Power supply guaranteeing device and control method thereof

Abstract

The invention discloses a power supply protection device and a control method thereof. The power supply protection device comprises a box body, a mains supply module, a generator car, a first uninterruptible power supply, a power supply protection side load module, a manual switching module and a manual switching module, the box body is used for being installed on an external component. The mains supply module is connected to the box body and used for providing mains supply; the generator car is connected to the box body and is used for providing commercial power; the automatic switching module is connected to the commercial power module and the generator car; the output end of the automatic switching module is connected with the first uninterruptible power supply; the manual switching module is connected with the commercial power module through the automatic switching module, and the output end of the manual switching module is connected with the supply protection side load module, so that the manual switching module and the manual switching module are compatible, and the commercial power module, the generator car, the first uninterruptible power supply and the supply protection side load module are switched in multiple directions; the power supply effect of the power supply protection side load module is ensured, and intelligent control of power supply in the power supply protection device is embodied.

Description

Technical Field

[0001] The present invention relates to the technical field of power supply guarantee devices, and in particular to a power supply guarantee device and a control method thereof. Background Art

[0002] With the development of science and technology, in the power system, the power supply guarantee device is a kind of power device. The power supply guarantee device controls the electricity produced by the mains and the power generation vehicle. In the existing technology, the mains module and the power generation vehicle are both connected to the box. The mains module and the power generation vehicle supply power to the load module on the supply side under the control of the manual switching module, and supply power in a single dimension along the mains module or the power generation vehicle. The power supply effect of the load module on the supply side cannot be guaranteed, which affects the intelligent control of power supply in the power supply guarantee device. 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 power supply guarantee device and a control method thereof. The box is used to be installed on an external component; the AC power module is connected to the box and is used to provide AC power; the power generation vehicle is connected to the box and is used to provide AC power; the automatic switching module is connected to the AC power module and the power generation vehicle; the output end of the automatic switching module is connected to the first uninterruptible power supply; the manual switching module is connected to the AC power module via the automatic switching module, and the output end of the manual switching module is connected to the supply guarantee side load module. At this time, the manual switching module and the manual switching module are compatible, and the AC power module, the power generation vehicle, the first uninterruptible power supply and the supply guarantee side load module are switched in multiple directions, which ensures the power supply effect of the supply guarantee side load module and reflects the intelligent control of power supply in the power supply guarantee device.

[0004] An embodiment of the present invention provides a power supply guarantee device, comprising:

[0005] A box body, for mounting on external components;

[0006] A mains power module is connected to the box and is used to provide mains power;

[0007] A generator car connected to the box body and used to provide electricity;

[0008] An automatic switching module is connected to the mains module and the power generation vehicle; the output end of the automatic switching module is connected to the first uninterruptible power supply;

[0009] The manual switching module is connected to the mains module via the automatic switching module, and the output end of the manual switching module is connected to the supply side load module.

[0010] Optionally, the power generation vehicle and the mains power module are both connected to the input end of the automatic switching module and are arranged relative to each other;

[0011] The first uninterruptible power supply is connected to the power generation vehicle and the mains power module via an automatic switching module.

[0012] In addition, an embodiment of the present invention provides a control method for a power supply guarantee device, including:

[0013] collecting power output of the first uninterruptible power supply;

[0014] According to the power output of the first uninterruptible power supply and the automatic switching module, a corresponding automatic switching signal is defined;

[0015] According to the power information parsed by the automatic switching signal, the mains module and the power generation vehicle define the power supply of the mains module and the power supply of the power generation vehicle, and the power supply of the mains module and the power generation vehicle dynamically interact;

[0016] Dynamically interacting the automatic switching module and the manual switching module, and defining a switching direction of the automatic switching module based on the manual switching module and the first uninterruptible power supply;

[0017] Collect the load of the load module on the supply guarantee side, and associate the load of the load module on the supply guarantee side, the second uninterruptible power supply, and the first uninterruptible power supply; define a switching path of the manual switching module according to the load of the load module on the supply guarantee side, the second uninterruptible power supply, and the first uninterruptible power supply;

[0018] Based on the comparison between the second uninterruptible power supply and the first uninterruptible power supply, a corresponding matching coefficient is defined, and each sub-path is defined according to the matching coefficient, the switching path of the manual switching module, the automatic switching module and the manual switching module; based on each sub-path, a corresponding power collection node is defined, and the overall control logic of the power supply device is defined according to the power parameters corresponding to each power collection node.

[0019] Optionally, collecting the power output of the first uninterruptible power supply includes:

[0020] Real-time monitoring of the first uninterruptible power supply;

[0021] Defining a supply system of the first uninterruptible power supply based on the first uninterruptible power supply, an application state of a first interactive device interacting with the first uninterruptible power supply, and a scenario where the first uninterruptible power supply is located;

[0022] In the supply system, each supply branch of the first uninterruptible power supply is collected;

[0023] Collecting corresponding sub-output quantities based on detection of each supply branch of the first uninterruptible power supply;

[0024] The power output of the first uninterruptible power supply is defined according to the plurality of sub-outputs and the first uninterruptible power supply to collect the power output of the first uninterruptible power supply.

