Protection and heat dissipation integrated device for industrial personal computer

Abstract

The invention discloses an industrial personal computer protection and heat dissipation integrated device, and relates to the technical field of industrial computers, and the industrial personal computer protection and heat dissipation integrated device comprises a driving energy-saving rotating motor, a mounting rod, a protection heat dissipation assembly, an industrial personal computer body and a dynamic heat dissipation adjusting assembly. An intelligent dynamic heat dissipation adjusting structure is formed, so that through real-time monitoring of a built-in high-precision temperature sensor and a position sensor and precise control of an external PLC, the working state of each heat dissipation assembly can be rapidly and accurately adjusted according to the temperature change and the operation state of the interior and the surface of the industrial personal computer body, and the heat dissipation efficiency is improved. Compared with a traditional single heat dissipation mode or a simple fixed heat dissipation structure, the industrial personal computer has the advantages that the heat dissipation efficiency and effect are greatly improved, it is ensured that the industrial personal computer body is always in a proper working temperature range, and the stability and reliability of the industrial personal computer body are improved.

Description

Technical Field

[0001] The present invention relates to the technical field of industrial computers, and specifically to an integrated device for protecting and cooling an industrial control computer. Background Art

[0002] An industrial control computer (IPC), that is, an industrial control computer, is a general term for tools that adopt a bus structure and are used to detect and control the production process, electromechanical equipment, and process equipment. An industrial control computer has important computer attributes and characteristics, such as having a computer motherboard, CPU, hard disk, memory, peripherals, and interfaces, and having an operating system, control network and protocol, computing power, and a friendly human-machine interface. The products and technologies in the industrial control industry are very special and belong to intermediate products, which provide stable, reliable, embedded, and intelligent industrial computers for other industries.

[0003] Currently, during the use of an industrial control computer, it is usually equipped with a high-performance processor, graphics card, large-capacity memory, and storage device, etc. These components will generate a large amount of heat during operation, and heat accumulation will continuously exist. As time increases, the temperature rises, which will in turn cause the internal parts of the industrial control computer to age and affect the lifespan of the industrial control computer. Moreover, in many industrial sites, some products falling will accidentally impact and damage the industrial control computer, and there is no effective protection for the industrial control computer. Therefore, it is necessary to propose an integrated device for protecting and cooling an industrial control computer. Summary of the Invention

[0004] The purpose of the present invention is to provide an integrated device for protecting and cooling an industrial control computer to solve the problems raised in the above background art. During the use of an industrial control computer, it is usually equipped with a high-performance processor, graphics card, large-capacity memory, and storage device, etc. These components will generate a large amount of heat during operation, and heat accumulation will continuously exist. As time increases, the temperature rises, which will in turn cause the internal parts of the industrial control computer to age and affect the lifespan of the industrial control computer. Moreover, in many industrial sites, some products falling will accidentally impact and damage the industrial control computer, and there is no effective protection for the industrial control computer.

[0005] To achieve the above purpose, the present invention provides the following technical solution: An integrated device for protecting and cooling an industrial control computer, including: a drive energy-saving rotation motor, a mounting rod, a protection and heat dissipation component, an industrial control computer body, and a dynamic heat dissipation adjustment component; An electromagnetic shielding plate is installed on the side end of the mounting rod and is connected in a circular manner around it. The protection and heat dissipation component includes a reciprocating push guide rod, a sliding guide column, and a position sensor, which are used to dynamically contact and fix and perform fixed-point heat dissipation according to the operation conditions of the industrial control computer body in real time. The front end of the reciprocating propulsion guide rod is fastened to an annular rail frame through a connecting block, the annular rail frame and the sliding guide column form a sliding connection, and the inside of the annular rail frame is equally divided and equidistantly slidably connected with four sets of rotating motor boxes; The dynamic heat dissipation adjustment component includes a circular rotating motor, a rotating track plate and a side frame, which is used to feed back to an external PLC controller according to the temperature accumulation inside the industrial control body in cooperation with a built-in high-precision temperature sensor so that the dynamic heat dissipation adjustment components at different positions are adjusted to form different regulated air ducts; The circular rotating motor is installed inside the convex window on the four end surfaces of the industrial control body. The top output end of the circular rotating motor drives the rotating track plate and the side frame to form a circular track rotation adjustment. The side of the side frame is installed with a ball screw guide rail.

