Yunnan cigarette intelligent manufacturing gas rapid flow and heat flow control process motor

Abstract

The utility model discloses a cloud cigarette intelligent manufacturing gas fast flow heat flow control process motor, which comprises a motor main body arranged at one end of the upper part of a bottom box and a transmission assembly connected to an output shaft of the motor main body, and is characterized by further comprising a heat dissipation device connected to one end of a motor rotor extending out of the motor main body; the mounting and dismounting device is connected to the motor main body at the non-transmission assembly end, and a filter plate is detachably mounted on the mounting and dismounting device; wherein the heat dissipation device is arranged in the mounting and dismounting device. According to the technical scheme of the utility model, the intelligent Yunnan cigarette manufacturing gas rapid-flow heat flow control process motor is ingenious in design, stable and reliable, the inclination angle of the fan blades can be adjusted, so that the fan blades can perform angle adjustment around the rotating connecting rod, and the larger the inclination angle of the fan blades is, the larger the pressure difference between the upper and lower surfaces of the fan blades is, and the higher the air pressure at the same rotating speed is. And normal operation of the motor is prevented from being affected by damage of internal elements caused by untimely heat dissipation of the motor.

Description

Technical Field

[0001] This utility model relates to an electric motor, specifically an electric motor for the gas velocity flow and heat flow control process in intelligent manufacturing of Yunyan cigarettes, belonging to the field of electric motor technology. Background Technology

[0002] Generally speaking, electric motors are the power foundation of automated industries. They are widely used in various fields, especially in the tobacco industry. Various machines and equipment used in tobacco processing require electric motors as their power source. Because tobacco production involves long-term, high-speed operation without interruption, the motor generates heat during operation. Therefore, a fan needs to be installed on one side of the motor for heat dissipation. The fan installed inside the motor cavity is called the internal fan, while the fan located outside the motor housing is called the external fan. Both internal and external fans are fixed to the motor rotor and rotate with it. Although there are many types of electric motors available, and their functions have increased with the development of high technology, current electric motors still suffer from poor heat dissipation during long-term use. Even fully functional motors still have complex structures, large footprints, and require time and effort to clean, exhibiting many shortcomings and inconveniences.

[0003] Currently, Chinese utility model patent CN114785047A discloses a heat dissipation motor, including: a first base, a base body, a second base, an impeller, a rotating assembly, and a stationary guide vane; the first end of the base body is connected to the first base, the second end of the base body is connected to the second base, the stationary guide vane is disposed on the base body, the rotating assembly is disposed inside the base body, the first base is provided with an air inlet, the impeller is disposed at the air inlet of the first base and connected to the rotating assembly, and under the drive of the rotating assembly, the impeller can rotate relative to the base body, the first base, and the second base. However, in actual use, since the fan blades are fixed on the outer wall of the rotor shaft, the rotation speed of the fan blades is consistent with the speed of the rotor shaft, which makes it impossible for the fan to adjust the air volume while maintaining a constant rotation speed, thus making the device less practical.

[0004] Therefore, developing a gas velocity and heat flow control motor for intelligent cloud and smoke manufacturing with good heat dissipation is the key to solving the above technical problems. Utility Model Content

[0005] To address the numerous defects and shortcomings in the aforementioned background technology, this utility model has made improvements and innovations. The aim is to provide a cleverly designed, stable, and reliable intelligent manufacturing gas velocity and heat flow control process motor for cloud-based smoke extraction. This motor can adjust the fan blade tilt angle, allowing the fan blades to adjust their angle around the rotating connecting rod. A larger fan blade tilt angle results in a greater pressure difference between the upper and lower surfaces of the fan blades, leading to higher air pressure at the same rotational speed. This increases airflow and accelerates heat dissipation for the motor, preventing damage to internal components due to insufficient heat dissipation and ensuring normal motor operation. Furthermore, the inclusion of a convenient filter plate installation and removal device simplifies filter plate replacement and maintenance, improving installation efficiency.

[0006] To solve the above problems and achieve the above-mentioned utility model objectives, the Yunyan intelligent manufacturing gas velocity flow and heat flow control process motor is implemented by adopting the following design structure and the following technical solution:

[0007] The intelligent manufacturing gas velocity flow and heat flow control process motor for Yunyan includes a motor body (3) located at one end of the upper part of the base box (1) and a transmission assembly (2) connected to the output shaft of the motor body (3), and also includes:

[0008] Heat dissipation device (4) is connected to one end of the motor rotor that extends out of the motor body (3);

[0009] Installation and removal device (5) is connected to the motor body (3) at the end of the non-transmission component (2). A filter plate (53) is detachably installed on the installation and removal device (5).

[0010] The heat dissipation device (4) is installed inside the installation and removal device (5), and the heat dissipation device (4) includes:

[0011] Rotor (41), one end of which is connected to the motor rotor;

[0012] Rotating disk (42) is rotatably connected inside rotating block (41);

[0013] A toothed ring (43) is connected to the middle of one end of a rotating disk (42);

[0014] A micro motor (44) is connected to a rotating block (41), and the output shaft of the micro motor (44) passes through the rotating block (41) and is connected to the rotating disk (42);

[0015] The leaf assembly (45) is circumferentially rotatable on the outer periphery of the rotating block (41), and one end of each leaf assembly (45) is connected to the toothed ring (43) for transmission.

[0016] Preferably, the rotating block (41) has a first built-in groove (411) and a second built-in groove (412) inside, the first built-in groove (411) and the second built-in groove (412) are connected, and the inner wall of the first built-in groove (411) has a plurality of through grooves (413) for installing the leaf assembly (45) in a circumferential connection.

