Temperature control simulation device

Abstract

This utility model belongs to the field of high-end medical device technology and discloses a temperature control simulation device, which includes a first simulation component, a second simulation component, and a third simulation component. The first simulation component includes a first tube and a first heating element disposed on the first tube. The first heating element is used to simulate the heat generated by the superconducting magnet compressor. The second simulation component includes a second tube and a second heating element disposed on the second tube. The second heating element is used to simulate the heat generated by the inner conductor, outer conductor, rotating capacitor, magnet power supply system, and scanning magnet of the radio frequency system. The third simulation component includes a third tube and a third heating element disposed on the third tube. The third heating element is used to simulate the heat generated by the amplifier of the radio frequency system. The temperature control simulation device provided by this utility model can be connected to the water-cooling subsystem of a proton accelerator to accurately simulate the heat generated by the above-mentioned components during operation, accelerate the debugging efficiency of the water-cooling subsystem, and avoid damage to the heating components to be connected during the debugging stage.

Description

Technical Field

[0001] This utility model relates to the field of high-end medical device technology, and in particular to a temperature control simulation device. Background Technology

[0002] During operation, key components of a proton accelerator, such as the magnets and radio frequency cavity, generate a significant amount of heat. Failure to dissipate this heat in a timely manner can lead to overheating, affecting performance and even causing damage. Therefore, a water-cooling system is necessary, using circulating cooling water to ensure the equipment operates at a suitable temperature.

[0003] Specifically, the water-cooling system first consists of a subsystem composed of components such as a heat exchanger and a water container. Then, corresponding heat-generating components are connected, such as a superconducting magnet compressor, the inner conductor and outer conductor of the radio frequency (RF) system, the rotating capacitor of the RF system, the magnet power supply system, the scanning magnet, and the RF system amplifier, along with matching connecting pipes and valves, ultimately forming a complete water-cooling system. During operation, the water-cooling system requires cooling these components. In existing technologies, when the water-cooling system is in a subsystem state without the aforementioned heat-generating components connected, it is impossible to debug critical components such as the heat exchanger; debugging can only begin after the entire system is fully installed, impacting debugging and production efficiency. Utility Model Content

[0004] The purpose of this invention is to provide a temperature control simulation device that can be connected to the water cooling subsystem of a proton accelerator, thereby accelerating the debugging efficiency of the water cooling subsystem and avoiding damage to the heat-generating components to be connected during the debugging phase.

[0005] To achieve this objective, the present invention adopts the following technical solution:

[0006] A temperature control simulation device is used to connect to the water-cooling subsystem of a proton accelerator. The water-cooling subsystem includes a first heat exchanger, a second heat exchanger, and a third heat exchanger. The first heat exchanger has a first inlet and a first outlet connected to each other, as well as a second inlet and a second outlet connected to each other. The second heat exchanger has a third inlet and a third outlet connected to each other, as well as a fourth inlet and a fourth outlet connected to each other. The third heat exchanger has a fifth inlet and a fifth outlet connected to each other, as well as a sixth inlet and a sixth outlet connected to each other. The temperature control simulation device includes:

[0007] The first simulation component includes a first tube and a first heating element disposed on the first tube. The first heating element is used to simulate the heat generated by the superconducting magnet compressor. The two ends of the first tube are respectively connected to the first water outlet and the second water inlet.

[0008] The second simulation component includes a second tube and a second heating element disposed on the second tube. The second heating element is used to simulate the heat generated by the inner conductor of the radio frequency system, the outer conductor of the radio frequency system, the rotating capacitor of the radio frequency system, the magnet power supply system, and the scanning magnet. The two ends of the second tube are respectively connected to the third water outlet and the fourth water inlet.

[0009] The third simulation component includes a third tube and a third heating element disposed on the third tube. The third heating element is used to simulate the heat generated by the radio frequency system amplifier. The two ends of the third tube are respectively connected to the fifth water outlet and the sixth water inlet.

[0010] An interactive operation area is used to communicate with the first heating element, the second heating element, and the third heating element. The interactive operation area is used to input the heating time and heating temperature of the first heating element, the second heating element, and the third heating element. The heat output of the first heating element exceeds the heat output of the second heating element and the heat output of the third heating element.

[0011] Preferably, the first pipe is provided with a first flow detection element and a first pressure detection element, and the first pipe is provided with a first temperature measuring element and a second temperature measuring element on the water inlet side and the water outlet side of the first heating element, respectively.

[0012] The second pipe is equipped with a second flow detection element and a second pressure detection element, and the second pipe is equipped with a third temperature measuring element and a fourth temperature measuring element on the water inlet side and the water outlet side of the second heating element, respectively.