[0006] Preferably, the side end of the ball screw guide rail is slidingly connected with a sliding connection rotating member, and the sliding connection rotating member is composed of a sliding block and a rotating member. The side end of the rotating member is connected with a connecting frame, and the side end of the connecting frame is rotatably connected with a hinged rotating joint. The side end of the hinged rotating joint is installed with a sealing adjustment air guide plate, and the sealing adjustment air guide plate is located in a stationary state to form a seal with the bay window.

[0007] Preferably, the bottom output ends of the four groups of rotating motor boxes are connected to an adjusting drive shaft arm, the side ends of the adjusting drive shaft arm are connected to a yielding groove, the inner front end of the yielding groove is installed on a bidirectional rotating motor, and the left and right side ends of the bidirectional rotating motor are respectively installed with a first electric guide column and a second electric guide column.

[0008] Preferably, a phase change material contact matrix is ​​installed on the side end of the first electric guide column, and a liquid buffer abutment is fastened to the side end of the second electric guide column.

[0009] Preferably, a rotating disk is connected to the output end of the driving energy-saving rotating motor, and the side end of the rotating disk is connected to the mounting rod and the electromagnetic shielding plate. The side end of the mounting rod is connected to the rotating bearing disk, and the bottom ends of the rotating disk and the rotating bearing disk are installed with a load-bearing stabilizing frame. The chassis of the load-bearing stabilizing frame has a reserved roller mounting groove, which is used to form effective protection and heat dissipation as a whole when the industrial control body needs to be in a displacement process for operation.

[0010] Preferably, the sides of the rotating disk and the rotating bearing disk are both installed with stator-rotor structures, the side ends of the stator-rotor structures are installed with adaptive adjustment components, and the side ends of the adaptive adjustment components and the left and right ends of the industrial control body are installed with sheet metal frames to form a fastening connection.

[0011] Preferably, the adaptive adjustment component includes a connecting frame plate, the back side of the connecting frame plate is connected to the stator-rotor structure, the left and right ends of the connecting frame plate are rotatably connected with a first gyroscope driving structure, a first balance rod is installed at the bottom of the first gyroscope driving structure, a second gyroscope driving structure is installed at the central end of the first balance rod, a central connecting rod is installed at the bottom of the second gyroscope driving structure, a third gyroscope driving structure is installed at the top end of the central connecting rod, a second balance rod is connected to the side end of the third gyroscope driving structure, and the left and right ends of the second balance rod are tightly connected to the installation sheet metal frame through connecting blocks.

[0012] Preferably, a bearing sheet frame is tightly connected to the surface of the industrial control body, and a heat dissipation adaptive adjustment component is tightly connected to the side end of the bearing sheet frame.

[0013] Preferably, the heat dissipation adaptive adjustment component includes a brushless drive motor, the output end of the brushless drive motor is connected with a small gear, a rectangular frame is tightly connected to the top side end of the bearing sheet frame, teeth are installed inside the rectangular frame, sliding groove blocks are installed at the top and bottom of the outside of the rectangular frame, and the small gear and the teeth are meshed.

[0014] Preferably, a rotation adjustment motor is installed at the bottom of the sliding groove block, an adjustment positioning shaft arm is installed at the bottom of the rotation adjustment motor, a cooling fan is installed at the bottom end of the adjustment positioning shaft arm, and the cooling fan is used to drive through the built-in forward and reverse motors to blow out cooling gas in the forward rotation or adsorb hot air in the reverse rotation.

[0015] Compared with the prior art, the beneficial effects of the present invention are as follows: 1. In the present invention, through the cooperation of the protection heat dissipation component, the dynamic heat dissipation adjustment component and the heat dissipation adaptive adjustment component, an intelligent dynamic heat dissipation adjustment structure is formed, so that through the real-time monitoring of the built-in high-precision temperature sensor and position sensor, combined with the precise control of the external PLC controller, it is possible to quickly and accurately adjust the working states of each heat dissipation component according to the temperature changes and operating states inside and on the surface of the industrial control body, realize all-round and multi-level dynamic heat dissipation adjustment, and greatly improve the heat dissipation efficiency and effect compared with the traditional single heat dissipation method or simple fixed heat dissipation structure, ensure that the industrial control body is always in a suitable working temperature range, and improve the stability and reliability of the industrial control body.

