An industrial all-in-one machine for liquid metal heat dissipation

Abstract

The invention discloses an industrial integrated machine for heat dissipation of liquid metal, relates to the technical field of industrial integrated machines, and comprises a brushed DC motor pumping structure. By cooperating with a quantitative degassing high-efficiency heat dissipation component and a heat dissipation rate dynamic control component, the overall structure can effectively dissipate heat for liquid metal in large quantities, reduce the flow of liquid metal in a complex pipeline flow layout, reduce flow resistance, and reduce the generation of bubbles, so as to facilitate reducing the influence of bubbles on heat conduction efficiency, increase heat dissipation efficiency, and form an equalized heat dissipation operation, reduce the problem of uneven heat dissipation caused by the formation of local hot spots in certain areas of liquid metal due to uneven flow, and facilitate timely rotation, gathering, blocking and reducing the electromagnetic interference problem caused by electromagnetic signals generated by the outside world when the electromagnetic signals are affected by the liquid metal under the cooperation of electromagnetic signal detection sensors, and the electromagnetic interference problem caused by the conductivity of the liquid metal itself and the surrounding electronic equipment.

Description

Technical Field

[0001] The present invention relates to the technical field of industrial integrated machines, and in particular to an industrial integrated machine for liquid metal heat dissipation. Background Art

[0002] Industrial all-in-one machines can be embedded in machines, cabinets or placed on operating tables at industrial sites to serve as human-machine display operation interfaces. Industrial all-in-one machines are the best platform for various human-machine interactions in various industrial control and automation fields, and are also important equipment that interacts most closely with people. Liquid metal is a special material that remains liquid at room temperature or slightly above room temperature. This type of material usually has high electrical and thermal conductivity, so it has wide application potential in many fields.

[0003] However, in the prior art, when traditional industrial all-in-one machines are used for liquid metal heat dissipation operations, liquid metal is mostly injected into the machine so that the liquid metal flows for a long time inside the machine, and the liquid metal is cooled by air cooling or liquid cooling. When the overall heat dissipation efficiency is large, as the liquid metal flows, especially in complex pipeline layouts, the flow resistance will increase, bubbles will be generated, and the heat dissipation efficiency will decrease. In addition, due to the uneven flow of liquid metal, local hot spots are easily formed in certain areas, resulting in uneven heat dissipation, causing the liquid metal heat dissipation to be unable to effectively meet existing needs. Therefore, it is necessary to propose an industrial all-in-one machine for liquid metal heat dissipation. Summary of the invention

[0004] The purpose of the present invention is to provide an industrial all-in-one machine for liquid metal heat dissipation, so as to solve the problem proposed in the above background technology that when a traditional industrial all-in-one machine is used for liquid metal heat dissipation operations, liquid metal is mostly injected so that the liquid metal is located inside the all-in-one machine to form a long-term flow, and the liquid metal is cooled by air cooling or liquid cooling. When the overall heat dissipation efficiency is large, as the liquid metal flows, especially in a complex pipeline layout, the flow resistance will increase, bubbles will be generated, and the heat dissipation efficiency will decrease. In addition, due to the uneven flow of liquid metal, local hot spots are easily formed in certain areas, resulting in uneven heat dissipation, causing the liquid metal heat dissipation to be unable to effectively meet the existing needs.

[0005] To achieve the above object, the present invention provides the following technical solution: an industrial all-in-one machine for liquid metal heat dissipation, comprising:

[0006] The brushless DC motor pumping structure has a flow controller installed at the bottom, and its side end is connected to the pumping riser. The intelligent pumping structure automatically adjusts the flow rate of the liquid metal in cooperation with the flow sensor in the flow controller to ensure the heat dissipation effect.

[0007] A quantitative degassing and efficient heat dissipation component is installed at the top of the machine body and is connected to the flow controller through a guide control valve pipe. It is used to guide the liquid metal at a fixed point and remove bubbles in the liquid metal to improve the heat dissipation efficiency.

[0008] The heat dissipation rate dynamic control component is installed on both sides of the inner wall of the machine body, and is used to cooperate with the quantitative bubble removal and high-efficiency heat dissipation component to perform equal heat dissipation treatment on the liquid metal;

[0009] An adaptable integrated heat dissipation component is installed at the bottom of the body to centrally detect the liquid metal after equal heat dissipation treatment, absorb impurities, and then discharge it after heat dissipation treatment again.

[0010] Preferably, the quantitative degassing and efficient heat dissipation component comprises:

[0011] A first energy-saving protective motor, a driving belt structure, an electromagnetic blocker and a control lifter, wherein the top of the first energy-saving protective motor is connected to a steering frame, the top of the steering frame is fastened to the side wall surface of the machine body through a transverse frame, the bottom of the first energy-saving protective motor drives the driving belt structure to rotate, and under the control of the electromagnetic blocker, the control lifter is started, and the side ends of the steering frame are respectively connected to a first large gear and a second small driving gear through bearing parts.

