Efficient and energy-saving electromagnetic heating dryer

Abstract

The invention discloses an efficient and energy-saving electromagnetic heating dryer, and belongs to the technical field of electromagnetic heating dryers. Comprising a mounting shell and a processing unit, the flowing direction, speed and turbulence structure of high-temperature gas are controlled through force generated by an electromagnetic field, so that the flowing process of the high-temperature gas is regulated and optimized, and components placed in the device are rapidly heated and dried; the arranged electrified electromagnet can rotate with the lifting vertical rod as a fulcrum, a rotating magnetic field generated in the rotating state can induce current in high-temperature gas, the current is subjected to the effect of Lorentz force, the distribution and flowing direction of the high-temperature gas can be changed, and the high-temperature gas is prevented from flowing out of the lifting vertical rod. The effect generated under the condition can be regulated and controlled according to the rotation speed of the equipment, the magnetic field intensity and the property of the high-temperature gas. By accurately controlling the parameters of the rotating magnetic field, the distribution and flowing direction of the high-temperature gas can be adjusted, so that the specific purpose is achieved or the gas flowing efficiency is optimized.

Description

Technical Field

[0001] The invention relates to the technical field of electromagnetic heating dryers, and in particular to a high-efficiency and energy-saving electromagnetic heating dryer. Background Art

[0002] Electromagnetic heating dryer is a device that uses electromagnetic energy as a heating source and achieves rapid and uniform heating and drying by applying an electromagnetic field to the heated material.

[0003] Patent No. CN201710936479.3 discloses a tunnel-type electromagnetic heating dryer, comprising a tunnel-type cylinder, a reduction motor arranged on one side of the tunnel-type cylinder, the output shaft of the reduction motor being fixedly connected to a driving roller fixed on a bracket, a driven roller fixed on the bracket being provided on the other side of the tunnel-type cylinder, a conveyor belt passing through the tunnel-type cylinder and used to convey sand being provided between the driving roller and the driven roller; a plurality of sand-moving cakes for turning over sand are fixed on the top of the inner wall of the tunnel-type cylinder, and the lower end of the sand-moving cakes is close to the upper end of the conveyor belt; the tunnel-type cylinder can be electromagnetically heated, and the materials of the outer wall of the tunnel-type cylinder are, from the inside to the outside, a nano-insulation layer, an aluminum silicate felt layer, a cable layer for electromagnetic heating of the tunnel-type cylinder, and an aluminum silicate felt layer, and the cable layer is provided with connecting wires for connecting to a power supply on both sides of the tunnel-type cylinder.

[0004] The above patent solves the technical problems of slow sand drying speed and low efficiency in the prior art; however, it is impossible to change the temperature of the inner cavity and the gas flow direction through the electromagnetic field formed in the equipment, thereby accelerating the drying effect; therefore, a high-efficiency and energy-saving electromagnetic heating dryer is proposed. Summary of the invention

[0005] The purpose of the present invention is to solve the shortcomings of the prior art and to propose an efficient and energy-saving electromagnetic heating dryer.

[0006] In order to achieve the above object, the present invention adopts the following technical solutions: A highly efficient and energy-saving electromagnetic heating dryer comprises a mounting shell and a processing unit, wherein the inner cavity of the mounting shell is provided with the processing unit, wherein the processing unit comprises an adjusting mechanism and a condensing mechanism installed on the outer end wall of the adjusting mechanism, wherein a reaction mechanism is vertically arranged on the top of the condensing mechanism, a supporting vertical rod is installed on the bottom of the condensing mechanism, and a receiving plate is arranged at the bottom position of the supporting vertical rod. When the cooling water is received by the receiving plate, the high-temperature gas entering the device is still in a continuous conveying state. When the high-temperature gas encounters the cooling water, heat transfer and interaction will occur, and the heat in the high-temperature gas will be absorbed by the cooling water, resulting in an increase in the temperature of the cooling water and a decrease in the temperature of the high-temperature gas. This heat transfer process will cause the cooling water to vaporize into water vapor, thereby absorbing more heat; in the process of heat transfer, the high-temperature gas gradually cools down, and the cooling water becomes hot at the same time. This heat exchange can not only reduce the temperature of the high-temperature gas, but also transfer the heat to the cooling water, which plays a role in cooling and heat absorption, and realizes the regulation and control of heat. At this time, the high-temperature gas in the inner cavity of the outer shell interacts with the cooling water after the condenser completes the cooling treatment, and adjusts the actual temperature of the inner cavity of the outer shell.