[0016] 2. In the present invention, with the cooperation of the protection and heat dissipation component, it can effectively address the local high-temperature areas and possible vibration impacts of the industrial control body. The phase change material contact matrix and the liquid buffer abutting member are respectively used for heat dissipation and protection, and the heat dissipation adaptive adjustment component adjusts the surface temperature of the industrial control body, reducing the problem of insufficient attention to the surface heat dissipation of the body in the traditional heat dissipation method. It can more effectively solve the heat dissipation and protection problems of different parts and different scenarios during the operation of the industrial control computer, and further improve the overall performance of the industrial control computer. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 is a schematic front view structure diagram of an integrated protection and heat dissipation device for an industrial control computer according to the present invention; Figure 2 is a schematic side view structure diagram of an integrated protection and heat dissipation device for an industrial control computer according to the present invention; Figure 3 is a schematic structure diagram of the protection and heat dissipation component of an integrated protection and heat dissipation device for an industrial control computer according to the present invention; Figure 4 is a partial schematic structure diagram of the protection and heat dissipation component of an integrated protection and heat dissipation device for an industrial control computer according to the present invention; Figure 5 is a schematic installation position structure diagram of the dynamic heat dissipation adjustment component of an integrated protection and heat dissipation device for an industrial control computer according to the present invention; Figure 6 is a schematic structure diagram of the adaptive adjustment component of an integrated protection and heat dissipation device for an industrial control computer according to the present invention; Figure 7 is a schematic structure diagram of the heat dissipation adaptive adjustment component of an integrated protection and heat dissipation device for an industrial control computer according to the present invention; Figure 8 is a schematic structure diagram of the dynamic heat dissipation adjustment component of an integrated protection and heat dissipation device for an industrial control computer according to the present invention; Figure 9 is for an integrated protection and heat dissipation device for an industrial control computer according to the present invention Figure 5 is an enlarged schematic structure diagram at position A; Figure 10 is a partial schematic structure diagram of the heat dissipation adaptive adjustment component of an integrated protection and heat dissipation device for an industrial control computer according to the present invention.

[0018] In the figure: 1. Driving energy-saving rotating motor; 2. Load-bearing stable frame; 3. Rotating disk; 4. Rotating bearing disk; 5. Installation rod; 6. Protective and heat dissipation component; 61. Reciprocating propulsion guide rod; 62. Sliding guide post; 63. Position sensor; 64. Annular rail frame; 65. Rotary motor box; 66. Adjusting drive shaft arm; 67. Yielding rotating groove; 68. Bidirectional rotating motor; 69. First electric guide post; 690. Phase change material contact matrix; 691. Second electric guide post; 692. Liquid buffer abutting member; 7. Industrial control body; 8. Adaptive adjustment component; 81. Connecting frame plate; 82. First gyroscope drive structure; 83. First balance rod; 84. Second gyroscope drive structure; 85. Central connecting rod; 86. Third gyroscope drive structure; 87. Second balance rod; 9. Heat dissipation adaptive adjustment component; 91. Brushless drive motor; 92. Rectangular frame; 93. Small gear; 94. Sliding groove block; 95. Teeth; 96. Rotating adjustment motor; 97. Adjusting positioning shaft arm; 98. Cooling fan; 10. Dynamic heat dissipation adjustment component; 101. Circumferential rotating motor; 102. Rotating track disk; 103. Side frame; 104. Ball screw guide rail; 105. Sliding connection rotating member; 106. Connecting frame; 107. Hinged rotating joint; 108. Sealing adjustment air deflector; 11. Load-bearing sheet frame. Detailed implementation mode

[0019] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0020] Embodiment 1: In the present invention, refer to Figure 1 - Figure 10 As shown in the figure: An integrated device for protecting and dissipating heat of an industrial control computer includes: a driving energy-saving rotating motor 1, an installation rod 5, a protective and heat dissipation component 6, an industrial control body 7, and a dynamic heat dissipation adjustment component 10; An electromagnetic shielding plate is installed at the side end of the installation rod 5 and connected around in a circle. The protective and heat dissipation component 6 includes a reciprocating propulsion guide rod 61, a sliding guide post 62, and a position sensor 63, and is used to dynamically perform contact fixation and fixed-point heat dissipation according to the operation conditions of the industrial control body 7 in real time. The front end of the reciprocating propulsion guide rod 61 is tightly connected with an annular rail frame 64 through an adapter block. The annular rail frame 64 and the sliding guide post 62 form a sliding connection, and four groups of rotary motor boxes 65 are slidably connected at equal intervals and equally divided inside the annular rail frame 64.