[0025] Optionally, the automatic switching signal corresponding to the power output of the first uninterruptible power supply and the automatic switching module definition includes:

[0026] Determine the power output of the first uninterruptible power supply;

[0027] an automatic switching module for collecting and interacting with a first uninterruptible power supply;

[0028] Monitor the automatic switching module in real time and collect multiple signals of the automatic switching module in different paths;

[0029] forming a corresponding signal combination according to the multiple signals of different paths, and associating the signal combination with the power output of the first uninterruptible power supply;

[0030] A corresponding automatic switching signal is defined according to the signal combination and the power output of the first uninterruptible power supply.

[0031] Optionally, the power information parsed by the automatic switching signal, the mains module and the power generation vehicle define the power supply of the mains module and the power supply of the power generation vehicle, and the power supply of the mains module and the power generation vehicle dynamically interact, including:

[0032] Freeze the automatic switching signal, and define corresponding power information according to the analysis of the automatic switching signal;

[0033] Monitor the dynamic interaction between the mains module and the generator car and the automatic switching module;

[0034] Associating the power information parsed by the automatic switching signal, the mains module and the power generation vehicle;

[0035] Defining the power supply of the mains module and the power supply of the power generation vehicle according to the power information analyzed by the automatic switching signal, the mains module and the power generation vehicle;

[0036] The power supply of the mains module and the power supply of the power generation vehicle are collected, and the corresponding interaction mode is matched according to the power supply of the mains module, the power supply of the power generation vehicle and the automatic switching module, and the dynamic interaction of the power supply of the mains module and the power generation vehicle is triggered according to the interaction mode.

[0037] Optionally, dynamically interacting the automatic switching module and the manual switching module, and defining a switching direction of the automatic switching module based on the manual switching module and the first uninterruptible power supply, includes:

[0038] Associate the automatic switching module and the manual switching module;

[0039] Dynamically interact with automatic switching modules and manual switching modules;

[0040] Based on the dynamic interaction of the automatic switching module and the manual switching module, the positions of the plurality of switching nodes are collected;

[0041] Defining a plurality of switching information based on autonomous detection of locations where a plurality of switching nodes are located;

[0042] The switching direction of the automatic switching module is defined according to the plurality of switching information, the manual switching module and the first uninterruptible power supply.

[0043] Optionally, collecting the load of the supply-guarantee side load module, associating the load of the supply-guarantee side load module, the second uninterruptible power supply, and the first uninterruptible power supply; defining a switching path of the manual switching module according to the load of the supply-guarantee side load module, the second uninterruptible power supply, and the first uninterruptible power supply, includes:

[0044] Freeze the load module on the supply side and perform load detection on the load module on the supply side;

[0045] Collecting the load quantity of the load module on the supply side based on the load detection of the load module on the supply side;

[0046] Associating the load capacity of the supply-guarantee side load module, the second uninterruptible power supply and the first uninterruptible power supply;

[0047] Defining a first path parameter based on the load of the associated supply-guarantee-side load module and the first uninterruptible power supply;

[0048] Defining a second path parameter based on the load of the associated supply-guarantee-side load module and the second uninterruptible power supply;

[0049] The switching path of the manual switching module is defined according to the second path parameter, the first path parameter and the supply-guarantee-side load module.

[0050] Optionally, the corresponding matching coefficient is defined based on the comparison between the second uninterruptible power supply and the first uninterruptible power supply, and each sub-path is defined according to the matching coefficient, the switching path of the manual switching module, the automatic switching module, and the manual switching module; the corresponding power collection node is defined based on each sub-path, and the overall control logic of the power supply guarantee device is defined according to the power parameters corresponding to each power collection node, including:

[0051] Frame the second uninterruptible power supply and the first uninterruptible power supply;

[0052] comparing the second uninterruptible power supply and the first uninterruptible power supply;

[0053] A corresponding matching coefficient is defined based on a comparison between the second uninterruptible power supply and the first uninterruptible power supply.

[0054] Optionally, the method further comprises: defining a corresponding matching coefficient based on the comparison between the second uninterruptible power supply and the first uninterruptible power supply, defining each sub-path according to the matching coefficient, the switching path of the manual switching module, the automatic switching module and the manual switching module; defining a corresponding power collection node based on each sub-path, and defining the overall control logic of the power supply guarantee device according to the power parameters corresponding to each power collection node;

[0055] The association defines a corresponding matching coefficient based on a comparison between the second uninterruptible power supply and the first uninterruptible power supply;

[0056] Each sub-path is defined according to the matching coefficient, the switching path of the manual switching module, the automatic switching module and the manual switching module;

[0057] Define corresponding power collection nodes based on each sub-path;

[0058] The overall control logic of the power supply device is defined according to the power parameters corresponding to each power collection node.