[0007] Preferably, the regulating mechanism comprises a mounting disk shell and transverse cylinders arranged at both ends of the mounting disk shell, a connecting rod is inserted into the inner cavity of the transverse cylinder, matching frames are provided at the other two ends of the mounting disk shell, a clamping mechanism is inserted into the inner cavity of the mounting disk shell, an inserted vertical cylinder is arranged at the bottom position of the mounting disk shell, the lower end surface of the inserted vertical cylinder is connected to the bottom mounting frame, and the arranged partition frame plate can divide the inner cavity of the condensation cylinder into four partition parts, and condensers are preset in each of the four independent chambers, and the condenser at one end of the inner end wall facing the first assembly ring is the gas input end, When the high-temperature gas passes through the condenser, the cooling medium absorbs heat, causing it to cool and condense into liquid. The cooled liquid passes through the inner cavity of the condensing cylinder and the spliced ​​horizontal cylinder, and then merges into the inner cavity of the mounting plate shell. At this time, the cooling liquid passes downward through the inner cavity of the interlaced vertical cylinder and the bottom mounting frame, and then falls downward along the outer end wall of the supporting vertical rod to the upper end surface of the receiving plate, and the cooling water is received by the receiving plate. Through the internal structure design of the equipment, the flow direction and speed of the liquid can be accurately controlled, the smooth transmission of the liquid can be achieved, and the cooling water can be effectively treated.

[0008] Preferably, the engaging mechanism comprises an engaging vertical cylinder and an engaging disk installed on the upper end surface of the engaging vertical cylinder, and a splicing frame block is arranged around the array at the middle position of the upper end surface of the engaging disk.

[0009] Preferably, the condensing mechanism comprises a spliced ​​horizontal cylinder and a condensing cylinder installed at the outer end of the spliced ​​horizontal cylinder, the inner cavity of the condensing cylinder is interspersed with a partition frame plate, and the other end of the partition frame plate is fitted into the inner end surface of the mounting shell, when the staff uses the supporting vertical rod as the lifting path downward, and the bottom mounting frame presses downward along the outer end wall of the supporting vertical rod as the path, the four fulcrums existing in the adjusting mechanism and the first assembly ring remain stationary, at this time, the partition frame plate and the connecting rod support the adjusting mechanism in a state of tilting toward the middle, at this time, the condenser preset in the inner cavity of the condensing cylinder is no longer particularly easy to transmit and process the high-temperature gas with higher density, and most of the high-temperature gas will continue to pass through the first assembly ring upward, and slowly impact the lower end surface of the reaction mechanism arranged above, because the multiple groups of energized electromagnets are arranged to form a disc-shaped matrix, when the condenser and the energized electromagnets are both in working state at the same time, an electromagnetic field will be generated between the two; Electromagnetic fields can affect the flow behavior of high-temperature gases, and can change the flow direction and speed of high-temperature gases by generating eddy currents through electromagnetic fields. When there is an electric current in the high-temperature gas and it is exposed to an electromagnetic field, a magnetic field force is generated that acts on the charges in the gas, causing the gas to move and flow. This phenomenon is called the magnetohydrodynamic effect. By controlling the intensity and direction of the electromagnetic field, the flow characteristics of the gas can be changed. For example, the force generated by the electromagnetic field can be used to manipulate the flow direction, speed, and turbulent structure of the high-temperature gas, thereby achieving the regulation and optimization of the high-temperature gas flow process and rapidly heating and drying the components placed in the device.

[0010] Preferably, the reaction mechanism includes a lifting vertical rod and an inner clamping block arranged around the bottom of the outer end surface of the lifting vertical rod, a partition bar is arranged around the top of the outer end surface of the lifting vertical rod, and an energized electromagnet is installed at the interval of the partition bar.