[0021] The bottom output ends of four groups of rotary motor boxes 65 are connected to adjust the driving shaft arm 66. The side end of the adjusting driving shaft arm 66 is connected to set a relief rotating groove 67. The front end inside the relief rotating groove 67 is installed with a bidirectional rotating motor 68. The left and right side ends of the bidirectional rotating motor 68 are respectively installed with a first electric guide post 69 and a second electric guide post 691.

[0022] The side end of the first electric guide post 69 is installed with a phase change material contact matrix 690. The side end of the second electric guide post 691 is firmly connected with a liquid buffer abutting member 692.

[0023] In a specific solution, before the industrial control body 7 is started, the electromagnetic shielding plate connected around the side end of the installation rod 5 is in place, forming a preliminary electromagnetic protection for the industrial control body 7, which can effectively block external electromagnetic interference, ensure that the internal electronic components of the industrial control body 7 are protected from electromagnetic noise, and lay a foundation for subsequent stable operation. After the industrial control body 7 is started, the protection and heat dissipation component 6 starts to work, the position sensor 63 is activated, and information such as the temperature and operating state of the industrial control body 7 is monitored in real time and transmitted to an external PLC controller. Then, the reciprocating propulsion guide rod 61 adjusts its own position according to the information fed back by the position sensor 63, driving the annular rail frame 64 to approach or move away from the industrial control body 7 to reach the optimal working position. As the industrial control body 7 operates, the position sensor 63 continuously monitors. When it detects that the temperature of a certain part of the industrial control body 7 rises and determines it as a high-temperature area, the external PLC controller immediately issues an instruction, causing the reciprocating propulsion guide rod 61 to quickly push the annular rail frame 64 to move near the high-temperature area. At this time, the four rotating motor boxes 65 inside the annular rail frame 64 start to work, and the adjusting drive shaft arm 66 at the bottom output end adjusts its angle according to the specific position and shape of the high-temperature area, aligning the yielding rotating groove 67 with this area. The bidirectional rotating motor 68 is activated, and the extending direction and length of the first electric guide post 69 and the second electric guide post 691 are controlled according to requirements. When it is analyzed and judged that enhanced heat dissipation is required in this area, the first electric guide post 69 extends, making the phase change material contact matrix 690 closely contact the surface of the industrial control body 7. The phase change material in the phase change material contact matrix 690 undergoes a phase change after absorbing heat, thereby taking away a large amount of heat to achieve efficient heat dissipation. When a certain vibration impact occurs in this area, the prediction controller causes the second electric guide post 691 to extend, making the liquid buffer abutting member 692 contact the industrial control body 7. By utilizing the liquid buffer characteristics of the liquid buffer abutting member 692, the damage caused to the industrial control body 7 by vibration or stress is reduced. During the operation of the industrial control body 7, the position sensor 63 always remains in a monitoring state. When the load of the industrial control body 7 changes, resulting in a change in the temperature distribution, the protection and heat dissipation component 6 repeats the above dynamic adjustment process to ensure that all parts of the industrial control body 7 can be timely and effectively cooled and protected. During the entire operation process, the electromagnetic shielding plate at the side end of the installation rod 5 continuously plays a protective role to prevent electromagnetic interference from affecting the normal operation of the industrial control computer. At the same time, the protection and heat dissipation component 6 performs dynamic heat dissipation adjustment according to the real-time state of the industrial control computer. The two work together to ensure the stable operation of the industrial control body 7 in a complex industrial environment, forming an integrated design and improving the overall performance and reliability.

