor unit, and fins are formed in the heat dissipation unit (57) to improve the cooling efficiency.
Fluids used include water, alcohol, and antifreeze.
[0040]
The other side of the second thermoelectric generator (60) is in contact with the evaporator (40), which is a low-temperature part, and one side is in contact with the heat source part (65), which is a high-temperature part, so that the second thermoelectric generator (60) generates electricity by utilizing the temperature difference between the high-temperature part and the low-temperature part.
[0041]
At this time, the fluid of the heat source (65) passes through the heat absorption unit (67) and circulates back to the heat source unit (65) by the pump (66), and the heat absorption unit (67) is heated by the blower fan (68) installed inside the indoor unit, and fins are formed in the heat absorption unit (67) to improve the cooling efficiency.
Fluids used include water, alcohol, and antifreeze.
[0042]
The first thermoelectric power plant (50) and the second thermoelectric power plant (60) are thermoelectric modules that generate electromotive force using the Seebeck effect, and receive waste heat from a high-temperature part through a condenser (20) or a heat source part (65), and receive waste heat from a low-temperature part through a cooling part (55) or an evaporator (40), thereby generating electromotive force using the temperature difference between the high-temperature part and the low-temperature part.
[0043]
Electricity generated from the first thermoelectric power plant (50) and the second thermoelectric power plant (60) can be charged into a capacitor (not shown) and used to drive a compressor (10), a blower fan (58, 68) installed inside an outdoor unit and/or an indoor unit, or a pump (56, 66) that circulates fluid.
[0044]
Additionally, an insulation ring (61) may be formed on the edge of the first thermoelectric power plant (50) and/or the second thermoelectric power plant (60).
The insulation ring (61) prevents waste heat transferred to one side and the other side of the first thermoelectric power plant (50) and/or the second thermoelectric power plant (60) in contact with the high temperature section and the low temperature section from escaping through the edge, thereby improving the thermoelectric performance of the first thermoelectric power plant (50) and/or the second thermoelectric power plant (60).
[0045]
Meanwhile, when the air conditioner enters a steady state, the noise generated according to the cycle of the refrigeration cycle will also change according to the cycle, so by forming a noise input section inside the outdoor unit and/or the indoor unit, detecting the size and phase of the noise input to the noise input section according to the frequency, and generating a sound having the opposite phase of the size corresponding to the noise, the noise can be significantly reduced by the canceling effect of the two sounds.
At this time, a microphone can be used as a noise input unit, and a sound with an opposite phase to that corresponding to the noise can be output through a speaker.
These noise reduction devices can be formed in the outdoor unit and/or the indoor unit.
[0047]
The above description is merely an example of the technical idea of the present invention, and those skilled in the art will appreciate that various modifications and variations may be made without departing from the essential characteristics of the present invention.
Therefore, the embodiments disclosed in the present invention are not intended to limit the technical idea of the present invention but to explain it, and the scope of the technical idea of the present invention is not limited by these embodiments.
The scope of protection of the present invention should be interpreted by the following claims, and all technical ideas within the equivalent scope should be interpreted as being included in the scope of the rights of the present invention.
[0049]
10: Compressor 20: Condenser 30: Expansion valve 40: Evaporator 50: First thermoelectric generator 51, 61: Insulating ring 55: Cooling section 56, 66: Pump 57: Radiating section 58, 68: Blower fan 60: Second thermoelectric generator 65: Heat source section 67: Heat absorption section
WO2019168294
Frictional-Heat Boiler Device Using Centrifugal Force and Propulsion
[ PDF ]
The present invention relates to a friction heat boiler apparatus using a centrifugal force and jet propulsion, capable of providing the propulsion through discharging a fluid while allowing the fluid to spirally flow through a rotational force to compress and heat the fluid by using frictional heat generated by the flow. The friction boiler apparatus includes: a spiral friction member for compressing a fluid by rotating the fluid to spirally flow, heating the fluid through frictional heat generated by a flow, and discharging the fluid; a heat exchange tank for storing a high-temperature fluid discharged from the spiral friction member, and heating a heating target fluid by allowing the high-temperature fluid to exchange heat with the heating target fluid; and a fluid pump for pumping the fluid stored in the heat exchange tank to supply the fluid to the spiral friction member.