[0011] Preferably, the inner snap-in block is inserted into the interval of each group of splicing frame blocks from top to bottom, so that the reaction mechanism and the snap-in mechanism become a whole, and the energized electromagnet can rotate with the lifting vertical rod as the fulcrum. The rotating magnetic field generated in the rotating state can induce currents in the high-temperature gas. These currents are affected by the Lorentz force and can change the distribution and flow direction of the high-temperature gas. The effect produced in this case can be regulated and controlled according to the rotation speed of the equipment, the magnetic field strength and the properties of the high-temperature gas itself. By accurately controlling the parameters of the rotating magnetic field, the distribution and flow direction of the high-temperature gas can be adjusted to achieve a specific purpose or optimize the efficiency of gas flow.

[0012] Preferably, the installation shell includes a shell body and a first assembly ring installed on the upper end surface of the shell body, the upper end surface of the first assembly ring is connected to the second assembly ring through a blocking shell, the kinetic energy input end of the overall device is the end position of the shell body, and the gas entering the inner cavity of the shell body will penetrate through the gap between the receiving plate and the shell body and penetrate into the shell body; Because the internal space of the outer shell is set as an inverted cone-like structure with a larger top and a smaller bottom, and the density of the gas entering the device is greater than the external normal air, the gas entering the outer shell will slowly rise along its inner cavity wall until it contacts the connection between the first assembly ring and the outer shell and stops rising.

[0013] Preferably, the partition strip extends outwardly to fit to the inner end wall of the second assembly ring, and there is a gap between the outer end wall of the energized electromagnet and the inner end wall of the second assembly ring.

[0014] Preferably, the outer end surface of the receiving plate fits into the opening at the bottom of the outer shell body, so that the mounting shell and the processing unit become a whole.

[0015] Compared with the prior art, the present invention has the following beneficial effects: 1. The partition frame plate set can divide the inner cavity of the condensing cylinder into four partition parts. Condensers are preset in the four independent chambers. The condenser facing one end of the inner end wall of the first assembly ring is the gas input end. When the high-temperature gas passes through the condenser, the heat will be absorbed by the cooling medium, so that it will be cooled and condensed into liquid. The cooled liquid passes through the inner cavity of the condensing cylinder and the spliced ​​horizontal cylinder, and then merges into the inner cavity of the mounting plate shell. At this time, the cooling liquid passes downward through the inner cavity of the interlaced vertical cylinder and the bottom mounting frame, and then falls down along the outer end wall of the supporting vertical rod to the upper end surface of the receiving plate, and the cooling water is received by the receiving plate. Through the internal structure design of the equipment, the flow direction and speed of the liquid can be accurately controlled, the smooth transmission of the liquid can be achieved, and the cooling water can be effectively treated.

[0016] 2. When the cooling water is received by the receiving plate, the high-temperature gas entering the device is still in a continuous transport state. When the high-temperature gas encounters the cooling water, heat transfer and interaction will occur. The heat in the high-temperature gas will be absorbed by the cooling water, causing the temperature of the cooling water to rise, while the temperature of the high-temperature gas will drop. This heat transfer process will cause the cooling water to vaporize into water vapor, thereby absorbing more heat; during the heat transfer process, the high-temperature gas gradually cools down, while the cooling water becomes hot. This heat exchange can not only reduce the temperature of the high-temperature gas, but also transfer the heat to the cooling water, which plays a role in cooling and absorbing heat, and realizes heat regulation and control. At this time, the high-temperature gas in the inner cavity of the outer shell interacts with the cooling water after the condenser has completed the cooling treatment, and adjusts the actual temperature of the inner cavity of the outer shell.

[0017] 3. When the staff uses the support vertical rod as the lifting path, and the bottom mounting frame presses downward along the outer end wall of the support vertical rod as the path, the four fulcrums of the adjustment mechanism and the first assembly ring remain stationary. At this time, the partition frame plate and the connecting rod support the adjustment mechanism in a tilted state toward the middle. At this time, the condenser preset in the inner cavity of the condenser cylinder is no longer particularly easy to transmit and process the high-density high-temperature gas. Most of the high-temperature gas will continue to pass through the first assembly ring upward and slowly impact the lower end surface of the reaction mechanism arranged above. Because the multiple groups of energized electromagnets form a disc-shaped matrix, when the condenser and the energized electromagnets are in working state at the same time, an electromagnetic field will be generated between the two. The electromagnetic field can affect the flow behavior of the high-temperature gas, and the eddy current generated by the electromagnetic field can change the flow direction and speed of the high-temperature gas, so that the components placed in the device can be quickly heated and dried.