[0024] Embodiment 2: In the present invention, according to Figure 5 , Figure 7 and Figure 8As shown, the dynamic heat dissipation adjustment component 10 includes a circumferential rotation motor 101, a rotating track disk 102, and a side frame 103. It is used to feedback to an external PLC controller according to the temperature aggregation situation inside the industrial control body 7 with the cooperation of a built-in high-precision temperature sensor, so that the dynamic heat dissipation adjustment components 10 at different positions are adjusted to form air ducts with different adjustments. The circumferential rotation motor 101 is installed inside the convex windows on the four end surfaces of the industrial control body 7. The top output end of the circumferential rotation motor 101 drives the rotating track disk 102 and the side frame 103 to form a circumferential trajectory rotation adjustment, and a ball screw guide rail 104 is installed on the side of the side frame 103.

[0025] A sliding connection rotating part 105 is slidably connected to the side end of the ball screw guide rail 104. The sliding connection rotating part 105 is composed of a sliding block and a rotating part. A connecting frame 106 is connected to the side end of the rotating part. A hinged rotating joint 107 is rotatably connected to the side end of the connecting frame 106. A sealed adjustment air guide plate 108 is installed at the side end of the hinged rotating joint 107. The sealed adjustment air guide plate 108 is in a static state and is used to form a seal with the convex window.

[0026] In a specific solution, before the industrial control body 7 starts, the dynamic heat dissipation regulation component 10 is in an initial state. Components such as the circumferential rotation motor 101 and the ball screw guide rail 104 are not started. The sealing regulation air guide plate 108 is closely attached to the bay window, maintaining the relative sealing inside the industrial control body 7 and preventing external dust and debris from entering. After the industrial control body 7 starts, the built-in high-precision temperature sensor starts to monitor the temperature at various positions inside the industrial control body 7 in real time. The built-in high-precision temperature sensor feeds the collected temperature data in the form of electrical signals back to the external PLC controller quickly through the data transmission line. The external PLC controller analyzes and processes these temperature data in real time. When the external PLC controller determines that there is a temperature accumulation situation inside the industrial control body 7 based on the temperature data, that is, when the temperature in some areas exceeds the preset normal range, the external PLC controller immediately issues an instruction, causing the circumferential rotation motor 101 installed inside the bay window on the four end surfaces of the industrial control body 7 to start after receiving the instruction. The output end at its top drives the rotating track plate 102 and the side frame 103 to start circular trajectory rotation adjustment. As the side frame 103 rotates circumferentially, the ball screw guide rail 104 installed on its side also moves accordingly. At this time, the sliding connection rotating part 105 starts to slide on the ball screw guide rail 104. Since it is composed of a sliding block and a rotating part, the rotating part will also rotate according to actual needs while sliding. The connecting frame 106 adjusts its position as the sliding connection rotating part 105 moves, and the articulated rotating joint 107 at its side end will also rotate accordingly, thereby driving the sealing regulation air guide plate 108 to change its angle and position. By using multiple dynamic heat dissipation regulation components 10 to work together, according to the temperature conditions in different areas, by adjusting the angle and position of the sealing regulation air guide plate 108, different air ducts are formed. That is, for areas with higher temperatures, the sealing regulation air guide plate 108 will adjust its angle to make more cold air flow to this area in the form of convection to strengthen heat dissipation. For areas with relatively lower temperatures, the sealing regulation air guide plate 108 will be appropriately adjusted to reduce the inflow of cold air to maintain the overall temperature balance, improve the heat dissipation efficiency, ensure that all components inside the industrial control body 7 are always within an appropriate working temperature range, greatly improve the stability and reliability of the industrial control body 7, and utilize the formed integrated setting of sealing and heat dissipation to improve the protection performance of the industrial control body 7, optimize the heat dissipation effect, and save space and cost at the same time.

[0027] Embodiment 3: In the present invention, according to Figure 1 , Figure 2 , Figure 5 and Figure 6As shown in the figure, the output end of the drive energy-saving rotating motor 1 is connected to a rotating disk 3. The side end of the rotating disk 3 is connected to the mounting rod 5 and the electromagnetic shielding plate. The side end of the mounting rod 5 is connected to a rotating bearing disk 4. The bottom ends of the rotating disk 3 and the rotating bearing disk 4 are installed with a load-bearing and stabilizing frame 2. The bottom plate of the load-bearing and stabilizing frame 2 is reserved with a roller installation groove, which is used to form effective protection and heat dissipation during the operation of the industrial control body 7 during displacement.

