Control method and system of multi-path optical cable ready-for-service device

Abstract

The application discloses a kind of control method and system of multi-path cable spare self-throw device, based on the division of the optical cable path and form multiple sub-optical cable paths;According to the abnormal monitoring of multiple sub-optical cable paths, the corresponding abnormal signal is defined;According to the reverse tracing of abnormal signal, the corresponding abnormal path is matched, the reverse tracing of abnormal signal is realized, and the accuracy of abnormal path is guaranteed.Further, based on the spare optical cable path and multiple sub-optical cable paths form optimized optical cable path;According to the detection of optimized optical cable path, the corresponding multiple state parameters are defined, the state level of optimized optical cable path is defined according to multiple state parameters and corresponding state level model, and the self-regulation of optimized optical cable path is triggered according to the state level, multi-path cable spare self-throw device and the power supply efficiency of multiple regions, the dynamic balance between the state level, multi-path cable spare self-throw device and the power supply efficiency of multiple regions is realized.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of multi-path optical cable backup device, and particularly relates to a control method and system of multi-path optical cable backup device. BACKGROUND

[0002] With the development of science and technology, the multi-path optical cable backup device is applied to people's life, and the cable in abnormal state is replaced. In the prior art, the existing multi-path optical cable backup device controls the abnormal signal in one direction, and matches the corresponding abnormal path along the abnormal signal. However, the accuracy of the abnormal path is low, which affects the optimized optical cable path, and cannot guarantee the self-regulation effect of the optimized optical cable path. SUMMARY

[0003] The present application provides a control method and system of multi-path optical cable backup device, which defines a plurality of regions associated with the multi-path optical cable backup device, and defines corresponding optical cable paths according to the plurality of regions and the multi-path optical cable backup device. A plurality of sub-optical cable paths are formed based on the division of the optical cable paths. Corresponding abnormal signals are defined according to the abnormal monitoring of the plurality of sub-optical cable paths. The reverse tracing of the abnormal signal is realized, and the accuracy of the abnormal path is guaranteed.

[0004] Further, the corresponding abnormal positions are defined based on the detection of the abnormal path, the corresponding abnormal areas are constructed according to the plurality of abnormal positions, the corresponding backup optical cable paths are defined based on the abnormal area, the multi-path optical cable backup device and the abnormal switching logic, the optimized optical cable path is formed based on the backup optical cable path and the plurality of sub-optical cable paths. A plurality of state parameters are defined according to the detection of the optimized optical cable path. The state level of the optimized optical cable path is defined according to the plurality of state parameters and the corresponding state level model. The self-regulation of the optimized optical cable path is triggered according to the state level, the multi-path optical cable backup device and the power supply efficiency of the plurality of regions, so as to realize the multiple interaction of the state level, the multi-path optical cable backup device and the power supply efficiency of the plurality of regions, and guarantee the self-regulation effect of the optimized optical cable path, and realize the dynamic balance between the state level, the multi-path optical cable backup device and the power supply efficiency of the plurality of regions.

[0005] The embodiment of the present application provides a control method of multi-path optical cable backup device, which is applied to the control scene of the multi-path optical cable backup device. The multi-path optical cable backup device comprises a rack and an optical cable module. The optical cable module is installed on the rack and is used for optical cable switching.

[0006] The control method of the multi-path optical cable backup device comprises:

[0007] define a plurality of regions associated with the multi-path optical cable backup device, define a corresponding optical cable path according to the plurality of regions and the multi-path optical cable backup device;

[0008] form a plurality of sub-optical cable paths based on the division of the optical cable path;

[0009] define a corresponding abnormal signal according to the abnormal monitoring of the plurality of sub-optical cable paths;

[0010] match a corresponding abnormal path according to the reverse tracing of the abnormal signal;

[0011] define a corresponding abnormal position based on the detection of the abnormal path, construct a corresponding abnormal area according to the plurality of abnormal positions, define a corresponding backup optical cable path based on the abnormal area, the multi-path optical cable backup device and the abnormal switching logic, and form an optimized optical cable path based on the backup optical cable path and the plurality of sub-optical cable paths;

[0012] define a plurality of state parameters according to the detection of the optimized optical cable path, define a state level of the optimized optical cable path according to the plurality of state parameters and a corresponding state level model, and trigger self-regulation of the optimized optical cable path according to the state level, the multi-path optical cable backup device and the power supply efficiency of the plurality of regions.

[0013] Optionally, the defining a plurality of regions associated with the multi-path optical cable backup device according to the plurality of regions and the multi-path optical cable backup device includes:

[0014] acquire a position where the multi-path optical cable backup device is located;

[0015] trigger positioning detection of the multi-path optical cable backup device according to the position where the multi-path optical cable backup device is located, and define a plurality of associated nodes of the multi-path optical cable backup device according to the positioning detection of the multi-path optical cable backup device;

[0016] define a plurality of regions associated with the multi-path optical cable backup device according to the tracing of the plurality of associated nodes, and define an associated state of the multi-path optical cable backup device and the plurality of regions;

[0017] form a plurality of paths according to the association of the plurality of regions and the multi-path optical cable backup device;

[0018] define a corresponding optical cable path based on the screening of the plurality of paths.

[0019] Optionally, the forming a plurality of sub-optical cable paths based on the division of the optical cable path includes:

[0020] frame the optical cable path;

[0021] According to the self-detection of the optical cable path, a corresponding path length and path distribution position are defined;

[0022] According to the multiple interactions of the path length and the path distribution position, multiple functional areas are defined;

[0023] According to the interactions between the multiple functional areas, a cooperative relationship between the multiple functional areas is defined;

[0024] Based on the relative positions between the multiple functional areas and the cooperative relationship between the multiple functional areas, a path division model is defined, and the division of the optical cable path is triggered according to the path division model to form multiple sub-optical cable paths.