[0017] The rotating disk (42) is rotatably mounted in the second built-in slot (412);

[0018] The leaf assembly (45) includes:

[0019] The connecting rod (451) is rotatably connected to each through slot (413);

[0020] Gear (452), gear (452) is connected to the end of connecting rod (451) located in the first built-in groove (411);

[0021] Fan blade (453), fan blade (453) is connected to the end of connecting rod (451) located outside the rotating block (41);

[0022] Each gear (452) meshes with a gear ring (43).

[0023] Preferably, a fixing component (46) is also connected within the rotating block (41), the fixing component (46) comprising:

[0024] The fixing block (461) is connected to the middle of the inner wall of the second built-in groove (412), and multiple pin grooves (462) are provided in the fixing block (461).

[0025] The pin (463) is slidably connected in each pin groove (462), and the non-round end of the pin (463) is provided with a fixing groove;

[0026] The fixing rod (464) is slidably connected in the fixing groove, and one end of the fixing rod (464) is connected to the bottom of the inner wall of the pin groove (462);

[0027] The first spring (465) is sleeved on the outside of the fixed rod (464), and the two ends of the first spring (465) are respectively connected to the bottom of the pin (463) and the bottom of the inner wall of the pin groove (462);

[0028] The rotating disk (42) is also provided with a rotating groove (421) in the middle of the non-toothed ring (43) connecting end, and a plurality of pin holes (422) are provided on the inner wall of the rotating groove (421).

[0029] The inner wall of the rotating groove (421) is attached to the outer wall of the fixed block (461) and rotates in connection, and the round ends of each pin (463) are inserted into the corresponding pin holes (422).

[0030] Preferably, the installation / removal device (5) includes:

[0031] The outer shell (51) is connected to the motor body (3) at one end, and the outer shell (51) is fitted on the outside of each fan blade (453). Multiple connecting slots (511) are circumferentially opened on the outer shell (51) away from the motor body (3).

[0032] The filter plate locking assembly (52) is installed in each of the connecting slots (511);

[0033] The filter plate (53) is fastened to the inner wall of the outer shell (51) by the filter plate locking assembly (52).

[0034] Preferably, sliding grooves (512) are provided on both sides of the inner wall of the connecting groove (511).

[0035] The filter plate (53) has multiple insertion slots (531) circumferentially opened on its outer wall, and several filter holes are opened in the middle of the filter plate (53).

[0036] Preferably, the filter plate locking assembly (52) includes:

[0037] The plug-in block (521) is slidably connected in the connecting groove (511);

[0038] Sliding sleeve (522) is connected to one end of the upper and lower sides of the plug-in block (521);

[0039] The slide rod (523) is slidably connected in each of the sliding sleeve seats (522), and the two ends of the slide rod (523) are respectively connected to the two ends of the inner wall of the sliding groove (512) on the corresponding side;

[0040] The second spring (524) is sleeved on the outside of each slide rod (523);

[0041] The second spring (524) is connected to one end of the sliding sleeve seat (522) and one end of the inner wall of the sliding groove (512); the outer wall of the sliding sleeve seat (522) is slidably connected to the inner wall of the sliding groove (512).

[0042] Preferably, the outer wall of the outer shell (51) is also provided with a plurality of limiting grooves (513) in a circumferential manner, and the limiting grooves (513) are opened close to the end of the connecting groove (511);

[0043] The plug block (521) has a pressure groove (5211).

[0044] Preferably, the outer wall of the housing (51) is further slidably connected to a moving component (54), the moving component (54) comprising:

[0045] The movable ring (541) is sleeved on the outer wall of the outer shell (51);

[0046] Top block (542), top block (542) is circumferentially connected to the end of the movable ring (541) near the end of the pressure groove (5211);

[0047] Limiting blocks (543) are respectively circumferentially connected to the inner wall of the moving ring (541) near the top block (542), and the non-connecting end of the limiting block (543) is slidably connected in the limiting groove (513);

[0048] Among them, the movable ring (541) can drive each top block (542) to insert into the corresponding pressure groove (5211), and drive the filter plate locking assembly (52) away from the filter plate (53).

[0049] Preferably, the plug block (521) has a beveled structure on the end near the center of the outer shell (51).

[0050] Preferably, the top block (542) has a beveled structure on the end near the plug block (521).

[0051] Working principle: Before using the above-mentioned intelligent manufacturing gas velocity flow heat flow control process motor, it needs to be installed as a backup.

[0052] In use, by pressing the filter plate (53), its outer wall presses against the inclined surface of the plug-in block (521), causing the plug-in block (521) to move outward and drive the sliding sleeve seat (522) to move, thereby causing the sliding sleeve seat (522) to press the second spring (524), causing the second spring (524) to contract under force and generate a rebound force. When the filter plate (53) is inserted into place, the rebound force of the second spring (524) drives the sliding sleeve seat (522) to reset, thereby driving the plug-in block (521) to reset and causing the plug-in block (521) to be inserted into the plug-in slot (531), thereby fixing the filter plate (53). The filter plate (53) filters the dust, preventing the dust from adhering and affecting the heat conduction inside the motor body (3).

