Method, system and readable storage medium for displaying a boronated dilution feed of a primary circuit

Abstract

This invention relates to a display method, system, and readable storage medium for primary loop dilution boration replenishment. The display method includes: acquiring pipeline status information and flow information of specific pipelines in the REA system from the DCS instrumentation and control system of a nuclear power plant; determining and recording the current active mode of the REA system based on the pipeline status information and the flow information; if the current active mode is one of automatic replenishment mode, manual replenishment mode, overhaul intermittent replenishment mode, normal boration mode, or dilution mode, then calculating the medium status at different locations in the dead section of the REA system in real time based on the current active mode and the corresponding pipeline flow information; and displaying the current active mode of the REA system and the medium status of the dead section. This technical solution reduces the need for additional hardware in the main control room, achieves online real-time accurate display of the medium status within the dead section, and effectively reduces the probability of human error.

Description

Technical Field

[0001] This invention relates to the field of nuclear power plant operation, and more particularly to a method, system, and readable storage medium for displaying primary loop dilution and boronization replenishment. Background Technology

[0002] Currently, nuclear power plants commonly use physical triangle markers to identify the media within the piping of the REA (Reactor Boron and Water Makeup) system. However, this method can only identify a single media state (water, boron, makeup), meaning only one triangle marker can be placed. When multiple liquids coexist in the piping, the nuclear power plant operator must record this information during shift handover. This human-intervention-required identification method has the following problems: 1. The triangle markers cannot fully represent the coexistence of multiple liquids in the piping; 2. Operators may forget to flip the marker due to work-related factors or memory lapses, or forget the handover record, thus causing human-caused incidents. Summary of the Invention

[0003] The technical problem to be solved by the present invention is to provide a display method, system and readable storage medium for one-loop dilution boronization replenishment, which addresses the above-mentioned defects in the prior art.

[0004] The technical solution adopted by this invention to solve its technical problem is: constructing a method for displaying the dilution and borylation supply in the primary loop of a nuclear power plant, comprising:

[0005] Step S10. Obtain pipeline status information and pipeline flow information of specific pipelines in the REA system from the DCS instrumentation and control system of the nuclear power plant, wherein the specific pipelines include boric acid pipelines, makeup water pipelines, direct borygating pipelines, and dead pipe sections;

[0006] Step S20. Determine and record the current active mode of the REA system based on the pipeline status information and the pipeline flow information. The modes include: automatic replenishment mode, manual replenishment mode, intermittent replenishment mode, overhaul intermittent replenishment mode, normal boronizing mode, direct boronizing mode, emergency boronizing mode, and dilution mode.

[0007] Step S30. If the current effective mode is one of automatic replenishment mode, manual replenishment mode, overhaul intermittent replenishment mode, normal borosilicate mode, or dilution mode, then calculate the medium state at different locations of the dead pipe section of the REA system in real time according to the current effective mode and the corresponding pipeline flow information.

[0008] Step S40. Display the current active mode of the REA system and the media status of the dead pipe section.

[0009] Preferably, in step S40, the medium state of the dead pipe section is displayed in the following manner:

[0010] Based on the medium state at different locations of the dead pipe section, the corresponding color is used to fill each cell of the scale on the display interface. The range of the scale represents the length of the dead pipe section, the starting end of the scale represents the inlet of the dead pipe section, the ending end of the scale represents the outlet of the dead pipe section, and the fill color of each cell of the scale represents the type of medium at the corresponding location of the dead pipe section.

[0011] Preferably, the scale has a range of 100L, and the smallest cell of the scale is 1L. The fill color of the cell includes: red representing the medium type of boron, green representing the medium type of water, and yellow representing the medium type of water-boron mixture.

[0012] Preferably, it further includes:

[0013] Step S50. Obtain instrument information and valve information of the REA system from the DCS instrumentation and control system of the nuclear power plant, and determine whether there is a fault in the REA system based on the instrument information and valve information;

[0014] Step S60. When a fault exists, output the fault information and determine whether the first control on the display interface has been triggered;

[0015] Step S70. When the first control is triggered, add failure indicators to the display area of ​​the effective mode and the display area of ​​the medium status of the display interface respectively.

