Air conditioning energy saving control device

Abstract

The present invention relates to the field of air conditioning energy saving technology, and in particular to an air conditioning energy saving control device. An air conditioning energy saving control device includes a support leg, the support leg is provided with an air cooling and heat dissipation module, a wind direction adjustment module and a control terminal, the air cooling and heat dissipation module and the wind direction adjustment module are both electrically connected to the control terminal, the support leg is fixedly connected to a blower electrically connected to the air cooling and heat dissipation module, the blower is provided with a top plate, a bottom plate and symmetrically distributed side plates, the top plate is provided with symmetrically distributed brackets on the side away from the blower, the symmetrically distributed brackets are fixedly connected with heat dissipation plates distributed at equal intervals, the heat dissipation plates are provided with U-shaped tubes distributed at equal intervals, the U-shaped tubes located on the same heat dissipation plate are connected with symmetrically distributed straight tubes, one straight tube is connected with a first conduit, and the other straight tube is connected with a second conduit. The present invention adjusts the cross-sectional area of ​​the wind blown out by the blower through the cooling time of the heat medium, and makes full use of resources.

Description

Technical Field

[0001] The present invention relates to the technical field of air conditioner energy saving, and in particular to an air conditioner energy saving control device. Background Art

[0002] Air conditioning is an electrical device that lowers the air temperature. Its main principle is to cool the heat medium through heat exchange. The air conditioners used in hospitals are generally central air conditioners, which provide hospital patients and medical staff with a better comfort experience.

[0003] In the prior art, for example, the patent with publication number CN113048679B discloses a high-efficiency heat exchange device for hospital clean air conditioning energy-saving technology, including a base, a mounting member A, a first delivery pipe, a limit sleeve, a limit plate, and a collection box; the base is a plate-like structure; the mounting member A is installed above the base; the first delivery pipe is installed above the base. This device solves the problem that the heat exchange plate is a fixed structure and the heat carried will not be fully taken away by the wind of the blower, resulting in energy loss and reduced heat exchange efficiency.

[0004] However, the device still has the following problem: when the heat medium has not reached the outlet of the first conveying pipe, if the temperature has been lowered, the heat medium will no longer transfer heat to the heat exchange element during the subsequent flow process, and the wind blown by the blower cannot be fully utilized, resulting in a waste of resources and poor energy-saving effect. Summary of the invention

[0005] In order to solve the above technical problems, the present invention provides an air conditioning energy-saving control device and control system for air disinfection.

[0006] The technical solution is: an air-conditioning energy-saving control device, including a support leg, the support leg is provided with an air-cooling heat dissipation module, a wind direction adjustment module and a control terminal, the air-cooling heat dissipation module and the wind direction adjustment module are both electrically connected to the control terminal, the support leg is fixedly connected to a blower electrically connected to the air-cooling heat dissipation module, the blower is provided with a top plate, a bottom plate and symmetrically distributed side plates, a symmetrically distributed bracket is provided on the side of the bottom plate away from the blower, the symmetrically distributed brackets are fixedly connected with heat dissipation plates distributed at equal intervals, the heat dissipation plates are provided with U-shaped tubes distributed at equal intervals, the U-shaped tubes located on the same heat dissipation plate are connected with symmetrically distributed straight tubes, one straight tube is connected with a first conduit, the other straight tube is connected with a second conduit, the first conduit is connected with an adjacent second conduit, the adjacent and symmetrically distributed first conduits are connected with a delivery pipe, the first conduits and the second conduits located on both sides of the delivery pipe are symmetrically distributed, the second conduit is provided with a cooling mechanism for adjusting the cooling time of the medium, and the heat on the U-shaped tube is evenly dispersed to the heat dissipation plate.

[0007] Preferably, the cooling mechanism includes spheres that are equally spaced and symmetrically distributed, and the spheres that are equally spaced and symmetrically distributed are respectively rotatably connected in adjacent second conduits. The second conduits away from the delivery pipe are vertical pipes, and the second conduits of other delivery pipes are three-way pipes. The spheres are provided with three-way holes, and the second conduits located on the same side of the delivery pipe are connected by a connecting pipe, and the second conduits are provided with a driving component for driving the adjacent spheres to rotate.