The present invention relates to a boiler device, and more specifically, to a friction heat boiler device utilizing centrifugal force and propulsion force that can compress and heat a fluid by using frictional heat caused by the flow by causing the fluid to flow in a spiral shape through rotational force, and provide propulsion force through the discharge of the fluid.
In general, a boiler device that heats a fluid such as water, steam, or heat transfer oil for hot water supply or heating is a device that heats the fluid using chemical fuel or electricity, and uses the heated fluid directly or heats a room to a constant temperature through the heated fluid.
Here, the heating device using chemical fuel was emitting a large amount of pollutants during the combustion process of the chemical fuel, and there was a problem that the thermal efficiency was low compared to the chemical fuel consumed.
In addition, there are heating devices that utilize electric energy, such as heaters that utilize electric resistance or friction heaters that generate heat through the flow of Yut. However, heaters that utilize electric resistance always have the risk of electric leakage or fire depending on the properties of the fluid, and since the fluid can only be heated near the heating wire that generates heat due to resistance, there was a problem in that it took a lot of time to heat a large amount of fluid.
To solve these problems, friction heat boilers have recently been used, which use electric energy to flow the fluid and directly heat the fluid as it flows.
Conventional friction heat boilers heat the fluid through friction, cavitation, etc., and to promote this, it is very important to increase the fluid velocity and turbulent flow.
To this end, a conventional friction boiler is configured to have a cylindrical case and a cylindrical head that rotates inside the case, thereby heating the fluid by friction through the rotation of the head.
However, conventional friction heat boiler devices have the problem of consuming electrical energy because they rotate and flow the fluid only by the power of the motor.
Therefore, a new technology is required that can minimize the power consumption of the motor in heating the fluid.
The present invention was created to improve the problems of the prior art as described above, and the purpose of the present invention is to provide a friction heat boiler device utilizing centrifugal force and propulsion force that can reduce energy consumption of a motor by compressing and heating a fluid at high pressure through centrifugal force while rotating the fluid in a spiral shape, and at the same time providing propulsion force for rotation through the discharge pressure of the fluid compressed at high pressure.
In addition, another purpose of the present invention is to provide a friction heat boiler device using centrifugal force and propulsive force that can promote smooth heating and compression of a fluid by expanding the friction area by causing a vortex as the fluid moves along a spiral path.
In addition, another object of the present invention is to provide a friction heat boiler device utilizing centrifugal force and propulsive force that can promote smooth flow of fluid by varying the width of a spiral path through which the fluid moves.
According to one embodiment of the present invention for achieving the above-described purpose, a friction heat boiler device using centrifugal force and propulsive force may be configured to include a spiral friction member that rotates a fluid to flow in a spiral shape, compresses the fluid, heats the fluid through frictional heat generated by the flow, and discharges the fluid; a heat exchange tank that stores high-temperature fluid discharged from the spiral friction member, and heats the fluid to be heated while exchanging heat with the high-temperature fluid; and a fluid pump that pumps the fluid stored in the heat exchange tank and supplies the fluid to the spiral friction member.
For example, the spiral friction member may be configured to include: a hollow shaft formed in a hollow tube shape inside, one of both longitudinal ends of which is connected to the fluid pump so that the fluid of the heat exchange tank is supplied; a rotary joint rotatably connecting the hollow shaft to the fluid pump; a rotary motor coupled to an outer surface of the hollow shaft to rotate the hollow shaft; a spiral disk formed in a cylindrical shape having a fluid flow space inside, coupled to the other of both ends of the hollow shaft, and rotating together with the hollow shaft, the fluid flow space being partitioned by a spiral partition, and guiding the fluid supplied from the hollow shaft to the outer surface of the flow space along the spiral partition to compress and heat the fluid while causing friction; and a jet nozzle provided on the outer surface of the spiral disk to generate a high-pressure propulsive force for discharging the compressed fluid from the spiral disk and rotating the spiral disk.
Additionally, the jet nozzle may be formed with an incline in a direction opposite to the rotational direction of the spiral disk.
In addition, the spiral disk may be configured to further include a vortex projection that protrudes along the surface of the spiral baffle to expand the friction area with the fluid and generate a vortex in the fluid.