[0016] Preferably, after step S70, the method further includes:

[0017] Step S80. Determine whether the fault in the REA system has been eliminated based on the instrument information and valve information;

[0018] Step S90. When the fault is cleared, determine whether the second control on the display interface is triggered, and remove the failure identifier when it is triggered.

[0019] Preferably, step S20 includes:

[0020] Step S21. Obtain the current pre-selected mode of the REA system from the DCS instrumentation and control system of the nuclear power plant;

[0021] Step S22. In the pre-selected mode, determine the current effective mode of the REA system based on the pipeline status information and pipeline flow information.

[0022] Preferably, in step S30, based on the current activation mode and the corresponding pipeline flow information, the medium state at different locations of the dead pipe section of the REA system is calculated in real time, including:

[0023] Using a pre-established propulsion model, the flow rates of water, boron, and water-boron mixture at various locations in the dead pipe section of the REA system are calculated in real time based on the current effective mode and the corresponding pipeline flow information.

[0024] Preferably, the pipeline status information of the specific pipeline includes: the status of the boric acid pump, the status of the makeup water pump, the status of the boric acid pipeline outlet valve, the status of the makeup water pipeline outlet valve, the status of the direct boration pipeline outlet valve, and the status of the valves on the dead pipe section.

[0025] The present invention also constructs a display system for the dilution and boronization supply of the primary loop of a nuclear power plant, including a processor and a memory storing a computer program. When the processor executes the computer program, it implements the steps of the above-described display method for the dilution and boronization supply of the primary loop of a nuclear power plant.

[0026] The present invention also constructs a readable storage medium storing a computer program, which, when executed by a processor, implements the steps of the above-described display method for the dilution and boronization replenishment of the primary loop of a nuclear power plant.

[0027] In the technical solution provided by this invention, the current effective mode of the REA system and the medium status of the dead pipe section can be displayed intuitively and accurately through automated processing. Compared with the existing method of using triangular signs, on the one hand, it reduces the additional hardware (triangular signs) arrangement in the main control room, and realizes online real-time accurate display of the medium status in the dead pipe section, improving the intuitiveness of the medium status in the REA pipeline; on the other hand, it avoids excessive reliance on manual intervention and handover, effectively reducing the probability of human error. Attached Figure Description

[0028] To more clearly illustrate the embodiments of the present invention, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort. In the drawings:

[0029] Figure 1 This is a flowchart of Embodiment 1 of the method for displaying the primary-loop dilution borylation supply of the present invention;

[0030] Figure 2 This is a partial piping diagram of the REA system;

[0031] Figure 3 This is a partial schematic diagram of the display interface in one embodiment of the present invention;

[0032] Figure 4 This is a partial schematic diagram of the display interface in another embodiment of the present invention. Detailed Implementation

[0033] 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 embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0034] Figure 1 This is a flowchart of a first embodiment of the display method for primary-loop dilution borylation supply of the present invention. The display method of this embodiment includes the following steps:

[0035] Step S10. Obtain pipeline status information and pipeline flow information of specific pipelines in the REA system from the DCS instrumentation and control system of the nuclear power plant, wherein the specific pipelines include boric acid pipelines, makeup water pipelines, direct borygating pipelines, and dead pipe sections;

[0036] Step S20. Determine and record the current active mode of the REA system based on the pipeline status information and the pipeline flow information. The modes include: automatic replenishment mode, manual replenishment mode, intermittent replenishment mode, overhaul intermittent replenishment mode, normal boronizing mode, direct boronizing mode, emergency boronizing mode, and dilution mode.

[0037] Step S30. If the current effective mode is one of automatic replenishment mode, manual replenishment mode, overhaul intermittent replenishment mode, normal borosilicate mode, or dilution mode, then calculate the medium state at different locations of the dead pipe section of the REA system in real time according to the current effective mode and the corresponding pipeline flow information.

[0038] In this step, it should be noted that because the intermittent supply mode, direct boronizing mode, and emergency boronizing mode do not change the state of the medium within the dead pipe section, it is not necessary to recalculate the medium state of the dead pipe section under these three modes. However, for the other five modes, the medium state at different locations within the dead pipe section must be calculated in real time according to the pipeline flow rate of the corresponding pipeline.

[0039] Step S40. Display the current active mode of the REA system and the media status of the dead pipe section.