[0012] Preferably, the first large gear and the second small driving gear form a meshing connection, the side end of the second small driving gear is installed through a hoop frame to drive a brushless motor, the side end of the first large gear is connected to a rotating bearing ring structure, the side end surface of the rotating bearing ring structure is provided with a dovetail limiting groove, the inside of the dovetail limiting groove is slidably connected to a displacement connecting seat, the side end of the displacement connecting seat is fastened to a connecting rod, and the side end of the connecting rod is fastened to a transmission arm section structure.

[0013] Preferably, a screw rotating part is connected to the side end of the bottom arm section of the transmission arm section structure, a screw rotating part is connected to the side end of the screw, a transverse guide rail is arranged outside the screw, a vertical screw guide rail is installed on the top of the control lifter, and the transverse guide rail is located inside the vertical screw guide rail and is slidably connected.

[0014] Preferably, the internal sliding connection of the transverse guide rail is provided with a liquid metal guiding adapter end, the bottom end of the liquid metal guiding adapter end is connected with a guiding injection metering control end, an ultrasonic vibration generator is installed at the side end of the liquid metal guiding adapter end, and the top of the liquid metal guiding adapter end is connected with the bottom end of the guiding control valve tube through the connecting end.

[0015] Preferably, the heat dissipation rate dynamic control component includes:

[0016] A vertical axis guide rail, a guide slide rail, a heat dissipation control sliding box and an integrated heat dissipation plate. The vertical axis guide rail and the guide slide rail are symmetrically installed at both ends of the inner wall of the body, and the side ends of the heat dissipation control sliding box and the integrated heat dissipation plate form a fastening connection. The heat dissipation control sliding box is located in the internal sliding connection of the vertical axis guide rail and the guide slide rail.

[0017] Preferably, a plurality of groups of quantitative heat dissipation ends are equally spaced and installed on the surface of the integrated heat dissipation plate, semiconductor heat dissipation elements are installed inside the plurality of groups of quantitative heat dissipation ends, high-precision temperature sensors are embedded inside the plurality of groups of quantitative heat dissipation ends, electric iris valves are installed at the bottom ends of the plurality of groups of quantitative heat dissipation ends, heat pipes are penetrated and connected to the sides of the heat pipes and the semiconductor heat dissipation elements, forming a contact connection.

[0018] Preferably, the adapter integrated heat dissipation component includes an integrated convergence tank, the bottom end of the integrated convergence tank is connected to a guide conical spiral tube, a heat pipe heat sink group is installed on the outer circumference of the guide conical spiral tube, the bottom end of the guide conical spiral tube is connected to an impurity detector, the bottom of the impurity detector is connected to an impurity adsorber, and the bottom of the impurity adsorber is respectively connected to a discharge valve pipe and an impurity discharge valve pipe.

[0019] Preferably, an annular guide rail is installed on the outside of the middle section of the body, and the inside of the annular guide rail is rotatably connected to an annular electromagnetic protection plate, a magnetic field controller is installed on the surface of the annular electromagnetic protection plate, the top of the annular electromagnetic protection plate is rotatably connected to an annular guide frame, an electromagnetic coil is installed inside the annular electromagnetic protection plate, and the interior of the annular electromagnetic protection plate is filled with spiral magnetic variable fluid.

[0020] Preferably, the bottom of the body is fastened to a bearing base, a storage tank is installed inside the side end of the bearing base, an injection end is opened on the top of the storage tank, a discharge valve pipe end is opened on the side end of the storage tank, the side end of the discharge valve pipe end is connected to a phase change material adder, a moving trolley is installed inside the other side end of the bearing base and is slidably connected thereto, a storage tank is connected to the top of the moving trolley, a safety control valve is opened on the side wall surface of the bottom end of the body, a gas collector is installed on the side of the body, the side end of the gas collector is connected to a gas collecting pipe, and the gas collecting pipe is located at the top of the body and is connected through.