[0053] Then, the output shaft of the micro motor (44) drives the rotating disk (42) to rotate on the outer wall of the fixed block (461), thereby causing the rotating disk (42) to drive the gear ring (43) on one side to rotate, which in turn causes the gear ring (43) to drive multiple meshing gears (452) to rotate simultaneously. The rotation of the gears (452) drives the connecting rod (451) to rotate, and the connecting rod (451) drives the fan blade (453) to rotate, so that the fan blade (453) adjusts its angle around the rotating connecting rod (451), making the tilt angle of the fan blade (453) larger. The larger the tilt angle of the fan blade (453), the greater the pressure difference between the upper and lower surfaces of the fan blade (453), and the greater the wind pressure at the same speed, thereby increasing the air volume to accelerate the motor. For heat dissipation, the drive motor (62) drives the rotating plate (63) to rotate, which in turn drives the two support plates (64) on one side to rotate. This causes the support plates (64) to move the moving blocks (661) in the moving slot (641). The movement of the two moving blocks (661) drives the sweeping wheel (65) to rotate, which causes the sweeping wheel (65) to move and roll on one side of the filter plate (53). This allows the unblocking brush on the surface of the sweeping wheel (65) to extend into the sieve holes of the filter plate (53) and unblock the sieve holes. This prevents the filter plate (53) from being blocked by dust for a long time, which would affect the ventilation and reduce the heat dissipation effect. It also avoids the trouble of frequently replacing the filter plate (53) for cleaning.

[0054] When the motor is running, electromagnetic interaction will occur between the rotor and the stator. When the current passes through the motor coil, the stator will generate a magnetic field. This magnetic field interacts with the magnetic field on the rotor, causing the rotor to start rotating. At the same time, the rotor block (41) is connected to the rotor and will rotate together with the rotor. Finally, the rotor rotates together with the heat dissipation device (4) to dissipate heat.

[0055] The beneficial effects of this utility model compared with the prior art are:

[0056] 1. The heat dissipation device (4) provided in this utility model can adjust the tilt angle of the fan blades so that the fan blades can be adjusted around the rotating connecting rod. The larger the tilt angle of the fan blades, the greater the pressure difference between the upper and lower surfaces of the fan blades, and the greater the wind pressure at the same speed, so as to increase the air volume to accelerate the heat dissipation of the motor and avoid damage to the internal components of the motor due to untimely heat dissipation, which would affect the normal operation of the motor.

[0057] 2. The heat dissipation device (4) set in this utility model has good heat dissipation effect, ingenious design, stability and reliability. It can increase the air volume to accelerate the heat dissipation of the motor, avoid the motor from being damaged due to untimely heat dissipation and affect the normal operation of the motor, and solve the problem that the fan cannot adjust the air volume when the speed remains unchanged.

[0058] 3. The installation and disassembly device (5) used in this utility model can conveniently and quickly disassemble and install the filter plate, making filter plate replacement and maintenance simpler and more convenient, and improving installation efficiency.

[0059] 4. The filter plate locking assembly (52) on the installation and removal device (5) of this utility model can better fix the filter plate and ensure that the filter plate will not shift or loosen during rotation, thereby maintaining the safety and stability of the equipment.

[0060] 5. The moving component (54) on the installation and removal device (5) of this utility model cooperates with the filter plate locking component (52) to quickly drive the filter plate locking component (52) to disengage from the filter plate, making the maintenance of the filter plate faster, simpler and more efficient, greatly improving the operating efficiency of the equipment and the flexibility of the maintenance cycle, effectively reducing the difficulty of operation and maintenance, and improving the long-term use and reliability of the equipment. Attached Figure Description

[0061] The specific embodiments of this utility model will be further described in detail below with reference to the accompanying drawings, wherein:

[0062] Figure 1 This is one of the usage state diagrams of this utility model;

[0063] Figure 2 This is the second diagram showing the usage state of this utility model;

[0064] Figure 3 This is the third diagram showing the usage state of this utility model;

[0065] Figure 4 This is a partial sectional view of the present invention;

[0066] Figure 5 This is one of the cross-sectional views of the heat dissipation device (4) of this utility model;

[0067] Figure 6 This is the second cross-sectional view of the heat dissipation device (4) of this utility model;

[0068] Figure 7 This is one of the exploded structural diagrams of the heat dissipation device (4) of this utility model;

[0069] Figure 8 This is the second exploded structural diagram of the heat dissipation device (4) of this utility model;

[0070] Figure 9 This is a utility model Figure 8 A magnified view of a section at point A;

[0071] Figure 10 This is a cross-sectional view of the rotating disk (42) of this utility model;

[0072] Figure 11 This is an exploded structural diagram of the fixing component (46) of this utility model;

[0073] Figure 12 This is a schematic diagram of the overall structure of the installation and removal device (5) of this utility model;

[0074] Figure 13 This is one of the exploded structural diagrams of the installation and removal device (5) of this utility model;

[0075] Figure 14 This is a utility model Figure 13 A magnified view of a section at point B;

[0076] Figure 15 This is a utility model Figure 13 A magnified view of a section at point C;

[0077] Figure 16 This is the second exploded structural diagram of the installation and removal device (5) of this utility model;

[0078] Figure 17 This is a schematic diagram of the structure of the filter plate locking assembly (52) of this utility model;

[0079] Figure 18 This is a schematic diagram of the cleaning device (6) of this utility model;

[0080] Figure 19 This is a utility model Figure 18 A magnified view of a section at point D;

[0081] Figure 20 This is an exploded structural diagram of the cleaning device (6) of this utility model;

[0082] In the diagram, number 1 represents the bottom box.