[0040] This embodiment's technical solution fully leverages the convenience of DCS system logic calculations, implementing the triangular marker identification function through software. Simultaneously, to avoid errors in recording media status during handover, it allows for a clear and precise display of detailed pipeline patterns and the high-precision status of residual liquid in dead pipe sections on the DCS system's KIC screen. Compared to existing triangular marker identification methods, this not only expands the display from indicating only three modes to showing eight modes, enabling detailed display of the most recent replenishment status, but also reduces manual workload and the risk of human error. Furthermore, this display function is independent, does not affect existing logic and control functions, does not change any operator's habits, and does not introduce new risks.

[0041] In an optional embodiment, step S20 includes:

[0042] Step S21. Obtain the current pre-selected mode of the REA system from the DCS instrumentation and control system of the nuclear power plant;

[0043] Step S22. In the pre-selected mode, determine the current effective mode of the REA system based on the pipeline status information and pipeline flow information.

[0044] Furthermore, in step S20, it is first explained that in the REA system, such as Figure 2 As shown, the boric acid pipeline merges with the makeup water pipeline and flows into the dead section MN. Additionally, the makeup water pipeline has makeup water pumps 001PO and 002PO at its inlet; an outlet valve 015VD at its outlet; and a flow meter 010MD inside the makeup water pipeline. The boric acid pipeline has boric acid pumps 003PO and 004PO at its inlet; an outlet valve 065VB at its outlet; and a flow meter 059MD inside the boric acid pipeline. The direct borosilicate pipeline has an outlet valve 210VB at its outlet; and a flow meter 060MD inside the direct borosilicate pipeline. A valve 018VB is located on the dead section. Based on this, the pipeline status information for a specific pipeline includes: the status of the boric acid pumps, the status of the makeup water pumps, the status of the boric acid pipeline outlet valve, the status of the makeup water pipeline outlet valve, the status of the direct borosilicate pipeline outlet valve, and the status of the valves on the dead section. Flow information for specific pipelines includes: flow rate of the makeup water pipeline, flow rate of the boric acid pipeline, and flow rate of the direct borylation pipeline. Furthermore, the piping pattern of the REA system is determined according to the following methods:

[0045] 1. When the automatic replenishment mode is activated (i.e., the pre-selected mode is automatic replenishment mode), if there is a boric acid pump (003PO, 004PO) or a water replenishment pump (001PO, 002PO) running, and the flow rate of the water replenishment pipeline (detection data of 010MD) and the flow rate of the boric acid pipeline (detection data of 059MD) are present, that is, the pumps on the water replenishment and normal boric acid replenishment pipelines have been started and there is a flow rate of water replenishment and boric acid, the automatic replenishment mode will take effect. At this time, the current effective mode can be recorded as automatic replenishment mode.

[0046] 2. When the manual replenishment mode is engaged (i.e., the pre-selected mode is manual replenishment mode), if there is a boric acid pump (003PO, 004PO) or a water replenishment pump (001PO, 002PO) running, and the flow rate of the water replenishment pipeline (detection data of 010MD) and the flow rate of the boric acid pipeline (detection data of 059MD) are present, that is, the pumps on the water replenishment and normal boric acid replenishment pipelines have been started and there is a flow rate of water replenishment and boric acid, the manual replenishment mode is effective. At this time, the current effective mode can be recorded as manual replenishment mode.

[0047] 3. When the automatic replenishment mode is activated (i.e., the pre-selected mode is automatic replenishment mode), if the valve (018VB) on the dead pipe section is in manual mode and closed, and the outlet valve (015VD) of the replenishment water pipeline is in manual mode and closed, the replenishment water pumps (001PO, 002PO) are in manual mode and stopped, and at the same time, the valve (210VB) of the direct borate pipeline is open and there is boric acid flow (detection data of 060MD), then the current effective mode is determined to be intermittent replenishment mode and recorded.

[0048] 4. When the dilution mode is activated (i.e., the pre-selected mode is dilution mode), if the valve (065VB) of the boric acid pipeline is closed, the valve (210VB) of the direct borylation pipeline is closed, and the makeup water flow rate (detection data of 010MD) exists, the dilution mode is activated. At this time, the current activated mode can be recorded as dilution mode.

