Bypass operation device of bench-type transformer and control method thereof

Abstract

The present invention discloses a bypass operation device of a bench-type transformer and a control method thereof. The bypass operation device of the bench-type transformer comprises a bench-type transformer, a transmission line, and a bypass operation module; the bench-type transformer is provided with a docking end; the transmission line is arranged on the upper side of the bench-type transformer and is used to transmit electric power; the bypass operation module is arranged between the transmission line and the bench-type transformer, and the bypass operation module electrically connects the transmission line and the bench-type transformer; the bypass operation module is used to transmit the electric power possessed by the transmission line to the bench-type transformer, thereby realizing the power supply of the transmission line to the bench-type transformer, making full use of the conduction of the bypass operation module to the bench-type transformer and the transmission line, ensuring the normal use of the bench-type transformer, so as to facilitate the bench-type transformer to realize non-power-off operation when repairing the fuse.

Description

Technical Field

[0001] The present invention relates to the technical field of a bypass operation device for a bench-type transformer, and in particular to a bypass operation device for a bench-type transformer and a control method thereof. Background Art

[0002] With the development of science and technology, bench-type transformers are used in people's lives and provide power from transmission lines to the outside. The bench-type transformer has a built-in fuse, which is a kind of fuse. In the prior art, if the fuse is in a damaged state, it needs to be repaired. During the repair process, the bench-type transformer needs to be powered off, which cannot ensure the normal use of the bench-type transformer and cannot achieve non-power-off operation of the bench-type transformer during the repair of the fuse. Summary of the invention

[0003] The purpose of the present invention is to overcome the shortcomings of the prior art. The present invention provides a bypass operation device of a bench-type transformer and a control method thereof. The bench-type transformer is provided with a docking end; the transmission line is arranged on the upper side of the bench-type transformer and is used to transmit electricity; the bypass operation module is arranged between the transmission line and the bench-type transformer, and the bypass operation module electrically connects the transmission line and the bench-type transformer; the bypass operation module is used to transmit the power of the transmission line to the bench-type transformer, thereby realizing the power supply of the transmission line to the bench-type transformer, making full use of the conduction of the bypass operation module to the bench-type transformer and the transmission line, ensuring the normal use of the bench-type transformer, so that the bench-type transformer can realize non-stop operation when the fuse is repaired.

[0004] An embodiment of the present invention provides a bypass operation device for a bench-type transformer, comprising:

[0005] Bench-type transformer, equipped with docking terminals;

[0006] A transmission line is provided on the upper side of the bench-type transformer and is used to transmit electric power;

[0007] The bypass operation module is arranged between the transmission line and the rack transformer, and the bypass operation module electrically connects the transmission line and the rack transformer; the bypass operation module is used to transmit the power of the transmission line to the rack transformer.

[0008] Optionally, the bypass operation module includes a clamping member and a conductive wire, the clamping member is used to clamp the butt end, and the conductive wire is arranged between the transmission line and the clamping member and electrically connects the transmission line and the clamping member.

[0009] In addition, an embodiment of the present invention provides a control method for a bypass operation device of a bench-type transformer, comprising:

[0010] Collecting operating parameters of the bench-type transformer, and defining the state of the fuse of the bench-type transformer according to the multiple operating parameters;

[0011] If the fuse is in an abnormal state, the bypass operation logic of the rack-type transformer and the transmission line is triggered;

[0012] In the bypass operation logic, a bypass power supply system is constructed based on the bypass operation module, the bench-type transformer and the transmission line;

[0013] Define the required power based on the bypass power supply system, the bench-type transformer and the corresponding load;

[0014] Defining the conduction coefficient of the bench-type transformer according to the conductive wire of the bypass operation module and the clamping member of the bypass operation module; matching the power supply mode of the transmission line based on the conduction coefficient, the required power and the connection node of the transmission line;

[0015] The conduction coefficient is monitored in real time, and the dynamic clamping of the clamp is triggered based on the comparison between the conduction coefficient and the conduction coefficient threshold. A conductive path is constructed based on the clamp, the docking terminal and the conductive wire, and autonomous regulation of the conductive path is triggered according to the status of the bench-type transformer and the status of the transmission line.

[0016] Optionally, the collecting of operating parameters of the bench-type transformer and defining the state of a fuse of the bench-type transformer according to the multiple operating parameters includes:

[0017] Positioning bench-type transformers;

[0018] Collecting the working parameters of the bench-type transformer based on the positioning detection of the bench-type transformer;

[0019] Freeze multiple working parameters;

[0020] Dynamically interact with the operating parameters of the bench-type transformer;

[0021] The state of a fuse of a bench-type transformer is defined based on the dynamic interaction of multiple operating parameters.