In addition, the spiral disk may be formed so that the width of the fluid path formed by the spiral partition gradually increases from the center to the periphery of the flow space.
For example, the heat exchange tank may be configured to include an upper tank that accommodates the spiral friction member therein and guides high-temperature fluid discharged from the spiral friction member downward; a lower tank that provides a storage space for the fluid while being connected to the lower portion of the upper tank and to which the fluid pump is connected; and a heat exchange pipe that is coupled to traverse the interior of the lower tank and allows the fluid to pass through while exchanging heat between the fluid to be heated and the fluid in the lower tank.
In addition, the heat exchange tank may further include a plurality of heat dissipation fins that are built into the lower tank and are coupled to the outer surface of the heat exchange pipe to expand the heat exchange area.
According to a friction heat boiler device utilizing centrifugal force and propulsion force according to one embodiment of the present invention, since a spiral disk constituting a spiral friction member compresses a fluid to high pressure through centrifugal force while rotating the fluid in a spiral shape, the fluid can be smoothly heated to high temperature and high pressure, and in particular, since a jet propulsion force for the rotation of the spiral disk is generated when the high-pressure fluid is discharged through a jet nozzle, the energy consumption of the rotary motor can be reduced.
In addition, since the jet nozzle of the present invention is formed at an angle opposite to the rotational direction of the spiral disk, a driving force for the rotation of the spiral disk can be smoothly generated.
In addition, since the present invention forms vortex projections on the spiral baffles provided on the spiral disk, the frictional area of the fluid can be expanded, and the fluid can be smoothly heated and compressed by generating vortices while moving through the spiral path.
In addition, the present invention allows the fluid to move smoothly and be compressed because the width of the fluid path by the spiral baffle gradually increases from the center to the periphery
The effects of the present invention are not limited to the effects mentioned above, and other effects not mentioned will be clearly understood by those skilled in the art from the description of the claims.
Figure 1 is a perspective view showing a friction heat boiler device using centrifugal force and propulsive force according to one embodiment of the present invention.
FIG. 2 is a perspective view showing a state of a friction heat boiler device using centrifugal force and propulsive force according to one embodiment of the present invention as viewed from the rear.
FIG. 3 is a perspective view showing the internal structure of a friction heat boiler device using centrifugal force and propulsive force according to one embodiment of the present invention.
FIG. 4 is a longitudinal cross-sectional view showing a friction heat boiler device using centrifugal force and propulsive force according to one embodiment of the present invention.
Figure 5 is a perspective view showing the configuration of the heat exchange pipe illustrated in Figure 4.
Hereinafter, embodiments disclosed in this specification will be described in detail with reference to the attached drawings. Regardless of the drawing symbols, identical or similar components will be given the same reference numerals and redundant descriptions thereof will be omitted. The suffixes "module" and "part" used for components in the following description are given or used interchangeably only for the convenience of writing the specification, and do not have distinct meanings or roles in themselves.
In addition, when describing the embodiments disclosed in this specification, if it is determined that a detailed description of a related known technology may obscure the gist of the embodiments disclosed in this specification, the detailed description is omitted. In addition, the attached drawings are only intended to facilitate easy understanding of the embodiments disclosed in this specification, and the technical ideas disclosed in this specification are not limited by the attached drawings, but should be understood to include all modifications, equivalents, or substitutes included in the spirit and technical scope of the present invention.
Additionally, terms including ordinal numbers, such as first, second, etc., may be used to describe various components, but the components are not limited by the terms.
The above terms are used solely to distinguish one component from another.
When it is said that a component is "connected" or "connected" to another component, it should be understood that it may be directly connected or connected to that other component, but there may also be other components present in between. On the other hand, when it is said that a component is "directly connected" or "directly connected" to another component, it should be understood that there are no other components in between.
In this description, singular expressions include plural expressions unless the context clearly indicates otherwise, and terms such as "includes" or "have" should be understood to specify the presence of a feature, number, step, operation, component, part, or combination thereof described in the specification, but not to exclude in advance the possibility of the presence or addition of one or more other features, numbers, steps, operations, components, parts, or combinations thereof.