[0025] Optionally, the corresponding abnormal signal is defined according to the abnormal monitoring of the multiple sub-optical cable paths, including:

[0026] The multiple sub-optical cable paths are fixed;

[0027] According to the matching of the multiple sub-optical cable paths and the multi-path optical cable backup automatic switching device, a matching coefficient is defined, and according to the matching coefficient and the past abnormal event matching of the multiple sub-optical cable paths, a corresponding abnormal monitoring model is matched;

[0028] The multiple sub-optical cable paths and the abnormal monitoring model are associated;

[0029] Based on the multiple sub-optical cable paths and the abnormal monitoring model, the abnormal monitoring of the multiple sub-optical cable paths is triggered;

[0030] Based on the abnormal monitoring of the multiple sub-optical cable paths, multiple signals are collected;

[0031] According to the synchronous identification of the multiple signals, a corresponding abnormal signal is defined.

[0032] Optionally, the corresponding abnormal path is matched according to the reverse tracing of the abnormal signal, including:

[0033] The abnormal signal is fixed;

[0034] Based on the abnormal signal and the multi-path optical cable backup automatic switching device, a corresponding reverse tracing model is matched;

[0035] According to the abnormal signal and the reverse tracing model, the reverse tracing of the abnormal signal is triggered;

[0036] According to the reverse tracing of the abnormal signal, a corresponding abnormal path is matched.

[0037] Optionally, the corresponding abnormal position is defined based on the detection of the abnormal path, the corresponding abnormal area is constructed according to the plurality of abnormal positions, the corresponding spare optical cable path is defined based on the abnormal area, the multi-path optical cable spare self-throw device and the abnormal switching logic, and the optimized optical cable path is formed based on the spare optical cable path and the plurality of sub-optical cable paths, comprising:

[0038] Freezing the abnormal path;

[0039] Defining the corresponding abnormal position based on the detection of the abnormal path;

[0040] Constructing the corresponding abnormal area according to the plurality of abnormal positions.

[0041] Optionally, the corresponding abnormal position is defined based on the detection of the abnormal path, the corresponding abnormal area is constructed according to the plurality of abnormal positions, the corresponding spare optical cable path is defined based on the abnormal area, the multi-path optical cable spare self-throw device and the abnormal switching logic, and the optimized optical cable path is formed based on the spare optical cable path and the plurality of sub-optical cable paths, further comprising:

[0042] Associating the abnormal area, the multi-path optical cable spare self-throw device and the abnormal switching logic;

[0043] Defining the corresponding spare optical cable path based on the abnormal area, the multi-path optical cable spare self-throw device and the abnormal switching logic;

[0044] Forming the optimized optical cable path based on the spare optical cable path and the plurality of sub-optical cable paths.

[0045] Optionally, the corresponding plurality of state parameters is defined according to the detection of the optimized optical cable path, the state level of the optimized optical cable path is defined according to the plurality of state parameters and the corresponding state level model, and the self-regulation of the optimized optical cable path is triggered according to the state level, the multi-path optical cable spare self-throw device and the power supply efficiency of the plurality of regions, comprising:

[0046] Freezing the optimized optical cable path;

[0047] Defining the corresponding plurality of state parameters according to the detection of the optimized optical cable path;

[0048] Associating the plurality of state parameters and the corresponding state level model;

[0049] Defining the state level of the optimized optical cable path according to the plurality of state parameters and the corresponding state level model.

[0050] Optionally, the method further comprises:

[0051] According to the state level, the multi-path optical cable backup self-throw device and the power supply efficiency of the multiple regions, a corresponding self-regulation model is matched;

[0052] The self-regulation model and the optimized optical cable path are associated, and self-regulation of the optimized optical cable path is triggered according to the self-regulation model and the optimized optical cable path, so as to maintain the dynamic balance between the state level, the multi-path optical cable backup self-throw device and the power supply efficiency of the multiple regions.

[0053] In addition, the embodiment of the present application also provides a control system of a multi-path optical cable backup self-throw device, the control system of the multi-path optical cable backup self-throw device comprising:

[0054] An optical cable path module is configured to define a plurality of associated regions based on the multi-path optical cable backup self-throw device, and define a corresponding optical cable path based on the multiple regions and the multi-path optical cable backup self-throw device;

[0055] A sub-optical cable path module is configured to form a plurality of sub-optical cable paths based on the division of the optical cable path;

[0056] An abnormal signal module is configured to define a corresponding abnormal signal based on the abnormal monitoring of the multiple sub-optical cable paths;

[0057] An abnormal path module is configured to match a corresponding abnormal path based on the reverse tracing of the abnormal signal;

[0058] An optimization module is configured to define a corresponding abnormal position based on the detection of the abnormal path, construct a corresponding abnormal area based on the multiple abnormal positions, define a corresponding backup optical cable path based on the abnormal area, the multi-path optical cable backup self-throw device and abnormal switching logic, and form an optimized optical cable path based on the backup optical cable path and the multiple sub-optical cable paths;

[0059] A self-regulation module is configured to define a plurality of corresponding state parameters based on the detection of the optimized optical cable path, define a state level of the optimized optical cable path based on the multiple state parameters and a corresponding state level model, and trigger self-regulation of the optimized optical cable path based on the state level, the multi-path optical cable backup self-throw device and the power supply efficiency of the multiple regions.

[0060] In the embodiment of the present application, the method in the embodiment of the present application defines a plurality of regions associated with the multi-cable backup device, defines a corresponding cable path according to the plurality of regions and the multi-cable backup device, forms a plurality of sub-cable paths based on the division of the cable path, defines a corresponding abnormal signal according to the abnormal monitoring of the plurality of sub-cable paths, and matches a corresponding abnormal path according to the reverse tracing of the abnormal signal, thereby realizing reverse tracing of the abnormal signal and ensuring the accuracy of the abnormal path.

