Medical laser cooling device

Abstract

The application discloses a medical laser cooling device and belongs to the technical field of medical equipment cooling. The medical laser cooling device comprises a water chiller, a backwater pipe for backwater and a water injection pipe for water injection connected with an evaporator of the water chiller, a liquid preparation assembly for adding sodium bicarbonate solution and citric acid solution inserted in the water injection pipe during descaling, a water level monitoring assembly for water level monitoring, a temperature sensor for water temperature monitoring in the evaporator of the water chiller and a pH value monitor for water pH value monitoring in the evaporator of the water chiller, a water outlet assembly for driving water out of the evaporator of the water chiller connected with the evaporator of the water chiller, and the water outlet assembly comprises an adjustable water inlet assembly, a water pump, an adjustable backflow assembly and an adjustable drainage assembly. The medical laser cooling device can realize automatic descaling treatment, does not need manual supervision during a long-time descaling process and is beneficial to actual use.

Description

Technical Field

[0001] This invention relates to the field of medical device cooling technology, specifically to a medical laser cooling device. Background Technology

[0002] Existing medical laser cooling devices can reduce the temperature of components and remove excess heat after laser emission by circulating cooling water through the laser, thereby ensuring the normal operation of the laser.

[0003] For example, Chinese patent CN218850078U discloses a novel medical laser cooling device, including a laser, a water tank structure, a water pump, and a filter. The laser has an inlet and an outlet. The outlet is fixedly connected to the water tank inlet via a first water pipe. The water tank outlet is fixedly connected to one end of a second water pipe. The end of the second water pipe furthest from the water tank outlet is connected to the water pump inlet via a pipe joint. The water pump outlet is fixedly connected to the inlet via a third water pipe, on which a filter is installed. An ultraviolet germicidal lamp uses C-band UV253.7nm ultraviolet light to inactivate the cooling water in the water tank, reducing the growth of microorganisms in the cooling water of the medical laser equipment, as well as the frequency of cooling water replacement and additional damage to the laser. The filter automatically filters the circulating cooling water of the laser cooling device, reducing the number of microorganisms in the cooling water.

[0004] However, the scale generated during the cooling process of the aforementioned medical laser cooling device is inconvenient to clean.

[0005] Based on this, the present invention designs a medical laser cooling device to solve the above problems. Summary of the Invention

[0006] In view of the above-mentioned shortcomings of the existing technology, the present invention provides a medical laser cooling device.

[0007] To achieve the above objectives, the present invention provides the following technical solution:

[0008] A medical laser cooling device, including a chiller; The evaporator of the chiller is connected to a return water pipe for returning water and a water injection pipe for adding water; During descaling, a solution preparation component for adding sodium bicarbonate solution and citric acid solution is inserted into the water injection pipe; The chiller's evaporator is connected to a water level monitoring component for water level monitoring, a temperature sensor for water temperature monitoring inside the chiller's evaporator, and a pH monitor for water pH monitoring inside the chiller's evaporator. The chiller's evaporator is connected to a water outlet assembly for driving the water inside the evaporator to drain out. The water outlet assembly includes an adjustable water inlet assembly, a water pump, an adjustable reflux assembly, and an adjustable drainage assembly. The adjustable water inlet assembly and the adjustable reflux assembly are both fixedly connected to the evaporator of the chiller. The adjustable water inlet assembly and the adjustable reflux assembly are fixedly connected to the input and output ends of the water pump, respectively. The adjustable reflux assembly is fixedly connected to the adjustable drainage assembly. The return water pipe and the adjustable drainage assembly are connected to the cooling pipes of the medical laser equipment. The adjustable drainage assembly is also connected to the waste liquid collection tank and the hospital's dedicated wastewater network. The adjustable water inlet assembly is connected to the deionized water source.

[0009] Furthermore, the chiller's casing is fixedly connected to a level tube for water level display, and the level tube is connected to the chiller's evaporator.

[0010] Furthermore, the solution preparation assembly includes a citric acid solution storage tank, a fifth connecting pipe, a fourth control valve, an insert pipe, a sixth connecting pipe, and a sodium bicarbonate solution storage tank. The insert pipe is inserted into the water injection pipe. The discharge end of the fourth control valve is fixedly connected to the insert pipe. The inlet end of the fourth control valve is connected to both the fifth and sixth connecting pipes. The citric acid solution storage tank is fixedly connected to the fifth connecting pipe, and the sixth connecting pipe is fixedly connected to the sodium bicarbonate solution storage tank.