[0083] 2—Transmission components;

[0084] 3—Motor body;

[0085] 4—Heat dissipation device; 41—Rotating block; 411—First built-in groove; 412—Second built-in groove; 413—Through groove; 42—Rotating disk; 421—Rotating groove; 422—Pin hole; 43—Gear ring; 44—Micro motor; 45—Dispersion blade assembly; 451—Connecting rod; 452—Gear; 453—Fan blade; 46—Fixing assembly; 461—Fixing block; 462—Pin groove; 463—Pin rod; 464—Fixing rod; 465—First spring;

[0086] 5—Installation and dismantling device; 51—Outer shell; 511—Connecting groove; 512—Sliding groove; 513—Limiting groove; 52—Filter plate locking assembly; 521—Plug-in block; 5211—Pressure groove; 522—Sliding sleeve seat; 523—Sliding rod; 524—Second spring; 53—Filter plate; 531—Plug-in groove; 54—Moving assembly; 541—Moving ring; 542—Top block; 543—Limiting block;

[0087] 6—Sweeping device, 61—Connecting plate, 62—Drive motor, 63—Rotating plate, 64—Support plate, 641—Moving groove, 642—Sliding groove, 65—Sweeping wheel, 66—Connecting assembly, 661—Moving block, 662—Support rod, 663—Third spring, 664—Slider. Detailed Implementation

[0088] To make the technical means, inventive features, objectives, and effects of this utility model readily understandable, the technical solution of this utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features in the embodiments of this application can be combined with each other. The present utility model will now be described in detail with reference to the accompanying drawings and embodiments.

[0089] Before using the above-mentioned intelligent manufacturing gas velocity flow and heat flow control process motor, it needs to be installed as a backup.

[0090] As attached Figure 1 to Figure 20 As shown, the intelligent manufacturing gas velocity flow and heat flow control process motor for Yunyan includes a motor body 3 located at one end of the upper part of the base box 1 and a transmission assembly 2 connected to the output shaft of the motor body 3.

[0091] Also includes:

[0092] Heat dissipation device 4 is connected to one end of the motor rotor that extends out of the motor body 3; installation and removal device 5 is connected to the motor body 3 at the non-transmission component 2 end, and a filter plate 53 is detachably installed on the installation and removal device 5.

[0093] The heat dissipation device 4 is installed inside the installation and removal device 5, and the heat dissipation device 4 includes:

[0094] Rotor 41, one end of which is connected to the motor rotor;

[0095] Rotating disk 42 is rotatably connected inside rotating block 41;

[0096] Gear ring 43 is connected to the middle of one end of rotating disk 42;

[0097] A micro motor 44 is connected to a rotating block 41, and the output shaft of the micro motor 44 passes through the rotating block 41 and is connected to the rotating disk 42.

[0098] The leaf assembly 45 is circumferentially rotatable on the outer periphery of the rotating block 41, and one end of each leaf assembly 45 is connected to the toothed ring 43 for transmission.

[0099] Furthermore, the rotating block 41 has a first built-in groove 411 and a second built-in groove 412, which are connected. The inner wall of the first built-in groove 411 has a plurality of through grooves 413 for installing the leaf assembly 45.

[0100] The rotating disk 42 is rotatably mounted in the second built-in slot 412;

[0101] The leaf assembly 45 includes:

[0102] Connecting rod 451 is rotatably connected to each through slot 413;

[0103] Gear 452 is connected to the end of connecting rod 451 located in the first built-in slot 411;

[0104] Fan blade 453 is connected to the end of connecting rod 451 located outside the rotating block 41;

[0105] Each gear 452 is meshed with the gear ring 43.

[0106] Specifically, a fixing component 46 is also connected within the rotating block 41, and the fixing component 46 includes:

[0107] Fixing block 461 is connected to the middle of the inner wall of the second built-in groove 412, and multiple pin grooves 462 are provided in the fixing block 461.

[0108] Pin 463 is slidably connected in each pin groove 462, and a fixing groove is provided on the non-round end of pin 463;

[0109] Fixed rod 464 is slidably connected in the fixed groove, and one end of fixed rod 464 is connected to the bottom of the inner wall of pin groove 462;

[0110] The first spring 465 is sleeved on the outside of the fixed rod 464, and the two ends of the first spring 465 are respectively connected to the bottom of the pin 463 and the bottom of the inner wall of the pin groove 462;

[0111] The rotating disk 42 also has a rotating groove 421 in the middle of the non-toothed ring 43 connecting end, and a plurality of pin holes 422 are provided on the inner wall of the rotating groove 421.

[0112] The inner wall of the rotating groove 421 is attached to and rotatably connected to the outer wall of the fixed block 461, and the round ends of each pin 463 are inserted into the corresponding pin holes 422.

[0113] Furthermore, the installation / removal device 5 includes:

[0114] The outer casing 51 is connected to the motor body 3 at one end, and the outer casing 51 is fitted on the outside of each fan blade 453. Multiple connecting grooves 511 are circumferentially opened on the outer casing 51 away from the motor body 3.

[0115] The filter plate locking assembly 52 is installed in each of the connecting slots 511.

[0116] The filter plate 53 is fastened to the inner wall of the housing 51 by the filter plate locking assembly 52.

[0117] Specifically, sliding grooves 512 are provided on both sides of the inner wall of the connecting groove 511;

[0118] The filter plate 53 has multiple insertion slots 531 circumferentially opened on its outer wall, and several filter holes are opened in the middle of the filter plate 53.

[0119] Furthermore, the filter plate locking assembly 52 includes:

[0120] The plug-in block 521 is slidably connected within the connecting slot 511;

[0121] Sliding sleeve 522 is connected to one end of the upper and lower sides of the plug-in block 521 respectively;

[0122] The slide rod 523 is slidably connected in each of the sliding sleeve seats 522, and the two ends of the slide rod 523 are respectively connected to the two ends of the inner wall of the sliding groove 512 on the corresponding side;

[0123] The second spring 524 is sleeved on the outside of each slide rod 523;

[0124] The second spring 524 is connected to one end of the sliding sleeve seat 522 and one end of the inner wall of the sliding groove 512 respectively;

[0125] The outer wall of the sliding sleeve seat 522 is slidably connected to the inner wall of the sliding groove 512.