[0008] Preferably, the driving component includes rotating rods that are equally spaced and symmetrically distributed, and the rotating rods that are equally spaced and symmetrically distributed are rotatably connected to the adjacent second conduits. The rotating rods are fixed to the adjacent spheres, and the end of the rotating rods away from the adjacent spheres is fixed to the first gear. The second conduit is fixed to a sleeve through a rectangular shell, and the sleeve is slidably connected to a sliding rod. A sealing disk fixed to the adjacent sliding rod is slidably connected in the sleeve, and a through hole is provided on one side of the sleeve close to the first gear. The sliding rod is fixed to a first rack that meshes with the adjacent first gear. The second conduit is provided with a temperature detection component, and the temperature detection component is used to detect the temperature in the second conduit.

[0009] Preferably, the temperature detection assembly includes heat conducting plates that are equally spaced and symmetrically distributed, the heat conducting plates that are equally spaced and symmetrically distributed are respectively fixed to adjacent second conduits, the heat conducting plates are fixed to adjacent rectangular shells and sleeves, one end of the heat conducting plate is located in the adjacent second conduit, the other end of the heat conducting plate is located in the adjacent sleeve, one side of the rectangular shell close to the heat conducting plate is filled with expandable gas, and the sleeve is provided with an adjustment mechanism for adjusting the wind direction of the blower.

[0010] Preferably, the heat conducting plate is made of copper for conducting the heat of the medium in the second conduit, and the rectangular shell and the sleeve are both made of asbestos for insulating the heat conducting plate.

[0011] Preferably, the adjustment mechanism includes touch-pressure switches that are equally spaced and symmetrically distributed, and the touch-pressure switches that are equally spaced and symmetrically distributed are respectively fixed in adjacent sleeves. The touch-pressure switches are electrically connected to the wind direction adjustment module, and the touch-pressure switches cooperate with the adjacent sealing disk. The bottom plate is rotatably connected to a symmetrically distributed rotating shaft, and the rotating shaft is fixed to the adjacent side plate. The rotating shaft is fixed to a second gear. The blower is fixed to an electric push rod that is electrically connected to the wind direction adjustment module, and the telescopic end of the electric push rod is fixed to a connecting plate, and the connecting plate is fixed to a symmetrically distributed second rack that meshes with the adjacent second gear.

[0012] Preferably, a heat dissipation mechanism is also included, which is arranged on a bracket. The heat dissipation mechanism is used to accelerate the heat dissipation speed of the heat dissipation plate. The heat dissipation mechanism includes fixed seats with equal spacing, and the fixed seats with equal spacing are all fixedly connected to the symmetrically distributed brackets. The fixed seats with equal spacing are staggered with the heat dissipation plates with equal spacing, the fixed seats are fixedly connected to fixed plates with equal spacing, and the fixed plates are fixedly connected to guide plates with symmetrical and equal spacing.

[0013] Preferably, the guide plates on adjacent fixed plates are arranged in a staggered manner, and the adjacent and symmetrically arranged guide plates form a V shape.

[0014] Preferably, a disinfection mechanism is also included, which is arranged on the bracket. The disinfection mechanism is used to disinfect the air. The disinfection mechanism includes a storage shell, which is fixed to the bracket away from the blower. The storage shell is filled with disinfectant, and the storage shell is provided with an exhaust hole. The storage shell is fixed with an arc plate, and the storage shell is provided with a diffusion component for adjusting the diffusion amount of the disinfectant.

[0015] Preferably, the diffusion component includes symmetrically distributed connecting rods, which are slidably connected to the storage shell, and a push plate fixed to the connecting rod is slidably connected in the storage shell, a spring is fixed between the push plate and the storage shell, and the connecting rod is fixed with a folding rod that cooperates with the adjacent side plate.

[0016] The present invention has the following effects: when the required heat medium is cooled after passing through fewer U-shaped tubes, at this time, the cross-sectional area of ​​the wind blown out by the blower is smaller, but the power of the blower is the same, and the reduction in cross-sectional area will increase the flow speed of the wind, further increasing the heat dissipation efficiency of the heat sink; when the required heat medium is cooled after passing through more U-shaped tubes, the cross-sectional area of ​​the wind blown out by the blower is larger, ensuring that all heat media passing through the U-shaped tubes are cooled, avoiding the blower still cooling the U-shaped tubes on both sides (the U-shaped tubes through which the heat medium does not pass) when the heat required by the heat medium is less, causing a waste of resources; the wind is guided to the heat sinks on both sides by the guide plates, making full use of the wind between the two heat sinks, and increasing the heat dissipation efficiency of the wind to the heat sinks. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention.