[0011] Furthermore, the water level monitoring component includes an upper electronic level gauge and a lower electronic level gauge, both of which are fixedly connected to the evaporator of the chiller, with the upper electronic level gauge located above the lower electronic level gauge.

[0012] Furthermore, the evaporator of the chiller is fixedly equipped with an electric heater for controlling the temperature of the water inside the evaporator.

[0013] Furthermore, the adjustable water inlet assembly includes a water inlet pipe, a second control valve, and a first connecting pipe. The first connecting pipe is fixedly connected to the evaporator of the chiller. The water inlet pipe and the first connecting pipe are fixedly connected to the input end of the second control valve. The water inlet pipe is connected to a deionized water source. The output end of the second control valve is fixedly connected to the input end of the water pump through a pipe.

[0014] Furthermore, the regulating reflux assembly includes a second connecting pipe, a third control valve, and a fourth connecting pipe. The fourth connecting pipe is fixedly connected to the evaporator of the chiller. The output end of the third control valve is fixedly connected to the regulating drainage assembly and the fourth connecting pipe. The input end of the third control valve is fixedly connected to the second connecting pipe, and the second connecting pipe is fixedly connected to the output end of the water pump.

[0015] Furthermore, the adjustable drainage assembly includes a water outlet pipe, a sewage pipe, a first control valve, a liquid drain pipe, and a third connecting pipe. The third connecting pipe is fixedly connected to the output end of the third control valve and to the input end of the first control valve. The output end of the first control valve is fixedly connected to the water outlet pipe, the first control valve, and the liquid drain pipe, respectively. The water outlet pipe is connected to the cooling pipe of the medical laser equipment, the sewage pipe is fixedly connected to the waste liquid collection tank, and the first control valve is connected to the hospital's dedicated wastewater network.

[0016] Furthermore, the second connecting pipe and the fourth control valve are two-inlet and one-outlet control valves.

[0017] Furthermore, the third control valve is a one-inlet, two-outlet control valve.

[0018] To better achieve the objectives of this invention, the adjustable inlet water assembly of the water outlet component is connected to the evaporator of the chiller, and the adjustable reflux assembly is also connected to the evaporator. The liquid dispensing assembly adds citric acid solution to the evaporator of the chiller through a water injection pipe. A water pump draws water from the evaporator through the adjustable inlet water assembly into the adjustable reflux assembly, and then back into the evaporator, facilitating thorough mixing of the citric acid solution with the water. Next, the adjustable reflux assembly is connected to the adjustable drain assembly, which in turn connects to the cooling pipes of the medical laser equipment. The water pump draws water from the evaporator through the adjustable inlet water assembly into the adjustable reflux assembly, then into the adjustable drain assembly, and finally into the cooling pipes of the medical laser equipment. The water then returns to the evaporator through a return water pipe, circulating for 30-90 minutes to facilitate the use of the medical laser equipment. The cooling pipes are descaled; after descaling, the regulating reflux assembly and the chiller's evaporator remain connected. The liquid distribution assembly adds sodium bicarbonate solution to the chiller's evaporator. The water pump draws water from the chiller's evaporator into the regulating reflux assembly through the regulating inlet assembly, and then into the chiller's evaporator. The sodium bicarbonate solution and the water in the chiller's evaporator are fully mixed and neutralized until the pH value of the water in the chiller's evaporator is between 6 and 9 as monitored by the pH monitor. Then, the regulating reflux assembly is connected to the regulating drain assembly, which in turn is connected to the waste liquid collection tank. The water pump draws water from the chiller's evaporator into the regulating drain assembly through the regulating inlet assembly, and then into the regulating reflux assembly through the regulating drain assembly, before finally discharging the water into the waste liquid collection tank through the regulating drain assembly, facilitating the direct discharge of the neutralized water after descaling.When water is discharged from the evaporator of the chiller, the water level monitoring component detects the water level in the evaporator. When the water level in the evaporator reaches its lowest point, the regulating inlet component connects to the deionized water source, and the regulating reflux component connects to the evaporator. The water pump draws deionized water through the regulating inlet component into the regulating reflux component, and then into the evaporator until the water level monitoring component detects that the water level has reached its highest point. At this point, the regulating inlet component connects to the evaporator. The system connects the regulating reflux assembly to the regulating drainage assembly, which in turn connects to the medical laser equipment. Water is pumped from the chiller's evaporator through the regulating inlet assembly into the regulating reflux assembly, then into the regulating drainage assembly, and finally into the cooling pipes of the medical laser equipment. The water then returns to the chiller's evaporator via the return pipe, circulating for approximately 10-15 minutes to flush the cooling pipes of the medical laser equipment. Finally, the regulating drainage assembly connects to the hospital's dedicated wastewater network. The pump draws water from the chiller's evaporator through the adjustable inlet assembly into the adjustable drain assembly, and then discharges it into the hospital's dedicated wastewater network. This process is repeated three times to flush the cooling pipes of the medical laser equipment. While the water is being discharged from the chiller's evaporator, the water level monitoring assembly detects the water level. When the water level reaches its lowest point, the adjustable inlet assembly connects to the deionized water source, and the adjustable reflux assembly connects to the chiller's evaporator. The pump then draws deionized water through the adjustable inlet assembly into the adjustable reflux assembly, and then into the chiller's evaporator until the water level monitoring assembly detects the highest point. This allows for the addition of a set amount of water to the chiller's evaporator. The adjustable inlet assembly and the chiller's evaporator remain connected, the adjustable reflux assembly connects to the adjustable drain assembly, and the adjustable drain assembly connects to the medical laser equipment. The medical laser cooling device is then adjusted to a state ready for cooling the medical laser equipment. In summary, this method enables automated descaling of medical laser cooling devices, eliminating the need for manual supervision during extended descaling processes, which is beneficial for practical use. Attached Figure Description