[0028] Stator-rotor structures are installed on the sides of the rotating disk 3 and the rotating bearing disk 4. An adaptive adjustment component 8 is installed on the side end of the stator-rotor structure. The side end of the adaptive adjustment component 8 is tightly connected to the left and right ends of the industrial control body 7 through mounting sheet metal frames.

[0029] The adaptive adjustment component 8 includes a connecting frame plate 81. The back side of the connecting frame plate 81 is connected to the stator-rotor structure. The left and right ends of the connecting frame plate 81 are rotatably connected to a first gyroscope driving structure 82. A first balance rod 83 is installed at the bottom of the first gyroscope driving structure 82. A second gyroscope driving structure 84 is installed at the central end of the first balance rod 83. A central connecting rod 85 is installed at the bottom of the second gyroscope driving structure 84. A third gyroscope driving structure 86 is installed at the top end of the central connecting rod 85. A second balance rod 87 is connected to the side end of the third gyroscope driving structure 86. The left and right ends of the second balance rod 87 are tightly connected to the mounting sheet metal frames through connecting blocks.

[0030] In a specific solution, when it is necessary to perform operations during the displacement of the industrial control body 7, rollers can be installed in the chassis roller installation groove of the load-bearing stabilizing frame 2. At the same time, the drive energy-saving rotation motor 1 can be started, and its output end drives the rotating disk 3 to rotate. The rotation of the rotating disk 3 drives the electromagnetic shielding plate to rotate together through the mounting rod 5. At the same time, the stator-rotor structure between the rotating disk 3 and the rotating bearing disk 4 starts to work, and the magnetic fields generated by the stator-rotor structure interact with each other, enabling the rotating disk 3 and the rotating bearing disk 4 to rotate relatively smoothly. And it is connected to the installation sheet metal frame of the industrial control body 7 through the adaptive adjustment component 8 to ensure the stability of the industrial control body 7 during the displacement process. During the displacement process of the industrial control body 7, the adaptive adjustment component 8 plays a key role. The connecting frame plate 81 moves with the movement of the stator-rotor structure, and the first gyroscope drive structure 82 at its left and right ends monitors the attitude change of the industrial control body 7 in real time. When the industrial control body 7 tilts or shakes, the first gyroscope drive structure 82 quickly adjusts the angle and position of the first balance rod 83 according to the signal fed back by the gyroscope, playing a preliminary balance adjustment role. The second gyroscope drive structure 84 at the center end of the first balance rod 83 further precisely monitors and adjusts the balance state, and maintains the overall stability by controlling the attitude of the central connecting rod 85. Then, the third gyroscope drive structure 86 at the top end of the central connecting rod 85 and the second balance rod 87 connected to the side end work together with the first balance rod 83, and fine-tune the installation sheet metal frame through the connecting block according to the real-time attitude of the industrial control body 7 to ensure that the industrial control body 7 always maintains stability during the displacement process. At the same time, the electromagnetic shielding plate can also continuously provide effective electromagnetic protection for the industrial control body 7.

[0031] Embodiment 4: In the present invention, according to Figure 5 , Figure 7 , Figure 9 and Figure 10 shown, a load-bearing sheet frame 11 is firmly connected to the surface of the industrial control body 7, and a heat dissipation adaptive adjustment component 9 is firmly connected to the side end of the load-bearing sheet frame 11.

[0032] The heat dissipation adaptive adjustment component 9 includes a brushless drive motor 91, and a small gear 93 is connected to the output end of the brushless drive motor 91. A rectangular frame 92 is firmly connected to the top side end of the load-bearing sheet frame 11. Teeth 95 are installed inside the rectangular frame 92, and sliding groove blocks 94 are installed on both the top and bottom of the outside of the rectangular frame 92. The small gear 93 and the teeth 95 are meshed and connected.

[0033] A rotation adjustment motor 96 is installed at the bottom of the sliding groove block 94, an adjustment positioning shaft arm 97 is installed at the bottom of the rotation adjustment motor 96, and a cooling fan 98 is installed at the bottom end of the adjustment positioning shaft arm 97. The cooling fan 98 is used to drive through the built-in forward and reverse motors to blow out cooling gas in the forward rotation or adsorb hot air in the reverse rotation.