[0018] Figure 2 It is a schematic diagram of the three-dimensional structure of the right view of the present invention.

[0019] Figure 3 It is a schematic diagram of the three-dimensional structure of the heat dissipation plate and the U-shaped tube separated according to the present invention.

[0020] Figure 4 It is a three-dimensional structural schematic diagram of parts such as the U-shaped tube and the straight tube of the present invention.

[0021] Figure 5 It is a schematic diagram of the three-dimensional structure of the connecting pipe, the second conduit and other parts of the present invention.

[0022] Figure 6 It is a schematic diagram of the three-dimensional structure of the heat conducting plate and the second conduit of the present invention.

[0023] Figure 7 It is a schematic diagram of the three-dimensional structure of the temperature detection component of the present invention.

[0024] Figure 8 It is a schematic diagram of the three-dimensional structure of the driving component of the present invention.

[0025] Fig. 9 It is a schematic diagram of the three-dimensional structure of the adjustment mechanism of the present invention.

[0026] Fig.10 It is a schematic diagram of the three-dimensional structure of the guide plate and the heat dissipation plate of the present invention.

[0027] Fig.11 It is a schematic diagram of the three-dimensional structure of the heat dissipation mechanism of the present invention.

[0028] Fig.12 It is a schematic diagram of the three-dimensional structure of the disinfection mechanism of the present invention.

[0029] Fig.13 It is a control flow diagram of the present invention.

[0030] The markings of the components in the accompanying drawings are as follows: 1-blower, 101-top plate, 102-bottom plate, 103-side plate, 2-bracket, 3-heat sink, 4-U-shaped tube, 5-straight tube, 6-first conduit, 7-second conduit, 8-delivery tube, 901-sphere, 902-connecting tube, 1001-rotating rod, 1002-first gear, 1003-rectangular housing, 1004-sleeve, 1005-sliding rod, 1006-sealing disk, 1007-second A rack, 11-heat conduction plate, 1201-touch switch, 1202-rotating shaft, 1203-second gear, 1204-electric push rod, 1205-connecting plate, 1206-second rack, 1301-fixing seat, 1302-fixing plate, 1303-guide plate, 1401-storage shell, 14011-exhaust hole, 1402-connecting rod, 1403-push plate, 1404-spring, 1405-folding rod, 15-arc plate. DETAILED DESCRIPTION

[0031] The present invention is further described below in conjunction with the accompanying drawings and specific embodiments.

[0032] Embodiment 1: An air conditioning energy-saving control device, such as Figure 1-Figure 5 and Fig.13As shown, it includes four symmetrically distributed supporting legs, the supporting legs are provided with air-cooling and heat dissipation modules, wind direction adjustment modules and control terminals, the air-cooling and heat dissipation modules and wind direction adjustment modules are electrically connected to the control terminals, the ends of the four supporting legs are fixedly connected with blowers 1 electrically connected to the air-cooling and heat dissipation modules, the upper part of the front side of the blower 1 is fixedly connected with a top plate 101, the lower part of the front side of the blower 1 is fixedly connected with a bottom plate 102, the blower 1 is rotatably connected with symmetrically distributed side plates 103, the front side of the supporting legs is provided with two brackets 2 symmetrically distributed front and back, the upper part of the two brackets 2 is fixedly connected with eight heat dissipation plates 3 evenly spaced left and right, the heat dissipation plates 3 are provided with five evenly spaced front and back The U-shaped tubes 4 are connected to symmetrically distributed straight tubes 5 on the same heat sink 3. The straight tubes 5 on the same heat sink 3 close to the delivery tube 8 are connected to the first conduit 6. The straight tubes 5 on the same heat sink 3 far from the delivery tube 8 are connected to the second conduit 7. The first conduit 6 is connected to the adjacent second conduit 7. The two middle first conduits 6 are connected to the delivery tube 8. The delivery tube 8 is located below the heat sink 3. The first conduits 6 and the second conduits 7 on both sides of the delivery tube 8 are symmetrically distributed. The second conduit 7 is provided with a cooling mechanism for adjusting the cooling time of the medium. The heat on the U-shaped tubes 4 is evenly dispersed to the heat sink 3 for heat dissipation.