FIG. 1 is a perspective view showing a friction heat boiler device using centrifugal force and propulsive force according to one embodiment of the present invention, FIG. 2 is a perspective view showing a state where the friction heat boiler device using centrifugal force and propulsive force according to one embodiment of the present invention is viewed from the rear, and FIG. 3 is a perspective view showing the internal structure of the friction heat boiler device using centrifugal force and propulsive force according to one embodiment of the present invention.
In addition, FIG. 4 is a cross-sectional view showing a friction heat boiler device using centrifugal force and propulsive force according to one embodiment of the present invention, and FIG. 5 is a perspective view showing the configuration of a heat exchange pipe shown in FIG. 4.
A friction heat boiler device using centrifugal force and propulsive force according to one embodiment of the present invention can be largely configured to include a spiral friction member (100), a heat exchange tank (200), and a fluid pump (300) as shown in FIGS. 1 and 2.
The above spiral friction member (100) is a component that provides heat to a high temperature by rotating the fluid and causing it to flow through frictional heat generated by the flow.
Specifically, the spiral friction member (100) heats the fluid with frictional heat by rotating the fluid and causing it to flow in a spiral shape through centrifugal force, and can compress and discharge the fluid at high pressure by moving the fluid from the center of rotation of the spiral path to the periphery.
That is, the spiral friction member (100) can perform the function of providing a high temperature and high pressure phase change to the fluid through the spiral path.
Here, the fluid applied to the present invention may have various compositions such as heat medium oil, water, brine, and water vapor, and may be used in a liquid or gaseous state
Such a spiral friction member (100) may be configured to include a hollow shaft (110), a rotary joint (120), a rotary motor (130), a spiral disk (140), and a jet nozzle (150), as shown in FIGS. 3 and 4.
The above hollow shaft (110) is a component that supplies fluid stored in a heat exchange tank (200) described later to a spiral disk (140).
Specifically, the hollow shaft (110) is formed in a hollow tube shape inside, and one of the longitudinal ends is connected to a fluid pump (200) described later to supply fluid from the heat exchange tank (200), and the other end is connected to a spiral disk (140) described later to supply fluid to the spiral disk (140).
In addition, the hollow shaft (110) is installed so as to be rotatable by a rotation motor (130) described later, and can supply fluid to the spiral disk (140) while rotating together with the spiral disk (140) by the operation of the rotation motor (130).
The above rotary joint (120) is a component that allows rotation of the hollow shaft (110) by rotatably connecting the hollow shaft (110) to the fluid pump (300).
That is, the rotary joint (120) connects one end of a hollow shaft (110) forming a rotating body by a rotary motor (130) and a connecting pipe of a fluid pump (300) forming a fixed body, thereby allowing the rotation of the hollow shaft (110) while allowing the fluid of the fluid pump (300) to be supplied to the hollow shaft (110).
Any structure can be satisfied as long as the rotary joint (120) can rotate the hollow shaft (110) while supplying fluid.
The above rotary motor (130) is a component for rotating the hollow shaft (110) to rotate the fluid of the spiral disk (140).
This rotary motor (130) is coupled to the outer surface of a hollow shaft (110) as shown in FIG. 4 and can rotate the hollow shaft (110) together with the spiral disk (140) by operating with power supply.
The above spiral disk (140) is a component for compressing the fluid supplied from the hollow shaft (110) at high temperature and high pressure while rotating it.
Specifically, the spiral disk (140) is formed in a cylindrical shape and has a fluid flow space inside, is connected to a hollow shaft (110), and supplies the fluid to the center of the flow space. The spiral disk (140) rotates together with the hollow shaft (110) by a rotary motor (130) to rotate the fluid and compress it at high temperature and high pressure.
As shown in FIGS. 3 and 4, the spiral disk (140) forms a spiral fluid path by dividing the flow space by a spiral partition (141), and the fluid supplied from the hollow shaft (110) to the center of the flow space is guided to the periphery along the spiral partition (141) while causing friction to heat the fluid and compressing it at high pressure.
That is, the fluid is heated to a high temperature by frictional heat as it moves along the spiral baffle (141) by the rotation of the spiral disk (140), and as it moves to the outer edge of the flow space by centrifugal force, it is compressed and can undergo a phase change to a high-pressure state.