[0018] 4. The energized electromagnet can rotate with the lifting vertical rod as the fulcrum. The rotating magnetic field generated in the rotating state can induce currents in the high-temperature gas. These currents are affected by the Lorentz force and can change the distribution and flow direction of the high-temperature gas. The effect produced in this case can be regulated and controlled according to the rotation speed of the equipment, the magnetic field strength and the properties of the high-temperature gas itself. By precisely controlling the parameters of the rotating magnetic field, the distribution and flow direction of the high-temperature gas can be adjusted to achieve specific purposes or optimize the efficiency of gas flow. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 This is a schematic diagram of the three-dimensional structure of a high-efficiency and energy-saving electromagnetic heating drying machine proposed by the present invention; Figure 2 A schematic diagram of a part of the structure of a high-efficiency and energy-saving electromagnetic heating drying machine proposed by the present invention; Figure 3 This is a schematic diagram of the structure of the outer shell and the first assembly ring of a high-efficiency and energy-saving electromagnetic heating dryer proposed by the present invention; Figure 4 This is a schematic diagram of the structure of a processing unit of a high-efficiency and energy-saving electromagnetic heating dryer proposed by the present invention; Figure 5 This is a schematic diagram of the reaction mechanism structure of a high-efficiency and energy-saving electromagnetic heating dryer proposed by the present invention; Figure 6 This is a schematic diagram of the structure of an adjustment mechanism of a high-efficiency and energy-saving electromagnetic heating dryer proposed by the present invention; Figure 7 This is a schematic diagram of the structure of the adjustment mechanism and condensation mechanism of a high-efficiency and energy-saving electromagnetic heating dryer proposed by the present invention; Figure 8This is a schematic diagram of the condensing mechanism structure of a high-efficiency and energy-saving electromagnetic heating dryer proposed by the present invention; Fig. 9 This is a schematic diagram of the structure of the locking mechanism of a high-efficiency and energy-saving electromagnetic heating dryer proposed by the present invention.

[0020] In the figure: 1. Install the shell; 11. Shell shell; 12. First assembly ring; 13. Blocking shell; 14. Second assembly ring; 2. Processing unit; 21. Adjustment mechanism; 211. Install disk shell; 212. Horizontal cylinder; 213. Connecting rod; 214. Matching frame; 215. Engagement mechanism; 2151. Engagement vertical cylinder; 2152. Engagement disk; 2153. Splicing frame block; 216. Interlacing vertical cylinder; 217. Bottom mounting frame; 22. Condensation mechanism; 221. Splicing horizontal cylinder; 222. Condensation cylinder; 223. Partitioning frame plate; 23. Reaction mechanism; 231. Lifting vertical rod; 232. Inner engaging block; 233. Dividing strip; 234. Power-on electromagnet; 24. Supporting vertical rod; 25. Receiving disk. DETAILED DESCRIPTION

[0021] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0022] Reference Figure 1-Figure 9 Embodiment 1: A highly efficient and energy-saving electromagnetic heating dryer includes a mounting shell 1 and a processing unit 2. The processing unit 2 is arranged in the inner cavity of the mounting shell 1. The processing unit 2 includes an adjusting mechanism 21 and a condensing mechanism 22 installed on the outer end wall of the adjusting mechanism 21. A reaction mechanism 23 is vertically arranged on the top of the condensing mechanism 22. A supporting vertical rod 24 is installed at the bottom of the condensing mechanism 22. A receiving plate 25 is arranged at the bottom of the supporting vertical rod 24. When the cooling water is received by the receiving plate 25, the high-temperature gas entering the device is still in a continuous transport state. When the high-temperature gas encounters the cooling water, heat transfer and interaction will occur. The heat in the high-temperature gas will be absorbed by the cooling water, resulting in an increase in the temperature of the cooling water and a decrease in the temperature of the high-temperature gas. This heat transfer process will cause the cooling water to vaporize into water vapor, thereby absorbing more heat; in the process of heat transfer, the high-temperature gas gradually cools down, and the cooling water becomes hot. This heat exchange can not only reduce the temperature of the high-temperature gas, but also transfer the heat to the cooling water, which plays a role in cooling and heat absorption, thereby realizing heat regulation and control. At this time, the high-temperature gas in the inner cavity of the outer shell 11 interacts with the cooling water after the condenser completes the cooling treatment, thereby adjusting the actual temperature of the inner cavity of the outer shell 11.