[0019] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the accompanying drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are merely some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without any creative effort.

[0020] Figure 1 A three-dimensional medical laser cooling device according to the present invention. Figure 1 ; Figure 2 This is a front view of a medical laser cooling device according to the present invention; Figure 3 This is a left view of a medical laser cooling device according to the present invention; Figure 4 A three-dimensional medical laser cooling device according to the present invention. Figure 2 ; Figure 5 For along Figure 3 A sectional view along the AA direction; Figure 6 for Figure 4 Enlarged view of point B in the middle.

[0021] The labels in the diagram represent: 1. Chiller 2. Return water pipe 3. Liquid level pipe 4. Water injection pipe 5. Water outlet assembly 51. Water outlet pipe 52. Sewage pipe 53. First control valve 54. Drain pipe 55. Water filling pipe 56. Second control valve 57. First connecting pipe 58. Water pump 59. Second connecting pipe 510. Third control valve 511. Third connecting pipe 512. Fourth connecting pipe 6. Liquid mixing assembly 61. Citric acid solution storage tank 62. Fifth connecting pipe 63. Fourth control valve 64. Insertion tube 65. Sixth connecting pipe 66. Sodium bicarbonate solution storage tank 7. Upper electronic liquid level gauge 8. Temperature sensor 9. Lower electronic liquid level gauge 10. Electric heater 11. pH monitor. Detailed Implementation

[0022] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of the present invention. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0023] The terms "left," "right," "front," "back," "up," and "down" used in the following description refer to the orientation from the perspective of the front view.

[0024] Example 1: In some embodiments, please refer to the accompanying drawings. Figures 1-6 A medical laser cooling device, comprising a chiller 1; The evaporator of the chiller 1 is connected to a return water pipe 2 for returning water and a water injection pipe 4 for adding water; During descaling, a solution preparation component 6 for adding sodium bicarbonate solution and citric acid solution is inserted into the water injection pipe 4; The evaporator of the chiller 1 is connected to a water level monitoring component for water level monitoring, a temperature sensor 8 for water temperature monitoring inside the evaporator of the chiller 1, and a pH value monitor 11 for water pH value monitoring inside the evaporator of the chiller 1. The evaporator of the chiller 1 is connected to a water outlet assembly 5 for driving the water inside the evaporator of the chiller 1 to be discharged. The water outlet assembly 5 includes an adjustable water inlet assembly, a water pump 58, an adjustable reflux assembly, and an adjustable drainage assembly. The adjustable water inlet assembly and the adjustable reflux assembly are both fixedly connected to the evaporator of the chiller 1. The adjustable water inlet assembly and the adjustable reflux assembly are fixedly connected to the input and output ends of the water pump 58, respectively. The adjustable reflux assembly is fixedly connected to the adjustable drainage assembly. The return water pipe 2 and the adjustable drainage assembly are connected to the cooling pipe of the medical laser equipment. The adjustable drainage assembly is also connected to the waste liquid collection tank and the hospital's dedicated wastewater network. The adjustable water inlet assembly is connected to the deionized water source.