Here, referring to FIG. 3, the tip of the spiral disk (140) is shown as being open, but as shown in FIG. 4, the tip of the spiral disk (140) may be configured to be shielded by a disk cover (140a).
The above jet nozzle (150) is a component that generates high-pressure propulsive force by discharging high-pressure compressed fluid from the spiral disk (140) and thereby generates high-pressure propulsive force for the rotation of the spiral disk (140).
That is, the jet nozzle (150) is a component that is formed in the shape of a hole in a plurality of directions along the circumference of the outer surface of the spiral disk (140) to generate jet propulsion force by discharging high-pressure fluid from the spiral disk (140) and provide rotational force to the spiral disk (140).
That is, the fluid is compressed at high pressure while moving to the outside of the flow space through the centrifugal force caused by the rotation of the spiral disk (140), and while being discharged to the outside of the spiral disk (140) through the jet nozzle (150) in a high pressure state, a jet propulsion force for the rotation of the spiral disk (140) can be generated.
Accordingly, the spiral disk (140) can rotate smoothly even when the output of the rotary motor (130) is reduced by providing propulsion by the jet nozzle (150), ultimately reducing the power consumption of the rotary motor (130).
Here, the jet nozzle (150) is formed with an incline opposite to the rotational direction of the spiral disk (140) so as to spray fluid in the opposite direction of rotation of the spiral disk (140), thereby smoothly providing propulsive force by the spraying of fluid to the spiral disk (140) and causing it to rotate.
Additionally, the jet nozzle (150) may be formed so that the width of the flow path gradually narrows as it goes toward the outside of the spiral disk (140).
This is to increase the velocity of the fluid by reducing the volume of the euro, thereby generating smooth propulsion.
Meanwhile, the spiral bulkhead (141) described above may have eddy projections that are not shown protruding along the surface.
A vortex protrusion is a component that generates vortices in the fluid while expanding the friction area with the fluid, thereby promoting smooth flow.
These vortex protrusions protrude at equal intervals in multiple numbers on the surface of the spiral baffle (141) and come into contact with the fluid, thereby interfering with the flow and generating vortices in the fluid.
For example, the vortex projection may be configured to interfere with the flow of the fluid by being fixed to a spiral baffle (141) in a shape opposite to the direction of flow of the fluid and composed of a plate having an arc-shaped curvature.
Additionally, the spiral disk (140) may be formed so that the width of the fluid path formed by the spiral baffle (141) gradually increases from the center to the periphery of the flow space.
That is, the spiral baffle (141) can be formed so that the width of the flow path becomes wider as it goes toward the outside due to the width between the baffles, and accordingly, the fluid can be compressed as the pressure increases as the flow path becomes wider as it moves toward the outside due to the centrifugal force caused by the rotation of the spiral disk (140).
Alternatively, the spiral disk (140) may be formed so that the width of the fluid path formed by the spiral baffle (141) gradually increases from the center to the periphery of the flow space.
That is, the spiral baffle (141) can be formed so that the width of the flow path becomes narrower towards the outside due to the width between the baffles, and accordingly, the fluid can be compressed while increasing its speed as the flow path becomes narrower as it moves towards the outside due to the centrifugal force caused by the rotation of the spiral disk (140).
The above heat exchange tank (200) is a component that heats the fluid to be heated by storing the high-temperature fluid discharged from the jet nozzle (150) constituting the aforementioned spiral friction member (100) and exchanging heat with the fluid to be heated.
That is, the heat exchange tank (200) is a component that provides hot water by exchanging heat between high-temperature fluid discharged from the jet nozzle (150) and a fluid to be heated, such as cold water.
Specifically, the heat exchange tank (200) may be configured to include an upper tank (210), a lower tank (220), and a heat exchange pipe (230) as shown in FIGS. 1 and 4.
The upper tank (210) is formed in a body shape with an open bottom and accommodates a spiral disk (140) and a jet nozzle (150) forming a spiral friction member (100) inside, and can guide high temperature and high pressure fluid discharged from the jet nozzle (150) downward.
The above lower tank (220) is formed in a roughly hull shape and is connected to the lower part of the upper tank (210), and can store high-temperature fluid guided downward from the upper tank (210).
This lower tank (220) provides a storage space for the fluid, and is connected to a fluid pump (300) described later to supply the fluid back to the hollow shaft (110) through the fluid pump (300).