[0033] like Figure 5-Figure 8 As shown, the cooling mechanism includes spheres 901 that are equally spaced and symmetrically distributed. The spheres 901 that are equally spaced and symmetrically distributed are respectively rotatably connected to adjacent second conduits 7. The leftmost and rightmost second conduits 7 are vertical tubes, and the six middle second conduits 7 are three-way tubes. The spheres 901 are provided with three-way holes. In the initial state, the heat medium is transported downward through the three-way holes of the spheres 901. The second conduits 7 located on the same side (left or right) of the transport pipe 8 are connected by a connecting pipe 902, and the second conduits 7 are provided with a driving component for driving the adjacent spheres 901 to rotate.

[0034] like Figure 7 and Figure 8 As shown, the driving component includes eight rotating rods 1001 that are equally spaced and symmetrically distributed on the left and right. The eight rotating rods 1001 are distributed and rotatably connected to the rear part of the adjacent second conduit 7. The front end of the rotating rod 1001 is fixedly connected to the adjacent sphere 901, and the rear end of the rotating rod 1001 is fixedly connected to the first gear 1002. The rear side surface of the second conduit 7 is fixedly connected to a sleeve 1004 through a rectangular shell 1003. The lower part of the sleeve 1004 is slidably connected to a slide bar 1005. A sealing disk 1006 fixedly connected to the upper end of the adjacent slide bar 1005 is slidably connected in the sleeve 1004. A through hole is provided on the lower side of the sleeve 1004 for discharging the gas under the sealing disk 1006 in the sleeve 1004. The lower end of the slide bar 1005 is fixedly connected to a first rack 1007 meshing with the adjacent first gear 1002. The second conduit 7 is provided with a temperature detection component, and the temperature detection component is used to detect the temperature in the second conduit 7.

[0035] like Figure 7 and Figure 8 As shown, the temperature detection component includes eight heat-conducting plates 11 that are equally spaced and symmetrically distributed. The eight heat-conducting plates 11 are respectively fixed to the rear of the adjacent second conduit 7. The heat-conducting plates 11 are fixed to the adjacent rectangular shell 1003 and the sleeve 1004. The front end of the heat-conducting plate 11 is located in the adjacent second conduit 7, and the rear end of the heat-conducting plate 11 is located in the adjacent sleeve 1004. The upper side of the sealing disk 1006 in the rectangular shell 1003 is filled with expandable gas. The heat-conducting plate 11 is made of copper, which has good thermal conductivity, so that the temperature in the second conduit 7 is quickly transferred to the rectangular shell 1003. The rectangular shell 1003 and the sleeve 1004 are both made of asbestos, which insulates the heat on the heat-conducting plate 11. The sleeve 1004 is provided with an adjustment mechanism for adjusting the wind direction of the blower 1.

[0036] like Figure 8 and Fig. 9 As shown, the adjustment mechanism includes eight touch-pressure switches 1201 that are equally spaced and symmetrically distributed on the left and right sides. The eight touch-pressure switches 1201 are respectively fixed to the bottom of the adjacent sleeves 1004. The touch-pressure switches 1201 are electrically connected to the wind direction adjustment module. The touch-pressure switches 1201 cooperate with the adjacent sealing disk 1006. The touch-pressure switches 1201 are used to detect the position of the sealing disk 1006. The bottom plate 102 is rotatably connected to the symmetrically distributed rotating shafts 1202. The upper part of the rotating shaft 1202 is fixed to the adjacent side plate 103. The rotating shaft 1202 A second gear 1203 is fixedly connected to the lower end, an electric push rod 1204 electrically connected to the wind direction adjustment module is fixedly connected to the lower surface of the blower 1, a connecting plate 1205 is fixedly connected to the telescopic end of the electric push rod 1204, and the connecting plate 1205 is fixedly connected to a second rack 1206 which is symmetrically distributed on the left and right and meshes with the adjacent second gear 1203. The second rack 1206 drives the second gear 1203 to rotate, and the second gear 1203 drives the adjacent side plate 103 to rotate through the rotating shaft 1202, thereby changing the cross-sectional area of ​​the air outlet of the blower 1.