[0023] Embodiment 2, the adjustment mechanism 21 includes a mounting disk shell 211 and a transverse cylinder 212 arranged at both ends of the mounting disk shell 211, a connecting rod 213 is inserted into the inner cavity of the transverse cylinder 212, and a matching frame 214 is provided at the other two ends of the mounting disk shell 211. A clamping mechanism 215 is inserted into the inner cavity of the mounting disk shell 211, and an inserted vertical cylinder 216 is arranged at the bottom position of the mounting disk shell 211. The lower end surface of the inserted vertical cylinder 216 is connected to the bottom mounting frame 217. The provided partition frame plate 223 can divide the inner cavity of the condensation cylinder 222 into four partition parts, and condensers are preset in the four independent chambers, facing the cold end of the inner end wall of the first assembly ring 12. The condenser is the gas input end. When the high-temperature gas passes through the condenser, the heat will be absorbed by the cooling medium, causing it to cool and condense into liquid. The cooled liquid passes through the inner cavity of the condensing tube 222 and the spliced ​​horizontal tube 221, and then merges into the inner cavity of the mounting disk shell 211. At this time, the cooling liquid passes downward through the inner cavity of the interlaced vertical tube 216 and the bottom mounting frame 217, and then falls downward along the outer end wall of the supporting vertical rod 24 to the upper end surface of the receiving plate 25, and the cooling water is received by the receiving plate 25. Through the internal structure design of the equipment, the flow direction and speed of the liquid can be accurately controlled, so as to achieve smooth transmission of the liquid and effectively treat the cooling water.

[0024] Embodiment 3, the engaging mechanism 215 includes an engaging vertical cylinder 2151 and an engaging disk 2152 installed on the upper end surface of the engaging vertical cylinder 2151, a splicing frame block 2153 is arranged around the array at the middle position of the upper end surface of the engaging disk 2152, the condensing mechanism 22 includes a splicing horizontal cylinder 221 and a condensing cylinder 222 installed on the outer end of the splicing horizontal cylinder 221, a partition frame plate 223 is inserted in the inner cavity of the condensing cylinder 222, and the other end of the partition frame plate 223 is attached to the inner end surface of the mounting shell 1, when the staff moves downward with the supporting vertical rod 24 as the lifting path, the bottom mounting frame 217 moves downward along the outer end wall of the supporting vertical rod 24 as the path When pressed, the four fulcrums of the adjustment mechanism 21 and the first assembly ring 12 remain stationary. At this time, the partition frame 223 and the connecting rod 213 support the adjustment mechanism 21 in a tilted state toward the middle. At this time, the condenser preset in the inner cavity of the condensation cylinder 222 is no longer particularly easy to transmit and process the high-density high-temperature gas. Most of the high-temperature gas will continue to pass through the first assembly ring 12 upward, and slowly impact the lower end surface of the reaction mechanism 23 arranged above. Because the multiple groups of energized electromagnets 234 are set to form a disc-shaped matrix, when the condenser and the energized electromagnets 234 are in working state at the same time, an electromagnetic field will be generated between the two.

[0025] Example 4: The electromagnetic field can affect the flow behavior of high-temperature gas, and the flow direction and speed of the high-temperature gas can be changed by generating eddy currents through the electromagnetic field. When there is an electric current in the high-temperature gas and it is exposed to the electromagnetic field, a magnetic field force will be generated to act on the charges in the gas, thereby causing the movement and flow of the gas. This phenomenon is called the magnetohydrodynamic effect. By controlling the intensity and direction of the electromagnetic field, the flow characteristics of the gas can be changed. For example, the force generated by the electromagnetic field can be used to manipulate the flow direction, speed and turbulent structure of the high-temperature gas, thereby achieving the regulation and optimization of the high-temperature gas flow process, and quickly heating and drying the components placed in the device.