[0059] In an embodiment of the present invention, a housing is used to be installed on an external component; a mains power module is connected to the housing and is used to provide mains power; a power generation vehicle is connected to the housing and is used to provide mains power; an automatic switching module is connected to the mains power module and the power generation vehicle; an output end of the automatic switching module is connected to a first uninterruptible power supply; a manual switching module is connected to the mains power module via the automatic switching module, and an output end of the manual switching module is connected to a supply-guaranteeing side load module. At this time, the manual switching module and the manual switching module are compatible, and multi-directional switching is performed on the mains power module, the power generation vehicle, the first uninterruptible power supply and the supply-guaranteeing side load module, thereby ensuring the power supply effect of the supply-guaranteeing side load module and reflecting the intelligent control of power supply in the power supply guarantee device. BRIEF DESCRIPTION OF THE DRAWINGS

[0060] 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.

[0061] Figure 1 is a schematic diagram of a power supply guarantee device in an embodiment of the present invention;

[0062] Figure 2 is a flow chart of a control method of a power supply guarantee device in an embodiment of the present invention;

[0063] Figure 3 is a flow chart of S11 in the control method of the power supply guarantee device in the embodiment of the present invention;

[0064] Figure 4 is a flow chart of S12 in the control method of the power supply guarantee device in the embodiment of the present invention;

[0065] Figure 5 is a flow chart of S13 in the control method of the power supply guarantee device in the embodiment of the present invention;

[0066] Figure 6 is a flow chart of S14 in the control method of the power supply guarantee device in the embodiment of the present invention;

[0067] Figure 7 is a flow chart of S15 in the control method of the power supply guarantee device in the embodiment of the present invention;

[0068] Figure 8 is a flow chart of S16 in the control method of the power supply guarantee device in the embodiment of the present invention; DETAILED DESCRIPTION

[0069] 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.

[0070] See also Figures 1 to 8 A power supply guarantee device includes a box body 10, a mains power module 20, a power generation vehicle 30, an automatic switching module 40 and a manual switching module 50; the mains power module 20, the power generation vehicle 30, the automatic switching module 40 and the manual switching module 50 are all connected to the box body 10, and the box body 10 carries the mains power module 20, the power generation vehicle 30, the automatic switching module 40 and the manual switching module 50.

[0071] The box 10 is square in shape and is provided with a receiving slot, and the mains module 20, the power generation vehicle 30, the automatic switching module 40 and the manual switching module 50 all pass through the same receiving slot. The box 10 is used to be installed on external components.

[0072] With respect to the mains module 20 , the mains module 20 is connected to the housing 10 and used to provide mains power; with respect to the power generation vehicle 30 , the power generation vehicle 30 is connected to the housing 10 and used to provide electric power.

[0073] At this time, the automatic switching module 40 is controlled, and the automatic switching module 40 is connected to the mains module 20 and the power generation vehicle 30; the output end of the automatic switching module 40 is connected to the first uninterruptible power supply.

[0074] Regarding the manual switching module 50, the manual switching module 50 is connected to the mains module 20 via the automatic switching module 40, and the output end of the manual switching module 50 is connected to the supply side load module 60. At the same time, the power generation vehicle 30 and the mains module 20 are both connected to the input end of the automatic switching module 40 and arranged relatively; the first uninterruptible power supply 70 is connected to the power generation vehicle 30 and the mains module 20 via the automatic switching module 40.

[0075] In an embodiment of the present invention, the housing 10 is used to be installed on an external component; the AC power module 20 is connected to the housing 10 and is used to provide AC power; the power generation vehicle 30 is connected to the housing 10 and is used to provide AC power; the automatic switching module 40 is connected to the AC power module 20 and the power generation vehicle 30; the output end of the automatic switching module 40 is connected to the first uninterruptible power supply; the manual switching module 50 is connected to the AC power module 20 via the automatic switching module 40, and the output end of the manual switching module 50 is connected to the supply side load module. At this time, the manual switching module 50 and the manual switching module 50 are compatible, and the AC power module 20, the power generation vehicle 30, the first uninterruptible power supply and the supply side load module are switched in multiple directions, thereby ensuring the power supply effect of the supply side load module and reflecting the intelligent control of power supply in the power supply guarantee device.