[0061] Further, the corresponding abnormal position is defined based on the detection of the abnormal path, the corresponding abnormal area is constructed according to the plurality of abnormal positions, the corresponding backup cable path is defined based on the abnormal area, the multi-cable backup device and the abnormal switching logic, the optimized cable path is formed based on the backup cable path and the plurality of sub-cable paths, the corresponding plurality of state parameters are defined according to the detection of the optimized cable path, the state level of the optimized cable path is defined according to the plurality of state parameters and the corresponding state level model, and the self-regulation of the optimized cable path is triggered according to the state level, the multi-cable backup device and the power supply efficiency of the plurality of regions, so as to realize the multiple interaction of the state level, the multi-cable backup device and the power supply efficiency of the plurality of regions, and ensure the effect of the self-regulation of the optimized cable path, thereby realizing the dynamic balance between the state level, the multi-cable backup device and the power supply efficiency of the plurality of regions. BRIEF DESCRIPTION OF DRAWINGS

[0062] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the drawings needed in the embodiments or prior art description will be briefly introduced below. Obviously, the drawings in the following description are only some embodiments of the present application, and other drawings can be obtained by those skilled in the art without creative labor.

[0063] Figure 1 is a schematic diagram of the multi-cable backup device in the embodiment of the present application;

[0064] Figure 2 is a flowchart of the control method of the multi-cable backup device in the embodiment of the present application;

[0065] Figure 3 is a flowchart of S11 in the control method of the multi-cable backup device in the embodiment of the present application;

[0066] Figure 4 is a flowchart of S12 in the control method of the multi-cable backup device in the embodiment of the present application;

[0067] Figure 5is a flowchart of S13 in the control method of the multi-path optical cable backup device in the embodiment of the application;

[0068] Figure 6 is a flowchart of S14 in the control method of the multi-path optical cable backup device in the embodiment of the application;

[0069] Figure 7 is a flowchart of S15 in the control method of the multi-path optical cable backup device in the embodiment of the application;

[0070] Figure 8 is a flowchart of S16 in the control method of the multi-path optical cable backup device in the embodiment of the application;

[0071] Figure 9 is a structural composition diagram of the control system of the multi-path optical cable backup device in the embodiment of the application;

[0072] Figure 10 is a hardware diagram of an electronic device according to an example embodiment. DETAILED DESCRIPTION

[0073] The technical solutions in the embodiments of the application will be described clearly and completely below with reference to the drawings in the embodiments of the application. Obviously, the described embodiments are only part of the embodiments of the application, rather than all the embodiments. Based on the embodiments in the application, all other embodiments obtained by those skilled in the art without creative labor fall within the protection scope of the application.

[0074] Please refer to Figures 2 to 10 A control method of a multi-path optical cable backup device is applied to a control scenario of the multi-path optical cable backup device. The multi-path optical cable backup device comprises a rack and an optical cable module. The optical cable module is installed on the rack and is used for optical cable switching. The control method of the multi-path optical cable backup device comprises the following steps.

[0075] Step S11: defining a plurality of regions associated with the multi-path optical cable backup device based on the multi-path optical cable backup device, and defining corresponding optical cable paths according to the plurality of regions and the multi-path optical cable backup device;

[0076] Step S12: forming a plurality of sub-optical cable paths based on the division of the optical cable paths;

[0077] Step S13: forming a plurality of sub-optical cable paths based on the division of the optical cable paths;

[0078] Step S14: matching the corresponding abnormal path according to the reverse tracing of the abnormal signal;

[0079] Step S15: defining corresponding abnormal positions based on the detection of the abnormal path, constructing a corresponding abnormal area according to the multiple abnormal positions, defining a corresponding spare optical cable path based on the abnormal area, the multi-path optical cable backup device and the abnormal switching logic, and forming an optimized optical cable path based on the spare optical cable path and the multiple sub-optical cable paths;

[0080] Step S16: defining corresponding multiple state parameters according to the detection of the optimized optical cable path, defining a state level of the optimized optical cable path according to the multiple state parameters and a corresponding state level model, and triggering self-regulation of the optimized optical cable path according to the state level, the multi-path optical cable backup device and the power supply efficiency of the multiple regions.

[0081] In the embodiment of the application, the method in the embodiment of the application defines the associated multiple regions based on the multi-path optical cable backup device, defines the corresponding optical cable path according to the multiple regions and the multi-path optical cable backup device, forms multiple sub-optical cable paths based on the division of the optical cable path, defines corresponding abnormal signals according to the abnormal monitoring of the multiple sub-optical cable paths, and matches the corresponding abnormal path according to the reverse tracing of the abnormal signals, thereby realizing reverse tracing of the abnormal signals and ensuring the accuracy of the abnormal path.

[0082] Further, the corresponding abnormal positions are defined based on the detection of the abnormal path, the corresponding abnormal area is constructed according to the multiple abnormal positions, the corresponding spare optical cable path is defined based on the abnormal area, the multi-path optical cable backup device and the abnormal switching logic, the optimized optical cable path is formed based on the spare optical cable path and the multiple sub-optical cable paths, the corresponding multiple state parameters are defined according to the detection of the optimized optical cable path, the state level of the optimized optical cable path is defined according to the multiple state parameters and the corresponding state level model, and the self-regulation of the optimized optical cable path is triggered according to the state level, the multi-path optical cable backup device and the power supply efficiency of the multiple regions, so as to interact multiple times with the state level, the multi-path optical cable backup device and the power supply efficiency of the multiple regions, thereby ensuring the effect of self-regulation of the optimized optical cable path and realizing dynamic balance between the state level, the multi-path optical cable backup device and the power supply efficiency of the multiple regions.