[0013] The third pipe is equipped with a third flow detection element and a third pressure detection element, and the third pipe is equipped with a fifth temperature measuring element and a sixth temperature measuring element on the water inlet side and the water outlet side of the third heating element, respectively.

[0014] Preferably, the first flow detection element, the second flow detection element, and the third flow detection element are each configured as a flow switch.

[0015] Preferably, the first pressure sensing element, the second pressure sensing element, and the third pressure sensing element are each configured as a pressure gauge.

[0016] Preferably, the first temperature measuring element, the second temperature measuring element, the third temperature measuring element, the fourth temperature measuring element, the fifth temperature measuring element, and the sixth temperature measuring element are respectively configured as temperature measuring probes.

[0017] Preferably, it also includes:

[0018] The housing contains the first simulation component, the second simulation component, and the third simulation component, with both ends of the first tube, the second tube, and the third tube extending out of the housing.

[0019] The display screen is mounted on the housing; wherein,

[0020] The flow data detected by the first flow detector, the second flow detector, and the third flow detector can be displayed on the display screen;

[0021] The pressure data detected by the first pressure detection element, the second pressure detection element, and the third pressure detection element can be displayed on the display screen;

[0022] The temperature data detected by the first temperature measuring element, the second temperature measuring element, the third temperature measuring element, the fourth temperature measuring element, the fifth temperature measuring element, and the sixth temperature measuring element can be displayed on the display screen.

[0023] Preferably, the interactive operation area is located on the display screen.

[0024] Preferably, the bottom of the housing is provided with multiple omnidirectional casters.

[0025] Preferably, the first pipe has a first inlet end and a first outlet end, the first inlet end being connected to the first outlet end and the first outlet end being connected to the second inlet end, the first inlet end being provided with a first valve and the first outlet end being provided with a second valve; the second pipe has a second inlet end and a second outlet end, the second inlet end being connected to the third outlet end and the second outlet end being connected to the fourth inlet end, the second inlet end being provided with a third valve and the second outlet end being provided with a fourth valve; the third pipe has a third inlet end and a third outlet end, the third inlet end being connected to the fifth outlet end and the third outlet end being connected to the sixth inlet end, the third inlet end being provided with a fifth valve and the third outlet end being provided with a sixth valve.

[0026] Preferably, the first heating element, the second heating element, and the third heating element are all configured as heating tubes.

[0027] Beneficial effects:

[0028] The temperature control simulation device provided by this utility model can be connected to the water-cooling subsystem of a proton accelerator. Specifically, the water-cooling subsystem includes a first heat exchanger, a second heat exchanger, and a third heat exchanger, as well as a water container. The first heat exchanger has a first inlet, a first outlet, a second inlet, and a second outlet; the second heat exchanger has a third inlet, a third outlet, a fourth inlet, and a fourth outlet; and the third heat exchanger has a fifth inlet, a fifth outlet, a sixth inlet, and a sixth outlet. The first inlet is connected to the first outlet, the second inlet is connected to the second outlet, the third inlet is connected to the third outlet, the fourth inlet is connected to the fourth outlet, the fifth inlet is connected to the fifth outlet, and the sixth inlet is connected to the sixth outlet. The first, third, and fifth inlets are all connected to the main inlet of the water container, and the second, fourth, and sixth outlets are all connected to the main outlet of the water container. The first pipe is connected to the first outlet and the second inlet at its two ends, forming a first closed-loop water circuit between the water container, the first heat exchanger, and the first pipe. The second pipe is connected to the third outlet and the fourth inlet at its two ends, forming a second closed-loop water circuit between the water container, the second heat exchanger, and the second pipe. The third pipe is connected to the fifth outlet and the sixth inlet at its two ends, forming a third closed-loop water circuit between the water container, the third heat exchanger, and the third pipe.

[0029] When the temperature control simulation device is working, the cooling water in the water container flows out from its main outlet in three parts. The first part of the cooling water flows sequentially through the first inlet, the first outlet, the first pipe, the second inlet, and the second outlet. The second part of the cooling water flows sequentially through the third inlet, the third outlet, the second pipe, the fourth inlet, and the fourth outlet. The third part of the cooling water flows sequentially through the fifth inlet, the fifth outlet, the third pipe, the sixth inlet, and the sixth outlet. After flowing out from the second, fourth, and sixth outlets, the three parts of cooling water merge and flow back into the water container through the main inlet.