[0022] Optionally, if the fuse is in an abnormal state, triggering the bypass operation logic of the rack transformer and the transmission line includes:

[0023] The status of the fuses of the rated bench-type transformer;

[0024] Dynamically identify the status of the fuse of the bench-type transformer and screen the corresponding abnormal status;

[0025] If the fuse is in an abnormal state, the adjacent transmission line is matched based on the tracing of the bench-type transformer;

[0026] Associated bench-type transformers and transmission lines;

[0027] The bypass operation logic of the rack transformer and the transmission line is defined according to multiple interactions of the rack transformer and the transmission line, and the bypass operation logic of the rack transformer and the transmission line is triggered.

[0028] Optionally, in the bypass operation logic, a bypass power supply system is constructed based on a bypass operation module, a rack transformer and a transmission line, including:

[0029] Freeze bypass operation logic;

[0030] In the bypass operation logic, the bypass operation module is monitored in real time;

[0031] Associate bypass operation modules, bench-type transformers and transmission lines;

[0032] Defining the first system parameters based on the bypass operation module and the bench-type transformer;

[0033] Defining second system parameters based on the bypass operation module and the transmission line;

[0034] The bypass power supply system is constructed according to the second system parameters, the second system parameters and the service life of the bench-type transformer.

[0035] Optionally, the required power quantity corresponding to the bypass power supply system, the bench-type transformer and the corresponding load definition includes:

[0036] Rated bypass power supply system;

[0037] Real-time monitoring of bypass power supply system;

[0038] Associate the bypass power supply system, the rack transformer and the corresponding load;

[0039] Multiple interactions between bypass power supply system, bench transformer and corresponding load;

[0040] The corresponding required power is defined based on multiple interactions of the bypass power supply system, the bench transformer and the corresponding load.

[0041] Optionally, the step of defining the conduction coefficient of the bench-type transformer according to the conductive wire of the bypass operation module and the clamping member of the bypass operation module; and matching the power supply mode of the transmission line based on the conduction coefficient, the required power, and the connection node of the transmission line includes:

[0042] Freeze the bypass operation module and define the conductive wire and the clamping member;

[0043] A conductive wire associated with the bypass operation module and a clamping member of the bypass operation module;

[0044] Defining the conduction coefficient of the bench-type transformer according to the conductive wire of the bypass operation module and the clamping member of the bypass operation module;

[0045] Correlate the conductivity, the required power, and the connection nodes of the transmission line;

[0046] The power supply mode of the transmission line is matched based on multiple interactions of the conductivity, the required power and the connection nodes of the transmission line.

[0047] Optionally, the real-time monitoring of the conduction coefficient, triggering the dynamic clamping of the clamping member according to the comparison between the conduction coefficient and the conduction coefficient threshold, constructing a conductive path based on the clamping member, the docking terminal and the conductive wire, and triggering the autonomous regulation of the conductive path according to the state of the bench-type transformer and the state of the transmission line, include:

[0048] Rated conduction coefficient;

[0049] Real-time monitoring of conduction coefficient;

[0050] Dynamic clamping of the clamping element is triggered based on a comparison of the conduction factor with a conduction factor threshold value.

[0051] Optionally, the real-time monitoring of the conduction coefficient, triggering the dynamic clamping of the clamping member according to the comparison between the conduction coefficient and the conduction coefficient threshold, constructing a conductive path based on the clamping member, the docking end and the conductive wire, and triggering the autonomous regulation of the conductive path according to the state of the bench-type transformer and the state of the transmission line, also includes:

[0052] associated clamping members, docking terminals, and conductive wires;

[0053] constructing a conductive path based on the clamping piece, the butt end, and the conductive wire;

[0054] Autonomous regulation of the conductive path is triggered according to the status of the bench-type transformer and the status of the transmission line.

[0055] In an embodiment of the present invention, a bench-type transformer is provided with a docking end; a transmission line is arranged on the upper side of the bench-type transformer and is used to transmit electric power; a bypass operation module is arranged between the transmission line and the bench-type transformer, and the bypass operation module electrically connects the transmission line and the bench-type transformer; the bypass operation module is used to transmit the electric power of the transmission line to the bench-type transformer, thereby realizing the power supply of the transmission line to the bench-type transformer, making full use of the conduction of the bypass operation module to the bench-type transformer and the transmission line, ensuring the normal use of the bench-type transformer, so as to facilitate the bench-type transformer to realize non-stop operation when the fuse is inspected and repaired. BRIEF DESCRIPTION OF THE DRAWINGS

[0056] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0057] Figure 1 It is a partial schematic diagram of a bypass operation device of a bench-type transformer in an embodiment of the present invention;

[0058] Figure 2 It is a flow chart of a control method of a bypass operation device of a bench-type transformer in an embodiment of the present invention;