[0049] 5. When the normal borosilicate mode is activated (i.e., the pre-selected mode is normal borosilicate mode), if the valve (018VB) on the dead pipe section is open, the valve (065VB) on the boric acid pipeline is open, the valve (210VB) on the direct borosilicate pipeline is closed, and there is boric acid flow (detection data of 059MD), the normal borosilicate mode will take effect. At this time, the current effective mode can be recorded as normal borosilicate mode.

[0050] 6. When the automatic replenishment mode is activated (i.e., the pre-selected mode is automatic replenishment mode), if the valve (018VB) on the dead pipe section is closed, the valve (065VB) on the boric acid pipeline is open, the valve (210VB) on the direct boration pipeline is closed, and at the same time, one of the boric acid pumps (003PO, 004PO) is in manual mode and running, and there is boric acid flow (detection data of 059MD), then the current effective mode is determined to be the emergency boration mode, and recorded.

[0051] 7. If the valve (065VB) of the boric acid pipeline is closed, the valve (210VB) of the direct boration pipeline is open, one of the boric acid pumps (003PO, 004PO) is in manual mode and running, and there is boric acid flow (detection data of 060MD), then the current effective mode is determined to be the direct boration mode, and recorded.

[0052] 8. When the automatic replenishment mode is activated (i.e., the pre-selected mode is automatic replenishment mode), if the outlet valve (015VD) of the replenishment water pipeline is in manual mode and closed, the two replenishment pumps (001PO and 002PO) are both in manual mode and stopped, the valve (210VB) of the direct borate pipeline is closed, and there is boric acid flow (detection data of REA059MD), the current effective mode is determined to be the overhaul intermittent replenishment mode, and recorded.

[0053] In an optional embodiment, in step S30, the medium state at different locations of the dead pipe section of the REA system is calculated as follows: using a pre-established propulsion model, based on the current effective mode and the corresponding pipeline flow information, the flow rates of water, boron, and water-boron mixture at each location of the dead pipe section of the REA system are calculated in real time. Furthermore, it should be noted that the algorithm of the propulsion model is as follows: the flow rates are statistically analyzed for the three cases of boron, water, and water-boron mixture. If data is available, the real-time value is obtained by subtracting the previous statistical data from the previous data. This real-time value is then combined with the old dimension data in the 100-dimensional array and updated using the overall forward shift method in the 100-dimensional array. This update is then used to achieve real-time filling of the cell color for the 100L dead pipe section in step S40.

[0054] In an optional embodiment, in step S40, the medium status of the dead pipe segment is displayed as follows: according to the medium status at different locations of the dead pipe segment, each cell of the scale on the display interface is filled with a corresponding color, wherein the range of the scale represents the length of the dead pipe segment, the starting end of the scale represents the inlet of the dead pipe segment, the ending end of the scale represents the outlet of the dead pipe segment, and the fill color of each cell of the scale represents the type of medium at the corresponding location of the dead pipe segment.

[0055] In one specific embodiment, combined with Figure 3 Area Q1 displays the medium status, and area Q2 displays the active mode. Within area Q1, a scale is used to display the medium status of the dead section. The scale range is 100L; the smallest cell is 1L; and the cell fill colors include red, green, and yellow, with red representing boron, green representing water, and yellow representing a water-boron mixture. Therefore, the precise propulsion effect and residual liquid status of the 100L dead section of the REA can be displayed in real time.

[0056] Furthermore, in an optional embodiment, the method for displaying the dilution and boronization replenishment of the primary loop in a nuclear power plant according to the present invention further includes:

[0057] Step S50. Obtain instrument information and valve information of the REA system from the DCS instrumentation and control system of the nuclear power plant, and determine whether there is a fault in the REA system based on the instrument information and valve information;

[0058] Step S60. When a fault exists, output fault information and determine whether the first control on the display interface has been triggered. The first control is as follows: Figure 2 As shown in K1;

[0059] Step S70. When the first control is triggered, add failure indicators to the display area of ​​the effective mode and the display area of ​​the medium status of the display interface respectively.

[0060] In this embodiment, when the first control is triggered, such as Figure 4 As shown, areas Q1 (display area for media status) and Q2 (display area for active mode) are marked with a failure symbol “×”. When the user sees the failure symbol, he / she can confirm that the currently displayed active mode and media status of the dead pipe section are inaccurate.