[0025] The adjustable inlet water assembly of the water outlet assembly 5 is connected to the evaporator of the chiller 1, and the adjustable reflux assembly is connected to the evaporator of the chiller 1. The liquid distribution assembly 6 adds citric acid solution to the evaporator of the chiller 1 through the water injection pipe 4. The water pump 58 draws water from the evaporator of the chiller 1 into the adjustable reflux assembly through the adjustable inlet water assembly, and then into the evaporator of the chiller 1, so that the citric acid solution and the water in the evaporator of the chiller 1 can be fully mixed. Next, the regulating reflux assembly is connected to the regulating drainage assembly, which in turn is connected to the cooling pipe of the medical laser equipment. The water pump 58 draws water from the evaporator of the chiller 1 through the regulating inlet assembly into the regulating reflux assembly, then into the regulating drainage assembly, and then into the cooling pipe of the medical laser equipment. Finally, the water returns to the evaporator of the chiller 1 through the return water pipe 2, circulating for 30 to 90 minutes to facilitate descaling of the cooling pipe of the medical laser equipment. After descaling, the regulating reflux assembly remains connected to the evaporator of chiller 1. The liquid dispensing assembly 6 adds sodium bicarbonate solution to the evaporator of chiller 1. The water pump 58 draws water from the evaporator of chiller 1 into the regulating reflux assembly via the regulating inlet assembly, and then into the evaporator of chiller 1. The sodium bicarbonate solution and the water in the evaporator of chiller 1 are fully mixed and neutralized until the pH value of the water in the evaporator of chiller 1 is monitored by pH monitor 11 to be between 6 and 9. Then, the regulating reflux assembly is connected to the regulating drain assembly, and the regulating drain assembly is connected to the waste liquid collection tank. The water pump 58 draws water from the evaporator of chiller 1 into the regulating drain assembly via the regulating inlet assembly, and then draws water from the evaporator of chiller 1 into the regulating reflux assembly via the regulating drain assembly, and then discharges the water into the waste liquid collection tank via the regulating drain assembly, so that the neutralized water after descaling can be directly discharged. When water is discharged from the evaporator of chiller 1, the water level monitoring component detects the water level in the evaporator. When the water level in the evaporator reaches its lowest point, the regulating inlet component connects to the deionized water source, and the regulating reflux component connects to the evaporator of chiller 1. Water pump 58 draws deionized water through the regulating inlet component into the regulating reflux component, and then into the evaporator of chiller 1, until the water level monitoring component detects that the water level has reached its highest point. At this point, the regulating inlet component connects to the evaporator of chiller 1, the regulating reflux component connects to the regulating drain component, and the regulating drain component connects to the medical laser equipment. Water pump 58... Water is pumped from the evaporator of chiller 1 by the adjustable inlet water assembly into the adjustable return water assembly, then into the adjustable drain water assembly, and finally into the cooling pipes of the medical laser equipment. It then returns to the evaporator of chiller 1 through the return water pipe 2. This self-circulation process for 10-15 minutes flushes the cooling pipes of the medical laser equipment. The adjustable drain water assembly then connects to the hospital's dedicated wastewater network. Water pump 58 pumps water from the evaporator of chiller 1 through the adjustable inlet water assembly into the adjustable drain water assembly, and then discharges it into the hospital's dedicated wastewater network. This flushing process is repeated three times to achieve the rinsing treatment of the cooling pipes of the medical laser equipment. When water is discharged from the evaporator of chiller 1, the water level monitoring component detects the water level in the evaporator of chiller 1. When the water level in the evaporator of chiller 1 reaches the lowest point, the regulating water inlet component is connected to the deionized water source, and the regulating reflux component is connected to the evaporator of chiller 1. The water pump 58 draws deionized water through the regulating water inlet component into the regulating reflux component, and then into the evaporator of chiller 1, until the water level monitoring component detects that the water level has reached the highest point, so that the evaporator of chiller 1 can be filled with a set amount of water. Then the regulating water inlet component and the evaporator of chiller 1 continue to be connected, the regulating reflux component is connected to the regulating drain component, and the regulating drain component is connected to the medical laser equipment. The medical laser cooling device is adjusted to the cooling preparation state for the medical laser equipment.