[0083] Reference Figure 3 In step S11, the associated multiple regions are defined based on the multi-path optical cable backup device, and the corresponding optical cable path is defined according to the multiple regions and the multi-path optical cable backup device.

[0084] In the specific implementation process of the application, the specific steps can be:

[0085] S111: collecting the position of the multi-path optical cable backup device;

[0086] S112: triggering positioning detection of the multi-path optical cable backup device according to the location where the multi-path optical cable backup device is located, and defining a plurality of associated nodes of the multi-path optical cable backup device according to the positioning detection of the multi-path optical cable backup device;

[0087] S113: defining a plurality of regions associated according to the tracing of the plurality of associated nodes, so as to define the association state of the multi-path optical cable backup device and the plurality of regions;

[0088] S114: forming a plurality of paths according to the association of the plurality of regions and the multi-path optical cable backup device;

[0089] S115: defining the corresponding optical cable path based on the screening of the plurality of paths.

[0090] In the embodiment of the present application, the location where the multi-path optical cable backup device is located is collected, the location where the multi-path optical cable backup device is located is introduced, so as to trigger the positioning detection of the multi-path optical cable backup device according to the location where the multi-path optical cable backup device is located, and define a plurality of associated nodes of the multi-path optical cable backup device according to the positioning detection of the multi-path optical cable backup device, so as to control the plurality of associated nodes of the multi-path optical cable backup device in multiple dimensions.

[0091] Further, a plurality of regions associated are defined according to the tracing of the plurality of associated nodes, so as to define the association state of the multi-path optical cable backup device and the plurality of regions, and further control the association state of the multi-path optical cable backup device and the plurality of regions.

[0092] Therefore, a plurality of paths are formed according to the association of the plurality of regions and the multi-path optical cable backup device; the corresponding optical cable path is defined based on the screening of the plurality of paths, so as to realize the screening of the plurality of paths, so as to ensure the accuracy of the optical cable path.

[0093] Reference Figure 4 In step S12, a plurality of sub-optical cable paths are formed based on the division of the optical cable path;

[0094] In the specific implementation process of the present application, the specific steps can be:

[0095] S121: freezing the optical cable path;

[0096] S122: defining the path length and the path distribution position according to the self-detection of the optical cable path;

[0097] S123: defining a plurality of functional areas based on the multiple interactions of the path length and the path distribution position;

[0098] S124: defining the cooperative relationship between a plurality of functional areas according to the interaction between the plurality of functional areas;

[0099] S125: defining a path division model based on the relative positions between the multiple functional areas and the cooperative relationship between the multiple functional areas, and triggering the division of the optical cable path according to the path division model to form multiple sub-optical cable paths.

[0100] In the embodiments of the present application, the optical cable path is fixed, the corresponding path length and path distribution position are defined according to the self-detection of the optical cable path, the path length and path distribution position are introduced, and the overall control of the path length and path distribution position is realized.

[0101] Further, the multiple functional areas are defined based on the multiple interactions of the path length and the path distribution position; the cooperative relationship between the multiple functional areas is defined according to the interaction between the multiple functional areas, which ensures the accuracy of the cooperative relationship between the multiple functional areas.

[0102] Further, the path division model is defined based on the relative positions between the multiple functional areas and the cooperative relationship between the multiple functional areas, and the division of the optical cable path is triggered according to the path division model to form multiple sub-optical cable paths, which is compatible with the overall consideration of the relative positions between the multiple functional areas and the cooperative relationship between the multiple functional areas, realizes the multidimensional control of the relative positions between the multiple functional areas and the cooperative relationship between the multiple functional areas, and ensures the accuracy of the path division model, thereby ensuring the accuracy of the multiple sub-optical cable paths.

[0103] Reference Figure 5 In step S13, the corresponding abnormal signal is defined according to the abnormal monitoring of the multiple sub-optical cable paths;

[0104] In the specific implementation process of the present application, the specific steps can be:

[0105] S131: fixing multiple sub-optical cable paths;

[0106] S132: defining a matching coefficient according to the matching of the multiple sub-optical cable paths and the multiple optical cable backup automatic switching devices, and matching the corresponding abnormal monitoring model according to the matching coefficient and the past abnormal events of the multiple sub-optical cable paths;

[0107] S133: associating the multiple sub-optical cable paths and the abnormal monitoring model;

[0108] S134: triggering the abnormal monitoring of the multiple sub-optical cable paths based on the multiple sub-optical cable paths and the abnormal monitoring model;

[0109] S135: collecting multiple signals based on the abnormal monitoring of the multiple sub-optical cable paths;

[0110] S136: defining a corresponding abnormal signal according to the synchronous identification of the multiple signals.

[0111] In the embodiment of the present application, the plurality of sub-cable paths are defined; the matching coefficient is defined according to the plurality of sub-cable paths and the matching of the multi-path cable spare device; and the corresponding abnormal monitoring model is matched according to the matching coefficient and the past abnormal events of the plurality of sub-cable paths, which comprehensively considers the matching coefficient and the past abnormal events of the plurality of sub-cable paths, realizes multi-dimensional control of the matching coefficient and the past abnormal events of the plurality of sub-cable paths, and ensures the accuracy of the abnormal monitoring model.

[0112] Further, the plurality of sub-cable paths and the abnormal monitoring model are associated; the abnormal monitoring of the plurality of sub-cable paths is triggered based on the plurality of sub-cable paths and the abnormal monitoring model, which realizes the abnormal monitoring of the plurality of sub-cable paths.

[0113] Therefore, the plurality of signals are collected based on the abnormal monitoring of the plurality of sub-cable paths; the corresponding abnormal signal is defined according to the synchronous identification of the plurality of signals, which introduces the abnormal signal, further controls the abnormal signal, and ensures the further processing of the abnormal signal.