[0126] Furthermore, the outer wall of the outer shell 51 is also provided with a plurality of limiting grooves 513 in a circumferential manner, and the limiting grooves 513 are opened close to the end of the connecting groove 511;

[0127] The plug block 521 has a pressure groove 5211 inside.

[0128] Furthermore, a movable component 54 is slidably connected to the outer wall of the housing 51, the movable component 54 comprising:

[0129] The movable ring 541 is sleeved on the outer wall of the outer casing 51;

[0130] Top block 542, top block 542 is circumferentially connected to the end of movable ring 541 near the end of pressure groove 5211;

[0131] Limiting blocks 543 are circumferentially connected to the inner wall of the movable ring 541 near the end of the top block 542.

[0132] The non-connecting end of the limiting block 543 is slidably connected within the limiting groove 513;

[0133] Among them, the movable ring 541 can drive each top block 542 to be inserted into the corresponding pressure groove 5211, and drive the filter plate locking assembly 52 away from the filter plate 53.

[0134] Furthermore, the plug-in block 521 has a beveled structure on the end near the center of the outer shell 51.

[0135] Furthermore, the top block 542 has a beveled structure on the end near the plug block 521.

[0136] When adjusting the fan blades 453 of the heat dissipation device 4, the output shaft of the micro motor 44 drives the rotating disk 42 to rotate, causing the rotating disk 42 to rotate on the outer wall of the fixed block 461. By setting the fixed block 461, the rotating disk 42 has good support when rotating, avoiding the shaking of the rotating disk 42 and affecting stability. The rotating disk 42 drives the gear ring 43 on one side to rotate, which in turn drives the meshing gears 452 to rotate simultaneously. This causes the gears 452 to drive the connecting rod 451 to rotate, and the connecting rod 451 to drive the fan blades 453 to rotate. This allows the fan blades 453 to adjust their angle around the rotating connecting rod 451. The larger the tilt angle of the fan blades 453, the greater the pressure difference between the upper and lower surfaces of the fan blades 453, and the greater the air pressure at the same speed. This can increase the airflow to accelerate the heat dissipation of the motor and prevent damage to internal components due to insufficient heat dissipation, thus affecting the normal operation of the motor.

[0137] Meanwhile, a fixing component 46 is also connected inside the rotating block 41. When the rotating disk 42 rotates, the pin 463 is pressed by the inner wall of the rotating groove 421, causing the pin 463 to move inward and press the first spring 465, so that the first spring 465 generates a rebound force. When the rotating disk 42 rotates to the required position, the pin 463 is reset by the rebound of the first spring 465 and inserted into the pin hole 422. Then, the rotating disk 42 is fixed by the pin 463 pressing the pin hole 422, so that the rotating disk 42 has a certain resistance when fixed to ensure the stability of the rotating disk 42. By setting a fixing rod 464 to support the first spring 465, the first spring 465 is prevented from bending when compressed, which affects the rebound force.

[0138] When the motor is running, electromagnetic interaction occurs between the rotor and the stator. When current passes through the motor coil, the stator generates a magnetic field. This magnetic field interacts with the magnetic field on the rotor, causing the rotor to start rotating. At the same time, the rotor block 41 is connected to the rotor and rotates along with the rotor. Finally, the rotor rotates together with the heat dissipation device 4 to dissipate heat.

[0139] When installing filter plate 53: First, fit filter plate 53 onto the inner end of housing 51. Then, press the outer filter plate 53, causing the inner outer wall of filter plate 53 to press against the inclined surface of insertion block 521. This causes insertion block 521 to move outward and move sliding sleeve seat 522, which in turn causes sliding sleeve seat 522 to press against second spring 524. This causes second spring 524 to contract under force and generate a rebound force. After filter plate 53 is inserted into place, the rebound force of second spring 524 causes sliding sleeve seat 522 to reset, which in turn causes insertion block 521 to reset and be inserted into the housing.

[0140] The filter plate 53 is fixed in the groove 531, making installation more convenient and easier.

[0141] When the filter plate 53 is damaged after prolonged use and needs to be replaced, the filter plate locking component 52 can be opened by moving component 54 for replacement. During use, the operator moves the moving ring 541, causing it to move towards the filter plate 53, and the top block 542 extends into the pressure groove 5211. The continuous movement of the top block 542 causes the pressure groove 5211 to move outward due to the inclined surface of the top block 542, thus causing the insertion block 521 to slide out of the insertion slot 531. This removes the insertion block 521 from the filter plate 53, making it easier to remove and replace the filter plate 53. This makes maintenance of the filter plate 53 more convenient. The filter plate 53 filters the intake air, preventing dust from adhering to the surface of the motor body 3 and affecting its heat dissipation. The limiting groove 513, through the limiting block 543, controls the moving ring 541. Limiting the movement ring 541 prevents it from rotating when not in use, which could cause misalignment between the top block 542 and the pressure groove 5211, requiring alignment during use and increasing operational inconvenience.

[0142] In this utility model, a cleaning device 6 is also provided inside the outer casing 51 between the heat dissipation device 4 and the filter plate 53;

[0143] The cleaning device 6 includes:

[0144] Connecting plate 61, both ends of which are connected to the inner wall of outer shell 51;

[0145] Drive motor 62 is connected to the middle of one side of connecting plate 61;

[0146] Rotating plate 63, one side of which is connected to the output shaft of drive motor 62;

[0147] Support plate 64 is symmetrically connected to both ends of the other side of rotating plate 63;

[0148] The sweeping wheel 65 is connected at both ends to the two support plates 64 via the connecting assembly 66.