[0021] Compared with the prior art, the present invention has the following beneficial effects:

[0022] 1. In the present invention, the first energy-saving protection motor is started in cooperation with the quantitative degassing and efficient heat dissipation component. The first energy-saving protection motor drives the steering carrier to rotate through the driving belt structure. The rotation of the steering carrier drives the related structures it carries to rotate at the bottom of the transverse frame, so that the operating range of the overall quantitative degassing and efficient heat dissipation component is within the effective area of ​​the integrated heat dissipation plate. Then, the second small driving gear is installed through the hoop frame to drive the brushless motor to provide driving force, so that the driving brushless motor drives the first large gear and the second small driving gear to rotate, and then transmits power to the rotating bearing ring structure, so that the displacement connection seat in the dovetail limiting groove on the rotating bearing ring structure drives the connecting rod to move, and the connecting rod drives the transmission arm section structure to form motion transmission, thereby driving the screw rotating member located on the side of the transverse guide rail to rotate, and utilizing the rotatability of the screw rotating member to enable the screw to perform precise left and right displacement movement in the transverse guide rail. Secondly, when the vertical screw guide rail is needed to operate, under the control of the electromagnetic blocker, the control lifter receives the driving force of the driving belt structure, and then forms a synchronous rotation of the control lifter, so that the vertical screw guide rail drives the slidingly connected transverse guide rail to shift, and the liquid metal guiding adapter end is located outside the screw. The multi-dimensional movement, after which the liquid metal guiding adapter end controls the quantitative injection of liquid metal through the guiding injection metering control end, and the ultrasonic vibration generator is installed on the side end of the liquid metal guiding adapter end, and the bubbles in the liquid metal are removed by ultrasonic vibration. The treated liquid metal is injected into multiple groups of quantitative heat dissipation ends in turn through the guiding injection metering control end. When the liquid metal is effectively cooled in large quantities, the flow of liquid metal in a complex pipeline flow layout is reduced, the flow resistance is reduced, and the generation of bubbles is reduced, which is convenient for reducing the influence of bubbles on heat conduction efficiency and increasing heat dissipation efficiency.

[0023] 2. In the present invention, with the cooperation of the heat dissipation rate dynamic control component, when the liquid metal is distributed to multiple groups of quantitative heat dissipation ends, the high-precision temperature sensor monitors the temperature inside each group of quantitative heat dissipation ends in real time, and transmits the data to the external control terminal, and synchronously enables the above-mentioned ultrasonic vibration generator to operate. The external control terminal controls the liquid metal flow of each group of quantitative heat dissipation ends through the electric iris valve according to the data of the high-precision temperature sensors embedded in the multiple groups of quantitative heat dissipation ends, adjusts the heat dissipation rate, and uses the semiconductor heat dissipation element to actively control the heat dissipation as needed, adjusts the temperature of the liquid metal in the quantitative heat dissipation end, and the heat pipe conducts heat from the heat source to the heat pipe heat sink group to accelerate the heat dissipation process. Then, according to the actual heat dissipation requirements, the heat dissipation control sliding box can drive the integrated heat dissipation plate and the related structures it carries to move up and down along the vertical axis guide line rail and the guide slide column rail to adjust the position of the integrated heat dissipation plate, and then the electric iris valve is located above the integrated convergence groove to stagnate, so that the overall equalized heat dissipation operation is formed, so as to reduce the problem of uneven heat dissipation caused by uneven flow of liquid metal and the formation of local hot spots in certain areas.

[0024] 3. In the present invention, by cooperating with the adaptive integrated heat dissipation component, the liquid metal is allowed to delay heat dissipation through the guide conical spiral tube and be evenly distributed, and the heat pipe heat sink group is used to quickly conduct the heat in the liquid metal to the heat sink to accelerate the heat dissipation process, and then the impurity detector is used to monitor the impurity content in the liquid metal in real time, and the data is fed back to the external control terminal, so that the external control terminal controls the impurity adsorber to remove impurities in the liquid metal through the built-in adsorption material or filtering device, so that the purified liquid metal is discharged through the discharge valve pipe and enters the storage tank, and the adsorbed impurities are discharged through the impurity discharge valve pipe to prevent Impurities accumulate in the overall device, affecting the subsequent heat dissipation efficiency. At the same time, when the above-mentioned components are in operation, the annular electromagnetic protection plate rotates on the outside of the body through the annular guide rail, and the electromagnetic coil is used to generate a magnetic field. The current intensity is adjusted by the magnetic field controller to control the magnetic field. Then, under the influence of the magnetic field intensity, the spiral magnetic variable fluid is located inside the annular electromagnetic protection plate to form a positioned flow, so that when affected by the electromagnetic signal generated by the outside world, it can rotate and gather in time with the cooperation of the electromagnetic signal detection sensor, thereby blocking and reducing the electromagnetic interference problem caused by the electromagnetic signal on the liquid metal when dissipating the heat due to the conductivity of the liquid metal itself and the surrounding electronic equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 This is a schematic diagram of the main structure of an industrial all-in-one machine for liquid metal heat dissipation according to the present invention;

[0026] Figure 2 It is a schematic structural diagram of a side view of an industrial all-in-one machine for liquid metal heat dissipation of the present invention;