[0061] Furthermore, after step S70, the following steps are also included:

[0062] Step S80. Determine whether the fault in the REA system has been eliminated based on the instrument information and valve information;

[0063] Step S90. When the fault is cleared, determine whether the second control on the display interface is triggered, and if triggered, remove the fault identifier. Preferably, as follows: Figure 3 , 4 As shown, the second control and the first control can be combined into one control, and different colors of the controls can be used to distinguish whether the current display mode is normal or display failure mode.

[0064] In this embodiment, considering the abnormal judgment of the REA pipeline mode and the residual liquid status in the REA dead pipe section due to instrument or valve failure, the operator can manually exit the pipeline mode and the display of the medium status in the dead pipe section through the first control, achieving the effect of failure display. After the fault is eliminated, the operator can manually re-enable the display of the pipeline mode and the medium status in the dead pipe section through the second control.

[0065] The present invention also constructs a display system for the dilution and boronization supply of the primary loop of a nuclear power plant. The display system includes a processor and a memory storing a computer program. When the processor executes the computer program, it implements the steps of the above-described display method for the dilution and boronization supply of the primary loop of a nuclear power plant.

[0066] The present invention also constructs a readable storage medium storing a computer program, which, when executed by a processor, implements the steps of the above-described display method for the dilution and boronization replenishment of the primary loop of a nuclear power plant.

[0067] The above description is merely a preferred embodiment of the present invention and is not intended to limit the invention. Various modifications and variations can be made to the present invention by those skilled in the art. Any alterations, equivalent substitutions, or improvements made within the spirit and principles of the present invention should be included within the scope of the claims of the present invention.

Claims

1. A method for displaying a primary-loop dilution borylation supply, characterized in that, include: Step S10. Obtain pipeline status information and pipeline flow information of specific pipelines in the REA system from the DCS instrumentation and control system of the nuclear power plant. The specific pipelines include boric acid pipelines, makeup water pipelines, direct boration pipelines, and dead pipe sections. The boric acid pipeline, makeup water pipeline, and direct boration pipeline merge and flow into the dead pipe section. The pipeline flow information of the specific pipelines includes the flow rate of the makeup water pipeline, the flow rate of the boric acid pipeline, and the flow rate of the direct boration pipeline. The makeup water pipeline has two makeup water pumps at its inlet and an outlet valve at its outlet, and a flow meter inside the makeup water pipeline. The boric acid pipeline has two boric acid pumps at its inlet and an outlet valve at its outlet, and a flow meter inside the boric acid pipeline. The direct boration pipeline has an outlet valve at its outlet and a flow meter inside the direct boration pipeline. A valve is installed on the dead pipe section. Step S20. Determine and record the current active mode of the REA system based on the pipeline status information and the pipeline flow information. The modes include: automatic replenishment mode, manual replenishment mode, intermittent replenishment mode, overhaul intermittent replenishment mode, normal boronizing mode, direct boronizing mode, emergency boronizing mode, and dilution mode. Step S30. If the current effective mode is one of automatic replenishment mode, manual replenishment mode, overhaul intermittent replenishment mode, normal boronizing mode, or dilution mode, then a pre-established propulsion model is used. Based on the current effective mode and the pipeline flow information of the corresponding pipeline, the flow rates of water, boron, and water-boron mixture at each location of the dead pipe section of the REA system are calculated in real time. The algorithm of the propulsion model is as follows: the flow rates are statistically analyzed according to the three cases of boron, water, and water-boron mixture. If there is data, the real-time value is obtained by subtracting the current statistical data from the previous statistical data, and the data is updated by using the overall numerical forward shift method. Step S40. Display the current active mode of the REA system and the medium status of the dead pipe section; Step S20 includes: When the automatic replenishment mode is engaged, if the boric acid pump or the water replenishment pump is running, and there is flow in the water replenishment pipeline and the boric acid pipeline, then the automatic replenishment mode is activated. When the manual replenishment mode is engaged, if the boric acid pump or the water replenishment pump is running, and there is flow in the water replenishment pipeline and the boric acid pipeline, then the manual replenishment mode is activated. When in automatic replenishment mode, if the valve on the dead pipe section is in manual mode and closed, the outlet valve of the replenishment water pipeline is in manual mode and closed, the replenishment water pump is in manual mode and stopped, the outlet valve of the direct borate pipeline is open, and there is boric acid flow, then the current effective mode is determined to be intermittent replenishment mode. When in dilution mode, if the outlet valve of the boric acid pipeline is closed, the outlet valve of the direct borylation pipeline is closed, and the makeup water flow exists, then the dilution mode is activated. When in normal borosilicate mode, if the valve on the dead pipe section is open, the outlet valve of the boric acid pipeline is open, the outlet valve of the direct borosilicate pipeline is closed, and there is boric acid flow, then the normal borosilicate mode is activated. When in automatic replenishment mode, if the valve on the dead pipe section is closed, the outlet valve of the boric acid pipeline is open, the outlet valve of the direct boration pipeline is closed, one of the two boric acid pumps is in manual mode and running, and there is boric acid flow, then the current effective mode is determined as emergency boration mode. If the outlet valve of the boric acid pipeline is closed, the outlet valve of the direct boration pipeline is open, one of the two boric acid pumps is in manual mode and running, and there is boric acid flow, then the current effective mode is determined to be the direct boration mode. When in automatic replenishment mode, if the outlet valve of the replenishment water pipeline is in manual mode and closed, both replenishment water pumps are in manual mode and stopped, the outlet valve of the direct borate pipeline is closed, and there is boric acid flow, then the current effective mode is determined as the overhaul intermittent replenishment mode.