[0076] See also Figures 2 to 8 , a power supply guarantee device, applied to the remote interaction scenario of intranet machines; the power supply guarantee device includes:

[0077] Step S11: collecting the power output of the first uninterruptible power supply;

[0078] Step S12: defining a corresponding automatic switching signal according to the power output of the first uninterruptible power supply and the automatic switching module;

[0079] Step S13: defining the power supply of the mains module and the power generation vehicle according to the power information analyzed by the automatic switching signal, the mains module and the power generation vehicle, and dynamically interacting with each other;

[0080] Step S14: dynamically interacting the automatic switching module and the manual switching module, and defining a switching direction of the automatic switching module based on the manual switching module and the first uninterruptible power supply;

[0081] Step S15: collecting the load of the supply-guarantee side load module, associating the load of the supply-guarantee side load module, the second uninterruptible power supply and the first uninterruptible power supply; defining a switching path of the manual switching module according to the load of the supply-guarantee side load module, the second uninterruptible power supply and the first uninterruptible power supply;

[0082] Step S16: Based on the comparison between the second uninterruptible power supply and the first uninterruptible power supply, a corresponding matching coefficient is defined, and each sub-path is defined according to the matching coefficient, the switching path of the manual switching module, the automatic switching module, and the manual switching module; based on each sub-path, a corresponding power collection node is defined, and the overall control logic of the power supply device is defined according to the power parameters corresponding to each power collection node.

[0083] In an embodiment of the present invention, the power output of the first uninterruptible power supply is collected; a corresponding automatic switching signal is defined according to the power output of the first uninterruptible power supply and an automatic switching module; the power supply of the mains module and the power generation vehicle are defined according to the power information parsed by the automatic switching signal, the mains module and the power generation vehicle, and the power supply of the mains module and the power generation vehicle are dynamically interacted; the automatic switching module and the manual switching module are dynamically interacted, and the switching direction of the automatic switching module is defined based on the manual switching module and the first uninterruptible power supply, which is compatible with the overall consideration of the manual switching module and the first uninterruptible power supply, realizes multi-dimensional control of the manual switching module and the first uninterruptible power supply, and ensures the accuracy of the switching direction of the automatic switching module.

[0084] Therefore, the load of the load module on the supply side is collected, and the load of the load module on the supply side, the second uninterruptible power supply and the first uninterruptible power supply are associated; the switching path of the manual switching module is defined according to the load of the load module on the supply side, the second uninterruptible power supply and the first uninterruptible power supply; the corresponding matching coefficient is defined based on the comparison between the second uninterruptible power supply and the first uninterruptible power supply, and each sub-path is defined according to the matching coefficient, the switching path of the manual switching module, the automatic switching module and the manual switching module; the corresponding power collection node is defined based on each sub-path, and the overall control logic of the power supply device is defined according to the power parameters corresponding to each power collection node, the power parameters corresponding to each power collection node are introduced, and the overall control of multiple power parameters is performed, thereby ensuring the overall control logic of the power supply device, so as to facilitate multi-directional switching of the AC power module, the power generation vehicle, the first uninterruptible power supply and the load module on the supply side, ensuring the power supply effect of the load module on the supply side, and reflecting the intelligent control of power supply in the power supply device.

[0085] refer to Figure 3 , in step S11, freeze the intranet machine and collect the IP address of the intranet machine;

[0086] In the specific implementation process of the present invention, the specific steps may be:

[0087] S111: real-time monitoring of the first uninterruptible power supply;

[0088] S112: defining a supply system of the first uninterruptible power supply based on the first uninterruptible power supply, an application state of a first interactive device interacting with the first uninterruptible power supply, and a scenario where the first uninterruptible power supply is located;

[0089] S113: In the supply system, collecting supply branches of the first uninterruptible power supply;

[0090] S114: collecting corresponding sub-output quantities based on detection of each supply branch of the first uninterruptible power supply;

[0091] S115: defining a power output of the first uninterruptible power supply according to the plurality of sub-outputs and the first uninterruptible power supply to collect the power output of the first uninterruptible power supply.

[0092] In an embodiment of the present application, the first uninterruptible power supply is monitored in real time, the first uninterruptible power supply is introduced, and the first uninterruptible power supply is further controlled. At the same time, the supply system of the first uninterruptible power supply is defined based on the first uninterruptible power supply, the application status of the first interactive device that interacts with the first uninterruptible power supply, and the scene where the first uninterruptible power supply is located, and the overall consideration of the first uninterruptible power supply, the application status of the first interactive device that interacts with the first uninterruptible power supply, and the scene where the first uninterruptible power supply is located is compatible, and multi-dimensional control of the first uninterruptible power supply, the application status of the first interactive device that interacts with the first uninterruptible power supply, and the scene where the first uninterruptible power supply is located is achieved, thereby ensuring the accuracy of the supply system of the first uninterruptible power supply.

[0093] Therefore, in this supply system, data is collected from each supply branch of the first uninterruptible power supply; corresponding sub-output quantities are collected based on the detection of each supply branch of the first uninterruptible power supply, and multiple sub-output quantities are introduced, so that the power output of the first uninterruptible power supply is defined based on the multiple sub-output quantities and the first uninterruptible power supply, so as to collect the power output of the first uninterruptible power supply, thereby ensuring the accuracy of the power output of the first uninterruptible power supply.