[0037] When the air in the hospital needs to be cooled, the operator first introduces heat medium into the delivery pipe 8, and the heat medium enters the two middle first conduits 6 through the delivery pipe 8, and is divided through the two middle first conduits 6. The heat medium passes through the first conduit 6 and the straight pipe 5 and enters the adjacent U-shaped tube 4. The U-shaped tube 4 transfers the heat of the heat medium to the heat sink 3. The air-cooled heat dissipation module starts the blower 1, and the blower 1 blows air to the heat sink 3. The wind blown by the blower 1 takes away the heat on the heat sink 3, reduces the temperature of the heat sink 3, and thus reduces the temperature of the heat medium in the U-shaped tube 4. Taking the first conduit 6 on the left as an example, when the heat medium passes through the first second conduit 7 on the left side of the delivery pipe 8 When the heat medium passes through the three-way hole of the sphere 901 and continues to be transported downward, it will not be transported to the left. The heat medium is transferred to the left through the connecting pipe 902 in turn and enters the second conduit 7 on the left and is discharged. At this time, the heat medium only completes the heat dissipation of a group of U-shaped tubes 4. If the heat medium reaches the first second conduit 7 on the left side of the delivery pipe 8 and the temperature has not dropped to the required temperature, the heat medium in the second conduit 7 transfers the heat to the upper side of the sealing disk 1006 in the sleeve 1004 through the heat conduction plate 11. Since the material of the heat conduction plate 11 is copper, copper has good thermal conductivity, so that the temperature in the second conduit 7 is quickly transferred to the rectangular shell 1003. Due to the rectangular shell 1003 and the sleeve 1 The material of 004 ​​is asbestos, which insulates the heat on the heat conducting plate 11, so that the temperature received by the expandable gas on the upper side of the sealing disk 1006 in the sleeve 1004 is equal to the temperature of the heat medium in the second conduit 7, ensuring that when the temperature in the second conduit 7 is higher than the required temperature, the expandable gas on the upper side of the sealing disk 1006 in the sleeve 1004 expands, and the expandable gas on the upper side of the sealing disk 1006 in the sleeve 1004 expands after being heated and pushes the sealing disk 1006 downward, and the sealing disk 1006 drives the first gear 1002 to rotate through the sliding rod 1005 and the first rack 1007, and the first gear 1002 drives the ball 901 to rotate inversely through the rotating rod 1001 As the clockwise rotation rotates, the three-way hole of the ball 901 transports the heat medium transported downward to the left and enters the second first conduit 6 located on the left side of the delivery pipe 8. Then the heat medium continues to repeat the above steps to cool down until the temperature of the heat medium reaches the required temperature when passing through the second conduit 7 on the left. At this time, the ball 901 in the second conduit 7 no longer rotates, and the heat medium enters the leftmost second conduit 7 through the connecting pipe 902 and is discharged. When the temperature of the heat medium in the second conduit 7 decreases, the expandable gas begins to contract, the pressure on the upper side of the sealing disk 1006 in the sleeve 1004 decreases, the sealing disk 1006 moves upward, the ball 901 rotates in the opposite direction, and the heat medium continues to be transported downward.

[0038] During the downward movement of the sealing disk 1006, the sealing disk 1006 contacts the touch-pressure switch 1201, and the touch-pressure switch 1201 transmits a signal to the wind direction adjustment module. When the heat medium passes through the second conduit 7, the touch-pressure switches 1201 from the middle to both sides are triggered in sequence, and the ventilation diameter of the blower 1 is adjusted according to the position triggered by the touch-pressure switch 1201. The specific operation is as follows: as the touch-pressure switches 1201 are triggered in sequence, the wind direction adjustment module starts the electric push rod 1204, and the telescopic end of the electric push rod 1204 drives the connecting plate 1205 to move forward, and the connecting plate 1205 drives the two second racks 1206 to move forward, and the two second racks 1206 respectively drive the adjacent second gears 1203 to rotate, and the second gears 1203 drive the side plates 103 to rotate through the adjacent rotating shafts 1202. The ventilation area between the two side plates 103 gradually increases, and the heat sink 3 that needs to dissipate heat is cooled. In summary, when the heat medium that needs to be cooled is cooled after passing through fewer U-shaped tubes 4, at this time, the cross-sectional area of ​​the air blown out by the blower 1 is smaller. However, the power of the blower 1 is the same, and the reduction in cross-sectional area will increase the flow rate of the wind, further increasing the heat dissipation efficiency of the heat sink 3. When the required heat medium is cooled after passing through more U-shaped tubes 4, the cross-sectional area of ​​the air blown out by the blower 1 is larger, ensuring that all heat media passing through the U-shaped tube 4 are cooled, avoiding the blower 1 still cooling the U-shaped tubes 4 on both sides (the U-shaped tubes 4 through which the heat medium has not passed) when the heat required by the heat medium is less, resulting in a waste of resources. When the heat medium is cooled, the control terminal stops the device, and the use of the device is completed.