[0059] Figure 3 is a flow chart of S11 in the control method of the bypass operation device of the bench-type transformer in the embodiment of the present invention;

[0060] Figure 4 is a flow chart of S12 in the control method of the bypass operation device of the bench-type transformer in the embodiment of the present invention;

[0061] Figure 5 is a flow chart of S13 in the control method of the bypass operation device of the bench-type transformer in the embodiment of the present invention;

[0062] Figure 6 is a flow chart of S14 in the control method of the bypass operation device of the bench-type transformer in the embodiment of the present invention;

[0063] Figure 7 is a flow chart of S15 in the control method of the bypass operation device of the bench-type transformer in the embodiment of the present invention;

[0064] Figure 8 is a flow chart of S16 in the control method of the bypass operation device of the bench-type transformer in the embodiment of the present invention; DETAILED DESCRIPTION

[0065] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0066] See also Figures 1 to 8A bypass operation device for a bench-type transformer includes a bench-type transformer 10, a transmission line 20 and a bypass operation module 30; the bench-type transformer 10 is provided with a docking terminal 11; the transmission line 20 is arranged on the upper side of the bench-type transformer 10 and is used to transmit electricity; the bypass operation module 30 is arranged between the transmission line 20 and the bench-type transformer 10, and the bypass operation module 30 electrically connects the transmission line 20 and the bench-type transformer 10; the bypass operation module 30 is used to transmit the power of the transmission line 20 to the bench-type transformer 10, realizes the power supply of the transmission line 20 to the bench-type transformer 10, makes full use of the conduction of the bypass operation module 30 to the bench-type transformer 10 and the transmission line 20, ensures the normal use of the bench-type transformer 10, so that the bench-type transformer 10 can realize non-stop operation when the fuse is repaired.

[0067] At this time, the bypass operation module 30 includes a clamping member 31 and a conductive wire 32. The clamping member 31 is used to clamp the docking end 11. The conductive wire 32 is arranged between the transmission line 20 and the clamping member 31, and electrically connects the transmission line 20 and the clamping member 31. Optionally, the clamping member 31 is a threaded clamping member.

[0068] See also Figures 2 to 8 , a control method for a bypass operation device of a bench-type transformer, applied to an interactive scenario of a bypass operation device of a bench-type transformer; the control method for the bypass operation device of a bench-type transformer includes:

[0069] Step S11: collecting operating parameters of the bench-type transformer, and defining the state of the fuse of the bench-type transformer according to the multiple operating parameters;

[0070] Step S12: If the fuse is in an abnormal state, the bypass operation logic of the rack transformer and the transmission line is triggered;

[0071] Step S13: In the bypass operation logic, a bypass power supply system is constructed based on the bypass operation module, the rack transformer and the transmission line;

[0072] Step S14: defining the corresponding required power based on the bypass power supply system, the bench-type transformer and the corresponding load;

[0073] Step S15: defining the conduction coefficient of the bench-type transformer according to the conductive wire of the bypass operation module and the clamping member of the bypass operation module; matching the power supply mode of the transmission line based on the conduction coefficient, the required power and the connection node of the transmission line;

[0074] Step S16: Monitor the conduction coefficient in real time, and trigger dynamic clamping of the clamping member based on the comparison between the conduction coefficient and the conduction coefficient threshold, construct a conductive path based on the clamping member, the docking end and the conductive wire, and trigger autonomous regulation of the conductive path according to the state of the bench-type transformer and the state of the transmission line.

[0075] In an embodiment of the present invention, through the method in the embodiment of the present invention, the working parameters of the bench-type transformer are collected, and the state of the fuse of the bench-type transformer is defined according to multiple working parameters; if the state of the fuse is in an abnormal state, the bypass operation logic of the bench-type transformer and the transmission line is triggered; in the bypass operation logic, a bypass power supply system is constructed based on the bypass operation module, the bench-type transformer and the transmission line; the corresponding required power is defined based on the bypass power supply system, the bench-type transformer and the corresponding load, and the bypass power supply system is introduced, which is compatible with the overall consideration of the bypass power supply system, the bench-type transformer and the corresponding load, and realizes multi-dimensional control of the bypass power supply system, the bench-type transformer and the corresponding load, thereby ensuring the accuracy of the corresponding required power.

[0076] Furthermore, the conduction coefficient of the bench-type transformer is defined according to the conductive wire of the bypass operation module and the clamping member of the bypass operation module; the power supply mode of the transmission line is matched based on the conduction coefficient, the required power and the connection node of the transmission line; the conduction coefficient is monitored in real time, and the dynamic clamping of the clamping member is triggered according to the comparison between the conduction coefficient and the conduction coefficient threshold value, a conductive path is constructed based on the clamping member, the docking end and the conductive wire, and autonomous regulation of the conductive path is triggered according to the state of the bench-type transformer and the state of the transmission line, which is compatible with the dynamic clamping of the clamping member and the autonomous regulation of the conductive path, and fully considers the state of the bench-type transformer and the state of the transmission line, thereby ensuring the autonomous regulation of the bypass operation module and the electrical connection effect of the bench-type transformer and the transmission line, thereby realizing intelligent control of the power supply to the bench-type transformer.