[0030] The first heating element generates heat corresponding to the heat generated by the simulated superconducting magnet compressor during operation. It exchanges heat with the cooling water in the first tube. The cooling water carrying heat flows through the first heat exchanger, adjusting its heat exchange efficiency. The second heating element generates heat corresponding to the heat generated by the simulated inner conductor, outer conductor, rotating capacitor, magnet power system, and scanning magnet during operation. It exchanges heat with the cooling water in the second tube. The cooling water carrying heat flows through the second heat exchanger, adjusting its heat exchange efficiency. The third heating element generates heat corresponding to the heat generated by the simulated RF system amplifier during operation. It exchanges heat with the cooling water in the third tube. The cooling water carrying heat flows through the third heat exchanger, adjusting its heat exchange efficiency. Using this temperature control simulation device, the water-cooling subsystem of a proton accelerator can be connected. The interactive operation area inputs the heating time and heating temperature of the first heating element, the second heating element, and the third heating element. The heat output of the first heating element exceeds that of the second and third heating elements, which more accurately simulates the conditions faced by the water-cooling subsystem during actual operation, speeds up the debugging efficiency of the water-cooling subsystem, and avoids damage to the heating components to be connected during the debugging phase. Attached Figure Description

[0031] Figure 1 This is a schematic diagram of the temperature control simulation device provided by this utility model;

[0032] Figure 2 This is a schematic diagram of the temperature control simulation device provided by this utility model connected to the water cooling subsystem.

[0033] In the picture:

[0034] 11. First pipe; 111. First inlet; 112. First outlet; 12. First heating element; 13. First flow detection element; 14. First pressure detection element; 15. First temperature measuring element; 16. Second temperature measuring element; 17. First valve; 18. Second valve;

[0035] 21. Second pipe; 211. Second inlet; 212. Second outlet; 22. Second heating element; 23. Second flow detection element; 24. Second pressure detection element; 25. Third temperature measuring element; 26. Fourth temperature measuring element; 27. Third valve; 28. Fourth valve;

[0036] 31. Third pipe; 311. Third inlet; 312. Third outlet; 32. Third heating element; 33. Third flow detection element; 34. Third pressure detection element; 35. Fifth temperature measuring element; 36. Sixth temperature measuring element; 37. Fifth valve; 38. Sixth valve;

[0037] 4. Shell;

[0038] 5. Display screen;

[0039] 61. First heat exchanger; 611. First water inlet; 612. First water outlet; 613. Second water inlet; 614. Second water outlet; 62. Second heat exchanger; 621. Third water inlet; 622. Third water outlet; 623. Fourth water inlet; 624. Fourth water outlet; 63. Third heat exchanger; 631. Fifth water inlet; 632. Fifth water outlet; 633. Sixth water inlet; 634. Sixth water outlet;

[0040] 7. Water container. Detailed Implementation

[0041] The present invention will now be described in further detail with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present invention and not intended to limit it. Furthermore, it should be noted that, for ease of description, the accompanying drawings show only the parts relevant to the present invention, not the entire structure.

[0042] In the description of this utility model, unless otherwise explicitly specified and limited, the terms "connected," "linked," and "fixed" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral part; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components. Those skilled in the art can understand the specific meaning of the above terms in this utility model based on the specific circumstances.

[0043] In this invention, unless otherwise explicitly specified and limited, "above" or "below" the second feature can include direct contact between the first and second features, or contact between the first and second features through another feature between them. Furthermore, "above," "over," and "on top" of the second feature includes the first feature directly above or diagonally above the second feature, or simply indicates that the first feature is at a higher horizontal level than the second feature. "Below," "below," and "under" the second feature includes the first feature directly below or diagonally below the second feature, or simply indicates that the first feature is at a lower horizontal level than the second feature.

[0044] In the description of this embodiment, the terms "upper," "lower," "right," etc., refer to the orientation or positional relationship shown in the accompanying drawings. They are used only for ease of description and simplification of operation, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model. In addition, the terms "first" and "second" are only used for distinction in description and have no special meaning.

[0045] This embodiment provides a temperature control simulation device. (Refer to...) Figures 1 to 2 As shown, the temperature control simulation device is used to connect to the water-cooling subsystem of the proton accelerator. The water-cooling subsystem includes a first heat exchanger 61, a second heat exchanger 62, and a third heat exchanger 63. The first heat exchanger 61 has a first inlet 611 and a first outlet 612 connected to each other, as well as a second inlet 613 and a second outlet 614 connected to each other. The second heat exchanger 62 has a third inlet 621 and a third outlet 622 connected to each other, as well as a fourth inlet 623 and a fourth outlet 624 connected to each other. The third heat exchanger 63 has a fifth inlet 631 and a fifth outlet 632 connected to each other, as well as a sixth inlet 633 and a sixth outlet 634 connected to each other. The temperature control simulation device includes a first simulation component, a second simulation component, and a third simulation component. The first simulation component includes a first tube 11 and a first heating element 12 disposed on the first tube 11. The first heating element 12 is used to simulate the heat generated by the superconducting magnet compressor. The two ends of the first tube 11 are respectively connected to the first outlet 612 and the second inlet 613. The second simulation component includes a second tube 21 and a second heating element 22 disposed on the second tube 21. The second heating element 22 is used to simulate the heat generated by the inner conductor, outer conductor, rotating capacitor, magnet power supply system, and scanning magnet of the radio frequency system. The two ends of the second tube 21 are respectively connected to the third outlet 622 and the fourth inlet 623. The third simulation component includes a third tube 31 and a third heating element 32 disposed on the third tube 31. The third heating element 32 is used to simulate the heat generated by the amplifier of the radio frequency system. The two ends of the third tube 31 are respectively connected to the fifth outlet 632 and the sixth inlet 633.