[0034] In a specific solution, when the above-mentioned dynamic heat dissipation adjustment component 10 performs dynamic adjustment operations, the external PLC controller sends an instruction to the heat dissipation adaptive adjustment component 9, causing the brushless drive motor 91 to start. The output end of the brushless drive motor drives the pinion gear 93 to rotate. Since the pinion gear 93 is meshed and connected with the teeth 95 inside the rectangular frame 92, the rotation of the pinion gear 93 pushes the rectangular frame 92 to move along the direction of the sliding groove block 94, thereby adjusting the horizontal position of the cooling fan 98. When the cooling fan 98 moves to a suitable horizontal position, the rotation adjustment motor 96 starts. The adjustment positioning shaft arm 97 installed at the bottom of the rotation adjustment motor 96 drives the cooling fan 98 to rotate, adjusting the angle of the cooling fan 98 so that its air outlet or air inlet is accurately aligned with the high-temperature area. Then, the forward and reverse motor built in the cooling fan 98 operates according to the temperature situation. If the temperature is too high, the cooling fan 98 rotates forward to blow out cooling gas to cool the high-temperature area. If there is a lot of hot air around, the cooling fan 98 rotates in reverse to adsorb the hot air, improving the local thermal environment. This enables the position, angle, and working mode of the cooling fan 98 to be quickly adjusted according to the surface temperature situation, effectively reducing the surface temperature of the industrial control body 7 and reducing the problem of insufficient attention to the surface heat dissipation of the body by traditional heat dissipation methods, further improving the heat dissipation effect and the overall performance of the industrial control body 7.

[0035] The wiring diagrams of the drive energy-saving rotation motor 1, the position sensor 63, the rotation motor box 65, the bidirectional rotation motor 67, the brushless drive motor 91, the rotation adjustment motor 96, the circumferential rotation motor 101, and the high-precision temperature sensor in the present invention belong to the common knowledge in the art. Their working principles are already known technologies, and their models are selected according to actual use. Therefore, the control methods and wiring arrangements of the drive energy-saving rotation motor 1, the position sensor 63, the rotation motor box 65, the bidirectional rotation motor 67, the brushless drive motor 91, the rotation adjustment motor 96, the circumferential rotation motor 101, and the high-precision temperature sensor will not be explained in detail.

[0036] Although the present invention has been described in detail with reference to the foregoing embodiments, for those skilled in the art, they can still modify the technical solutions recorded in the foregoing embodiments, or perform equivalent replacements for some of the technical features. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention shall be included within the protection scope of the present invention.

Claims

1. An integrated protection and heat dissipation device for an industrial computer, comprising: a driving energy-saving rotating motor (1), a mounting rod (5), a protection heat dissipation component (6), an industrial computer body (7), and a dynamic heat dissipation adjustment component (10), characterized in that: The side end of the mounting rod (5) is provided with an electromagnetic shielding plate, which is connected around the rod. The protective heat dissipation component (6) comprises a reciprocating propulsion guide rod (61), a sliding guide column (62) and a position sensor (63), and is used to dynamically perform contact fixing and fixed-point heat dissipation in real time according to the operating conditions of the industrial control body (7); The front end of the reciprocating propulsion guide rod (61) is fastened to an annular rail frame (64) via a connecting block, the annular rail frame (64) and the sliding guide column (62) are slidably connected, and the interior of the annular rail frame (64) is slidably connected to four sets of rotating motor boxes (65) at equal intervals. The dynamic heat dissipation adjustment component (10) comprises a circular rotating motor (101), a rotating track plate (102) and a side frame (103), and is used to provide feedback to an external PLC controller according to the temperature accumulation inside the industrial control body (7) in cooperation with a built-in high-precision temperature sensor, so that the dynamic heat dissipation adjustment components (10) at different positions are adjusted to form air ducts with different adjustments; The circular rotation motor (101) is installed inside the convex windows on the four end surfaces of the industrial control body (7); the top output end of the circular rotation motor (101) drives the rotating track plate (102) and the side frame (103) to form a circular track rotation adjustment; the side of the side frame (103) is installed with a ball screw guide rail (104).

2. The integrated protection and heat dissipation device for an industrial computer according to claim 1, characterized in that: The side end of the ball screw guide rail (104) is slidably connected to a slidably connected rotating member (105), the slidably connected rotating member (105) is composed of a sliding block and a rotating member, the side end of the rotating member is connected to a connecting frame (106), the side end of the connecting frame (106) is slidably connected to a hinged rotating joint (107), the side end of the hinged rotating joint (107) is installed with a sealing adjustment air guide plate (108), and the sealing adjustment air guide plate (108) is located in a stationary state to form a seal with the bay window.