[0027] Figure 3 It is a schematic diagram of the internal cross-sectional structure of a main body in an industrial all-in-one machine for liquid metal heat dissipation of the present invention;

[0028] Figure 4 It is a structural schematic diagram of a quantitative bubble removal and efficient heat dissipation component in an industrial all-in-one machine for liquid metal heat dissipation of the present invention;

[0029] Figure 5 It is a structural schematic diagram of another angle of a quantitative degassing and efficient heat dissipation component in an industrial all-in-one machine for liquid metal heat dissipation of the present invention;

[0030] Figure 6 The present invention is an industrial integrated machine for liquid metal heat dissipation Figure 3 A schematic diagram of the enlarged structure at point A;

[0031] Figure 7 The present invention is an industrial integrated machine for liquid metal heat dissipation Figure 3 A schematic diagram of the enlarged structure at B;

[0032] Figure 8 It is a structural schematic diagram of a heat rate dynamic control component in an industrial all-in-one machine for liquid metal heat dissipation of the present invention;

[0033] Fig. 9 It is a structural schematic diagram of an adapted integrated heat dissipation component in an industrial all-in-one machine for liquid metal heat dissipation of the present invention;

[0034] Fig.10 It is a structural schematic diagram of an external control terminal in an industrial integrated machine for liquid metal heat dissipation of the present invention;

[0035] Fig.11 This is a structural schematic diagram from another angle of an external control terminal in an industrial all-in-one machine for liquid metal heat dissipation of the present invention.

[0036] In the figure: 1. Bearing base frame; 2. Storage tank; 3. Injection end; 4. Discharge valve pipe end; 5. Phase change material adder; 6. Pumping riser; 7. Machine body; 8. Magnetic field controller; 9. Heat dissipation rate dynamic control component; 91. Vertical axis guide rail; 92. Guide slide rail; 93. Heat dissipation control sliding box; 94. Integrated heat dissipation plate; 95. Quantitative heat dissipation end; 96. Semiconductor heat dissipation element; 97. Electric iris valve; 10. Annular guide rail; 11. Annular guide frame; 12. Annular electromagnetic protection plate; 13. Safety control valve; 14. Mobile trolley; 15. Storage tank; 16. Gas collector; 17. Gas collection pipe; 18. Brushless DC motor pumping structure; 19. Flow controller; 20. Guide control valve pipe; 21. Quantitative degassing and efficient heat dissipation component; 210. First energy-saving protection motor; 211. Electromagnetic blocker ; 212, control lifter; 213, steering carrier; 214, first large gear; 215, vertical screw guide rail; 216, transverse guide rail; 217, screw; 218, liquid metal guide adapter; 219, guide injection metering control end; 2190, ultrasonic vibration generator; 2191, drive brushless motor; 2192, second small drive gear; 2193, rotating bearing ring structure; 2194, dovetail limit groove; 2195, displacement connection seat; 2196, connecting rod; 2197, transmission arm section structure; 2198, screw rotating part; 22, adapter integrated heat dissipation component; 220, integrated convergence groove; 221, guide conical spiral tube; 222, heat pipe heat sink group; 223, impurity detector; 224, impurity adsorber; 225, discharge valve pipe; 226, impurity discharge valve pipe; 23, electromagnetic coil. DETAILED DESCRIPTION

[0037] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the implementation regulations described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0038] In the present invention, reference is made to Figure 1-Figure 9 Shown: An industrial all-in-one machine for liquid metal heat dissipation, comprising:

[0039] The brushless DC motor pumping structure 18 has a flow controller 19 installed at its bottom end, and its side end is connected to the pumping riser 6. The intelligent pumping structure is used to automatically adjust the flow rate of the liquid metal in cooperation with the flow sensor in the flow controller 19 to ensure the heat dissipation effect;

[0040] A quantitative degassing and efficient heat dissipation component 21 is installed at the top of the body 7 and is connected to the flow controller 19 through the guide control valve pipe 20. It is used to guide the liquid metal at a fixed point and remove bubbles in the liquid metal to improve the heat dissipation efficiency;

[0041] The heat dissipation rate dynamic control component 9 is installed on both sides of the inner wall of the body 7 and is used to cooperate with the quantitative bubble removal and high-efficiency heat dissipation component 21 to perform equal heat dissipation treatment on the liquid metal;

[0042] The adaptable integrated heat dissipation component 22 is installed at the inner bottom of the body 7, and is used to centrally detect the liquid metal after equal heat dissipation treatment, absorb impurities, and then discharge it after heat dissipation treatment again.