[0046] In this embodiment, the first heat exchanger 61 corresponds to the heat absorption of the superconducting magnet compressor; the second heat exchanger 62 corresponds to the heat absorption of the inner conductor of the radio frequency system, the outer conductor of the radio frequency system, the rotating capacitor of the radio frequency system, the magnet power supply system, and the scanning magnet; and the third heat exchanger 63 corresponds to the heat absorption of the radio frequency system amplifier.

[0047] Specifically, the water-cooled subsystem includes a first heat exchanger 61, a second heat exchanger 62, and a third heat exchanger 63, as well as a water container 7. The first heat exchanger 61 has a first inlet 611, a first outlet 612, a second inlet 613, and a second outlet 614; the second heat exchanger 62 has a third inlet 621, a third outlet 622, a fourth inlet 623, and a fourth outlet 624; and the third heat exchanger 63 has a fifth inlet 631, a fifth outlet 632, a sixth inlet 633, and a sixth outlet 634. The first inlet 611 connects to the first outlet 612, the second inlet 613 connects to the second outlet 614, the third inlet 621 connects to the third outlet 622, the fourth inlet 623 connects to the fourth outlet 624, the fifth inlet 631 connects to the fifth outlet 632, and the sixth inlet 633 connects to the sixth outlet 634. The first inlet 611, the third inlet 621, and the fifth inlet 631 are all connected to the main inlet of the water container 7. The second outlet 614, the fourth outlet 624, and the sixth outlet 634 are all connected to the main outlet of the water container 7. The two ends of the first pipe 11 are connected to the first outlet 612 and the second inlet 613, respectively, forming a first closed-loop water circuit between the water container 7, the first heat exchanger 61, and the first pipe 11. The two ends of the second pipe 21 are connected to the third outlet 622 and the fourth inlet 623, respectively, forming a second closed-loop water circuit between the water container 7, the second heat exchanger 62, and the second pipe 21. The two ends of the third pipe 31 are connected to the fifth outlet 632 and the sixth inlet 633, respectively, forming a third closed-loop water circuit between the water container 7, the third heat exchanger 63, and the third pipe 31.

[0048] When the temperature control simulation device is working, the cooling water in water container 7 flows out from its main outlet and is divided into three parts. The first part of the cooling water flows sequentially through the first inlet 611, the first outlet 612, the first pipe 11, the second inlet 613, and the second outlet 614. The second part of the cooling water flows sequentially through the third inlet 621, the third outlet 622, the second pipe 21, the fourth inlet 623, and the fourth outlet 624. The third part of the cooling water flows sequentially through the fifth inlet 631, the fifth outlet 632, the third pipe 31, the sixth inlet 633, and the sixth outlet 634. After flowing out from the second outlet 614, the fourth outlet 624, and the sixth outlet 634, the three parts of cooling water merge and flow back into water container 7 through the main inlet.

[0049] The first heating element 12 generates heat corresponding to the heat generated by the simulated superconducting magnet compressor during operation. The first heating element 12 can exchange heat with the cooling water in the first pipe 11. The cooling water carrying heat flows through the first heat exchanger 61, adjusting the heat exchange efficiency of the first heat exchanger 61. The second heating element 22 generates heat corresponding to the heat generated by the simulated inner conductor, outer conductor, rotating capacitor, magnet power system, and scanning magnet during operation. The second heating element 22 can exchange heat with the cooling water in the second pipe 21. The cooling water carrying heat flows through the second heat exchanger 62, adjusting the heat exchange efficiency of the second heat exchanger 62. The third heating element 32 generates heat corresponding to the heat generated by the simulated RF system amplifier during operation. The third heating element 32 can exchange heat with the cooling water in the third pipe 31. The cooling water carrying heat flows through the third heat exchanger 63, adjusting the heat exchange efficiency of the third heat exchanger 63. Using this temperature control simulation device, the water-cooling subsystem of the proton accelerator can be connected, which can speed up the commissioning efficiency of the water-cooling subsystem and avoid damage to the heat-generating components to be connected during the commissioning phase.