[0094] refer to Figure 4 , in step S12, matching a corresponding first operating system based on the intranet machine and the first application scenario, and triggering a corresponding SSH service based on the first operating system;

[0095] In the specific implementation process of the present invention, the specific steps may be:

[0096] S121: setting the power output of the first uninterruptible power supply;

[0097] S122: collecting data from an automatic switching module that interacts with a first uninterruptible power supply;

[0098] S123: monitor the automatic switching module in real time, and collect multiple signals of the automatic switching module on different paths;

[0099] S124: forming a corresponding signal combination according to the multiple signals of different paths, and associating the signal combination with the power output of the first uninterruptible power supply;

[0100] S125: defining a corresponding automatic switching signal according to the signal combination and the power output of the first uninterruptible power supply.

[0101] In an embodiment of the present application, the power output of the first uninterruptible power supply is frozen, the power output of the first uninterruptible power supply is introduced, and at the same time, the automatic switching module that interacts with the first uninterruptible power supply is collected; the automatic switching module is monitored in real time, and multiple signals of the automatic switching module in different paths are collected, and multi-dimensional management and control are performed on the multiple signals of the automatic switching module in different paths.

[0102] Therefore, a corresponding signal combination is formed based on multiple signals of different paths, and the signal combination and the power output of the first uninterruptible power supply are associated; a corresponding automatic switching signal is defined based on the signal combination and the power output of the first uninterruptible power supply, which is compatible with the overall consideration of the signal combination and the power output of the first uninterruptible power supply, realizes multi-dimensional control of the signal combination and the power output of the first uninterruptible power supply, and ensures the accuracy of the automatic switching signal.

[0103] refer to Figure 5 In step S13, a second operating system corresponding to the external network machine and the second application scenario is matched, and a reverse tunnel is determined based on a dynamic association between the second operating system and the first operating system;

[0104] In the specific implementation process of the present invention, the specific steps may be:

[0105] S131: freeze the automatic switching signal, and define corresponding power information according to the analysis of the automatic switching signal;

[0106] S132: monitor the dynamic interaction between the mains module, the power generation vehicle and the automatic switching module;

[0107] S133: Associating the power information parsed by the automatic switching signal, the mains module and the power generation vehicle;

[0108] S134: defining the power supply of the mains module and the power supply of the power generation vehicle according to the power information analyzed by the automatic switching signal, the mains module and the power generation vehicle;

[0109] S135: Collect the power supply of the mains module and the power supply of the power generation vehicle, and match the corresponding interaction mode according to the power supply of the mains module, the power supply of the power generation vehicle and the automatic switching module, and trigger the dynamic interaction of the power supply of the mains module and the power generation vehicle according to the interaction mode.

[0110] In an embodiment of the present application, the automatic switching signal is frozen, and the corresponding power information is defined based on the analysis of the automatic switching signal, and the power information is controlled. At the same time, the dynamic interaction between the AC power module, the power generation vehicle and the automatic switching module is monitored, thereby realizing the dynamic interaction between the AC power module, the power generation vehicle and the automatic switching module.

[0111] Furthermore, the power information, the mains module and the power generation vehicle analyzed by the automatic switching signal are associated; the power supply of the mains module and the power generation vehicle are defined according to the power information, the mains module and the power generation vehicle analyzed by the automatic switching signal, and the power information, the mains module and the power generation vehicle analyzed by the automatic switching signal are introduced, thereby realizing multi-dimensional control of the power information, the mains module and the power generation vehicle analyzed by the automatic switching signal, and ensuring the accuracy of the power supply of the mains module and the power generation vehicle.

[0112] At the same time, the power supply of the mains module and the power supply of the power generation vehicle are collected, and the corresponding interaction mode is matched according to the power supply of the mains module, the power supply of the power generation vehicle and the automatic switching module, and the dynamic interaction of the power supply of the mains module and the power generation vehicle is triggered according to the interaction mode, thereby ensuring the dynamic interaction of the power supply of the mains module and the power generation vehicle, so as to facilitate the overall control of the power supply of the mains module and the power generation vehicle.

[0113] refer to Figure 6 , S14: in the reverse tunnel, triggering a restart of the SSH service based on the second operating system;

[0114] In the specific implementation process of the present invention, the specific steps may be:

[0115] S141: Associating the automatic switching module and the manual switching module;

[0116] S142: Dynamically interacting the automatic switching module and the manual switching module;

[0117] S143: collecting locations of multiple switching nodes based on dynamic interaction of the automatic switching module and the manual switching module;

[0118] S144: defining a plurality of switching information according to autonomous detection of locations of a plurality of switching nodes;

[0119] S145: Define a switching direction of the automatic switching module according to the plurality of switching information, the manual switching module and the first uninterruptible power supply.