The heat exchange pipe (230) is a component for heating a fluid to be heated, such as cold water, by exchanging heat with a high-temperature fluid stored in the lower tank (220).
These heat exchange pipes (230) can be coupled to cross the interior of the lower tank (220), and can heat the fluid to be heated by exchanging heat with the fluid in the lower tank (220) while allowing the fluid to flow through them.
In addition, the heat exchange pipe (230) may have a plurality of heat dissipation fins (240) installed on the outer surface as shown in FIG. 5 to expand the heat exchange area with the fluid of the lower tank (220).
The above fluid pump (300) is a component that pumps the fluid stored in the lower tank (220) and supplies it to the spiral friction member (100) described above.
Specifically, the fluid pump (300) is connected to the lower tank (220) and the rotary joint (120) through a connecting pipe, respectively, and while being operated by power, supplies the fluid in the lower tank (220) to the rotary joint (120) and can be supplied to the hollow shaft (110) and the spiral disk (140).
That is, the fluid pump (300) can heat the fluid again to high temperature and high pressure by resupplying the fluid in the lower tank (220) in which heat exchange has taken place with the fluid to be heated to the spiral disk (140).
Meanwhile, the operation of the fluid pump (300) can be controlled by the control of a temperature sensor (not shown) installed in the lower tank (220).
The temperature sensor can detect the fluid temperature of the lower tank (220) and control whether the fluid pump (300) operates. For example, when the fluid temperature of the lower tank (220) reaches a set temperature, the operation of the fluid pump (300) can be stopped.
That is, the fluid pump (300) can stop the circulation of the fluid when the fluid temperature of the lower tank (220) reaches a high temperature and allow heat exchange with the fluid to be heated, and can operate when the temperature of the lower tank (220) drops below a set temperature and circulate the fluid to the spiral friction member (100).
The operation and function of a friction heat boiler device using centrifugal force and propulsive force according to one embodiment of the present invention including the components as described above are described.
The fluid pump (300) detects the fluid temperature of the lower tank (220) through the temperature sensor and circulates the fluid through the spiral friction member (100) until the fluid temperature of the lower tank (220) reaches the set temperature.
The fluid pumped by the fluid pump (300) is supplied to the hollow shaft (110) and the spiral disk (140) through the rotary joint (120).
The rotary motor (130) rotates the hollow shaft (110) until the spiral disk (140) reaches a set rotation speed (rpm).
The fluid is heated to a high temperature by frictional heat as it moves along the spiral baffle (141) by the rotation of the spiral disk (140) by the rotary motor (130), and is compressed as it moves to the outside of the spiral disk (140) by centrifugal force.
And, as the rotational speed of the spiral disk (140) increases, the fluid is compressed at a higher pressure and discharged to the outside of the spiral disk (140) through the jet nozzle (150), thereby providing driving force for the rotation of the spiral disk (140).
At this time, the rotary motor (130) operates while reducing the output load because propulsion force is generated by the jet nozzle (150) when the spiral disk (140) reaches the set rotation speed.
The high temperature and high pressure fluid discharged from the jet nozzle (150) is supplied to the upper tank (210), moves downward, and is then supplied to the lower tank (220). While exchanging heat with the heat exchange pipe (230) traversing the lower tank (220), the fluid to be heated in the heat exchange pipe (230) is heated.
As described above, the friction heat boiler device using centrifugal force and propulsion according to one embodiment of the present invention compresses fluid to high pressure through centrifugal force while the spiral disk (140) constituting the spiral friction member (100) rotates the fluid in a spiral shape, so that the fluid can be smoothly heated to high temperature and high pressure, and in particular, since the high-pressure fluid is discharged through the jet nozzle (150), a jet propulsion force for the rotation of the spiral disk (140) is generated, so that the energy consumption of the rotary motor (130) can be reduced...
Explanation of symbols
100 : Helical friction member 110 : Hollow shaft
120 : Rotary joint 130 : Rotary motor
140 : Spiral Disc 141 : Spiral Baffle
150 : Jet Nozzle 200 : Heat Exchange Tank
210 : Upper tank 220 : Lower tank
230 : Heat exchange pipe 240 : Radiating fin
300 : Fluid pump