[0050] For example, the first heating element 12, the second heating element 22, and the third heating element 32 are all configured as heating tubes. A heating tube is a tubular electrothermal element specifically designed to convert electrical energy into heat energy. A heating tube typically consists of a metal tube (such as stainless steel or copper), a spiral resistance wire (such as nickel-chromium or iron-chromium alloy wire), and a filler with good thermal conductivity and insulation properties (such as crystalline magnesium oxide powder). The resistance wire is uniformly distributed inside the metal tube. When current passes through the resistance wire, the generated heat diffuses to the surface of the metal tube and is ultimately transferred to the cooling water.

[0051] In this embodiment, the first pipe 11 is provided with a first flow detection element 13 and a first pressure detection element 14, and the first pipe 11 is provided with a first temperature measuring element 15 and a second temperature measuring element 16 on the water inlet side and the water outlet side of the first heating element 12, respectively; the second pipe 21 is provided with a second flow detection element 23 and a second pressure detection element 24, and the second pipe 21 is provided with a third temperature measuring element 25 and a fourth temperature measuring element 26 on the water inlet side and the water outlet side of the second heating element 22, respectively; the third pipe 31 is provided with a third flow detection element 33 and a third pressure detection element 34, and the third pipe 31 is provided with a fifth temperature measuring element 35 and a sixth temperature measuring element 36 on the water inlet side and the water outlet side of the third heating element 32, respectively.

[0052] Specifically, the first flow rate detector 13 is used to detect the cooling water flow rate in the first pipe 11 in real time. The first pressure detector 14 is used to detect the cooling water pressure in the first pipe 11 in real time. The second flow rate detector 23 is used to detect the cooling water flow rate in the second pipe 21 in real time. The second pressure detector 24 is used to detect the cooling water pressure in the second pipe 21 in real time. The third flow rate detector 33 is used to detect the cooling water flow rate in the third pipe 31 in real time. The third pressure detector 34 is used to detect the cooling water pressure in the third pipe 31 in real time.

[0053] For example, the first flow detection element 13, the second flow detection element 23, and the third flow detection element 33 are respectively configured as flow switches. A flow switch is a device used to monitor and control the flow rate of fluids in pipelines, mainly used in pipelines carrying media such as water, gas, and oil. When the flow rate of the medium reaches or exceeds a set value, the flow switch will trigger an alarm system and send a signal to the control unit. After receiving the signal, the control unit will issue corresponding instructions to shut down or start the operation of the system, thereby achieving the function of flow control.

[0054] This embodiment is not limited to this. In addition to being configured as a flow switch, the first flow detection element 13, the second flow detection element 23 and the third flow detection element 33 can also be configured as a Venturi flow meter, a rotor flow meter, an electromagnetic flow meter, etc.

[0055] For example, the first pressure detection element 14, the second pressure detection element 24, and the third pressure detection element 34 are respectively configured as pressure gauges. This embodiment is not limited thereto, and the first pressure detection element 14, the second pressure detection element 24, and the third pressure detection element 34 can also be configured as U-shaped pressure gauges, differential pressure gauges, etc.

[0056] Specifically, the first temperature measuring element 15 and the second temperature measuring element 16 are used to detect the cooling water temperature in the first pipe 11 at the inlet and outlet sides of the first heating element 12, respectively. The third temperature measuring element 25 and the fourth temperature measuring element 26 are used to detect the cooling water temperature in the second pipe 21 at the inlet and outlet sides of the second heating element 22, respectively. The fifth temperature measuring element 35 and the sixth temperature measuring element 36 are used to detect the cooling water temperature in the third pipe 31 at the inlet and outlet sides of the third heating element 32, respectively.

[0057] For example, the first temperature measuring element 15, the second temperature measuring element 16, the third temperature measuring element 25, the fourth temperature measuring element 26, the fifth temperature measuring element 35, and the sixth temperature measuring element 36 are respectively configured as temperature probes. A temperature probe is a sensor that can sense temperature and convert it into a usable output signal; it is the core component of a temperature measuring instrument. The temperature probe is located at the top of a specific device and typically uses a fast miniature thermocouple, realizing the conversion of a non-electrical signal (temperature) into an electrical signal.

[0058] This embodiment is not limited thereto. In addition to being configured as temperature probes, the first temperature measuring element 15, the second temperature measuring element 16, the third temperature measuring element 25, the fourth temperature measuring element 26, the fifth temperature measuring element 35, and the sixth temperature measuring element 36 can also be configured as semiconductor temperature sensors, thermistors, etc.