[0120] In an embodiment of the present application, the power output of the first uninterruptible power supply is collected; a corresponding automatic switching signal is defined according to the power output of the first uninterruptible power supply and an automatic switching module; the power supply of the mains module and the power generation vehicle are defined according to the power information parsed by the automatic switching signal, the mains module and the power generation vehicle, and the power supply of the mains module and the power generation vehicle are dynamically interacted; the automatic switching module and the manual switching module are dynamically interacted, and the switching direction of the automatic switching module is defined based on the manual switching module and the first uninterruptible power supply, which is compatible with the overall consideration of the manual switching module and the first uninterruptible power supply, realizes multi-dimensional control of the manual switching module and the first uninterruptible power supply, and ensures the accuracy of the switching direction of the automatic switching module.

[0121] At this time, the automatic switching module and the manual switching module are associated; the automatic switching module and the manual switching module are dynamically interacted, so as to realize the dynamic interaction between the automatic switching module and the manual switching module.

[0122] Furthermore, based on the dynamic interaction of the automatic switching module and the manual switching module, the locations of multiple switching nodes are collected; multiple switching information are defined based on the autonomous detection of the locations of the multiple switching nodes; the switching direction of the automatic switching module is defined based on the multiple switching information, the manual switching module and the first uninterruptible power supply, and multiple switching information, the manual switching module and the first uninterruptible power supply are introduced, which is compatible with the overall control of multiple switching information, the manual switching module and the first uninterruptible power supply, thereby ensuring the accuracy of the switching direction of the automatic switching module.

[0123] At the same time, the automatic switching module and the manual switching module dynamically interact, and the switching direction of the automatic switching module is defined based on the manual switching module and the first uninterruptible power supply, which is compatible with the overall consideration of the manual switching module and the first uninterruptible power supply, realizes multi-dimensional control of the manual switching module and the first uninterruptible power supply, and ensures the accuracy of the switching direction of the automatic switching module.

[0124] refer to Figure 7 , S15: constructing a two-way communication system based on the IP address of the intranet machine and the IP address of the extranet machine, and regulating the connection state of the reverse tunnel based on the two-way communication system, the response time and the corresponding instruction trigger;

[0125] In the specific implementation process of the present invention, the specific steps may be:

[0126] S151: freeze the supply-side load module and perform load detection on the supply-side load module;

[0127] S152: collecting the load amount of the supply-guarantee side load module based on the load detection of the supply-guarantee side load module;

[0128] S153: Associating the load of the supply-guarantee side load module, the second uninterruptible power supply, and the first uninterruptible power supply;

[0129] S154: defining a first path parameter based on the load of the associated supply-guarantee-side load module and the first uninterruptible power supply;

[0130] S155: defining a second path parameter based on the load of the associated supply-guarantee-side load module and the second uninterruptible power supply;

[0131] S156: Define a switching path of the manual switching module according to the second path parameter, the first path parameter, and the supply-side load module.

[0132] In an embodiment of the present application, the load module on the supply side is frozen, and a load detection is performed on the load module on the supply side; based on the load detection of the load module on the supply side, the load amount of the load module on the supply side is collected, the load amount of the load module on the supply side is introduced, and the load amount of the load module on the supply side is further controlled.

[0133] Furthermore, the load capacity of the load module on the supply guarantee side, the second uninterruptible power supply and the first uninterruptible power supply are associated, and the overall control of the load capacity of the load module on the supply guarantee side, the second uninterruptible power supply and the first uninterruptible power supply is compatible, realizing multi-dimensional control of the load capacity of the load module on the supply guarantee side, the second uninterruptible power supply and the first uninterruptible power supply.

[0134] Therefore, a first path parameter is defined based on the load of the associated supply-side load module and the first uninterruptible power supply; a second path parameter is defined based on the load of the associated supply-side load module and the second uninterruptible power supply; and a switching path of the manual switching module is defined according to the second path parameter, the first path parameter and the supply-side load module, thereby ensuring the accuracy of the switching path of the manual switching module.

[0135] refer to Figure 8 , S16: When the external network machine accesses the internal network machine based on the reverse tunnel, the corresponding security control is triggered based on the external network machine and the internal network machine, and the autonomous closing of the reverse tunnel is triggered according to the corresponding access status and duration;

[0136] In the specific implementation process of the present invention, the specific steps may be:

[0137] S161: freeze the second uninterruptible power supply and the first uninterruptible power supply;

[0138] S162: Compare the second uninterruptible power supply and the first uninterruptible power supply;

[0139] S163: defining a corresponding matching coefficient based on a comparison between the second uninterruptible power supply and the first uninterruptible power supply;

[0140] S164: defining a corresponding matching coefficient based on a comparison between the second uninterruptible power supply and the first uninterruptible power supply;

[0141] S165: defining each sub-path according to the matching coefficient, the switching path of the manual switching module, the automatic switching module and the manual switching module;

[0142] S166: defining corresponding power collection nodes based on each sub-path;

[0143] S167: Define the overall control logic of the power supply device according to the power parameters corresponding to each power collection node.