[0149] Specifically, a movable groove 641 is provided on the support plate 64, and the connecting component 66 is disposed in the movable groove 641;

[0150] Connection component 66 includes:

[0151] The movable block 661 is slidably connected in the movable groove 641, and a sliding sleeve is embedded in the middle of the movable block 661;

[0152] Support rod 662 is slidably connected inside the sliding sleeve, and both ends of support rod 662 are respectively connected to the inner walls of both ends of the moving groove 641;

[0153] The third spring 663 is sleeved on the outside of one end of the support rod 662, and the two ends of the third spring 663 are respectively connected to one end of the moving block 661 and one side of the inner wall of the moving groove 641;

[0154] The sweeping wheel 65 is rotatably connected between two moving blocks 661. The outer wall of the sweeping wheel 65 is also connected to a cleaning brush, and the outer wall of the sweeping wheel 65 is in contact with one side of the filter plate 53.

[0155] Specifically, sliding grooves 642 are also provided on both sides of the inner wall of the moving groove 641 of the support plate 64;

[0156] The two ends of the movable block 661 are also connected to sliders 664, and the sliders 664 are slidably connected in the corresponding grooves 642.

[0157] When the cleaning device 6 is working: the output shaft of the drive motor 62 drives the rotating plate 63 to rotate, which in turn drives the two support plates 64 on one side to rotate. This, in turn, causes the support plates 64 to move the moving blocks 661 in the moving groove 641. The movement of the two moving blocks 661 drives the cleaning wheel 65 to rotate, causing the cleaning wheel 65 to move and roll on one side of the filter plate 53. This allows the unclogging brushes on the surface of the cleaning wheel 65 to penetrate into the sieve holes of the filter plate 53 and unclog them, preventing dust blockage from affecting ventilation of the filter plate 53 after prolonged use.

[0158] This reduces the heat dissipation effect;

[0159] Meanwhile, by setting the connecting component 66, the third spring 663 drives the surface of the sweeping wheel 65 to fit tightly against one side of the filter plate 53 via the moving block 661, thereby ensuring the cleanliness of the sweeping wheel 65 during unblocking. By setting the slider 664 to slide within the groove 642, the slider 664 provides good support for the moving block 661, thereby ensuring the stability of the sweeping wheel 65 during rotation. By setting the support rod 662, the support rod 662 provides good limiting support for the third spring 663, preventing the third spring 663 from shaking and popping out, thus affecting the third filter plate 53.

[0160] The elastic force of spring 663.

[0161] Working principle: In use, pressing the filter plate 53 causes its outer wall to press against the inclined surface of the insertion block 521, causing the insertion block 521 to move outward and drive the sliding sleeve seat 522 to move. This causes the sliding sleeve seat 522 to press against the second spring 524, causing the second spring 524 to contract and generate a rebound force. When the filter plate 53 is inserted into place, the rebound force of the second spring 524 drives the sliding sleeve seat 522 to reset, which in turn drives the insertion block 521 to reset and insert into the insertion slot 531, thereby fixing the filter plate 53.

[0162] Dust is filtered to prevent it from adhering and affecting the heat conduction inside the motor body 3;

[0163] Then, the output shaft of the micro motor 44 drives the rotating disk 42 to rotate on the outer wall of the fixed block 461. This causes the rotating disk 42 to drive the gear ring 43 on one side to rotate, which in turn causes the gear ring 43 to drive multiple meshing gears 452 to rotate simultaneously. The rotation of the gears 452 drives the connecting rod 451 to rotate, and the connecting rod 451 drives the fan blade 453 to rotate. This causes the fan blade 453 to adjust its angle around the rotating connecting rod 451, increasing the tilt angle of the fan blade 453. The larger the tilt angle of the fan blade 453, the greater the pressure difference between the upper and lower surfaces of the fan blade 453. At the same rotation speed, the wind pressure is greater, thereby increasing the airflow to accelerate heat dissipation from the motor.

[0164] Finally, the drive motor 62 drives the rotating plate 63 to rotate, which in turn drives the two support plates 64 on one side to rotate. This, in turn, causes the support plates 64 to move the moving blocks 661 within the moving groove 641. The movement of the two moving blocks 661 drives the sweeping wheel 65 to rotate, causing the sweeping wheel 65 to move and roll on one side of the filter plate 53. This allows the unclogging brushes on the surface of the sweeping wheel 65 to penetrate into the sieve holes of the filter plate 53 and unclog them. This prevents the filter plate 53 from becoming clogged with dust over time, which would affect ventilation and reduce heat dissipation.

[0165] The frequent replacement and cleaning of filter plate 53 is inconvenient. When the motor is running, electromagnetic interaction occurs between the rotor and the stator. When current passes through the motor coil, the stator generates a magnetic field. This magnetic field interacts with the magnetic field on the rotor, causing the rotor to start rotating. At the same time, the rotating block 41 is connected to the rotor and will rotate along with the rotor. Finally, the rotor rotates together with the heat dissipation device 4 to dissipate heat.