[0077] Relative to the bypass operation device of the bench-type transformer, the bench-type transformer is provided with a docking end; the transmission line is arranged on the upper side of the bench-type transformer and is used to transmit electricity; the bypass operation module is arranged between the transmission line and the bench-type transformer, and the bypass operation module electrically connects the transmission line and the bench-type transformer; the bypass operation module is used to transmit the power of the transmission line to the bench-type transformer, thereby realizing the power supply of the transmission line to the bench-type transformer, making full use of the conduction of the bypass operation module to the bench-type transformer and the transmission line, ensuring the normal use of the bench-type transformer, so as to facilitate the bench-type transformer to realize non-stop operation when the fuse is inspected and repaired.

[0078] refer to Figure 3In step S11, the operating parameters of the bench-type transformer are collected, and the state of the fuse of the bench-type transformer is defined according to the multiple operating parameters;

[0079] In the specific implementation process of the present invention, the specific steps may be:

[0080] S111: Positioning bench transformer;

[0081] S112: collecting working parameters of the bench-type transformer based on the positioning detection of the bench-type transformer;

[0082] S113: freeze multiple working parameters;

[0083] S114: Dynamically interact with the operating parameters of the bench-type transformer;

[0084] S115: Defining a state of a fuse of the rack-type transformer according to a dynamic interaction of a plurality of operating parameters.

[0085] In an embodiment of the present application, a bench-type transformer is positioned, a bench-type transformer is introduced, and management and control are performed on the bench-type transformer. At the same time, working parameters of the bench-type transformer are collected based on positioning detection of the bench-type transformer, and multiple working parameters of the bench-type transformer are further processed. Multi-dimensional control is performed on the multiple working parameters of the bench-type transformer. The multiple working parameters of the bench-type transformer are distributed in different working dimensions, and multi-dimensional control is performed based on multiple working parameters in different dimensions.

[0086] Therefore, multiple working parameters are fixed; the working parameters of the bench-type transformer are dynamically interacted; the state of the fuse of the bench-type transformer is defined according to the dynamic interaction of multiple working parameters, so as to realize the dynamic interaction of multiple working parameters and ensure the accuracy of the state of the fuse of the bench-type transformer. The state of the fuse of the bench-type transformer is introduced, and the state of the fuse of the bench-type transformer is controlled to judge whether the state of the fuse of the bench-type transformer is normal, so as to trigger the next operation logic for the state of the fuse of the bench-type transformer, so as to deal with the targeted processing of the state of the fuse of the bench-type transformer.

[0087] refer to Figure 4 , in step S12, if the state of the fuse is in an abnormal state, the bypass operation logic of the rack transformer and the transmission line is triggered;

[0088] In the specific implementation process of the present invention, the specific steps may be:

[0089] S121: The fuse status of the rated bench-type transformer;

[0090] S122: dynamically identifying the state of the fuse of the bench-type transformer and screening the corresponding abnormal state;

[0091] S123: If the fuse is in an abnormal state, matching the adjacent transmission line based on the tracing of the rack-type transformer;

[0092] S124: Associated bench-type transformers and transmission lines;

[0093] S125: defining bypass operation logic of the rack transformer and the transmission line according to multiple interactions between the rack transformer and the transmission line, and triggering the bypass operation logic of the rack transformer and the transmission line.

[0094] In an embodiment of the present application, the state of the fuse of the rack-type transformer is frozen, and the state of the fuse of the rack-type transformer is introduced, so as to dynamically identify the state of the fuse of the rack-type transformer and screen the corresponding abnormal state, so as to facilitate targeted control of the abnormal state.

[0095] Therefore, if the state of the fuse is in an abnormal state, the adjacent transmission line is matched based on the tracing of the bench-type transformer, and the bench-type transformer and the transmission line are introduced, thereby associating the bench-type transformer and the transmission line; the bypass operation logic of the bench-type transformer and the transmission line is defined according to the multiple interactions of the bench-type transformer and the transmission line, and the bypass operation logic of the bench-type transformer and the transmission line is triggered, thereby realizing the bench-type transformer and the transmission line, and ensuring the accuracy of the bypass operation logic of the bench-type transformer and the transmission line.