3. The integrated protection and heat dissipation device for an industrial computer according to claim 1, characterized in that: The bottom output ends of the four groups of rotating motor boxes (65) are connected to an adjusting drive shaft arm (66), the side ends of the adjusting drive shaft arm (66) are connected to a giving way groove (67), the inner front end of the giving way groove (67) is installed with a bidirectional rotating motor (68), and the left and right side ends of the bidirectional rotating motor (68) are respectively installed with a first electric guide column (69) and a second electric guide column (691).

4. The integrated protection and heat dissipation device for an industrial computer according to claim 3, characterized in that: A phase change material contact matrix (690) is installed on the side end of the first electric guide column (69), and a liquid buffer abutment component (692) is fastened to the side end of the second electric guide column (691).

5. The integrated protection and heat dissipation device for an industrial computer according to claim 1, characterized in that: The output end of the energy-saving driving rotating motor (1) is connected to a rotating disk (3), the side end of the rotating disk (3) is connected to a mounting rod (5) and an electromagnetic shielding plate, the side end of the mounting rod (5) is connected to a rotating bearing disk (4), the bottom ends of the rotating disk (3) and the rotating bearing disk (4) are mounted with a bearing stabilizing frame (2), the chassis of the bearing stabilizing frame (2) is reserved with a roller mounting groove, and is used to form effective protection and heat dissipation for the whole when the industrial control body (7) is in a displacement process for operation.

6. The integrated protection and heat dissipation device for an industrial computer according to claim 5, characterized in that: The sides of the rotating disk (3) and the rotating bearing disk (4) are both mounted with stator and rotor structures, the side ends of the stator and rotor structures are mounted with adaptive adjustment components (8), and the side ends of the adaptive adjustment components (8) and the left and right ends of the industrial control body (7) are mounted with sheet metal frames to form a fastened connection.

7. The integrated protection and heat dissipation device for an industrial computer according to claim 6, characterized in that: The adaptive adjustment component (8) comprises a connecting frame plate (81), the back side of the connecting frame plate (81) and the stator-rotor structure are connected to form a connection arrangement, the left and right ends of the connecting frame plate (81) are rotatably connected to a first gyroscope drive structure (82), a first balance rod (83) is installed at the bottom of the first gyroscope drive structure (82), a second gyroscope drive structure (84) is installed at the center end of the first balance rod (83), a central connecting rod (85) is installed at the bottom of the second gyroscope drive structure (84), a third gyroscope drive structure (86) is installed at the top end of the central connecting rod (85), a second balance rod (87) is connected to the side end of the third gyroscope drive structure (86), and the left and right ends of the second balance rod (87) are fastened to each other via a connecting block and a mounting sheet metal frame.

8. The integrated protection and heat dissipation device for an industrial computer according to claim 1, characterized in that: A carrier frame (11) is fastened to the surface of the industrial control body (7), and a heat dissipation self-adaptive adjustment component (9) is fastened to the side end of the carrier frame (11).

9. The integrated protection and heat dissipation device for an industrial computer according to claim 8, characterized in that: The heat dissipation adaptive adjustment component (9) comprises a brushless drive motor (91), the output end of the brushless drive motor (91) is connected to a pinion gear (93), the top side end of the carrier sheet frame (11) is fastened to a rectangular frame (92), teeth (95) are installed inside the rectangular frame (92), and sliding slot blocks (94) are installed on the top and bottom of the outside of the rectangular frame (92), and the pinion gear (93) and the teeth (95) form a meshing connection.

10. The integrated protection and heat dissipation device for an industrial computer according to claim 9, characterized in that: A rotation adjustment motor (96) is installed at the bottom of the sliding slot block (94), an adjustment positioning shaft arm (97) is installed at the bottom of the rotation adjustment motor (96), and a cooling fan (98) is installed at the bottom end of the adjustment positioning shaft arm (97). The cooling fan (98) is used to form a forward rotation to blow out cooling gas or a reverse rotation to absorb hot gas through the drive of a built-in forward and reverse motor.

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