[0166] When the fan blades 453 of the heat dissipation device 4 are adjusted, the output shaft of the micro motor 44 drives the rotating disk 42 to rotate, causing the rotating disk 42 to rotate on the outer wall of the fixed block 461. By setting the fixed block 461, the rotating disk 42 has good support when rotating, avoiding the shaking of the rotating disk 42 and affecting stability. The rotating disk 42 drives the gear ring 43 on one side to rotate, which in turn drives the meshing gears 452 to rotate simultaneously. This causes the gears 452 to drive the connecting rod 451 to rotate, and the connecting rod 451 to drive the fan blades 453 to rotate. This allows the fan blades 453 to adjust their angle around the rotating connecting rod 451. The larger the tilt angle of the fan blades 453, the greater the pressure difference between the upper and lower surfaces of the fan blades 453, and the greater the air pressure at the same speed. This can increase the airflow to accelerate the heat dissipation of the motor and prevent damage to internal components due to insufficient heat dissipation, which would affect the normal operation of the motor. At the same time, a fixing component 46 is also connected inside the rotating block 41. When the rotating disk 42 During rotation, the pin 463 is pressed against the inner wall of the rotating groove 421, causing the pin 463 to move inward and press against the first spring 465. This causes the first spring 465 to generate a restoring force. When the rotating disk 42 rotates to the desired position, the pin 463 is reset by the return of the first spring 465 and inserted into the pin hole 422. Furthermore, the pin 463 presses against the pin hole 422, thus affecting the rotating disk.

[0167] 42 is fixed so that the rotating disk 42 has a certain resistance when fixed to ensure the stability of the rotating disk 42. The first spring 465 is supported by the fixing rod 464 so that the first spring 465 is prevented from bending when compressed, thus avoiding affecting the rebound force.

[0168] When the motor is running, electromagnetic interaction occurs between the rotor and the stator. When current passes through the motor coil, the stator generates a magnetic field. This magnetic field interacts with the magnetic field on the rotor, causing the rotor to start rotating. At the same time, the rotor block 41 is connected to the rotor and rotates along with the rotor. Finally, the rotor rotates together with the heat dissipation device 4 to dissipate heat.

[0169] When installing filter plate 53: First, fit filter plate 53 onto the inner end of housing 51. Then, press the outer filter plate 53, causing the inner outer wall of filter plate 53 to press against the inclined surface of insertion block 521. This causes insertion block 521 to move outward and move sliding sleeve seat 522, which in turn causes sliding sleeve seat 522 to press against second spring 524. This causes second spring 524 to contract under force and generate a rebound force. After filter plate 53 is inserted into place, the rebound force of second spring 524 causes sliding sleeve seat 522 to reset, which in turn causes insertion block 521 to reset and be inserted into the housing.

[0170] The filter plate 53 is fixed in the groove 531, making installation more convenient. When the filter plate 53 is damaged after long-term use and needs to be replaced, the filter plate locking component 52 can be opened by moving component 54 for replacement. In use, the operator moves the moving ring 541, causing it to move towards the filter plate 53, and causing the top block 542 to extend into the pressure groove 5211. Then, by continuously moving the top block 542, the pressure groove 5211 is moved outward by the inclined surface of the top block 542, causing the insertion block 521 to slide out of the insertion groove 531, thus losing its fixing effect on the filter plate 53, allowing the filter plate 53 to be removed for replacement, making maintenance of the filter plate 53 more convenient. By setting the filter plate 53, the intake air is filtered to prevent dust from adhering to the motor body 3. The surface affects the heat dissipation of the motor body 3. By setting the limiting groove 513, the limiting groove 513 limits the moving ring 541 through the limiting block 543, so as to prevent the moving ring 541 from rotating when not in use, which would cause misalignment between the top block 542 and the pressure groove 5211, requiring alignment during use and increasing the inconvenience of operation.

[0171] When the cleaning device 6 is working: the output shaft of the drive motor 62 drives the rotating plate 63 to rotate, which in turn drives the two support plates 64 on one side to rotate. This, in turn, causes the support plates 64 to move the moving blocks 661 in the moving groove 641. The movement of the two moving blocks 661 drives the cleaning wheel 65 to rotate, causing the cleaning wheel 65 to move and roll on one side of the filter plate 53. This allows the unclogging brushes on the surface of the cleaning wheel 65 to penetrate into the sieve holes of the filter plate 53 and unclog them, preventing dust blockage from affecting ventilation of the filter plate 53 after prolonged use.

[0172] This reduces heat dissipation. Meanwhile, by setting the connecting component 66, the third spring 663, through the moving block 661, causes the surface of the sweeping wheel 65 to fit tightly against one side of the filter plate 53, thus ensuring the cleanliness of the sweeping wheel 65 during unblocking. By setting the slider 664 to slide within the groove 642, the slider 664 provides good support for the moving block 661, thus ensuring the stability of the sweeping wheel 65 during rotation. By setting the support rod 662, the support rod 662 provides good limiting support for the third spring 663, preventing the third spring 663 from shaking and popping out, thus affecting its elasticity.

[0173] Finally, it should be noted that the above description is merely a preferred embodiment of this utility model and is not intended to limit the utility model in any other way. Any person skilled in the art may make changes or modifications to the disclosed technical content to create equivalent embodiments. However, any modifications that do not depart from this description are not permitted.

[0174] Any simple modifications, equivalent changes, and alterations made to the above embodiments based on the technical essence of this utility model shall still fall within the protection scope of this utility model.