[0096] refer to Figure 5 In step S13, in the bypass operation logic, a bypass power supply system is constructed based on the bypass operation module, the rack transformer and the transmission line;

[0097] In the specific implementation process of the present invention, the specific steps may be:

[0098] S131: freeze bypass operation logic;

[0099] S132: In the bypass operation logic, monitor the bypass operation module in real time;

[0100] S133: Associate bypass operation module, bench-type transformer and transmission line;

[0101] S134: defining first system parameters based on the bypass operation module and the bench-type transformer;

[0102] S135: defining a second system parameter based on the bypass operation module and the transmission line;

[0103] S136: Construct a bypass power supply system according to the second system parameter, the second system parameter, and the service life of the bench-type transformer.

[0104] In an embodiment of the present application, the bypass operation logic is frozen; in the bypass operation logic, the bypass operation module is monitored in real time; the bypass operation module, the bench-type transformer and the transmission line are associated, the bypass operation module, the bench-type transformer and the transmission line are introduced, and the bypass operation module, the bench-type transformer and the transmission line are considered as a whole, thereby realizing multi-dimensional control of the bypass operation module, the bench-type transformer and the transmission line.

[0105] Therefore, the first system parameters are defined based on the bypass operation module and the bench-type transformer; the second system parameters are defined based on the bypass operation module and the transmission line; the bypass power supply system is constructed according to the second system parameters, the second system parameters and the service life of the bench-type transformer, which is compatible with the overall consideration of the second system parameters, the second system parameters and the service life of the bench-type transformer, and realizes the multi-dimensional control of the second system parameters, the second system parameters and the service life of the bench-type transformer, ensuring the accuracy of the bypass power supply system. The bypass power supply system is precisely controlled, and systematic operations are performed based on the bypass power supply system, which is compatible with the bypass operation module, the bench-type transformer and the transmission line, and the bypass operation module, the bench-type transformer and the transmission line are intelligently controlled.

[0106] refer to Figure 6 , S14: defining the corresponding required power based on the bypass power supply system, the bench transformer and the corresponding load;

[0107] In the specific implementation process of the present invention, the specific steps may be:

[0108] S141: Rated bypass power supply system;

[0109] S142: Real-time monitoring of bypass power supply system;

[0110] S143: Associate the bypass power supply system, the rack transformer and the corresponding load;

[0111] S144: Multiple interactions between bypass power supply system, bench transformer and corresponding loads;

[0112] S145: Defining corresponding required power based on multiple interactions of the bypass power supply system, the rack transformer, and the corresponding load.

[0113] In an embodiment of the present application, the operating parameters of the bench-type transformer are collected, and the state of the fuse of the bench-type transformer is defined according to the multiple operating parameters; if the state of the fuse is in an abnormal state, the bypass operation logic of the bench-type transformer and the transmission line is triggered; in the bypass operation logic, a bypass power supply system is constructed based on the bypass operation module, the bench-type transformer and the transmission line; the corresponding required power is defined based on the bypass power supply system, the bench-type transformer and the corresponding load, and the bypass power supply system is introduced, which is compatible with the overall consideration of the bypass power supply system, the bench-type transformer and the corresponding load, and realizes multi-dimensional control of the bypass power supply system, the bench-type transformer and the corresponding load, thereby ensuring the accuracy of the corresponding required power.

[0114] At this time, the bypass power supply system is frozen, so that the bypass power supply system can be monitored in real time, so as to facilitate further control of the bypass power supply system. At the same time, the bypass power supply system, the bench-type transformer and the corresponding load are associated, and the bypass power supply system, the bench-type transformer and the corresponding load are introduced, so as to realize the overall consideration of the bypass power supply system, the bench-type transformer and the corresponding load.

[0115] Therefore, multiple interactions are performed on the bypass power supply system, the bench-type transformer and the corresponding loads; the corresponding required power is defined based on the multiple interactions of the bypass power supply system, the bench-type transformer and the corresponding loads, thereby realizing multiple interactions of the bypass power supply system, the bench-type transformer and the corresponding loads, ensuring multi-dimensional control of the bypass power supply system, the bench-type transformer and the corresponding loads, and ensuring the accuracy of the corresponding required power.

[0116] refer to Figure 7 , S15: defining the conduction coefficient of the bench-type transformer according to the conductive wire of the bypass operation module and the clamping member of the bypass operation module; matching the power supply mode of the transmission line based on the conduction coefficient, the required power and the connection node of the transmission line;

[0117] In the specific implementation process of the present invention, the specific steps may be:

[0118] S151: freeze the bypass operation module and define the conductive wire and the clamping member;

[0119] S152: Associating the conductive wire of the bypass operation module and the clamping member of the bypass operation module;

[0120] S153: defining a conduction coefficient of the bench-type transformer according to the conductive wire of the bypass operation module and the clamping member of the bypass operation module;

[0121] S154: Correlate the conduction coefficient, the required power, and the connection nodes of the transmission line;

[0122] S155: Matching a power supply mode of the transmission line based on the conductivity, the required power, and multiple interactions of the connection nodes of the transmission line.