[0026] Embodiment 5, the reaction mechanism 23 includes a lifting vertical rod 231 and an inner clamping block 232 arranged around the bottom of the outer end surface of the lifting vertical rod 231, a partition bar 233 is arranged around the top of the outer end surface of the lifting vertical rod 231, and an energized electromagnet 234 is installed at the interval of the partition bar 233; The inner clamping block 232 is inserted from top to bottom into the interval of each group of splicing frame blocks 2153, so that the reaction mechanism 23 and the clamping mechanism 215 become a whole. The energized electromagnet 234 can rotate with the lifting vertical rod 231 as a fulcrum. The rotating magnetic field generated in the rotating state can induce the current in the high-temperature gas. These currents are affected by the Lorentz force and can change the distribution and flow direction of the high-temperature gas. The effect produced in this case can be regulated and controlled according to the rotation speed of the equipment, the magnetic field strength and the properties of the high-temperature gas itself. By accurately controlling the parameters of the rotating magnetic field, the distribution and flow direction of the high-temperature gas can be adjusted to achieve a specific purpose or optimize the efficiency of gas flow.

[0027] Embodiment 6, the installation shell 1 includes a shell body 11 and a first assembly ring 12 installed on the upper end surface of the shell body 11, the upper end surface of the first assembly ring 12 is connected to the second assembly ring 14 through a blocking shell 13, the kinetic energy input end of the overall device is the end point position of the shell body 11, and the gas entering the inner cavity of the shell body 11 will pass through the gap position between the receiving plate 25 and the shell body 11 and penetrate into the shell body 11.

[0028] In Example 7, the dividing strip 233 extends outward and fits to the inner end wall of the second assembly ring 14, and there is a gap between the outer end wall of the energized electromagnet 234 and the inner end wall of the second assembly ring 14. The outer end surface of the receiving plate 25 fits to the opening at the bottom of the outer shell 11, so that the installation shell 1 and the processing unit 2 become a whole. Because the internal space of the outer shell 11 is set to an inverted cone-like structure with a larger upper part and a smaller lower part, and the density of the gas entering the device is greater than that of the external normal air, the gas entering the outer shell 11 will slowly rise along its inner cavity wall until it contacts the connection between the first assembly ring 12 and the outer shell 11 and stops rising.