[0059] Specifically, in this embodiment, the first pipe 11 has a first inlet end 111 and a first outlet end 112. The first inlet end 111 is connected to the first outlet 612, and the first outlet end 112 is connected to the second inlet 613. The first inlet end 111 is provided with a first valve 17, and the first outlet end 112 is provided with a second valve 18. The second pipe 21 has a second inlet end 211 and a second outlet end 212. The second inlet end 211 is connected to the third outlet 622, and the second outlet end 212 is connected to the fourth inlet 623. The second inlet end 211 is provided with a third valve 27, and the second outlet end 212 is provided with a fourth valve 28. The third pipe 31 has a third inlet end 311 and a third outlet end 312. The third inlet end 311 is connected to the fifth outlet 632, and the third outlet end 312 is connected to the sixth inlet 633. The third inlet end 311 is provided with a fifth valve 37, and the third outlet end 312 is provided with a sixth valve 38. Specifically, the opening of the first inlet 111 can be adjusted by the first valve 17, the opening of the first outlet 112 can be adjusted by the second valve 18, the opening of the second inlet 211 can be adjusted by the third valve 27, the opening of the second outlet 212 can be adjusted by the fourth valve 28, the opening of the third inlet 311 can be adjusted by the fifth valve 37, and the opening of the third outlet 312 can be adjusted by the sixth valve 38.

[0060] For example, the first valve 17, the second valve 18, the third valve 27, the fourth valve 28, the fifth valve 37 and the sixth valve 38 can be configured as solenoid valves, so that control and corresponding execution can be performed quickly.

[0061] In this embodiment, the temperature control simulation device further includes a housing 4 and a display screen 5. Specifically, the first simulation component, the second simulation component, and the third simulation component are all disposed within the housing 4, and both ends of the first tube 11, both ends of the second tube 21, and both ends of the third tube 31 extend out of the housing 4. Specifically, the two ends of the first tube 11 are a first water inlet 111 and a first water outlet 112, respectively, and the first water inlet 111 and the first water outlet 112 extend out of the housing 4 to connect to the first water outlet 612 and the second water inlet 613, respectively. The two ends of the second tube 21 are a second water inlet 211 and a second water outlet 212, respectively, and the second water inlet 211 and the second water outlet 212 extend out of the housing 4 to connect to the third water outlet 622 and the fourth water inlet 623, respectively. The two ends of the third pipe 31 are the third inlet end 311 and the third outlet end 312, respectively. The third inlet end 311 and the third outlet end 312 extend out of the housing 4 so as to be connected to the fifth outlet 632 and the sixth inlet end 633, respectively.

[0062] In this embodiment, the display screen 5 is disposed on the housing 4. The flow data detected by the first flow detection element 13, the second flow detection element 23 and the third flow detection element 33 can be displayed on the display screen 5. The pressure data detected by the first pressure detection element 14, the second pressure detection element 24 and the third pressure detection element 34 can be displayed on the display screen 5. The temperature data detected by the first temperature measuring element 15, the second temperature measuring element 16, the third temperature measuring element 25, the fourth temperature measuring element 26, the fifth temperature measuring element 35 and the sixth temperature measuring element 36 can be displayed on the display screen 5.

[0063] Specifically, display screen 5 can be connected to an HMI (Human Machine Interface). Display screen 5 is part of the HMI's hardware. An HMI typically consists of both hardware and software. The hardware includes a processor, display screen 5, input units (such as a touchscreen, keyboard, mouse, etc.), communication interfaces, and data storage units. The software provides a graphical interface and interactive functions, enabling users to interact with the machine graphically to perform control, monitoring, and operation functions.

[0064] In this embodiment, the display screen 5 can display the flow data detected by the first flow detection element 13, the second flow detection element 23 and the third flow detection element 33, the pressure data detected by the first pressure detection element 14, the second pressure detection element 24 and the third pressure detection element 34, and the temperature data detected by the first temperature measuring element 15, the second temperature measuring element 16, the third temperature measuring element 25, the fourth temperature measuring element 26, the fifth temperature measuring element 35 and the sixth temperature measuring element 36.

[0065] Furthermore, the display screen 5 has an interactive operation area, which is communicatively connected to the first heating element 12, the second heating element 22, and the third heating element 32. The interactive operation area allows input of the heating time and temperature of the first heating element 12, the second heating element 22, and the third heating element 32, accurately simulating the actual heating time and temperature of the simulated object during operation. This ensures that the heat output of the first heating element exceeds that of the second and third heating elements, more accurately simulating the conditions faced by the water-cooling subsystem during actual operation, accelerating the debugging efficiency of the water-cooling subsystem, and avoiding damage to the heat-generating components that require cooling during debugging. The simulated objects include the aforementioned superconducting magnet compressor, the inner conductor of the radio frequency system, the outer conductor of the radio frequency system, the rotating capacitor of the radio frequency system, the magnet power supply system, the scanning magnet, and the radio frequency system amplifier, etc.