[0026] In summary, this method enables automated descaling of medical laser cooling devices, eliminating the need for manual supervision during long-term descaling processes and facilitating practical use.

[0027] The chiller 1 is fixedly connected to a level pipe 3 for water level display, and the level pipe 3 is connected to the evaporator of the chiller 1.

[0028] The solution preparation assembly 6 includes a citric acid solution storage tank 61, a fifth connecting pipe 62, a fourth control valve 63, an insert pipe 64, a sixth connecting pipe 65, and a sodium bicarbonate solution storage tank 66. The insert pipe 64 is inserted into the water injection pipe 4. The discharge end of the fourth control valve 63 is fixedly connected to the insert pipe 64. The inlet end of the fourth control valve 63 is connected to the fifth connecting pipe 62 and the sixth connecting pipe 65 respectively. The citric acid solution storage tank 61 is fixedly connected to the fifth connecting pipe 62, and the sixth connecting pipe 65 is fixedly connected to the sodium bicarbonate solution storage tank 66.

[0029] Sodium bicarbonate solution is stored in sodium bicarbonate solution storage tank 66, and citric acid solution is stored in citric acid solution storage tank 61.

[0030] Sodium bicarbonate solution is stored in the sodium bicarbonate solution storage tank 66 of the solution preparation assembly 6, and citric acid solution is stored in the citric acid solution storage tank 61. When citric acid solution needs to be added, the fourth control valve 63 is opened towards the sixth connecting pipe 65 and closed towards the fifth connecting pipe 62. The citric acid solution in the sodium bicarbonate solution storage tank 66 enters the water injection pipe 4 through the sixth connecting pipe 65 and the insertion pipe 64, and then enters the evaporator of the chiller 1. When sodium bicarbonate solution needs to be added, the fourth control valve 63 is closed towards the sixth connecting pipe 65 and opened towards the fifth connecting pipe 62. The sodium bicarbonate solution in the citric acid solution storage tank 61 enters the water injection pipe 4 through the fifth connecting pipe 62 and the insertion pipe 64, and then enters the evaporator of the chiller 1. This allows for convenient control of the addition of sodium bicarbonate solution and citric acid solution as required.

[0031] The water level monitoring component includes an upper electronic level gauge 7 and a lower electronic level gauge 9, both of which are fixedly connected to the evaporator of the chiller 1, with the upper electronic level gauge 7 located above the lower electronic level gauge 9.

[0032] When both the upper electronic level gauge 7 and the lower electronic level gauge 9 of the water level monitoring component are monitoring the water level, it indicates that the water level has reached the highest point, and the water outlet component 5 stops adding water. When neither the upper electronic level gauge 7 nor the lower electronic level gauge 9 of the water level monitoring component are monitoring the water level, it indicates that the water level has reached the lowest point, and the water outlet component 5 starts adding water, so that the water outlet component 5 can be adjusted as needed.

[0033] The evaporator of the chiller 1 is fixedly equipped with an electric heater 10 for controlling the temperature of the water inside the evaporator of the chiller 1; During descaling, temperature sensor 8 monitors the temperature of the water in the evaporator of chiller 1. When the monitored temperature is below 30°C, electric heater 10 is activated. Electric heater 10 heats the water in the evaporator of chiller 1 to 30~40°C, which helps the citric acid solution to react at the optimal reaction temperature.

[0034] During descaling, temperature sensor 8 monitors the temperature of the water in the evaporator of chiller 1. When the monitored temperature is higher than 40°C, chiller 1 is started, and the water in the evaporator of chiller 1 is heated to 30~40°C, which helps the citric acid solution to react at the optimal reaction temperature.

[0035] The adjustable water inlet assembly includes a water inlet pipe 55, a second control valve 56, and a first connecting pipe 57. The first connecting pipe 57 is fixedly connected to the evaporator of the chiller 1. The water inlet pipe 55 and the first connecting pipe 57 are fixedly connected to the input end of the second control valve 56. The water inlet pipe 55 is connected to a deionized water source. The output end of the second control valve 56 is fixedly connected to the input end of the water pump 58 through a pipe.