[0114] Reference Figure 6 , S14: matching the corresponding abnormal path according to the reverse tracing of the abnormal signal;

[0115] In the specific implementation process of the present application, the specific steps can be:

[0116] S141: defining the abnormal signal;

[0117] S142: matching the corresponding reverse tracing model based on the abnormal signal and the multi-path cable spare device;

[0118] S143: triggering the reverse tracing of the abnormal signal according to the abnormal signal and the reverse tracing model;

[0119] S144: matching the corresponding abnormal path according to the reverse tracing of the abnormal signal.

[0120] In the embodiment of the present application, the plurality of regions associated with the multi-path cable spare device are defined based on the multi-path cable spare device; the corresponding cable path is defined according to the plurality of regions and the multi-path cable spare device; the plurality of sub-cable paths are formed based on the division of the cable path; the corresponding abnormal signal is defined according to the abnormal monitoring of the plurality of sub-cable paths; and the reverse tracing of the abnormal signal is realized, and the accuracy of the abnormal path is ensured.

[0121] At this time, the abnormal signal is defined, the abnormal signal is introduced, and the abnormal signal is controlled, and then the corresponding reverse tracing model is matched based on the abnormal signal and the multi-path cable spare device, which ensures the accuracy of the reverse tracing model.

[0122] Further, the abnormal signal and the reverse tracing model are triggered according to the abnormal signal and the reverse tracing model, the corresponding abnormal path is matched according to the reverse tracing of the abnormal signal, the overall control of the abnormal signal and the reverse tracing model is introduced, the multidimensional control of the abnormal signal and the reverse tracing model is realized, and the accuracy of the abnormal path is ensured.

[0123] Reference Figure 7 S15: defining the corresponding abnormal position based on the detection of the abnormal path, constructing the corresponding abnormal area according to the multiple abnormal positions, defining the corresponding spare optical cable path based on the abnormal area, the multi-path optical cable self-operation device and the abnormal switching logic, and forming the optimized optical cable path based on the spare optical cable path and the multiple sub-optical cable paths;

[0124] In the specific implementation process of the application, the specific steps can be:

[0125] S151: freezing the abnormal path;

[0126] S152: defining the corresponding abnormal position based on the detection of the abnormal path;

[0127] S153: constructing the corresponding abnormal area according to the multiple abnormal positions;

[0128] S154: associating the abnormal area, the multi-path optical cable self-operation device and the abnormal switching logic;

[0129] S155: defining the corresponding spare optical cable path based on the abnormal area, the multi-path optical cable self-operation device and the abnormal switching logic;

[0130] S156: forming the optimized optical cable path based on the spare optical cable path and the multiple sub-optical cable paths.

[0131] In the embodiment of the application, the abnormal path is frozen, the corresponding abnormal position is defined based on the detection of the abnormal path, the corresponding abnormal position is introduced, the corresponding abnormal area is constructed according to the multiple abnormal positions, and the control of the abnormal area is realized.

[0132] Further, the abnormal area, the multi-path optical cable self-operation device and the abnormal switching logic are associated, the corresponding spare optical cable path is defined based on the abnormal area, the multi-path optical cable self-operation device and the abnormal switching logic, the overall consideration of the abnormal area, the multi-path optical cable self-operation device and the abnormal switching logic is compatible, the multidimensional control of the abnormal area, the multi-path optical cable self-operation device and the abnormal switching logic is realized, and the accuracy of the spare optical cable path is ensured.

[0133] Therefore, the optimized optical cable path is formed based on the backup optical cable path and the plurality of sub optical cable paths, the backup optical cable path and the plurality of sub optical cable paths are connected, the abnormal path is replaced, the backup optical cable path is fully utilized, and the accuracy of the backup optical cable path is ensured.

[0134] Reference Figure 8 S16: defining a plurality of state parameters corresponding to the optimized optical cable path according to detection of the optimized optical cable path, defining a state level of the optimized optical cable path according to the plurality of state parameters and a corresponding state level model, and triggering self-regulation of the optimized optical cable path according to the state level, the multi-path optical cable backup self-operation device and power supply efficiency of the plurality of regions;

[0135] In the specific implementation process of the present application, the specific steps can be:

[0136] S161: defining the optimized optical cable path;

[0137] S162: defining a plurality of state parameters corresponding to the optimized optical cable path according to detection of the optimized optical cable path;

[0138] S163: correlating the plurality of state parameters and the corresponding state level model;

[0139] S164: defining a state level of the optimized optical cable path according to the plurality of state parameters and the corresponding state level model;

[0140] S165: matching a corresponding self-regulation model according to multiple interactions of the state level, the multi-path optical cable backup self-operation device and the power supply efficiency of the plurality of regions;

[0141] S166: correlating the self-regulation model and the optimized optical cable path, triggering self-regulation of the optimized optical cable path according to the self-regulation model and the optimized optical cable path, so as to maintain dynamic balance between the state level, the multi-path optical cable backup self-operation device and the power supply efficiency of the plurality of regions.

[0142] In the embodiment of the present application, the corresponding abnormal position is defined based on the detection of the abnormal path, the corresponding abnormal area is constructed according to the plurality of abnormal positions, the corresponding spare optical cable path is defined based on the abnormal area, the multi-path optical cable spare self-throw device and the abnormal switching logic, the optimized optical cable path is formed based on the spare optical cable path and the plurality of sub-optical cable paths; the corresponding plurality of state parameters are defined according to the detection of the optimized optical cable path, the state level of the optimized optical cable path is defined according to the plurality of state parameters and the corresponding state level model, and the self-regulation of the optimized optical cable path is triggered according to the state level, the multi-path optical cable spare self-throw device and the power supply efficiency of the plurality of regions, so as to realize the multiple interactions between the state level, the multi-path optical cable spare self-throw device and the power supply efficiency of the plurality of regions, and ensure the effect of the self-regulation of the optimized optical cable path, and realize the dynamic balance between the state level, the multi-path optical cable spare self-throw device and the power supply efficiency of the plurality of regions.