[0066] For example, the bottom of the housing 4 is provided with multiple omnidirectional casters. The omnidirectional casters facilitate the convenient and quick movement of the entire temperature control simulation device.

[0067] By way of example, the use of the temperature control simulation device is described below with reference to an alternative implementation.

[0068] The table below shows the operating parameters of the first heating element 12, the second heating element 22, and the third heating element 32.

[0069] Power dissipation (kW) Work cycle Temperature (°C) Traffic (gpm) Pressure drop (psi) First heating element 32.1 continued 36 8 20 Second heating element 12.5 50％ 26 14.5 18 Third heating element 15 50％ 26 10 20

[0070] The first inlet 111 is connected to the first outlet 612, the first outlet 112 is connected to the second inlet 613, the second inlet 211 is connected to the third outlet 622, the second outlet 212 is connected to the fourth inlet 623, the third inlet 311 is connected to the fifth outlet 632, and the third outlet 312 is connected to the sixth inlet 633. This forms a first closed-loop water circuit between the water container 7, the first heat exchanger 61, and the first pipe 11; a second closed-loop water circuit between the water container 7, the second heat exchanger 62, and the second pipe 21; and a third closed-loop water circuit between the water container 7, the third heat exchanger 63, and the third pipe 31.

[0071] The HMI (Hydraulic Interface) allows for real-time monitoring of the flow rate and pressure of cooling water in the first pipe 11, the second pipe 21, and the third pipe 31. It also monitors the cooling water temperature in the first pipe 11 (inlet and outlet sides of the first heating element 12), the second pipe 21 (inlet and outlet sides of the second heating element 22), and the third pipe 31 (inlet and outlet sides of the third heating element 32). By analyzing the proton accelerator's temperature curve, the system simulates the heat, water pressure, and flow conditions generated by the proton accelerator under standby and high-intensity beam output conditions. Simultaneously, the HMI adjusts the flow rate in the first pipe 11 in real-time. This method can verify whether the entire water-cooling subsystem can provide normal cooling after being connected to the entire proton system, and whether its cooling capacity, water flow rate, and water pressure meet the standards.

[0072] For example, the first heat exchanger 61, the second heat exchanger 62, and the third heat exchanger 63 are started, and the target display temperature of the first heat exchanger 61, the second heat exchanger 62, and the third heat exchanger 63 is set to 20℃. After the actual temperature displayed by the first heat exchanger 61, the second heat exchanger 62, and the third heat exchanger 63 stabilizes at 20℃, the temperature control simulation device is turned on. The first heating element 12, the second heating element 22, and the third heating element 32 start to work at full power. The temperature control simulation device outputs hot water. As the hot water enters each water tank, the actual temperature displayed by the first heat exchanger 61, the second heat exchanger 62, and the third heat exchanger 63 rises synchronously. The actuator valves of the first heat exchanger 61, the second heat exchanger 62, and the third heat exchanger 63 open wide, and a large amount of primary-side process cold water enters. Once the water temperature on the outlet side reaches the set value, the temperature control simulation device enters a stable heating state. At this time, the actuator valves of the first heat exchanger 61, the second heat exchanger 62, and the third heat exchanger 63 will open slightly and enter a stable state. After a few minutes, it is confirmed that the actual temperature of the first heat exchanger 61, the second heat exchanger 62, and the third heat exchanger 63 is stable at 20℃.

[0073] Obviously, the above embodiments of this utility model are merely examples for clearly illustrating the present utility model, and are not intended to limit the implementation of the present utility model. Those skilled in the art can make various obvious changes, readjustments, and substitutions without departing from the protection scope of this utility model. It is neither necessary nor possible to exhaustively describe all embodiments here. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of this utility model should be included within the protection scope of the claims of this utility model.

