Magnetic heating machine

Abstract

The present invention does not require fuel and occupies a small area. It is a device with fast heating speed, short-distance heat output and high heat exchange efficiency. It solves the problem of digging trenches and burning fuel to deliver heat in winter, and is also a safe and convenient device to operate. It mainly includes an oil tank, a hydraulic transmission system, and an oil cylinder to drive the supply of hot water. The magnetic heating body is composed of a magnet, a conductor, a copper tube, a copper plate, an iron core, and a flowing water copper tube to generate heat energy, and the main machine is a magnetic heating body. The magnetic heating body is installed in the oil tank and the whole body is immersed in oil. The hydraulic system uses oil to generate the heat of the flow and the heat of the magnetic heating body to make the oil temperature high. The water pipe is coiled in the cooling oil tank to cool the oil temperature down. The main heat is taken by the flowing water copper tube coiling on the iron core.

Description

Technical Field

[0001] The present invention relates to a heating device, which is a device that generates heat quickly and directly uses hot water. Specifically, it relates to water for heating. Background Art

[0002] Boiler heating requires fuel, electricity and manpower. Fuel combustion causes pollution, and boiler maintenance is also inconvenient. Summary of the invention

[0003] The present invention solves the problem of directly burning fuel to obtain heat by using magnets for heating. We use its characteristics to generate heat, and do not perform any heat dissipation technology on the stator. Based on the law of conservation, we have made technical adjustments to the stator core so that the motor can drive the magnet to rotate at high speed. When the magnet rotates, the magnetic lines of force tangent to the copper tube generate electricity, and the current flows along the spiral copper tube to generate a high-speed changing magnetic field. When the magnetic lines of force in the magnetic field pass through the magnetically conductive iron core, countless small eddy currents will be generated in the iron core, causing the iron core itself to heat up at high speed, achieving the effect of heating metal materials. In addition, the exposed parts of the iron core and the copper tube are wrapped with non-flowing oil for heat preservation and heat transfer, which greatly reduces heat loss. We use a copper tube spiral iron core for heat extraction. The iron core is a self-heating object, and the spiral allows water to take a large amount of heat when it flows in the hot object. Since the magnet is magnetic for life, it has the advantages of long service life and fast heating speed, which reduces maintenance time and reduces costs. The heat exchange efficiency of the energy-efficient method is greater than 90%. The disadvantage is that the magnetic flux decreases at high temperatures, and the magnetic force disappears at a temperature of 200 degrees. The method to solve the above disadvantages is to install an electric thermometer on the magnetic heating body to transmit temperature data to the control system. The system can increase the water flow rate and increase the water output. At the same time, the control system can reduce the speed to keep the core temperature at 120 degrees. When the thermometer does not work, the entire system will also shut down and not work.

[0004] The hot spot of oil is greater than that of water, which can protect the heat from being lost. The oil can transfer heat in the exposed part of the copper tube spiral iron core. Compared with the existing technology, the technical scheme of the present invention can achieve the following technical effects.

[0005] 1. It changes the situation that the heating machine in the prior art requires fuel and labor, improves the working environment, and reduces electricity consumption to kilowatt-hours.

[0006] 2. Safe and environmentally friendly, fast heating speed, high efficiency and energy saving, the heat exchange efficiency is more than 90%. Reliable operation, intelligent multi-temperature control, the core temperature and magnet speed use LCD screen to display the real-time temperature setting speed range.

[0007] 3. Small size, easy to install; if the heat demand is large, just change the size of the magnet. BRIEF DESCRIPTION OF THE DRAWINGS

[0008] Figure 1 This is an expanded view of a water flowing copper pipe according to an embodiment of the present invention;

[0009] Figure 2 This is a front view of a magnetic heating body in an embodiment of the present invention;

[0010] Figure 3 A top view of a magnetic heating body in an embodiment of the present invention;

[0011] Figure 4 It is a front view of a magnetic heating machine in an embodiment of the present invention;

[0012] Figure 5 1 is a top view of the magnetic heating machine in an embodiment of the present invention.

[0013] In the figure, 1 is the iron core; 2 is the magnet; 3 is the magnet gap; 4 is the four groups of holes on the outer diameter of the iron core; 5 is the one circle of holes on the inner diameter of the iron core; 6 is the copper tube; 7 is the water copper tube; 8 is the conductor copper tube; 9 is the shaft; 10 is the copper plate; 11 is the water outlet pipe; 12 is the water inlet pipe; 13 is the first electric thermometer; 14 is the second electric thermometer; 15 is the chassis; 16 is the motor; 17 is the plunger pump; 18 is the first oil pipe; 19 is the integrated block; 20 is the second Oil pipe; 21. first ground wire; 22. third oil pipe; 23. fourth oil pipe; 24. oil cylinder; 25. water pump; 26. second ground wire; 27. water pipe; 28. cooling oil tank; 29. ​​fifth oil pipe; 30. large oil tank; 31. oil separator; 32. sixth oil pipe; 33. hydraulic motor; 34. gear; 35. housing upper cover; 36. magnetic heating body; 37. housing; 38. housing lower cover; 39. bracket. DETAILED DESCRIPTION