[0123] In an embodiment of the present application, the bypass operation module is frozen, and the conductive wire and the clamping piece are defined, the conductive wire and the clamping piece are introduced, and the conductive wire and the clamping piece are controlled. At the same time, the conductive wire of the bypass operation module and the clamping piece of the bypass operation module are associated; the conduction coefficient of the bench-type transformer is defined according to the conductive wire of the bypass operation module and the clamping piece of the bypass operation module, and the overall consideration of the conductive wire of the bypass operation module and the clamping piece of the bypass operation module is compatible, thereby realizing multi-dimensional control of the conductive wire of the bypass operation module and the clamping piece of the bypass operation module, and ensuring the accuracy of the conduction coefficient of the bench-type transformer.

[0124] Therefore, the conductivity coefficient, the required power and the connection nodes of the transmission line are associated; the power supply mode of the transmission line is matched based on the multiple interactions of the conductivity coefficient, the required power and the connection nodes of the transmission line, and multiple interactions are performed on the conductivity coefficient, the required power and the connection nodes of the transmission line. This is compatible with the multi-dimensional control of the conductivity coefficient, the required power and the connection nodes of the transmission line, and ensures the accuracy of the power supply mode of the transmission line.

[0125] refer to Figure 8 , S16: real-time monitoring of the conduction coefficient, and triggering dynamic clamping of the clamping member according to the comparison between the conduction coefficient and the conduction coefficient threshold, constructing a conductive path based on the clamping member, the docking terminal and the conductive wire, and triggering autonomous regulation of the conductive path according to the state of the bench-type transformer and the state of the transmission line;

[0126] In the specific implementation process of the present invention, the specific steps may be:

[0127] S161: rated conduction coefficient;

[0128] S162: Real-time monitoring of conduction coefficient;

[0129] S163: triggering dynamic clamping of the clamping member according to a comparison between the conduction coefficient and the conduction coefficient threshold;

[0130] S164: associated clamping member, butt end and conductive wire;

[0131] S165: constructing a conductive path based on the clamping member, the butt end and the conductive wire;

[0132] S166: Triggering autonomous regulation of the conductive path according to the status of the bench-type transformer and the status of the transmission line.

[0133] In the specific implementation process of the present invention, the conduction coefficient of the bench-type transformer is defined according to the conductive wire of the bypass operation module and the clamping member of the bypass operation module; the power supply mode of the transmission line is matched based on the conduction coefficient, the required power and the connection node of the transmission line; the conduction coefficient is monitored in real time, and the dynamic clamping of the clamping member is triggered according to the comparison between the conduction coefficient and the conduction coefficient threshold value, a conductive path is constructed based on the clamping member, the docking end and the conductive wire, and the autonomous regulation of the conductive path is triggered according to the state of the bench-type transformer and the state of the transmission line, which is compatible with the dynamic clamping of the clamping member and the autonomous regulation of the conductive path, and fully considers the state of the bench-type transformer and the state of the transmission line, thereby ensuring the autonomous regulation of the bypass operation module and the electrical connection effect of the bench-type transformer and the transmission line, thereby realizing intelligent control of the power supply to the bench-type transformer.

[0134] At this time, the conduction coefficient is frozen; the conduction coefficient is monitored in real time; the dynamic clamping of the clamping member is triggered based on the comparison between the conduction coefficient and the conduction coefficient threshold, the comparison between the conduction coefficient and the conduction coefficient threshold is introduced, and the dynamic clamping of the clamping member is triggered.

[0135] Therefore, the clamping parts, the docking ends and the conductive wires are associated; a conductive path is constructed based on the clamping parts, the docking ends and the conductive wires; autonomous regulation of the conductive path is triggered according to the state of the bench-type transformer and the state of the transmission line, which is compatible with the dynamic clamping of the clamping parts and the autonomous regulation of the conductive path, and fully considers the state of the bench-type transformer and the state of the transmission line, thereby ensuring the autonomous regulation of the bypass operation module and the electrical connection effect of the bench-type transformer and the transmission line, thereby realizing intelligent control of the power supply to the bench-type transformer.

[0136] The technical effects of the embodiments of the present invention are as follows:

[0137] In an embodiment of the present invention, a bench-type transformer is provided with a docking end; a transmission line is arranged on the upper side of the bench-type transformer and is used to transmit electric power; a bypass operation module is arranged between the transmission line and the bench-type transformer, and the bypass operation module electrically connects the transmission line and the bench-type transformer; the bypass operation module is used to transmit the electric power of the transmission line to the bench-type transformer, thereby realizing the power supply of the transmission line to the bench-type transformer, making full use of the conduction of the bypass operation module to the bench-type transformer and the transmission line, ensuring the normal use of the bench-type transformer, so as to facilitate the bench-type transformer to realize non-stop operation when the fuse is inspected and repaired.