[0029] In summary: an efficient and energy-saving electromagnetic heating dryer comprises an installation shell 1 and a processing unit 2, the processing unit 2 is arranged in the inner cavity of the installation shell 1, the processing unit 2 comprises an adjusting mechanism 21 and a condensing mechanism 22 installed on the outer end wall of the adjusting mechanism 21, a reaction mechanism 23 is vertically arranged on the top of the condensing mechanism 22, a supporting vertical rod 24 is installed at the bottom of the condensing mechanism 22, a receiving plate 25 is arranged at the bottom position of the supporting vertical rod 24, the kinetic energy input end of the overall device is the end position of the outer shell 11, and the gas entering the inner cavity of the outer shell 11 will penetrate through the gap position between the receiving plate 25 and the outer shell 11 and penetrate into the outer shell 11; Because the internal space of the outer shell 11 is set to an inverted cone-like structure with a larger upper part and a smaller lower part, and the density of the gas entering the device is greater than the normal air outside, the gas entering the outer shell 11 will slowly rise along the inner wall thereof until it contacts the connection between the first assembly ring 12 and the outer shell 11 and stops rising; The partition frame 223 is arranged to divide the inner cavity of the condensation cylinder 222 into four partition parts. Condensers are preset in the four independent chambers. The condenser at one end of the inner end wall facing the first assembly ring 12 is the gas input end. When the high-temperature gas passes through the condenser, the heat will be absorbed by the cooling medium, so that it is cooled and condensed into liquid. After the cooled liquid passes through the inner cavity of the condensation cylinder 222 and the spliced ​​horizontal cylinder 221, it merges into the inner cavity of the mounting disk shell 211. At this time, the cooling liquid passes downward through the inner cavity of the interlaced vertical cylinder 216 and the bottom mounting frame 217, and then falls downward along the outer end wall of the supporting vertical rod 24 to the upper end surface of the receiving plate 25, and the cooling water is received by the receiving plate 25. Through the internal structure design of the equipment, the flow direction and speed of the liquid can be accurately controlled, so as to realize the smooth transmission of the liquid and effectively treat the cooling water. When the cooling water is received by the receiving plate 25, the high-temperature gas entering the device is still in a continuous transport state. When the high-temperature gas encounters the cooling water, heat transfer and interaction will occur. The heat in the high-temperature gas will be absorbed by the cooling water, causing the temperature of the cooling water to rise, while the temperature of the high-temperature gas will drop. This heat transfer process will cause the cooling water to vaporize into water vapor, thereby absorbing more heat; during the heat transfer process, the high-temperature gas gradually cools down, while the cooling water becomes hot. This heat exchange can not only reduce the temperature of the high-temperature gas, but also transfer the heat to the cooling water, which plays a role in cooling and absorbing heat, thereby achieving heat regulation and control. At this time, the high-temperature gas in the inner cavity of the outer shell 11 interacts with the cooling water after the condenser has completed the cooling process, and adjusts the actual temperature of the inner cavity of the outer shell 11; When the staff moves downward with the support vertical rod 24 as the lifting path, and the bottom mounting frame 217 is pressed downward along the outer end wall of the support vertical rod 24 as the path, the four fulcrums existing between the adjustment mechanism 21 and the first assembly ring 12 remain stationary, and at this time, the partition frame plate 223 and the connecting rod 213 support the adjustment mechanism 21 in a tilted state toward the middle, and at this time, the condenser preset in the inner cavity of the condensation cylinder 222 is no longer particularly easy to transmit and process the high-density high-temperature gas, and most of the high-temperature gas will continue to pass through the first assembly ring 12 upward, and slowly impact the lower end surface of the reaction mechanism 23 arranged above, because the multiple groups of energized electromagnets 234 are arranged to form a disc-shaped matrix, when the condenser and the energized electromagnets 234 are both in working state at the same time, an electromagnetic field will be generated between the two; Electromagnetic fields can affect the flow behavior of high-temperature gases, and can change the flow direction and speed of high-temperature gases by generating eddy currents through electromagnetic fields. When there is an electric current in the high-temperature gas and it is exposed to an electromagnetic field, a magnetic field force is generated that acts on the charges in the gas, causing the gas to move and flow. This phenomenon is called the magnetohydrodynamic effect. By controlling the intensity and direction of the electromagnetic field, the flow characteristics of the gas can be changed. For example, the force generated by the electromagnetic field can be used to manipulate the flow direction, speed, and turbulent structure of the high-temperature gas, thereby achieving the regulation and optimization of the high-temperature gas flow process and rapidly heating and drying the components placed in the device.

[0030] The energized electromagnet 234 can rotate with the lifting vertical rod 231 as a fulcrum. The rotating magnetic field generated in the rotating state can induce currents in the high-temperature gas. These currents are affected by the Lorentz force and can change the distribution and flow direction of the high-temperature gas. The effect produced in this case can be regulated and controlled according to the rotation speed of the device, the magnetic field strength and the properties of the high-temperature gas itself. By accurately controlling the parameters of the rotating magnetic field, the distribution and flow direction of the high-temperature gas can be adjusted to achieve a specific purpose or optimize the efficiency of gas flow.

[0031] The above is the entire working principle of the present invention.

[0032] In the present invention, the installation method, connection method or setting method of all the components mentioned above are common mechanical methods, and the specific structures, models and coefficient indicators of all its components are its own technology. As long as it can achieve its beneficial effects, it can be implemented, so it will not be elaborated.

[0033] The above embodiments are preferred implementation modes of the present invention, but the implementation modes of the present invention are not limited to the above embodiments. Any other changes, modifications, substitutions, combinations, and simplifications that do not deviate from the spirit and principles of the present invention should be equivalent replacement methods and are included in the protection scope of the present invention.