Claims

1. A motor for a gas rapid flow and heat flow control process in intelligent manufacturing of Yunnan cigarette, comprising a motor body (3) arranged at one end of the upper portion of a bottom box (1) and a transmission assembly (2) connected to the output shaft of the motor body (3), characterized in that, Also include: Heat dissipation device (4), heat dissipation device (4) is connected to the motor rotor end extending out of the motor body (3); The installation and removal device (5) is connected to the motor body (3) at the end of the non transmission assembly (2), and the filter plate (53) is detachably mounted on the installation and removal device (5); Wherein, the heat dissipation device (4) is arranged in the installation and removal device (5), and the heat dissipation device (4) comprises: Rotary block (41), one end of rotary block (41) is connected with motor rotor; Rotary disc (42), rotary disc (42) is rotatably connected in rotary block (41); Gear ring (43), gear ring (43) is connected to the middle part of one end of rotary disc (42); Micro motor (44), micro motor (44) is connected to rotary block (41), and the output shaft of micro motor (44) passes through rotary block (41) and is connected with rotary disc (42); Leaf assembly (45), leaf assembly (45) is arranged in the outer periphery of rotary block (41) in the form of ring, and one end of each leaf assembly (45) is drivingly connected with gear ring (43).

2. The cloud intelligent manufacturing gas flow hot flow control process motor of claim 1, wherein, The first built-in groove (411) and the second built-in groove (412) are communicated, and a plurality of through grooves (413) for mounting the leaf assembly (45) are arranged in the inner wall of the first built-in groove (411) in the form of ring; The rotary disc (42) is rotatably installed in the second built-in groove (412); The leaf assembly (45) comprises: Connecting rod (451), connecting rod (451) is rotatably connected in each through groove (413); Gear (452), gear (452) is connected to the end of connecting rod (451) in the first built-in groove (411); Fan blade (453), fan blade (453) is connected to the end of connecting rod (451) on the outside of rotary block (41); Wherein, each gear (452) is meshingly connected with gear ring (43).

3. The cloud intelligent manufacturing gas flow hot flow control process motor of claim 1 or 2, characterized in that, The rotary block (41) is further connected with a fixing assembly (46), and the fixing assembly (46) comprises: Fixed block (461), fixed block (461) is connected to the middle part of the inner wall of the second built-in groove (412), and a plurality of pin grooves (462) are arranged in the fixed block (461); Pin rod (463), pin rod (463) is slidingly connected in each pin groove (462), and a non-circular head end of pin rod (463) is provided with a fixing groove; Fixed rod (464), fixed rod (464) is slidingly connected in the fixing groove, and one end of fixed rod (464) is connected with the inner wall bottom of pin groove (462); First spring (465), first spring (465) is sleeved outside fixed rod (464), and two ends of first spring (465) are respectively connected with the bottom of pin rod (463) and the inner wall bottom of pin groove (462); The non gear ring (43) connecting end of the rotary disc (42) is further provided with a rotating groove (421), and a plurality of pin holes (422) are arranged in the inner wall of the rotating groove (421); Wherein, the inner wall of rotating groove (421) is in close contact with the outer wall of fixed block (461) and is rotatably connected, and the round head end of each pin rod (463) is inserted into the corresponding pin hole (422).

4. The cloud intelligent manufacturing gas flow hot flow control process motor of claim 1, wherein, The dismounting device (5) comprises: A shell (51) is connected with the motor body (3) at one end, and the shell (51) is sleeved outside each fan blade (453), and a plurality of connecting grooves (511) are annularly and throughly provided on the shell (51) away from the motor body (3); A filter plate locking assembly (52) is respectively installed in each connecting groove (511); The filter plate (53) is clamped and connected to the inner wall of the shell (51) through the filter plate locking assembly (52).

5. The cloud intelligent manufacturing gas flow hot flow control process motor of claim 4, wherein, The inner wall of the connecting groove (511) is provided with a sliding groove (512) on both sides; The outer wall of the filter plate (53) is annularly provided with a plurality of plug-in grooves (531), and the middle part of the filter plate (53) is provided with a plurality of filter holes.

6. The cloud intelligent manufacturing gas flow hot flow control process motor of claim 4, wherein, The filter plate locking assembly (52) comprises: A plug-in block (521) is slidingly connected in the connecting groove (511); A sliding sleeve seat (522) is respectively connected to one end of the upper and lower sides of the plug-in block (521); A sliding rod (523) is slidingly connected in each sliding sleeve seat (522), and the two ends of the sliding rod (523) are respectively connected to the inner wall of the sliding groove (512) on both sides; A second spring (524) is sleeved outside each sliding rod (523); The second spring (524) is respectively connected to one end of the sliding sleeve seat (522) and one end of the inner wall of the sliding groove (512); the outer wall of the sliding sleeve seat (522) is slidingly connected with the inner wall of the sliding groove (512).

7. The cloud intelligent manufacturing gas flow hot flow control process motor of claim 6, wherein, The outer wall of the shell (51) is also annularly provided with a plurality of limiting grooves (513), which are provided close to the end of the connecting groove (511); A pressure receiving groove (5211) is provided in the plug-in block (521).

8. The cloud intelligent manufacturing gas flow hot flow control process motor of claim 7, wherein, The outer wall of the shell (51) is also slidingly connected with a moving assembly (54), which comprises: A moving ring (541) is sleeved on the outer wall of the shell (51); A top block (542) is annularly connected to the end of the moving ring (541) close to the end of the pressure receiving groove (5211); A limiting block (543) is annularly connected to the inner wall of the moving ring (541) close to the end of the top block (542), and the non-connected end of the limiting block (543) is slidingly connected in the limiting groove (513); The moving ring (541) can drive each top block (542) to be inserted in the corresponding pressure receiving groove (5211), and drive the filter plate locking assembly (52) to move away from the filter plate (53).

9. The cloud intelligent manufacturing gas flow hot flow control process motor of claim 7, wherein, The end of the plug-in block (521) close to the center of the shell (51) is provided with an inclined surface structure.

10. The cloud intelligent manufacturing gas flow hot flow control process motor of claim 8, wherein, The end of the top block (542) close to the plug-in block (521) is provided with an inclined surface structure.

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