[0039] Embodiment 2: Based on embodiment 1, Figure 1 , Fig.10 and Fig.11 As shown, a heat dissipation mechanism is also included, which is arranged on the bracket 2. The heat dissipation mechanism is used to accelerate the heat dissipation speed of the heat dissipation plate 3. The heat dissipation mechanism includes seven fixed seats 1301 distributed at equal intervals on the left and right. The seven fixed seats 1301 are all fixedly connected to the upper surfaces of the two brackets 2. The seven fixed seats 1301 and the eight heat dissipation plates 3 are staggered. The fixed seats 1301 are fixedly connected to four fixed plates 1302 distributed at equal intervals in the front and back. The fixed plates 1302 are fixedly connected to guide plates 1303 that are symmetrically and evenly distributed. The guide plates 1303 on adjacent fixed plates 1302 are staggered to ensure the air circulation. The adjacent and symmetrically distributed guide plates 1303 are V-shaped. The guide plates 1303 guide wind to the heat dissipation plate 3 to accelerate the heat dissipation speed of the heat dissipation plate 3.

[0040] Adjacent heat sinks 3 need to have a certain spacing distance in order to increase the heat dissipation efficiency of adjacent heat sinks 3. However, the wind passing through the middle of the adjacent heat sink 3 is far away from the two heat sinks 3 and cannot take away the heat on the two heat sinks 3. Therefore, it is necessary to change the wind direction between the two heat sinks 3 and perform the following operations: when the wind passes between the two heat sinks 3, the wind contacts the guide plate 1303, and the guide plate 1303 guides the wind to the heat sinks 3 on both sides, making full use of the wind between the two heat sinks 3. The guide plates 1303 on the adjacent fixed plates 1302 are staggered, which not only ensures the circulation speed of the wind but also guides the wind, thereby increasing the heat dissipation efficiency of the wind on the heat sink 3.

[0041] Embodiment 3: Based on embodiment 2, Figure 1 , Figure 2 and Fig.12 As shown, a disinfection mechanism is also included, which is arranged on the bracket 2. The disinfection mechanism is used to disinfect the air. The disinfection mechanism includes a storage shell 1401, and the storage shell 1401 is fixedly connected to the bracket 2 on the front side. The storage shell 1401 is filled with disinfectant. An exhaust hole 1401 is provided on the upper part 1401 of the front side of the storage shell 1401. The liquid level of the disinfectant is always lower than the height of the exhaust hole 14011. The storage shell 1401 is fixedly connected to the arc plate 15. The height of the upper side of the arc plate 15 is higher than the height of the lower surface of the heat sink 3. The arc plate 15 guides the wind into the storage shell 1401. The storage shell 1401 is provided with a diffusion component for adjusting the diffusion amount of the disinfectant.

[0042] like Fig.12 As shown, the diffusion component includes two connecting rods 1402 symmetrically distributed on the left and right, and the two connecting rods 1402 are both slidably connected to the storage shell 1401. A push plate 1403 fixedly connected to the connecting rod 1402 is slidably connected in the storage shell 1401, and a spring 1404 is fixedly connected between the push plate 1403 and the storage shell 1401. One end of the connecting rod 1402 away from the adjacent push plate 1403 is fixedly connected to a folding rod 1405 that cooperates with the adjacent side plate 103.