[0014] Magnetism is widely used in our lives, but it is still a little insufficient in the field of thermal work. To promote this cause, we need to work hard on research and development and contribute to environmental protection. Magnetic heating is a new type of low-energy, high-heat exchange efficiency equipment. Magnetic heating body 36 is made of Figure 2 Figure 3The outer diameter of the iron core 1 is punched to obtain 4 groups of holes 4 of the outer diameter of the iron core, and the inner diameter of the iron core is punched to obtain a circle of holes 5 of the inner diameter of the iron core. The magnet 2 is divided into 4 layers and 6 pieces in each layer. Oil-resistant material is added to the magnet gap 3. The 4 groups of holes 4 of the outer diameter of the iron core are passed through the copper tube 6. The circle of holes 5 of the inner diameter of the iron core is passed through the conductor copper tube 8. The water copper tube 7 connects the copper tube 6 and the conductor copper tube 8 to form a series structure, and one end of the series structure is connected to the water inlet pipe 12 and the other end is connected to the water outlet pipe 11. The shaft 9 is installed through the 4-layer structure of the magnet 2. Copper plates 10 are set in the adjacent iron cores 1 and the adjacent magnet gaps 3, and the 4 groups of holes 4 of the outer diameter of the iron core and the circle of holes 5 of the inner diameter of the iron core pass through the copper plate 10. The first electric thermometer 13 is installed on the iron core 1, and the first electric thermometer 13 is used to transmit data to the system. The second electric thermometer 14 is installed on the outlet pipe 11, and the second electric thermometer 14 is used to transmit data to the system. The magnetic heating body 36 is the main body part.

[0015] like Figure 4 and Figure 5 As shown. The chassis 15 is equipped with a motor 16, an integrated block 19, a cooling oil tank 28, a large oil tank 30 and a magnetic heating body 36. The output end of the motor 16 is connected to the plunger pump 17, and the motor 16 drives the plunger pump 17 to work. The plunger pump 17 is used to supply oil to the integrated block 19. The first oil pipe 18 connects the plunger pump 17 and the integrated block 19. The integrated block 19 is used to distribute oil networks and water networks in various places. The integrated block 19 integrates multiple independent oil pipelines and water pipelines. The second oil pipe 20 connects the cooling oil tank 28 and the plunger pump 17. The first ground line 21 is used to install the water outlet pipe 11. The third oil pipe 22 and the fourth oil pipe 23 are both used to connect the integrated block 19 and the oil cylinder 24. The oil cylinder 24 provides power to the water pump 25. The water pump 25 supplies water to the cooling oil tank 28 through the water pipe 27. The second ground line 26 is used to install the water inlet pipe 12 for supplying water to the water pump 25. One end of the water pipe 27 entering the cooling oil tank 28 is spiraled, one end is connected to the water pump 25 and the other end is connected to the water inlet pipe 12. The cooling oil tank 28 supplies oil to the plunger pump 17. The fifth oil pipe 29 is used for the large oil tank 30 to supply oil to the cooling oil tank oil 28. A magnetic heating body 36 is installed in the large oil tank 30. The oil separator 31 isolates the oil in the magnetic heating body 36 from the flowing oil. The sixth oil pipe 32 is used for the integrated block 19 to supply oil to the oil pipe of the hydraulic motor 33. The hydraulic motor 33 drives the shaft 9 and the magnet 2 to rotate. After the gear 34 is driven to rotate by the hydraulic motor 33, it further drives the gear set connected to the shaft 9 to rotate, thereby realizing the rotation of the shaft 9. The upper cover 35 of the housing is installed with a bearing connected to the shaft 9. The housing 37 is installed on the bracket 39. The lower cover 38 of the housing is installed with a bearing connected to the shaft 9. The support column of the bracket 39 is connected to the bottom of the shell 37, and the magnetic heating body 36 is fixed in the large oil tank 30. The oil plays a role in keeping the heat from being lost. The magnetic heating body 36 has the function of balancing the heat energy with the exposed part of the flowing copper pipe 7. The water pipe 27 spirals in the cooling oil tank 28 to reduce the oil temperature.

[0016] When the core 1 starts working, the system commands the cylinder 24 to work 3 times per minute. The core thermometer issues different instructions according to the real-time temperature of the core 1. When the temperature of the core 1 is 100 to 110 degrees, the system can adjust the working times of the cylinder 24 according to the specific water outlet temperature. When the temperature of the core 1 is 120 degrees, the system starts to reduce the speed of the magnet. When the temperature of the core 1 exceeds 125 degrees, the magnet stops working. When the core temperature drops to 80 degrees, the magnet starts working. To ensure that the magnetic force of the magnet does not disappear, the system stops all work when the core thermometer does not work (such as broken). The system uses mature and advanced products, displays various data with video, and can view various data and touch and adjust data.