[0143] At this time, the optimized optical cable path is fixed, and the optimized optical cable path is controlled, and at the same time, the plurality of state parameters corresponding to the detection of the optimized optical cable path are defined, the detection of the optimized optical cable path is introduced, so as to output the plurality of state parameters, and the accuracy of the plurality of state parameters is ensured.

[0144] Further, the plurality of state parameters and the corresponding state level model are associated; the state level of the optimized optical cable path is defined according to the plurality of state parameters and the corresponding state level model, the plurality of state parameters and the corresponding state level model are introduced, the plurality of state parameters and the corresponding state level model are controlled in multiple dimensions, and the accuracy of the state level of the optimized optical cable path is ensured.

[0145] Therefore, the corresponding self-regulation model is matched according to the multiple interactions between the state level, the multi-path optical cable spare self-throw device and the power supply efficiency of the plurality of regions; the self-regulation model and the optimized optical cable path are associated, and the self-regulation of the optimized optical cable path is triggered according to the self-regulation model and the optimized optical cable path, so as to maintain the dynamic balance between the state level, the multi-path optical cable spare self-throw device and the power supply efficiency of the plurality of regions.

[0146] At this time, the self-regulation of the optimized optical cable path is triggered according to the state level, the multi-path optical cable spare self-throw device and the power supply efficiency of the plurality of regions, so as to realize the multiple interactions between the state level, the multi-path optical cable spare self-throw device and the power supply efficiency of the plurality of regions, and ensure the effect of the self-regulation of the optimized optical cable path, and realize the dynamic balance between the state level, the multi-path optical cable spare self-throw device and the power supply efficiency of the plurality of regions.

[0147] In another embodiment of the present application, the structure of the multi-path optical cable backup device is described, the multi-path optical cable backup device 100 includes a rack 10 and an optical cable module 20, the optical cable module 20 is installed on the rack 10 and is used for optical cable switching. At this time, for the optical cable module 20, the optical cable module 20 is connected through the internal circuit board, when the optical path running state automatic detection module detects that the optical power in the normal optical path is abnormal, a signal is sent to the automatic switching module, and the automatic switching module switches to the standby optical fiber, thereby ensuring communication.

[0148] In the embodiment of the present application, based on the multi-path optical cable backup device, a plurality of regions associated with the multi-path optical cable backup device are defined, and a corresponding optical cable path is defined according to the plurality of regions and the multi-path optical cable backup device; a plurality of sub-optical cable paths are formed based on the division of the optical cable path; a corresponding abnormal signal is defined according to the abnormal monitoring of the plurality of sub-optical cable paths; and a corresponding abnormal path is matched according to the reverse tracing of the abnormal signal, thereby realizing reverse tracing of the abnormal signal and ensuring the accuracy of the abnormal path.

[0149] Further, based on the detection of the abnormal path, a corresponding abnormal position is defined, a corresponding abnormal area is constructed according to a plurality of abnormal positions, a corresponding standby optical cable path is defined based on the abnormal area, the multi-path optical cable backup device and the abnormal switching logic, and an optimized optical cable path is formed based on the standby optical cable path and the plurality of sub-optical cable paths; a plurality of state parameters are defined according to the detection of the optimized optical cable path, a state level of the optimized optical cable path is defined according to the plurality of state parameters and a corresponding state level model, and self-regulation of the optimized optical cable path is triggered according to the state level, the multi-path optical cable backup device and the power supply efficiency of the plurality of regions, so as to realize multiple interactions between the state level, the multi-path optical cable backup device and the power supply efficiency of the plurality of regions, and ensure the effect of self-regulation of the optimized optical cable path, thereby realizing dynamic balance between the state level, the multi-path optical cable backup device and the power supply efficiency of the plurality of regions.

[0150] Please refer to Figure 9 , Figure 9 is a structural composition diagram of the control system of the multi-path optical cable backup device in the embodiment of the present application.

[0151] As Figure 9 shown, a control system of a multi-path optical cable backup device, the control system of the multi-path optical cable backup device includes:

[0152] An optical cable path module 21 is configured to define a plurality of regions associated with a multi-path optical cable backup device, and define a corresponding optical cable path according to the plurality of regions and the multi-path optical cable backup device;

[0153] A sub-cable path module 22 is configured to form a plurality of sub-cable paths based on the division of the cable path;

[0154] An abnormal signal module 23 is configured to define corresponding abnormal signals according to the abnormal monitoring of the plurality of sub-cable paths;

[0155] An abnormal path module 24 is configured to match corresponding abnormal paths according to the backtracking of the abnormal signals;

[0156] An optimization module 25 is configured to define corresponding abnormal positions based on the detection of the abnormal paths, to construct corresponding abnormal areas according to the plurality of abnormal positions, to define corresponding backup cable paths based on the abnormal areas, the multi-path cable backup device and the abnormal switching logic, and to form an optimized cable path based on the backup cable paths and the plurality of sub-cable paths.

[0157] A self-regulation module 26 is configured to define corresponding state parameters according to the detection of the optimized cable path, to define the state level of the optimized cable path according to the plurality of state parameters and the corresponding state level model, and to trigger the self-regulation of the optimized cable path according to the state level, the multi-path cable backup device and the power supply efficiency of the plurality of regions.

[0158] Referring to Figure 10 , the electronic device 40 according to this embodiment of the present application will be described below with reference to Figure 10 . Figure 10 The electronic device 40 shown is merely an example and should not limit the function and use range of the embodiments of the present application.

[0159] As shown in Figure 10 , the electronic device 40 is in the form of a general computing device. The components of the electronic device 40 can include, but are not limited to, the above-mentioned at least one processing unit 41, the above-mentioned at least one storage unit 42, and a bus 43 connecting different system components, including the storage unit 42 and the processing unit 41.