[0043] When the wind is blown out from the front side of the heat sink 3, the wind at the lower side is guided by the arc plate 15 into the storage shell 1401, and blows the disinfectant in the storage shell 1401, accelerating the volatilization of the disinfectant in the storage shell 1401. The volatilized disinfectant is discharged through the exhaust hole 14011 to disinfect the air in the hospital. When the cross-sectional area of ​​the wind blown out by the blower 1 changes, taking the increase of the cross-sectional area of ​​the wind blown out by the blower 1 as an example, the two side plates 103 move away from each other, and the two side plates 103 move away from each other. The two side plates 103 are moved away from each other through the adjacent folding rods 1405, the connecting rods 1402 and the push plates 1403, and the two springs 1404 are compressed. The disinfectant between the two push plates 1403 moves away from each other. When the two side plates 103 are moved closer to each other, the two springs 1404 are reset, and the two push plates 1403 are moved closer to each other and the disinfectant is gathered toward the middle, so that the volatilization speed of the disinfectant is accelerated. The liquid level of the disinfectant is always lower than the height of the exhaust hole 14011, so that the disinfectant is prevented from flowing out of the exhaust hole 14011.

[0044] It should be understood that this embodiment is only used to illustrate the present invention and is not used to limit the scope of the present invention. In addition, it should be understood that after reading the content taught by the present invention, those skilled in the art can make various changes or modifications to the present invention, and these equivalent forms also fall within the scope limited by the appended claims of the application.

Claims

1. An air conditioning energy-saving control device, characterized in that: The invention comprises a support leg, wherein the support leg is provided with an air-cooling heat dissipation module, an air direction adjustment module and a control terminal, wherein the air-cooling heat dissipation module and the air direction adjustment module are both electrically connected to the control terminal, wherein the support leg is fixedly connected with a blower (1) electrically connected to the air-cooling heat dissipation module, wherein the blower (1) is provided with a top plate (101), a bottom plate (102) and symmetrically distributed side plates (103), wherein a symmetrically distributed bracket (2) is provided on a side of the bottom plate (102) away from the blower (1), wherein the symmetrically distributed bracket (2) is fixedly connected with a heat dissipation plate (3) distributed at equal intervals, wherein the heat dissipation plate (3) is provided with a U-shaped tube (4) distributed at equal intervals. ), the U-shaped tube (4) located on the same heat sink (3) is connected to symmetrically distributed straight tubes (5), one straight tube (5) is connected to a first conduit (6), the other straight tube (5) is connected to a second conduit (7), the first conduit (6) is connected to an adjacent second conduit (7), the adjacent and symmetrically distributed first conduits (6) are connected to a delivery tube (8), the first conduits (6) and the second conduits (7) located on both sides of the delivery tube (8) are symmetrically distributed, the second conduit (7) is provided with a cooling mechanism for adjusting the cooling time of the medium, and the heat on the U-shaped tube (4) is evenly dispersed to the heat sink (3); The device also includes a disinfection mechanism, which is arranged on the support (2) and is used to disinfect air. The disinfection mechanism includes a storage shell (1401), which is fixedly connected to the support (2) away from the blower (1), and the storage shell (1401) is filled with disinfectant. The storage shell (1401) is provided with an exhaust hole (14011), the storage shell (1401) is fixedly connected to an arc plate (15), and the storage shell (1401) is provided with a diffusion component for adjusting the diffusion amount of the disinfectant. The diffusion component includes symmetrically distributed connecting rods (1402), which are all slidably connected to the storage shell (1401). A push plate (1403) fixedly connected to the connecting rod (1402) is slidably connected inside the storage shell (1401), a spring (1404) is fixedly connected between the push plate (1403) and the storage shell (1401), and the connecting rod (1402) is fixedly connected to a folding rod (1405) that cooperates with the adjacent side plate (103).

2. An air conditioning energy saving control device as claimed in claim 1, characterized in that: The cooling mechanism comprises spheres (901) which are equally spaced and symmetrically distributed. The spheres (901) which are equally spaced and symmetrically distributed are respectively rotatably connected to adjacent second conduits (7). The second conduits (7) away from the delivery pipe (8) are vertical pipes, and the other second conduits (7) are three-way pipes. The spheres (901) are provided with three-way holes. The second conduits (7) located on the same side of the delivery pipe (8) are connected with a connecting pipe (902). The second conduits (7) are provided with a driving component for driving the adjacent spheres (901) to rotate.