[0034] In the present invention, unless otherwise specified, the directional words contained in the terms such as "up, down, left, right, front, back, inside, outside, vertical, horizontal" only represent the orientation of the term in normal use, or are common names understood by those skilled in the art, and should not be regarded as limitations on the term. At the same time, number series nouns such as "first", "second" and "third" do not represent specific quantities and orders, but are merely used to distinguish names. Moreover, the terms "include", "comprise" or any other variations thereof are intended to cover non-exclusive inclusion, so that a process, method, article or equipment that includes a series of elements includes not only those elements, but also includes other elements that are not explicitly listed, or also includes elements inherent to such process, method, article or equipment.

Claims

1. An efficient and energy-saving electromagnetic heating dryer, comprising a mounting shell (1) and a processing unit (2), wherein the processing unit (2) is arranged in an inner cavity of the mounting shell (1), characterized in that: The processing unit (2) comprises an adjusting mechanism (21) and a condensing mechanism (22) mounted on an outer end wall of the adjusting mechanism (21); a reaction mechanism (23) is vertically arranged on the top of the condensing mechanism (22); a supporting vertical rod (24) is installed at the bottom of the condensing mechanism (22); and a receiving tray (25) is arranged at the bottom of the supporting vertical rod (24).

2. The high-efficiency and energy-saving electromagnetic heating dryer according to claim 1, characterized in that: The adjustment mechanism (21) comprises a mounting disk shell (211) and transverse tubes (212) arranged at two ends of the mounting disk shell (211); a connecting rod (213) is inserted into the inner cavity of the transverse tube (212); matching frames (214) are provided at the other two ends of the mounting disk shell (211); a locking mechanism (215) is inserted into the inner cavity of the mounting disk shell (211); a vertical tube (216) is inserted at the bottom position of the mounting disk shell (211); and the lower end surface of the vertical tube (216) is connected to the bottom mounting frame (217).

3. The high-efficiency and energy-saving electromagnetic heating dryer according to claim 2, characterized in that: The engaging mechanism (215) comprises an engaging vertical cylinder (2151) and an engaging disk (2152) mounted on the upper end surface of the engaging vertical cylinder (2151), and a splicing frame block (2153) is arranged in an array around the middle position of the upper end surface of the engaging disk (2152).

4. The high-efficiency and energy-saving electromagnetic heating dryer according to claim 1, characterized in that: The condensation mechanism (22) comprises a spliced ​​transverse cylinder (221) and a condensation cylinder (222) installed on the outer end of the spliced ​​transverse cylinder (221); a partition frame plate (223) is inserted into the inner cavity of the condensation cylinder (222); and the other end of the partition frame plate (223) is attached to the inner end surface of the mounting shell (1).

5. The high-efficiency and energy-saving electromagnetic heating dryer according to claim 1, characterized in that: The reaction mechanism (23) comprises a lifting vertical rod (231) and an inner clamping block (232) arranged around the bottom of the outer end surface of the lifting vertical rod (231); a partition bar (233) is arranged around the top of the outer end surface of the lifting vertical rod (231); and an energized electromagnet (234) is installed at the intervals between the partition bars (233).

6. The high-efficiency and energy-saving electromagnetic heating dryer according to claim 5, characterized in that: The inner snap-fitting block (232) is inserted from top to bottom into the interval of each group of splicing frame blocks (2153), so that the reaction mechanism (23) and the snap-fitting mechanism (215) become a whole.

7. The high-efficiency and energy-saving electromagnetic heating dryer according to claim 1, characterized in that: The mounting housing (1) comprises a housing shell (11) and a first assembly ring (12) mounted on the upper end surface of the housing shell (11); the upper end surface of the first assembly ring (12) is connected to a second assembly ring (14) via a blocking shell (13).

8. The high-efficiency and energy-saving electromagnetic heating dryer according to claim 5, characterized in that: The separation strip (233) extends outwardly and fits onto the inner end wall of the second assembly ring (14), and a gap exists between the outer end wall of the energized electromagnet (234) and the inner end wall of the second assembly ring (14).

9. The high-efficiency and energy-saving electromagnetic heating dryer according to claim 1, characterized in that: The outer end surface of the receiving plate (25) fits into the opening at the bottom of the outer shell (11), so that the mounting outer shell (1) and the processing unit (2) become a whole.

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