[0160] The storage unit stores program code that can be executed by the processing unit 41, so that the processing unit 41 performs the steps according to various exemplary embodiments of the present application described in the above "embodiment method" part of the specification.

[0161] The storage unit 42 can include a readable medium in the form of a volatile storage unit, such as a random access memory (RAM) 421 and / or a cache memory 422, and can further include a read-only memory (ROM) 423.

[0162] The storage unit 42 can also include a program / utility 424 having a set (at least one) of program modules 425, including but not limited to an operating system, one or more application programs, other program modules, and program data, each of which can include implementations of the network environment in its entirety or a combination of the examples.

[0163] The bus 43 can represent one or more of several types of bus structures, including a storage unit bus or bus controller, a peripheral bus, a graphics acceleration port, a processing unit bus, or a local bus using any of a variety of bus architectures.

[0164] The electronic device 40 can also communicate with one or more external devices such as a keyboard or a pointing device, through an I / O interface 44. Additionally, the electronic device 40 can communicate with one or more devices that enable a user to interact with the electronic device 40, and / or one or more devices that enable the electronic device 40 to communicate with one or more other computing devices. Such communication can occur via an I / O interface 44. Still yet, the electronic device 40 can communicate with one or more networks (such as a local area network (LAN), a wide area network (WAN), and / or the Internet) through a network adapter 45. As Figure 10 illustrated, the network adapter 45 can communicate with the other components of the electronic device 40 through the bus 43. It should be understood that although not shown, other hardware and / or software components could be used in conjunction with the electronic device 40. These include, but are not limited to, microcode, device drivers, redundant processing units, external disk drive arrays, RAID systems, tape drives, and data archival Figure 10 systems, etc.

[0165] Those skilled in the art will readily recognize that the example embodiments described herein can be implemented using software and / or hardware in combination with software. Thus, the technical solutions according to the embodiments 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 disk, a mobile hard disk, etc.) or a network, and includes a number of instructions to make a computing device (which can be a personal computer, a server, a multi-parameter sensor device, or a network device, etc.) execute the methods according to the embodiments of the present disclosure.

[0166] Those skilled in the art can understand that all or part of the steps of various methods in the above embodiments can be completed by instructing the relevant hardware through a program, and the program can be stored in a computer readable storage medium, which can include read only memory (ROM), random access memory (RAM), magnetic disk or optical disk, etc. Moreover, the computer readable storage medium stores computer program instructions, which, when executed by a computer, cause the computer to execute the method according to the above.

[0167] In addition, the control method and system of the multi-path optical cable backup device provided by the embodiments of the present application are described in detail above, and the principles and implementation manners of the present application are described by using specific examples. The above description of the embodiments is only used to help understand the method of the present application and its core idea; for those skilled in the art, according to the idea of the present application, the specific implementation manner and application range will be changed, and the above description should not be understood as a limitation of the present application.

Claims

1. A control method for a multi-channel optical cable automatic transfer switch, characterized in that, This is applied to the control scenario of a multi-channel optical cable backup automatic transfer device; the multi-channel optical cable backup automatic transfer device includes a rack and optical cable modules, the optical cable modules are installed on the rack and used for optical cable switching; The control method for the multi-channel optical cable automatic transfer switch includes: Based on the definition of multiple regions associated with the multi-path optical cable backup automatic transfer device, the corresponding optical cable path is defined according to the multiple regions and the multi-path optical cable backup automatic transfer device; Multiple sub-optical cable paths are formed based on the division of this optical cable path; The corresponding abnormal signals are defined based on the abnormal monitoring of multiple sub-optical cable paths; Match the corresponding abnormal path by tracing back the abnormal signal; Based on the detection of abnormal paths, the corresponding abnormal locations are defined, and the corresponding abnormal regions are constructed according to multiple abnormal locations. Based on the abnormal regions, multi-path optical cable backup automatic transfer devices, and abnormal switching logic, the corresponding backup optical cable paths are defined, and the optimized optical cable paths are formed based on the backup optical cable paths and multiple sub-optical cable paths. Based on the detection of the optimized optical cable path, multiple corresponding state parameters are defined. Based on the multiple state parameters and the corresponding state level model, the state level of the optimized optical cable path is defined. Based on the state level, the multi-channel optical cable backup automatic transfer device, and the power supply efficiency of multiple regions, the self-regulation of the optimized optical cable path is triggered.

2. The control method for the multi-channel optical cable automatic transfer switch according to claim 1, characterized in that, The multiple regions defined by the multi-path optical cable backup automatic transfer device, and the corresponding optical cable paths defined according to the multiple regions and the multi-path optical cable backup automatic transfer device, include: Location of the multi-channel optical cable automatic transfer switch; The location detection of the multi-channel optical cable backup automatic transfer device is triggered based on its location, and multiple associated nodes of the multi-channel optical cable backup automatic transfer device are defined based on the location detection of the multi-channel optical cable backup automatic transfer device. The association status between the multi-optical cable backup automatic transfer device and multiple regions is defined by tracing multiple associated nodes. Multiple paths are formed based on the connection between multiple regions and multiple optical fiber backup automatic transfer devices; The corresponding optical cable path is defined based on the selection of multiple paths.

3. The control method for the multi-channel optical cable automatic transfer switch according to claim 2, characterized in that, The division of the optical cable path into multiple sub-optical cable paths includes: Freeze the image of the optical cable path; The path length and path distribution location are defined based on the self-detection of the optical cable path; Multiple functional areas are defined based on the path length and the multiple interactions of the path distribution location; Define the collaborative relationships between multiple functional areas based on their interactions; A path partitioning model is defined based on the relative positions and collaborative relationships between multiple functional areas. The partitioning of the optical cable path is triggered according to the path partitioning model to form multiple sub-optical cable paths.