[0017] Advantages and characteristics of magnetic heating machine; 1. High efficiency and energy saving. The heat exchange efficiency is greater than 90% (this is the difference between permanent magnet and electromagnetic). Under the same conditions, it saves 20% more electricity than resistive heating. The preheating time is short and the heating speed is fast. 2. Reliable operation. Intelligent protection system and perfect protection system ensure long-term safe and reliable operation of the equipment. 3. Reduce costs. Use copper tube spiral to take heat. The copper tube itself is also a heating element. The magnet has a lifetime magnetism and a long service life, which reduces the maintenance and maintenance. There is basically no maintenance cost in the later stage. 4. Improve the working environment, reduce heat loss, and improve the environmental conditions of the production site. 5. Intelligent multi-temperature point control, magnet magnetic protection can display the real-time temperature and set temperature range on the LCD screen. The system can intelligently control the water output and water temperature, and the length of startup or shutdown time. It can be adjusted according to actual conditions.

Claims

1. A magnetic heating machine, including an oil tank, a hydraulic system, an oil cylinder, a cooling oil tank, and a magnetic heating body, characterized by: The magnetic heating body is fixed in the oil tank, and the oil keeps the heat from being lost. The magnetic heating body and the exposed part of the copper pipe have the function of balancing the heat energy, and the water pipe spirals and cools the oil tank to reduce the oil temperature. An electric motor, an integrated block, a cooling oil tank, a large oil tank and a magnetic heating body are installed on the chassis. The output end of the electric motor is connected to a plunger pump, and the electric motor drives the plunger pump to work. The plunger pump is used to supply oil to the integrated block. The first oil pipe connects the plunger pump and the integrated block. The integrated block is used to distribute oil networks and water networks in various places. A plurality of independent oil pipelines and water pipelines are integrated in the integrated block. The second oil pipe connects the cooling oil tank and the plunger pump. The first ground wire is used to install a water outlet pipe. The third oil pipe and the fourth oil pipe are both used to connect the integrated block and the oil cylinder. The oil cylinder provides power to the water pump, and the water pump supplies water to the cooling oil tank through the water pipe. The second ground wire is used to install a water inlet pipe that supplies water to the water pump. One end of the water pipe entering the cooling oil tank is spiraled, one end is connected to the water pump and the other end is connected to the water inlet pipe. The cooling oil tank supplies water to the column The plug pump supplies oil, and the fifth oil pipe is used for supplying oil from the large oil tank to the cooling oil tank. A magnetic heating body is installed in the large oil tank. The oil separator isolates the magnetic heating body oil and the flowing oil. The sixth oil pipe is used for supplying oil from the integrated block to the oil pipe of the hydraulic motor. The hydraulic motor drives the shaft and the magnet to rotate. The gear is driven to rotate by the hydraulic motor and further drives the gear set connected to the shaft to rotate, thereby realizing the rotation of the shaft. The upper cover of the shell is installed with a bearing connected to the shaft, the shell is installed on the bracket, and the lower cover of the shell is installed with a bearing connected to the shaft. The bracket support column is connected to the chassis shell. The magnetic heating body is fixed in the large oil tank, and the oil plays a role in heat preservation and heat dissipation. The magnetic heating body has the function of balancing heat energy with the exposed part of the flowing copper pipe. The water pipe spirals in the cooling tank to reduce the oil temperature. The outer diameter of the iron core of the magnetic heating body is divided into 4 groups of holes for installing copper tubes, and the inner diameter has a circle of holes for installing conductor copper tubes. The flowing copper tubes respectively connect the conductor copper tubes and the copper tubes to form a series structure. The flowing copper tubes are coiled on the iron core. The magnet rotates in the iron core and the magnetic flux tangents the copper tube to generate electricity. The electricity flows along the flowing copper tube to generate a high-speed changing magnetic field. When the magnetic lines of force in the magnetic field pass through the conductor iron core, countless small eddy currents are generated, causing the iron core itself to heat up at a high speed. Copper plates are set in the gaps between adjacent iron cores and adjacent magnets. The magnetic flux tangents the copper plates to generate heat to transfer the heat of the iron core. The generated heat is taken out by the flowing copper tube. The magnetic heating body is the main unit. When the core starts working, the system commands the cylinder to work 3 times per minute. The core thermometer issues different instructions according to the real-time temperature of the core. When the core temperature is 100 to 110 degrees, the system can adjust the cylinder working times according to the specific water outlet temperature. When the core temperature is 120 degrees, the system starts to reduce the magnet speed; when the core temperature exceeds 125 degrees, the magnet stops working, and when the core temperature drops to 80 degrees, the magnet starts working; to ensure that the magnetic force of the magnet does not disappear, the system stops all work when the core thermometer does not work.

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