Claims

1. A temperature control simulation device for connecting a water-cooled subsystem of a proton accelerator, the water-cooled subsystem comprising a first heat exchanger (61), a second heat exchanger (62) and a third heat exchanger (63), the first heat exchanger (61) having a first water inlet (611) and a first water outlet (612) connected in communication and a second water inlet (613) and a second water outlet (614) connected in communication; the second heat exchanger (62) having a third water inlet (621) and a third water outlet (622) connected in communication and a fourth water inlet (623) and a fourth water outlet (624) connected in communication; the third heat exchanger (63) having a fifth water inlet (631) and a fifth water outlet (632) connected in communication and a sixth water inlet (633) and a sixth water outlet (634) connected in communication; characterized in that, The temperature control simulation device includes: The first simulation component includes a first tube (11) and a first heating element (12) disposed on the first tube (11). The first heating element (12) is used to simulate the heat generated by the superconducting magnet compressor. The two ends of the first tube (11) are used to connect the first water outlet (612) and the second water inlet (613) respectively. The second simulation component includes a second tube (21) and a second heating element (22) disposed on the second tube (21). The second heating element (22) is used to simulate the heat generated by the inner conductor of the radio frequency system, the outer conductor of the radio frequency system, the rotating capacitor of the radio frequency system, the magnet power supply system, and the scanning magnet. The two ends of the second tube (21) are used to connect the third outlet (622) and the fourth inlet (623) respectively. The third simulation component includes a third tube (31) and a third heating element (32) disposed on the third tube (31). The third heating element (32) is used to simulate the heat generated by the radio frequency system amplifier. The two ends of the third tube (31) are used to connect the fifth outlet (632) and the sixth inlet (633) respectively. An interactive operation area is used to communicate with the first heating element (12), the second heating element (22) and the third heating element (32). The interactive operation area is used to input the heating time and temperature of the first heating element (12), the second heating element (22) and the third heating element (32). The heat output of the first heating element exceeds the heat output of the second heating element and the heat output of the third heating element.

2. The temperature control simulation device according to claim 1, characterized in that, The first tube (11) is provided with a first flow detection element (13) and a first pressure detection element (14). The first tube (11) is provided with a first temperature measuring element (15) and a second temperature measuring element (16) on the water inlet side and the water outlet side of the first heating element (12), respectively. The second pipe (21) is provided with a second flow detection element (23) and a second pressure detection element (24). The second pipe (21) is provided with a third temperature measuring element (25) and a fourth temperature measuring element (26) on the water inlet side and the water outlet side of the second heating element (22), respectively. The third pipe (31) is provided with a third flow detection element (33) and a third pressure detection element (34). The third pipe (31) is provided with a fifth temperature measuring element (35) and a sixth temperature measuring element (36) on the water inlet side and water outlet side of the third heating element (32), respectively.

3. The temperature control simulation device according to claim 2, characterized in that, The first flow detection element (13), the second flow detection element (23) and the third flow detection element (33) are respectively configured as flow switches.

4. The temperature control simulation device according to claim 2, characterized in that, The first pressure detection element (14), the second pressure detection element (24) and the third pressure detection element (34) are respectively configured as pressure gauges.

5. The temperature control simulation device according to claim 2, characterized in that, The first temperature measuring element (15), the second temperature measuring element (16), the third temperature measuring element (25), the fourth temperature measuring element (26), the fifth temperature measuring element (35), and the sixth temperature measuring element (36) are respectively configured as temperature measuring probes.

6. The temperature control simulation device according to claim 2, characterized in that, Also includes: The housing (4) contains the first simulation component, the second simulation component and the third simulation component. Both ends of the first tube (11), both ends of the second tube (21) and both ends of the third tube (31) extend out of the housing (4). The display screen (5) is disposed on the housing (4); wherein, The flow data detected by the first flow detection device (13), the second flow detection device (23) and the third flow detection device (33) can be displayed on the display screen (5); The pressure data detected by the first pressure detection element (14), the second pressure detection element (24), and the third pressure detection element (34) can be displayed on the display screen (5); The temperature data detected by the first temperature measuring element (15), the second temperature measuring element (16), the third temperature measuring element (25), the fourth temperature measuring element (26), the fifth temperature measuring element (35), and the sixth temperature measuring element (36) can be displayed on the display screen (5).

7. The temperature control simulation device according to claim 6, characterized in that, The interactive operation area is located on the display screen (5).

8. The temperature control simulation device according to claim 6, characterized in that, The bottom of the housing (4) is provided with multiple omnidirectional casters.

9. The temperature control simulation device according to claim 1, characterized in that, The first pipe (11) has a first inlet (111) and a first outlet (112). The first inlet (111) is connected to the first outlet (612), and the first outlet (112) is connected to the second inlet (613). The first inlet (111) is provided with a first valve (17), and the first outlet (112) is provided with a second valve (18). The second pipe (21) has a second inlet (211) and a second outlet (212). The second inlet (211) is connected to the third outlet (622), and the second outlet (112) is connected to the third outlet (622). The water end (212) is connected to the fourth water inlet (623), the second water inlet (211) is provided with a third valve (27), and the second water outlet (212) is provided with a fourth valve (28); the third pipe (31) has a third water inlet (311) and a third water outlet (312), the third water inlet (311) is connected to the fifth water outlet (632), the third water outlet (312) is connected to the sixth water inlet (633), the third water inlet (311) is provided with a fifth valve (37), and the third water outlet (312) is provided with a sixth valve (38).

10. The temperature control simulation device according to claim 1, characterized in that, The first heating element (12), the second heating element (22) and the third heating element (32) are all configured as heating tubes.

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