4. The control method for the multi-channel optical cable automatic transfer switch according to claim 3, characterized in that, The definition of corresponding abnormal signals based on abnormal monitoring of multiple sub-optical cable paths includes: Freeze multiple sub-optical cable paths; A matching coefficient is defined based on the matching of multiple sub-optical cable paths and multiple optical cable backup automatic transfer devices, and a corresponding abnormal monitoring model is matched based on the matching coefficient and past abnormal events of multiple sub-optical cable paths. Associate multiple sub-optical cable paths and anomaly monitoring models; Anomaly monitoring of multiple sub-optical cable paths is triggered based on multiple sub-optical cable paths and anomaly monitoring models. Multiple signals are collected based on anomaly monitoring of multiple sub-optical cable paths; The corresponding abnormal signal is defined based on the synchronous identification of multiple signals.

5. The control method for the multi-channel optical cable automatic transfer switch according to claim 4, characterized in that, The process of matching the corresponding abnormal path based on the reverse tracing of the abnormal signal includes: Freeze the abnormal signal; Based on the abnormal signals and the corresponding reverse tracing model for the multi-channel optical cable backup automatic transfer device; Trigger reverse tracing of abnormal signals based on abnormal signals and the reverse tracing model; Match the corresponding abnormal path by tracing back the abnormal signal.

6. The control method for the multi-channel optical cable automatic transfer switch according to claim 5, characterized in that, The method defines corresponding abnormal locations based on abnormal path detection, constructs corresponding abnormal regions based on multiple abnormal locations, defines corresponding backup optical cable paths based on the abnormal regions, multi-path optical cable automatic transfer devices, and abnormal switching logic, and forms optimized optical cable paths based on the backup optical cable paths and multiple sub-optical cable paths, including: Freeze the abnormal path; The corresponding abnormal location is defined based on the detection of abnormal paths; Construct corresponding abnormal regions based on multiple abnormal locations.

7. The control method for the multi-channel optical cable automatic transfer switch according to claim 6, characterized in that, The process of defining corresponding abnormal locations based on abnormal path detection, constructing corresponding abnormal regions based on multiple abnormal locations, defining corresponding backup optical cable paths based on the abnormal regions, multi-path optical cable automatic transfer devices, and abnormal switching logic, and forming optimized optical cable paths based on the backup optical cable paths and multiple sub-optical cable paths, further includes: Associate abnormal areas, multi-channel optical cable backup automatic transfer devices, and abnormal switching logic; Based on the abnormal area, the multi-path optical cable backup automatic transfer device, and the abnormal switching logic, the corresponding backup optical cable path is defined. An optimized optical cable path is formed based on the backup optical cable path and multiple sub-optical cable paths.

8. The control method for the multi-channel optical cable automatic transfer switch according to claim 7, characterized in that, The process involves defining multiple state parameters based on the detection of the optimized optical cable path, defining the state level of the optimized optical cable path based on these parameters and the corresponding state level model, and triggering the self-regulation of the optimized optical cable path based on this state level, the multi-path optical cable backup automatic transfer device, and the power supply efficiency of multiple regions. This includes: The optimized optical cable path is now fixed. Multiple state parameters are defined based on the detection of the optimized optical cable path; Associate multiple state parameters and their corresponding state level models; The optimized optical cable path's state level is defined based on multiple state parameters and the corresponding state level model.

9. The control method for the multi-channel optical cable automatic transfer switch according to claim 8, characterized in that, The process of defining multiple state parameters based on the detection of the optimized optical cable path, defining the state level of the optimized optical cable path based on the multiple state parameters and the corresponding state level model, and triggering the self-regulation of the optimized optical cable path based on the state level, the multi-path optical cable backup automatic transfer device, and the power supply efficiency of multiple regions, further includes: The corresponding self-regulation model is matched based on the multiple interactions of the status level, the multi-channel optical cable backup automatic transfer device, and the power supply efficiency of multiple regions. The self-regulation model and the optimized optical cable path are associated. Based on the self-regulation model and the optimized optical cable path, the self-regulation of the optimized optical cable path is triggered to maintain a dynamic balance between the state level, the multi-path optical cable backup automatic transfer device, and the power supply efficiency of multiple regions.

10. A control system for a multi-channel optical cable automatic transfer switch, characterized in that, The control system of the multi-channel optical cable backup automatic transfer device is applied to the control method of the multi-channel optical cable backup automatic transfer device as described in any one of claims 1-9, and the control system of the multi-channel optical cable backup automatic transfer device includes: The optical cable path module is used to define multiple regions associated with the multi-channel optical cable backup automatic transfer device, and to define the corresponding optical cable path according to the multiple regions and the multi-channel optical cable backup automatic transfer device. Sub-optical cable path module, used to form multiple sub-optical cable paths based on the division of the optical cable path; The abnormal signal module is used to define corresponding abnormal signals based on the abnormal monitoring of multiple sub-optical cable paths; The abnormal path module is used to match the corresponding abnormal path based on the reverse tracing of abnormal signals. The optimization module is used to define the corresponding abnormal location based on the detection of abnormal paths, construct the corresponding abnormal region based on multiple abnormal locations, define the corresponding backup optical cable path based on the abnormal region, the multi-path optical cable backup automatic transfer device and the abnormal switching logic, and form the optimized optical cable path based on the backup optical cable path and multiple sub-optical cable paths. The self-regulation module is used to define multiple corresponding state parameters based on the detection of the optimized optical cable path, define the state level of the optimized optical cable path based on the multiple state parameters and the corresponding state level model, and trigger the self-regulation of the optimized optical cable path based on the state level, the multi-channel optical cable backup automatic transfer device, and the power supply efficiency of multiple regions.

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