[0144] In the specific implementation process of the present invention, the load of the supply side load module is collected, and the load of the supply side load module, the second uninterruptible power supply and the first uninterruptible power supply are associated; the switching path of the manual switching module is defined according to the load of the supply side load module, the second uninterruptible power supply and the first uninterruptible power supply; the corresponding matching coefficient is defined based on the comparison between the second uninterruptible power supply and the first uninterruptible power supply, and each sub-path is defined according to the matching coefficient, the switching path of the manual switching module, the automatic switching module and the manual switching module; the corresponding power collection node is defined based on each sub-path, and the overall control logic of the power supply device is defined according to the power parameters corresponding to each power collection node, the power parameters corresponding to each power collection node are introduced, and the overall control is performed for multiple power parameters, thereby ensuring the overall control logic of the power supply device, so as to facilitate multi-directional switching of the AC power module, the power generation vehicle, the first uninterruptible power supply and the supply side load module, ensuring the power supply effect of the supply side load module, and reflecting the intelligent control of power supply in the power supply device.

[0145] At this time, the second uninterruptible power supply and the first uninterruptible power supply are frozen; the second uninterruptible power supply and the first uninterruptible power supply are compared, so as to define a corresponding matching coefficient based on the comparison between the second uninterruptible power supply and the first uninterruptible power supply, introduce a matching coefficient, and present a corresponding matching degree through the matching coefficient.

[0146] Therefore, each sub-path is defined according to the matching coefficient, the switching path of the manual switching module, the automatic switching module and the manual switching module; the corresponding power collection node is defined based on each sub-path; the overall control logic of the power supply guarantee device is defined according to the power parameters corresponding to each power collection node, and the power parameters corresponding to each power collection node are introduced, and the overall control is performed on multiple power parameters, thereby ensuring the overall control logic of the power supply guarantee device, so as to facilitate multi-directional switching of the AC power module, the power generation vehicle, the first uninterruptible power supply and the supply side load module, thereby ensuring the power supply effect of the supply side load module and reflecting the intelligent control of power supply in the power supply guarantee device.

[0147] 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.

[0148] In addition, the power supply guarantee device and the control method thereof 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 the general technical personnel in this field, according to the idea of ​​the present invention, there will be changes in the specific implementation mode and the scope of application. In summary, the content of this specification should not be understood as a limitation on the present invention.

Claims

1. A power supply device, characterized in that: include: A box body, for mounting on external components; A mains power module is connected to the box and is used to provide mains power; A generator car connected to the box body and used to provide electricity; An automatic switching module is connected to the mains module and the power generation vehicle; the output end of the automatic switching module is connected to the first uninterruptible power supply; The manual switching module is connected to the mains module via the automatic switching module, and the output end of the manual switching module is connected to the supply side load module.

2. The power supply device according to claim 1, characterized in that: The power generation vehicle and the mains power module are both connected to the input end of the automatic switching module and are arranged relative to each other; The first uninterruptible power supply is connected to the power generation vehicle and the mains power module via an automatic switching module.

3. A control method for a power supply guarantee device, based on the power supply guarantee device according to any one of claims 1 to 2, characterized in that: include: collecting power output of the first uninterruptible power supply; According to the power output of the first uninterruptible power supply and the automatic switching module, a corresponding automatic switching signal is defined; According to the power information parsed by the automatic switching signal, the mains module and the power generation vehicle define the power supply of the mains module and the power supply of the power generation vehicle, and the power supply of the mains module and the power generation vehicle dynamically interact; Dynamically interacting the automatic switching module and the manual switching module, and defining a switching direction of the automatic switching module based on the manual switching module and the first uninterruptible power supply; Collect the load of the load module on the supply guarantee side, and associate the load of the load module on the supply guarantee side, the second uninterruptible power supply, and the first uninterruptible power supply; define a switching path of the manual switching module according to the load of the load module on the supply guarantee side, the second uninterruptible power supply, and the first uninterruptible power supply; Based on the comparison between the second uninterruptible power supply and the first uninterruptible power supply, a corresponding matching coefficient is defined, and each sub-path is defined according to the matching coefficient, the switching path of the manual switching module, the automatic switching module and the manual switching module; based on each sub-path, a corresponding power collection node is defined, and the overall control logic of the power supply device is defined according to the power parameters corresponding to each power collection node.

4. The control method of the power supply device according to claim 3, characterized in that: The collecting of the power output of the first uninterruptible power supply includes: Real-time monitoring of the first uninterruptible power supply; Defining a supply system of the first uninterruptible power supply based on the first uninterruptible power supply, an application state of a first interactive device interacting with the first uninterruptible power supply, and a scenario where the first uninterruptible power supply is located; In the supply system, each supply branch of the first uninterruptible power supply is collected; Collecting corresponding sub-output quantities based on detection of each supply branch of the first uninterruptible power supply; The power output of the first uninterruptible power supply is defined according to the plurality of sub-outputs and the first uninterruptible power supply to collect the power output of the first uninterruptible power supply.