[0043] In the present invention, according to Figure 3-Figure 5 As shown, the quantitative degassing and efficient heat dissipation component 21 includes:

[0044] The first energy-saving protection motor 210, the driving belt structure, the electromagnetic blocker 211 and the control lifter 212, the top of the first energy-saving protection motor 210 is connected to the steering frame 213, the top of the steering frame 213 is fastened to the side wall surface of the body 7 through the transverse frame, the bottom of the first energy-saving protection motor 210 drives the driving belt structure to rotate, and under the control of the electromagnetic blocker 211, the control lifter 212 is started, and the side ends of the steering frame 213 are connected to the first large gear 214 and the second small driving gear 2192 through bearing parts.

[0045] The first large gear 214 and the second small driving gear 2192 form a meshing connection, and the side end of the second small driving gear 2192 is installed through a hoop frame to drive the brushless motor 2191. The side end of the first large gear 214 is connected to a rotating bearing ring structure 2193, and the side end surface of the rotating bearing ring structure 2193 is provided with a dovetail limiting groove 2194. The inside of the dovetail limiting groove 2194 is slidably connected with a displacement connecting seat 2195, and the side end of the displacement connecting seat 2195 is fastened with a connecting rod 2196, and the side end of the connecting rod 2196 is fastened with a transmission arm section structure 2197.

[0046] The side end of the bottom arm section of the transmission arm section structure 2197 is connected to a screw rotating member 2198, the side end of the screw rotating member 2198 is connected to a screw 217, a transverse guide rail 216 is arranged outside the screw 217, a vertical screw guide rail 215 is installed on the top of the control lifter 212, and the transverse guide rail 216 is located inside the vertical screw guide rail 215 and is slidably connected.

[0047] The internal sliding connection of the transverse guide rail 216 is connected with a liquid metal guiding adapter end 218, the bottom end of the liquid metal guiding adapter end 218 is connected with a guiding injection metering control end 219, an ultrasonic vibration generator 2190 is installed on the side end of the liquid metal guiding adapter end 218, and the top of the liquid metal guiding adapter end 218 is connected with the bottom end of the guiding control valve tube 20 through a connecting end.

[0048] In a specific solution, during operation, the first energy-saving protection motor 210 is started, and the first energy-saving protection motor 210 drives the steering support frame 213 to rotate through the driving belt structure. The rotation of the steering support frame 213 drives the related structures carried by it to rotate at the bottom of the transverse frame, so that the operating range of the overall quantitative bubble removal and high-efficiency heat dissipation component 21 is within the effective area of ​​the integrated heat dissipation plate 94. Then, the second small driving gear 2192 is installed through the hoop frame to drive the brushless motor 2191 to provide driving force, so that the brushless motor 219 1 drives the first large gear 214 and the second small driving gear 2192 to rotate, thereby transmitting power to the rotating bearing ring structure 2193, so that the displacement connecting seat 2195 in the dovetail limiting groove 2194 on the rotating bearing ring structure 2193 drives the connecting rod 2196 to move, and the connecting rod 2196 drives the transmission arm section structure 2197 to form motion transmission, thereby driving the screw rotating member 2198 located at the side of the transverse guide rail 216 to rotate, and utilizing the rotation of the screw rotating member 2198 to make the screw 217 located at the transverse guide rail 2 16, and then, when the vertical screw guide rail 215 is required to operate, under the control of the electromagnetic blocker 211, the control lifter 212 receives the driving force of the driving belt structure, and then the control lifter 212 rotates synchronously, so that the vertical screw guide rail 215 drives the slidably connected transverse guide rail 216 to shift, and the liquid metal guide adapter end 218 is located outside the screw rod 217. After the multi-dimensional movement, the liquid metal guide adapter end 218 controls the liquid through the guide injection metering control end 219. The quantitative injection of liquid metal is carried out, and the ultrasonic vibration generator 2190 is installed at the side end of the liquid metal guiding adapter end 218, and the bubbles in the liquid metal are removed by ultrasonic vibration. The treated liquid metal is injected into the multiple groups of quantitative heat dissipation ends 95 in sequence through the guiding injection metering control end 219. When the liquid metal is dissipated in large quantities as a whole, it is effective to reduce the flow of liquid metal in a complex pipeline flow layout, reduce flow resistance, and reduce the generation of bubbles, so as to reduce the influence of bubbles on heat conduction efficiency and increase heat dissipation efficiency.

[0049] In the present invention, according to Figure 1 , Figure 2 , Figure 3 and Figure 8 As shown, the heat dissipation rate dynamic control component 9 includes:

[0050] The vertical axis guide rail 91, the guide slide rail 92, the heat dissipation control sliding box 93 and the integrated heat dissipation plate 94, the vertical axis guide rail 91 and the guide slide rail 92 are symmetrically installed at both ends of the inner wall of the body 7, the side end of the heat dissipation control sliding box 93 and the integrated heat dissipation plate 94 form a fastening connection, and the heat dissipation control sliding box 93 is located in the internal sliding connection of the vertical axis guide rail 91 and the guide slide rail 92.