[0138] In an embodiment of the present invention, through the method in the embodiment of the present invention, the working parameters of the bench-type transformer are collected, and the state of the fuse of the bench-type transformer is defined according to multiple working parameters; if the state of the fuse is in an abnormal state, the bypass operation logic of the bench-type transformer and the transmission line is triggered; in the bypass operation logic, a bypass power supply system is constructed based on the bypass operation module, the bench-type transformer and the transmission line; the corresponding required power is defined based on the bypass power supply system, the bench-type transformer and the corresponding load, and the bypass power supply system is introduced, which is compatible with the overall consideration of the bypass power supply system, the bench-type transformer and the corresponding load, and realizes multi-dimensional control of the bypass power supply system, the bench-type transformer and the corresponding load, thereby ensuring the accuracy of the corresponding required power.

[0139] Furthermore, the conduction coefficient of the bench-type transformer is defined according to the conductive wire of the bypass operation module and the clamping member of the bypass operation module; the power supply mode of the transmission line is matched based on the conduction coefficient, the required power and the connection node of the transmission line; the conduction coefficient is monitored in real time, and the dynamic clamping of the clamping member is triggered according to the comparison between the conduction coefficient and the conduction coefficient threshold value, a conductive path is constructed based on the clamping member, the docking end and the conductive wire, and autonomous regulation of the conductive path is triggered according to the state of the bench-type transformer and the state of the transmission line, which is compatible with the dynamic clamping of the clamping member and the autonomous regulation of the conductive path, and fully considers the state of the bench-type transformer and the state of the transmission line, thereby ensuring the autonomous regulation of the bypass operation module and the electrical connection effect of the bench-type transformer and the transmission line, thereby realizing intelligent control of the power supply to the bench-type transformer.

[0140] Through the description of the above implementation, it is easy for those skilled in the art to understand that the example implementation described here can be implemented by software, or by software combined with necessary hardware. Therefore, the technical solution according to the implementation of the present disclosure can be embodied in the form of a software product, which can be stored in a non-volatile storage medium (which can be a CD-ROM, a USB flash drive, a mobile hard disk, etc.) or on a network, including several instructions to enable a computing device (which can be a personal computer, a server, a terminal device, or a network device, etc.) to execute the method according to the implementation of the present disclosure.

[0141] Those skilled in the art can understand that all or part of the steps in the various methods of the above embodiments can be completed by instructing related hardware through a program, and the program can be stored in a computer-readable storage medium, and the storage medium can include: a read-only memory (ROM), a random access memory (RAM), a disk or an optical disk, etc. In addition, it stores computer program instructions, and when the computer program instructions are executed by a computer, the computer executes the above method.

[0142] In addition, the bypass operation device and control method of the bench-type transformer provided in the embodiment of the present invention are introduced in detail above. Specific examples are used herein to illustrate the principle and implementation mode of the present invention. The description of the above embodiments is only used to help understand the method of the present invention and its core idea. At the same time, for those skilled in the art, according to the idea of ​​the present invention, there will be changes in the specific implementation mode and application scope. In summary, the content of this specification should not be understood as limiting the present invention.

Claims

1. A bypass operation device for a bench-type transformer, characterized in that: include: Bench-type transformer, equipped with docking terminals; A transmission line is provided on the upper side of the bench-type transformer and is used to transmit electric power; The bypass operation module is arranged between the transmission line and the rack transformer, and the bypass operation module electrically connects the transmission line and the rack transformer; the bypass operation module is used to transmit the power of the transmission line to the rack transformer.

2. The bypass operation device for a bench-type transformer according to claim 1, characterized in that: The bypass operation module includes a clamping member and a conductive wire. The clamping member is used to clamp the butt end. The conductive wire is arranged between the power transmission line and the clamping member and electrically connects the power transmission line and the clamping member.

3. A control method for a bypass operation device of a rack-type transformer, based on the bypass operation device of the rack-type transformer according to any one of claims 1 to 2, characterized in that: include: Collecting operating parameters of the bench-type transformer, and defining the state of the fuse of the bench-type transformer according to the multiple operating parameters; If the fuse is in an abnormal state, the bypass operation logic of the rack-type transformer and the transmission line is triggered; In the bypass operation logic, a bypass power supply system is constructed based on the bypass operation module, the bench-type transformer and the transmission line; Define the required power based on the bypass power supply system, the bench-type transformer and the corresponding load; Defining the conduction coefficient of the bench-type transformer according to the conductive wire of the bypass operation module and the clamping member of the bypass operation module; Matching the power supply mode of the transmission line based on the conductivity, the required power and the connection nodes of the transmission line; The conduction coefficient is monitored in real time, and the dynamic clamping of the clamp is triggered based on the comparison between the conduction coefficient and the conduction coefficient threshold. A conductive path is constructed based on the clamp, the docking terminal and the conductive wire, and autonomous regulation of the conductive path is triggered according to the status of the bench-type transformer and the status of the transmission line.