5. The control method of the power supply device according to claim 4, characterized in that: The method of defining a corresponding automatic switching signal according to the power output of the first uninterruptible power supply and the automatic switching module includes: Determine the power output of the first uninterruptible power supply; an automatic switching module for collecting and interacting with a first uninterruptible power supply; Monitor the automatic switching module in real time and collect multiple signals of the automatic switching module in different paths; forming a corresponding signal combination according to the multiple signals of different paths, and associating the signal combination with the power output of the first uninterruptible power supply; A corresponding automatic switching signal is defined according to the signal combination and the power output of the first uninterruptible power supply.

6. The control method of the power supply device according to claim 5, characterized in that: The power information parsed by the automatic switching signal, the mains module and the power generation vehicle define the power supply of the mains module and the power generation vehicle, and the power supply of the mains module and the power generation vehicle interact dynamically, including: Freeze the automatic switching signal, and define corresponding power information according to the analysis of the automatic switching signal; Monitor the dynamic interaction between the mains module and the generator car and the automatic switching module; Associating the power information parsed by the automatic switching signal, the mains module and the power generation vehicle; Defining the power supply of the mains module and the power supply of the power generation vehicle according to the power information analyzed by the automatic switching signal, the mains module and the power generation vehicle; The power supply of the mains module and the power supply of the power generation vehicle are collected, and the corresponding interaction mode is matched according to the power supply of the mains module, the power supply of the power generation vehicle and the automatic switching module, and the dynamic interaction of the power supply of the mains module and the power generation vehicle is triggered according to the interaction mode.

7. The control method of the power supply device according to claim 6, characterized in that: The method of dynamically interacting the automatic switching module and the manual switching module and defining the switching direction of the automatic switching module based on the manual switching module and the first uninterruptible power supply includes: Associate the automatic switching module and the manual switching module; Dynamically interact with automatic switching modules and manual switching modules; Based on the dynamic interaction of the automatic switching module and the manual switching module, the positions of the plurality of switching nodes are collected; Defining a plurality of switching information based on autonomous detection of locations where a plurality of switching nodes are located; The switching direction of the automatic switching module is defined according to the plurality of switching information, the manual switching module and the first uninterruptible power supply.

8. The control method of the power supply device according to claim 7, characterized in that: The collecting of the load of the supply-guarantee side load module and associating the load of the supply-guarantee side load module, the second uninterruptible power supply and the first uninterruptible power supply; The switching path of the manual switching module is defined according to the load of the load module on the supply side, the second uninterruptible power supply, and the first uninterruptible power supply, including: Freeze the load module on the supply side and perform load detection on the load module on the supply side; Collecting the load quantity of the load module on the supply side based on the load detection of the load module on the supply side; Associating the load capacity of the supply-guarantee side load module, the second uninterruptible power supply and the first uninterruptible power supply; Defining a first path parameter based on the load of the associated supply-guarantee-side load module and the first uninterruptible power supply; Defining a second path parameter based on the load of the associated supply-guarantee-side load module and the second uninterruptible power supply; The switching path of the manual switching module is defined according to the second path parameter, the first path parameter and the supply-guarantee-side load module.

9. The control method of the power supply device according to claim 8, characterized in that: The corresponding matching coefficient is defined based on the comparison between the second uninterruptible power supply and the first uninterruptible power supply, and each sub-path is defined according to the matching coefficient, the switching path of the manual switching module, the automatic switching module and the manual switching module; Based on each sub-path, a corresponding power collection node is defined, and according to the power parameters corresponding to each power collection node, the overall control logic of the power supply device is defined, including: Frame the second uninterruptible power supply and the first uninterruptible power supply; comparing the second uninterruptible power supply and the first uninterruptible power supply; A corresponding matching coefficient is defined based on a comparison between the second uninterruptible power supply and the first uninterruptible power supply.

10. The control method of the power supply device according to claim 9, characterized in that: The corresponding matching coefficient is defined based on the comparison between the second uninterruptible power supply and the first uninterruptible power supply, and each sub-path is defined according to the matching coefficient, the switching path of the manual switching module, the automatic switching module and the manual switching module; Based on each sub-path, a corresponding power collection node is defined, and the overall control logic of the power supply device is defined according to the power parameters corresponding to each power collection node, which also includes: The association defines a corresponding matching coefficient based on a comparison between the second uninterruptible power supply and the first uninterruptible power supply; Each sub-path is defined according to the matching coefficient, the switching path of the manual switching module, the automatic switching module and the manual switching module; Define corresponding power collection nodes based on each sub-path; The overall control logic of the power supply device is defined according to the power parameters corresponding to each power collection node.

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