[0051] A plurality of groups of quantitative heat dissipation ends 95 are equally spaced and installed on the surface of the integrated heat dissipation plate 94, semiconductor heat dissipation elements 96 are installed inside the plurality of groups of quantitative heat dissipation ends 95, high-precision temperature sensors are embedded inside the plurality of groups of quantitative heat dissipation ends 95, electric iris valves 97 are installed at the bottom ends of the plurality of groups of quantitative heat dissipation ends 95, heat pipes are penetrated and connected to the sides of the heat pipes and the semiconductor heat dissipation elements 96 to form a contact connection.

[0052] In a specific solution, the heat dissipation control sliding box 93 is located at the initial position, and the multiple groups of quantitative heat dissipation ends 95 on the integrated heat dissipation plate 94 are ready. After the liquid metal is distributed to the multiple groups of quantitative heat dissipation ends 95, the high-precision temperature sensor monitors the temperature inside each group of quantitative heat dissipation ends 95 in real time, and transmits the data to the external control terminal, and the above-mentioned ultrasonic vibration generator 2190 is operated synchronously. The external control terminal controls the liquid metal flow of each group of quantitative heat dissipation ends 95 through the electric iris valve 97 according to the data of the high-precision temperature sensor embedded in the multiple groups of quantitative heat dissipation ends 95, adjusts the heat dissipation rate, and uses semiconductor heat dissipation. Component 96 actively regulates heat dissipation as needed, adjusts the temperature of the liquid metal in the quantitative heat dissipation end 95, and the heat pipe transfers heat from the heat source to the heat pipe heat sink group 222, accelerating the heat dissipation process. Then, according to actual heat dissipation needs, the heat dissipation control sliding box 93 can drive the integrated heat dissipation plate 94 and the related structures it carries to move up and down along the vertical axis guide rail 91 and the guide slide rail 92, adjust the position of the integrated heat dissipation plate 94, and then make the electric iris valve 97 stop above the integrated convergence groove 220, forming an equalized heat dissipation operation as a whole, thereby reducing the problem of uneven heat dissipation caused by the uneven flow of liquid metal and the formation of local hot spots in certain areas.

[0053] In the present invention, according to Figure 3 and Fig. 9 As shown, the adapter integrated heat dissipation component 22 includes an integrated convergence groove 220, the bottom end of the integrated convergence groove 220 is connected to a guide conical spiral tube 221, a heat pipe heat sink group 222 is installed on the outer peripheral side of the guide conical spiral tube 221, the bottom end of the guide conical spiral tube 221 is connected to an impurity detector 223, the bottom of the impurity detector 223 is connected to an impurity adsorber 224, and the bottom of the impurity adsorber 224 is respectively connected to a discharge valve pipe 225 and an impurity discharge valve pipe 226.

[0054] In a specific solution, the liquid metal after the above heat dissipation treatment is gathered into the integrated convergence tank 220, and then the liquid metal is delayed to dissipate heat through the guide conical spiral tube 221 and evenly distributed, and the heat pipe heat sink group 222 is used to quickly conduct the heat in the liquid metal to the heat sink to accelerate the heat dissipation process, and then the impurity content in the liquid metal is monitored in real time with the cooperation of the impurity detector 223, and the data is fed back to the external control terminal (such as the attached Fig.10 and attached Fig.11 , used to form a signal or line connection control with the above-mentioned flow sensor, flow controller 19, electromagnetic blocker 211, ultrasonic vibration generator 2190, high-precision temperature sensor, impurity detector 223, impurity adsorber 224, magnetic field controller 8 and gas collector 16, so that the external control terminal controls the impurity adsorber 224 to remove impurities in the liquid metal through the built-in adsorption material or filtering device, so that the purified liquid metal is discharged through the discharge valve pipe 225 and enters the storage tank 15, and the adsorbed impurities are discharged through the impurity discharge valve pipe 226, so as to prevent the accumulation of impurities in the overall device and affect the subsequent heat dissipation efficiency.

[0055] In the present invention, according to Figure 1-Figure 3 As shown, an annular guide rail 10 is installed on the outside of the middle section of the body 7, and an annular electromagnetic protection plate 12 is rotatably connected inside the annular guide rail 10. A magnetic field controller 8 is installed on the surface of the annular electromagnetic protection plate 12. The top of the annular electromagnetic protection plate 12 is rotatably connected to an annular guide frame 11. An electromagnetic coil 23 is installed inside the annular electromagnetic protection plate 12, and the interior of the annular electromagnetic protection plate 12 is filled with spiral magnetic variable fluid.