[0036] The regulating reflux assembly includes a second connecting pipe 59, a third control valve 510, and a fourth connecting pipe 512. The fourth connecting pipe 512 is fixedly connected to the evaporator of the chiller 1. The output end of the third control valve 510 is fixedly connected to the regulating drainage assembly and the fourth connecting pipe 512. The input end of the third control valve 510 is fixedly connected to the second connecting pipe 59, and the second connecting pipe 59 is fixedly connected to the output end of the water pump 58.

[0037] The adjustable drainage assembly includes a water outlet pipe 51, a sewage pipe 52, a first control valve 53, a liquid drain pipe 54, and a third connecting pipe 511. The third connecting pipe 511 is fixedly connected to the output end of the third control valve 510 and the input end of the first control valve 53. The output end of the first control valve 53 is fixedly connected to the water outlet pipe 51, the first control valve 53, and the liquid drain pipe 54 respectively. The water outlet pipe 51 is connected to the cooling pipe of the medical laser equipment. The sewage pipe 52 is fixedly connected to the waste liquid collection tank. The first control valve 53 is connected to the hospital's dedicated wastewater network.

[0038] The second control valve 56 of the regulating inlet water assembly of the water outlet assembly 5 is connected to the first connecting pipe 57, which is connected to the evaporator of the chiller 1. The third control valve 510 of the regulating reflux assembly is connected to the fourth connecting pipe 512, which is connected to the evaporator of the chiller 1. The liquid dispensing assembly 6 adds citric acid solution to the evaporator of the chiller 1 through the water injection pipe 4. The water pump 58 draws water from the evaporator of the chiller 1 through the first connecting pipe 57 and the second control valve 56 of the regulating inlet water assembly into the second connecting pipe 59, the third control valve 510 and the fourth connecting pipe 512 of the regulating reflux assembly, and then into the evaporator of the chiller 1, so that the citric acid solution can be fully mixed with the water in the evaporator of the chiller 1. Next, the third control valve 510 of the regulating reflux assembly is connected to the third connecting pipe 511 of the regulating drainage assembly, the first control valve 53 of the regulating drainage assembly is connected to the outlet pipe 51, the outlet pipe 51 is connected to the cooling pipe of the medical laser equipment, and the water pump 58 draws water from the evaporator of the chiller 1 into the second connecting pipe 59 and the third control valve 510 of the regulating reflux assembly through the second control valve 56 and the first connecting pipe 57 of the regulating inlet assembly, then into the third connecting pipe 511 and the outlet pipe 51 of the regulating drainage assembly, then into the cooling pipe of the medical laser equipment, and then back into the evaporator of the chiller 1 through the return pipe 2, circulating for 30 to 90 minutes to facilitate descaling of the cooling pipe of the medical laser equipment; After descaling is completed, the third control valve 510 of the regulating reflux assembly is connected to the fourth connecting pipe 512. The fourth connecting pipe 512 continues to be connected to the evaporator of the chiller 1. The liquid distribution assembly 6 adds sodium bicarbonate solution into the evaporator of the chiller 1. The water pump 58 draws water from the evaporator of the chiller 1 through the first connecting pipe 57 and the second control valve 56 of the regulating inlet assembly into the second connecting pipe 59 and the fourth connecting pipe 512 of the regulating reflux assembly, and then into the evaporator of the chiller 1. The sodium bicarbonate solution and the water in the evaporator of the chiller 1 are fully mixed and neutralized until the pH value monitor 11 monitors the pH value of the chiller 1. The pH value of the water in the evaporator is between 6 and 9. Then, the third control valve 510 of the regulating reflux assembly is connected to the third connecting pipe 511 of the regulating drain assembly, the first control valve 53 of the regulating drain assembly is connected to the drain pipe 52, the drain pipe 52 is connected to the waste liquid collection tank, and the water pump 58 draws water from the evaporator of the chiller 1 into the second connecting pipe 59 and the third control valve 510 of the regulating reflux assembly through the second control valve 56 and the first connecting pipe 57 of the regulating inlet assembly. Then, the water is discharged into the waste liquid collection tank through the third connecting pipe 511 and the