3. An air conditioning energy saving control device as claimed in claim 2, characterized in that: The driving component comprises rotating rods (1001) which are symmetrically distributed at equal intervals, the rotating rods (1001) which are symmetrically distributed at equal intervals are rotatably connected to the adjacent second conduits (7), the rotating rods (1001) are fixedly connected to the adjacent spheres (901), one end of the rotating rods (1001) away from the adjacent spheres (901) is fixedly connected to the first gear (1002), the second conduits (7) are fixedly connected to the sleeves (1004) through the rectangular shells (1003), the sleeves (1004) A sliding rod (1005) is slidably connected, a sealing disk (1006) fixedly connected to an adjacent sliding rod (1005) is slidably connected inside the sleeve (1004), a through hole is provided on one side of the sleeve (1004) close to the first gear (1002), the sliding rod (1005) is fixedly connected to a first rack (1007) meshing with the adjacent first gear (1002), and the second conduit (7) is provided with a temperature detection component, which is used to detect the temperature inside the second conduit (7).

4. An air conditioning energy saving control device as claimed in claim 3, characterized in that: The temperature detection component comprises heat conducting plates (11) which are symmetrically distributed and arranged at equal intervals. The heat conducting plates (11) which are symmetrically distributed and arranged at equal intervals are respectively fixedly connected to adjacent second conduits (7). The heat conducting plates (11) are fixedly connected to adjacent rectangular shells (1003) and sleeves (1004). One end of the heat conducting plate (11) is located in the adjacent second conduit (7), and the other end of the heat conducting plate (11) is located in the adjacent sleeve (1004). One side of the rectangular shell (1003) close to the heat conducting plate (11) is filled with expandable gas, and the sleeve (1004) is provided with an adjustment mechanism for adjusting the wind direction of the blower (1).

5. An air conditioning energy saving control device as claimed in claim 4, characterized in that: The heat conducting plate (11) is made of copper and is used to conduct heat from the medium in the second conduit (7). The rectangular shell (1003) and the sleeve (1004) are both made of asbestos and are used to insulate the heat conducting plate (11).

6. An air conditioning energy saving control device as claimed in claim 4, characterized in that: The regulating mechanism comprises touch-pressure switches (1201) which are symmetrically distributed and arranged at equal intervals. The touch-pressure switches (1201) which are symmetrically distributed and arranged at equal intervals are respectively fixedly connected in adjacent sleeves (1004). The touch-pressure switches (1201) are electrically connected to the wind direction regulating module. The touch-pressure switches (1201) cooperate with the adjacent sealing disk (1006). The bottom plate (102) is rotatably connected to a symmetrically distributed rotating shaft (1202). The rotating shaft (1202) is fixedly connected to the adjacent side plate (103). The rotating shaft (1202) is fixedly connected to a second gear (1203). The blower (1) is fixedly connected to an electric push rod (1204) which is electrically connected to the wind direction regulating module. The telescopic end of the electric push rod (1204) is fixedly connected to a connecting plate (1205). The connecting plate (1205) is fixedly connected to a symmetrically distributed second rack (1206) which is meshed with the adjacent second gear (1203).

7. The air conditioning energy saving control device according to claim 1, characterized in that: The heat dissipation device also comprises a heat dissipation mechanism, which is arranged on the bracket (2) and is used to accelerate the heat dissipation speed of the heat dissipation plate (3). The heat dissipation mechanism comprises fixed seats (1301) distributed at equal intervals, the fixed seats (1301) distributed at equal intervals are all fixedly connected to the symmetrically distributed brackets (2), the fixed seats (1301) distributed at equal intervals and the heat dissipation plates (3) distributed at equal intervals are staggered, the fixed seats (1301) are fixedly connected to fixed plates (1302) distributed at equal intervals, and the fixed plates (1302) are fixedly connected to guide plates (1303) distributed symmetrically and at equal intervals.

8. An air conditioning energy saving control device as claimed in claim 7, characterized in that: The guide plates (1303) on adjacent fixed plates (1302) are arranged in a staggered manner, and the adjacent and symmetrically arranged guide plates (1303) form a V shape.

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