[0056] The bottom of the body 7 is fastened with a bearing base 1, a storage tank 2 is installed inside the side end of the bearing base 1, an injection end 3 is provided on the top of the storage tank 2, a discharge valve pipe end 4 is provided on the side end of the storage tank 2, and the side end of the discharge valve pipe end 4 is connected with a phase change material adder 5, a moving trolley 14 is installed and slidably connected inside the other side end of the bearing base 1, and a storage tank 15 is connected to the top of the moving trolley 14, a safety control valve 13 is provided on the side wall surface of the bottom end of the body 7, a gas collector 16 is installed on the side of the body 7, and the side end of the gas collector 16 is connected with a gas collecting pipe 17, and the gas collecting pipe 17 is located at the top of the body 7 and is connected through.

[0057] In a specific scheme, liquid metal is injected into the storage tank 2 through the injection end 3, and is discharged into the overall device through the discharge valve pipe end 4, and phase change material is added to the liquid metal through the phase change material adder 5 to increase the heat capacity and enhance the heat dissipation effect. Then, it is processed by the quantitative bubble removal high-efficiency heat dissipation component 21 and the heat dissipation rate dynamic control component 9. When the above components are in operation, the annular electromagnetic protection plate 12 is rotated outside the body 7 through the annular guide rail 10, and the electromagnetic coil 23 is used to generate a magnetic field. The current intensity is adjusted by the magnetic field controller 8 to control the magnetic field. Then, the spiral magnetic variable fluid is located in the annular A positioning flow is formed inside the electromagnetic protection plate 12, so that when affected by electromagnetic signals generated by the outside world, it can be rotated and gathered in time with the cooperation of the electromagnetic signal detection sensor to block and reduce the electromagnetic signal on the liquid metal when it dissipates heat. Due to the conductivity of the liquid metal itself, it causes electromagnetic interference with surrounding electronic equipment. Then, the mobile cart 14 is used to replace the storage tank 15 to ensure the continuous operation of the overall flow cycle, and the safety control valve 13 is used to control the pressure of the overall operation to ensure safe operation. Secondly, the gas collector 16 and the gas collection pipe 17 are used to collect the gas generated when the liquid metal dissipates heat to prevent corrosion to the overall structure, thereby affecting the overall service life.

[0058] The wiring diagram of the flow sensor, flow controller 19, electromagnetic blocker 211, ultrasonic vibration generator 2190, high-precision temperature sensor, impurity detector 223, impurity adsorber 224, magnetic field controller 8 and gas collector 16 in the present invention is common knowledge in the field, and its working principle is a well-known technology. The model is selected according to the actual use, so the control method and wiring arrangement of the flow sensor, flow controller 19, electromagnetic blocker 211, ultrasonic vibration generator 2190, high-precision temperature sensor, impurity detector 223, impurity adsorber 224, magnetic field controller 8 and gas collector 16 will no longer be explained in detail.