2. The method for displaying primary-loop dilution borylation replenishment according to claim 1, characterized in that, In step S40, the medium status of the dead pipe section is displayed in the following manner: Based on the medium state at different locations of the dead pipe section, the corresponding color is used to fill each cell of the scale on the display interface. The range of the scale represents the length of the dead pipe section, the starting end of the scale represents the inlet of the dead pipe section, the ending end of the scale represents the outlet of the dead pipe section, and the fill color of each cell of the scale represents the type of medium at the corresponding location of the dead pipe section.

3. The method for displaying primary-loop dilution borylation replenishment according to claim 2, characterized in that, The scale has a range of 100L, and the smallest cell of the scale is 1L. The fill color of the cell includes: red representing the medium type of boron, green representing the medium type of water, and yellow representing the medium type of water-boron mixture.

4. The method for displaying primary-loop dilution borylation replenishment according to claim 1, characterized in that, Also includes: Step S50. Obtain instrument information and valve information of the REA system from the DCS instrumentation and control system of the nuclear power plant, and determine whether there is a fault in the REA system based on the instrument information and valve information; Step S60. When a fault exists, output the fault information and determine whether the first control on the display interface has been triggered; Step S70. When the first control is triggered, add failure indicators to the display area of ​​the effective mode and the display area of ​​the medium status of the display interface respectively.

5. The method for displaying primary-loop dilution borylation replenishment according to claim 4, characterized in that, Following step S70, the method further includes: Step S80. Determine whether the fault in the REA system has been eliminated based on the instrument information and valve information; Step S90. When the fault is cleared, determine whether the second control on the display interface is triggered, and remove the failure identifier when it is triggered.

6. The method for displaying primary-loop dilution borylation replenishment according to claim 1, characterized in that, Step S20 includes: Step S21. Obtain the current pre-selected mode of the REA system from the DCS instrumentation and control system of the nuclear power plant; Step S22. In the pre-selected mode, determine the current effective mode of the REA system based on the pipeline status information and pipeline flow information.

7. The method for displaying primary-loop dilution borylation replenishment according to claim 1, characterized in that, The pipeline status information for the specific pipeline includes: the status of the boric acid pump, the status of the makeup water pump, the status of the boric acid pipeline outlet valve, the status of the makeup water pipeline outlet valve, the status of the direct boration pipeline outlet valve, and the status of valves on dead pipe sections.

8. A display system for single-loop dilution boronization replenishment, comprising a processor and a memory storing a computer program, characterized in that, When the processor executes the computer program, it implements the steps of the display method for one-loop dilution boronization supply as described in any one of claims 1-7.

9. A readable storage medium storing a computer program, characterized in that, When the computer program is executed by the processor, it implements the steps of the display method for single-loop dilution borylation supply as described in any one of claims 1-7.

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