drain pipe 52 of the regulating drain assembly, so that the neutralized water after descaling can be directly discharged. When water is discharged from the evaporator of chiller 1, the water level monitoring component detects the water level in the evaporator of chiller 1. When the water level in the evaporator of chiller 1 reaches its lowest point, the second control valve 56 of the regulating water inlet component is connected to the water supply pipe 55, which in turn connects to the deionized water source. The third control valve 510 of the regulating reflux component is connected to the fourth connecting pipe 512, which is connected to the evaporator of chiller 1. The water pump 58 then operates through the water supply pipe 55 and the second control valve 510 of the regulating water inlet component. 6. Deionized water is pumped into the second connecting pipe 59 and the fourth connecting pipe 512 of the regulating reflux assembly, and then into the evaporator of the chiller 1, until the water level monitoring assembly detects that the water level has reached the highest point. At this point, the second control valve 56 of the regulating inlet assembly connects to the first connecting pipe 57, which in turn connects to the evaporator of the chiller 1. The third control valve 510 of the regulating reflux assembly connects to the third connecting pipe 511 of the regulating drain assembly, which then connects to the outlet pipe 5. 1. The outlet pipe 51 connects to the medical laser equipment. The water pump 58 draws water from the evaporator of the chiller 1 through the second control valve 56 and the first connecting pipe 57 of the regulating inlet assembly. The water then enters the second connecting pipe 59 of the regulating reflux assembly, then the third connecting pipe 511 and the outlet pipe 51 of the regulating drain assembly, and finally the cooling pipe of the medical laser equipment. The water then returns to the evaporator of the chiller 1 through the return pipe 2. The self-circulating electric heater circulates the cooling pipe of the medical laser equipment for 10-15 minutes. The process involves rinsing, then the first control valve 53 of the adjustable drainage assembly is connected to the drain pipe 54, which in turn is connected to the hospital's dedicated wastewater network. The water pump 58 draws water from the evaporator of the chiller 1 through the second control valve 56 and the first connecting pipe 57 of the adjustable inlet assembly into the second connecting pipe 59 of the adjustable drainage assembly, and then discharges it into the hospital's dedicated wastewater network through the third connecting pipe 511 and the drain pipe 54 of the adjustable drainage assembly. This process is repeated three times to achieve the rinsing treatment of the cooling pipes of the medical laser equipment. When water is discharged from the evaporator of chiller 1, the water level monitoring component detects the water level in the evaporator. When the water level in the evaporator reaches its lowest point, the second control valve 56 of the regulating inlet water component connects to the water supply pipe 55, which in turn connects to the deionized water source. The third control valve 510 of the regulating reflux component connects to the fourth connecting pipe 512, which is connected to the evaporator of chiller 1. The water pump 58 then draws deionized water into the regulating reflux component through the water supply pipe 55 and the second control valve 56. The fourth connecting pipe 512 then enters the evaporator of the chiller 1 until the water level monitoring component detects that the water level has reached the highest point, so that the evaporator of the chiller 1 can be filled with a set amount of water. Then, the second control valve 56 of the regulating water inlet component is connected to the first connecting pipe 57, and the first connecting pipe 57 is connected to the evaporator of the chiller 1. The third connecting pipe 511 of the regulating reflux component is connected to the outlet pipe 51 of the regulating drain component, and the outlet pipe 51 of the regulating drain component is connected to the medical laser equipment. The medical laser cooling device is adjusted to the state of being ready to cool the medical laser equipment.

[0039] In summary, this method enables automated descaling of medical laser cooling devices, eliminating the need for manual supervision during long-term descaling processes and facilitating practical use.

[0040] The second connecting pipe 59 and the fourth control valve 63 are two-inlet and one-outlet control valves.

[0041] The third control valve 510 is a one-inlet, two-outlet control valve.

[0042] The first control valve 53 is a one-inlet, three-outlet control valve.