[0059] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. An industrial all-in-one machine for liquid metal heat dissipation, characterized in that: Included are: A brushless DC motor pumping structure (18) is provided with a flow controller (19) at its bottom end, and its side end is connected to a pumping riser (6). The structure is used for an intelligent pumping structure, and in cooperation with a flow sensor in the flow controller (19), the flow rate of the liquid metal is automatically adjusted to ensure a heat dissipation effect. A quantitative degassing and efficient heat dissipation component (21), which is mounted on the top of the interior of the machine body (7) and is connected to the flow controller (19) via a delivery control valve pipe (20), and is used to deliver liquid metal at a fixed point and remove bubbles in the liquid metal to improve heat dissipation efficiency; A heat dissipation rate dynamic control component (9) is installed on both sides of the inner wall of the body (7) and is used to cooperate with the quantitative bubble removal high-efficiency heat dissipation component (21) to perform equal heat dissipation treatment on the liquid metal; An adaptable integrated heat dissipation component (22) is installed at the bottom of the body (7) and is used to centrally detect the liquid metal after equal heat dissipation treatment, absorb impurities, and then discharge it after heat dissipation treatment again; The quantitative degassing and efficient heat dissipation component (21) comprises: A first energy-saving protection motor (210), a drive belt structure, an electromagnetic blocker (211) and a control lifter (212); the top of the first energy-saving protection motor (210) is connected to a steering frame (213); the top of the steering frame (213) is fastened to the side wall surface of the machine body (7) via a transverse frame; the bottom of the first energy-saving protection motor (210) drives the drive belt structure to rotate, and under the control of the electromagnetic blocker (211), the control lifter (212) is started; and the side ends of the steering frame (213) are respectively connected to a first large gear (214) and a second small drive gear (2192) via bearing members; The first large gear (214) and the second small driving gear (2192) are meshedly connected; the side end of the second small driving gear (2192) is installed to drive a brushless motor (2191) via a hoop frame; the side end of the first large gear (214) is connected to a rotating bearing ring structure (2193); a dovetail limiting groove (2194) is provided on the side end surface of the rotating bearing ring structure (2193); a displacement connecting seat (2195) is slidably connected inside the dovetail limiting groove (2194); a connecting rod (2196) is fixedly connected to the side end of the displacement connecting seat (2195); and a transmission arm section structure (2197) is fixedly connected to the side end of the connecting rod (2196); The side end of the bottom arm section of the transmission arm section structure (2197) is connected to a screw rotating member (2198), the side end of the screw rotating member (2198) is connected to a screw (217), a transverse guide rail (216) is arranged outside the screw (217), a vertical screw guide rail (215) is installed on the top of the control lifter (212), and the transverse guide rail (216) is located inside the vertical screw guide rail (215) to form a sliding connection; The interior of the transverse guide rail (216) is slidably connected to a liquid metal guiding adapter end (218); the bottom end of the liquid metal guiding adapter end (218) is connected to a guiding injection metering control end (219); an ultrasonic vibration generator (2190) is installed at the side end of the liquid metal guiding adapter end (218); and the top of the liquid metal guiding adapter end (218) is connected to the bottom end of the guiding control valve pipe (20) through a connecting end; The heat dissipation rate dynamic control component (9) comprises: A vertical axis guide rail (91), a guide column rail (92), a heat dissipation control sliding box (93) and an integrated heat dissipation plate (94), wherein the vertical axis guide rail (91) and the guide column rail (92) are symmetrically mounted at two ends of the inner wall of the machine body (7), the side ends of the heat dissipation control sliding box (93) and the integrated heat dissipation plate (94) are fastened together, and the heat dissipation control sliding box (93) is located inside the vertical axis guide rail (91) and is slidably connected to the guide column rail (92); A plurality of groups of quantitative heat dissipation ends (95) are equally spaced and installed around the surface of the integrated heat dissipation plate (94), semiconductor heat dissipation elements (96) are installed inside the plurality of groups of quantitative heat dissipation ends (95), high-precision temperature sensors are embedded inside the plurality of groups of quantitative heat dissipation ends (95), electric iris valves (97) are installed at the bottom ends of the plurality of groups of quantitative heat dissipation ends (95), heat pipes are connected through the bottom ends of the electric iris valves (97), and the heat pipes are in contact with the sides of the semiconductor heat dissipation elements (96).

2. The industrial integrated machine for liquid metal heat dissipation according to claim 1, characterized in that: The adaptable integrated heat dissipation component (22) comprises an integrated convergence groove (220), the bottom end of the integrated convergence groove (220) is connected to a guide conical spiral tube (221), a heat pipe heat sink group (222) is installed on the outer peripheral side of the guide conical spiral tube (221), the bottom end of the guide conical spiral tube (221) is connected to an impurity detector (223), the bottom of the impurity detector (223) is connected to an impurity adsorber (224), and the bottom of the impurity adsorber (224) is respectively connected to a discharge valve tube (225) and an impurity discharge valve tube (226).

3. The industrial integrated machine for liquid metal heat dissipation according to claim 1, characterized in that: An annular guide rail (10) is installed on the outside of the middle section of the machine body (7), an annular electromagnetic protection plate (12) is rotatably connected inside the annular guide rail (10), a magnetic field controller (8) is installed on the surface of the annular electromagnetic protection plate (12), an annular guide frame (11) is rotatably connected to the top of the annular electromagnetic protection plate (12), an electromagnetic coil (23) is installed inside the annular electromagnetic protection plate (12), and the interior of the annular electromagnetic protection plate (12) is filled with a spiral magnetic variable fluid.

4. The industrial integrated machine for liquid metal heat dissipation according to claim 1, characterized in that: The bottom of the machine body (7) is fastened with a bearing base frame (1), a storage tank (2) is installed inside the side end of the bearing base frame (1), an injection end (3) is provided at the top of the storage tank (2), a discharge valve pipe end (4) is provided at the side end of the storage tank (2), and the side end of the discharge valve pipe end (4) is connected to a phase change material additive (5), a moving trolley (14) is slidably connected inside the other side end of the bearing base frame (1), and a storage tank (15) is connected to the top of the moving trolley (14), a safety control valve (13) is provided on the side wall surface of the bottom end of the machine body (7), a gas collector (16) is installed on the side of the machine body (7), and the side end of the gas collector (16) is connected to a gas collection pipe (17), and the gas collection pipe (17) is located at the top of the machine body (7) to form a through connection.

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