4. The control method of the bypass operation device of the rack-type transformer according to claim 3, characterized in that: The collecting of operating parameters of the bench-type transformer and defining the state of the fuse of the bench-type transformer according to the multiple operating parameters include: Positioning bench-type transformers; Collecting the working parameters of the bench-type transformer based on the positioning detection of the bench-type transformer; Freeze multiple working parameters; Dynamically interact with the operating parameters of the bench-type transformer; The state of a fuse of a bench-type transformer is defined based on the dynamic interaction of multiple operating parameters.

5. The control method of the bypass operation device of the rack-type transformer according to claim 4, characterized in that: If the fuse is in an abnormal state, the bypass operation logic of the rack transformer and the transmission line is triggered, including: The status of the fuses of the rated bench-type transformer; Dynamically identify the status of the fuse of the bench-type transformer and screen the corresponding abnormal status; If the fuse is in an abnormal state, the adjacent transmission line is matched based on the tracing of the bench-type transformer; Associated bench-type transformers and transmission lines; The bypass operation logic of the rack transformer and the transmission line is defined according to multiple interactions of the rack transformer and the transmission line, and the bypass operation logic of the rack transformer and the transmission line is triggered.

6. The control method of the bypass operation device of the rack-type transformer according to claim 5, characterized in that: In the bypass operation logic, a bypass power supply system is constructed based on the bypass operation module, the bench-type transformer and the transmission line, including: Freeze bypass operation logic; In the bypass operation logic, the bypass operation module is monitored in real time; Associate bypass operation modules, bench-type transformers and transmission lines; Defining the first system parameters based on the bypass operation module and the bench-type transformer; Defining second system parameters based on the bypass operation module and the transmission line; The bypass power supply system is constructed according to the second system parameters, the second system parameters and the service life of the bench-type transformer.

7. The control method of the bypass operation device of the rack-type transformer according to claim 6, characterized in that: The required power based on the bypass power supply system, the bench-type transformer and the corresponding load definition includes: Rated bypass power supply system; Real-time monitoring of bypass power supply system; Associate the bypass power supply system, the rack transformer and the corresponding load; Multiple interactions between bypass power supply system, bench transformer and corresponding load; The corresponding required power is defined based on multiple interactions of the bypass power supply system, the bench transformer and the corresponding load.

8. The control method of the bypass operation device of the rack-type transformer according to claim 7, characterized in that: The conduction coefficient of the bench-type transformer is defined according to the conductive wire of the bypass operation module and the clamping member of the bypass operation module; Matching the power supply mode of the transmission line based on the conductivity, required power and connection nodes of the transmission line, including: Freeze the bypass operation module and define the conductive wire and the clamping member; A conductive wire associated with the bypass operation module and a clamping member of the bypass operation module; Defining the conduction coefficient of the bench-type transformer according to the conductive wire of the bypass operation module and the clamping member of the bypass operation module; Correlate the conductivity, the required power, and the connection nodes of the transmission line; The power supply mode of the transmission line is matched based on multiple interactions of the conductivity, the required power and the connection nodes of the transmission line.

9. The control method of the bypass operation device of the rack-type transformer according to claim 8, characterized in that: The real-time monitoring of the conduction coefficient and triggering the dynamic clamping of the clamping member according to the comparison between the conduction coefficient and the conduction coefficient threshold value, constructing a conductive path based on the clamping member, the docking terminal and the conductive wire, and triggering the autonomous regulation of the conductive path according to the state of the bench-type transformer and the state of the transmission line include: Rated conduction coefficient; Real-time monitoring of conduction coefficient; Dynamic clamping of the clamping element is triggered based on a comparison of the conduction factor with a conduction factor threshold value.

10. The control method of the bypass operation device of the rack-type transformer according to claim 9, characterized in that: The real-time monitoring of the conduction coefficient, triggering the dynamic clamping of the clamping member according to the comparison between the conduction coefficient and the conduction coefficient threshold, constructing a conductive path based on the clamping member, the docking terminal and the conductive wire, and triggering the autonomous regulation of the conductive path according to the state of the bench-type transformer and the state of the transmission line, also includes: associated clamping members, docking terminals, and conductive wires; constructing a conductive path based on the clamping piece, the butt end, and the conductive wire; Autonomous regulation of the conductive path is triggered according to the status of the bench-type transformer and the status of the transmission line.

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