[0043] The above embodiments are only used to illustrate the technical solutions of the present invention, and are not intended to limit it. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features. Such modifications or substitutions will not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. A medical laser cooling device, comprising a chiller (1), characterized in that: The evaporator of the chiller (1) is connected to a return water pipe (2) for returning water and a water injection pipe (4) for adding water. During descaling, a solution preparation component (6) for adding sodium bicarbonate solution and citric acid solution is inserted into the water injection pipe (4); The evaporator of the chiller (1) is connected to a water level monitoring component for water level monitoring, a temperature sensor (8) for water temperature monitoring inside the evaporator of the chiller (1), and a pH value monitor (11) for water pH value monitoring inside the evaporator of the chiller (1). The evaporator of the chiller (1) is connected to a water outlet assembly (5) for driving the water in the evaporator of the chiller (1) to drain out. The water outlet assembly (5) includes an adjustable water inlet assembly, a water pump (58), an adjustable reflux assembly, and an adjustable drainage assembly. The adjustable water inlet assembly and the adjustable reflux assembly are both connected to the evaporator of the chiller (1) and fixedly connected to the input and output ends of the water pump (58), respectively. The adjustable reflux assembly is connected to the adjustable drainage assembly and fixedly connected to the water return pipe (2) and the adjustable drainage assembly, respectively. The adjustable drainage assembly is also connected to the waste liquid collection tank and the hospital's special wastewater network. The adjustable water inlet assembly is connected to the deionized water source.

2. The medical laser cooling device according to claim 1, characterized in that, The chiller (1) has a liquid level pipe (3) for water level display fixedly connected to its casing, and the liquid level pipe (3) is connected to the evaporator of the chiller (1).

3. The medical laser cooling device according to claim 1, characterized in that, The solution preparation assembly (6) includes a citric acid solution storage tank (61), a fifth connecting pipe (62), a fourth control valve (63), an insert (64), a sixth connecting pipe (65), and a sodium bicarbonate solution storage tank (66). The insert (64) is inserted into the water injection pipe (4). The discharge end of the fourth control valve (63) is fixedly connected to the insert (64). The feed end of the fourth control valve (63) is connected to the fifth connecting pipe (62) and the sixth connecting pipe (65) respectively. The citric acid solution storage tank (61) is fixedly connected to the fifth connecting pipe (62), and the sixth connecting pipe (65) is fixedly connected to the sodium bicarbonate solution storage tank (66).

4. The medical laser cooling device according to claim 1, characterized in that, The water level monitoring component includes an upper electronic level gauge (7) and a lower electronic level gauge (9), and both the upper electronic level gauge (7) and the lower electronic level gauge (9) are fixedly connected to the evaporator of the chiller (1), with the upper electronic level gauge (7) located above the lower electronic level gauge (9).

5. The medical laser cooling device according to claim 4, characterized in that, The evaporator of the chiller (1) is fixedly equipped with an electric heater (10) for controlling the temperature of the water inside the evaporator of the chiller (1).

6. The medical laser cooling device according to claim 3, characterized in that, The adjustable water inlet assembly includes a water inlet pipe (55), a second control valve (56), and a first connecting pipe (57). The first connecting pipe (57) is fixedly connected to the evaporator of the chiller (1). The water inlet pipe (55) and the first connecting pipe (57) are fixedly connected to the input end of the second control valve (56). The water inlet pipe (55) is connected to a deionized water source. The output end of the second control valve (56) is fixedly connected to the input end of the water pump (58) through a pipe.

7. The medical laser cooling device according to claim 6, characterized in that, The regulating reflux assembly includes a second connecting pipe (59), a third control valve (510), and a fourth connecting pipe (512). The fourth connecting pipe (512) is fixedly connected to the evaporator of the chiller (1). The output end of the third control valve (510) is fixedly connected to the regulating drainage assembly and the fourth connecting pipe (512). The input end of the third control valve (510) is fixedly connected to the second connecting pipe (59), and the second connecting pipe (59) is fixedly connected to the output end of the water pump (58).

8. The medical laser cooling device according to claim 7, characterized in that, The adjustable drainage assembly includes a water outlet pipe (51), a sewage pipe (52), a first control valve (53), a liquid drain pipe (54), and a third connecting pipe (511). The third connecting pipe (511) is fixedly connected to the output end of the third control valve (510) and the input end of the first control valve (53). The output end of the first control valve (53) is fixedly connected to the water outlet pipe (51), the first control valve (53), and the liquid drain pipe (54) respectively. The water outlet pipe (51) is connected to the cooling pipe of the medical laser equipment. The sewage pipe (52) is fixedly connected to the waste liquid collection tank. The first control valve (53) is connected to the hospital's dedicated wastewater network.

9. The medical laser cooling device according to claim 8, characterized in that, The second connecting pipe (59) and the fourth control valve (63) are two-inlet and one-outlet control valves.

10. The medical laser cooling device according to claim 9, characterized in that, The third control valve (510) is a one-inlet, two-outlet control valve.

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