CN109756365B - Fault analysis method and system for power communication network - Google Patents
Fault analysis method and system for power communication network Download PDFInfo
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Abstract
The invention provides a fault analysis method of a power communication network, which comprises the following steps: s1, constructing a power communication network model and a corresponding topological graph and a power communication cabinet model graph thereof, selecting at least one resource object in the topological graph and selecting at least one resource object in the power communication cabinet model graph to set a fault point; s2, setting an event for the entity equipment corresponding to the power communication network model, so that the entity equipment with the set event is in a normal working state or an abnormal working state; and S3, judging whether the set fault point has power supply equipment, if so, judging the fault states of all communication equipment powered by the power supply equipment according to the set fault judgment rule, and then judging the fault states of the communication equipment powered by other power supply equipment and the fault states of the service carried by the communication equipment. The invention has wide resource objects and can help to provide correct and effective forecasting results of the faults of the power communication network.
Description
Technical Field
The invention relates to the technical field of electric power, in particular to a fault analysis method and system for an electric power communication network.
Background
As the scale of the power communication network becomes larger and larger, the scale of the equipment is increased, and the risk of system failure brings challenges to the risk management and control of operation and maintenance managers and the capability of emergency handling of failure. In order to ensure safe, effective and stable operation of the power communication network, the faults which can occur in the circuit communication network need to be simulated in advance, and the influence of foreseeable faults on the service borne by the power communication network is simulated, so that maintenance personnel of the power communication network can conveniently set an emergency plan so as to effectively deal with the fault risk in the operation of the power communication network. The resource object coverage area of the currently realized N-1 analysis method of the resource system is insufficient, the N-1 analysis of a plurality of facility devices also needs human prediction analysis, the fault analysis aiming at a single type of resource object cannot meet the operation and maintenance management requirements of large-scale devices, and the fault positioning accuracy and the emergency disposal efficiency of the conventional N-1 analysis cannot meet the requirements of the development of the power communication network.
In view of the above current situation, the operation and maintenance management of the power communication network urgently needs to design and implement a function of fault analysis which can cover a wide range of resource objects, has multiple objects and can reach specific conclusions, and can provide a correct and effective forecasting result under the requirement of preventing the service channel fault of the power communication network, thereby providing more powerful support for risk emergency treatment.
Disclosure of Invention
In order to solve the technical problems, the invention provides a fault analysis method and system for a power communication network, which cover a wide range of resource objects, can help to provide a correct and effective prediction result of the power communication network fault, and provide more powerful support for the risk emergency disposal of the power communication network.
The invention provides a fault analysis method of a power communication network, which comprises the following steps:
s1, constructing a power communication network model, a topological graph corresponding to the power communication network model and a power communication cabinet model graph, selecting at least one resource object in the topological graph, selecting at least one resource object in the power communication cabinet model graph, and sequentially setting fault points for the selected resource objects according to a set sequence;
s2, setting an event for the corresponding entity equipment in the electric power communication network model according to the equipment event selected by the user, so that the entity equipment with the set event is in a normal working state or an abnormal working state;
and S3, judging whether power equipment exists in the set fault points, if so, judging the fault states of all communication equipment powered by the power equipment according to the set fault judgment rule, judging the fault states of the communication equipment not powered by the power equipment in the set fault points according to the set fault judgment rule, and analyzing the fault states of the services borne by all the communication equipment.
Preferably, in step S2, the setting an event to the corresponding physical device in the power communication network model includes: setting an event for at least one of a power supply device, an optical cable device and a communication device in the power communication network model;
wherein the event set to the power supply device includes: one of normal power supply, power supply interruption and partial power supply interruption;
the events set up for the cable plant include: one of interruption and degradation of the fiber segment and the fiber core;
the events set to the communication device include: communication breakpoints, interruptions, input jitter, and lack of sensitivity of the communication device.
Preferably, in step S3, the method for determining the fault states of all communication devices powered by the power supply device according to the set fault determination rule includes the following steps:
starting to search the communication equipment and the bearing service thereof of the downstream fault point of the power supply by taking the power supply equipment as a starting point;
acquiring all power supply paths of the communication equipment;
judging a power supply path fault state of the communication equipment, wherein the power supply path fault state comprises a power supply normal state and a power supply interruption state;
according to a set fault judgment rule, judging the fault state of the communication equipment and the service carried by the communication equipment which is powered by the power supply equipment by utilizing the fault state of the power supply path of the communication equipment; the fault state of the communication equipment and the bearing service thereof comprises: a power supply normal state, a power supply interruption state, and a power supply reliability reduction state.
Preferably, the method further comprises the following steps:
and determining the fault states of the communication equipment with the fault point and the entity objects, the carried optical paths/circuit channels and the data transmission path relay sections contained in the communication equipment with the power supply equipment by combining the power communication network model, the topological graph and the power communication cabinet model graph and utilizing the fault states of the communication equipment with the fault point and the communication equipment with the power supply equipment.
Preferably, the method further comprises the following steps:
and sequencing the fault states of the communication equipment and the bearing service thereof, the entity object, the bearing light path/circuit channel and the relay section contained in the communication equipment from high to low according to the severity, and displaying the fault state of the communication equipment and the bearing service thereof with the highest severity and the fault states of the entity object, the bearing light path/circuit channel and the relay section of the data transmission path contained in the communication equipment.
The invention also provides a fault analysis system of the power communication network, which comprises the following components:
the model building and fault point setting module is used for building a power communication network model, a topological graph and a power communication cabinet model graph corresponding to the power communication network model, selecting at least one resource object in the topological graph, selecting at least one resource object in the power communication cabinet model graph and sequentially setting fault points for the selected resource objects according to a set sequence;
the event setting module is used for setting an event for the corresponding entity equipment in the electric power communication network model according to the equipment event selected by the user, so that the entity equipment with the set event is in a normal working state or an abnormal working state;
the first fault judgment module is used for judging whether power supply equipment exists in the set fault points or not, if so, judging the fault states of all communication equipment powered by the power supply equipment according to the set fault judgment rule, judging the fault states of the communication equipment not powered by the power supply equipment in the set fault points according to the set fault judgment rule, and analyzing the fault states of the services borne by all the communication equipment.
Preferably, setting an event to a corresponding entity device in the power communication network model includes: setting an event for at least one of a power supply device, an optical cable device and a communication device in the power communication network model;
wherein the event set to the power supply device includes: one of normal power supply, power supply interruption and partial power supply interruption;
the events set up for the cable plant include: one of interruption and degradation of the fiber segment and the fiber core;
the events set to the communication device include: communication breakpoints, interruptions, input jitter, and lack of sensitivity of the communication device.
Preferably, the first failure determination module includes:
the communication equipment searching unit is used for starting to search the communication equipment and the bearing service thereof of the downstream fault point of the power supply by taking the power supply equipment as a starting point;
a power supply path acquisition unit configured to acquire all power supply paths of the communication device;
the power supply path fault judging unit is used for judging the power supply path fault state of the communication equipment, and the power supply path fault state comprises a power supply normal state and a power supply interruption state;
the equipment and service fault judging unit is used for judging the fault state of the communication equipment and the service carried by the communication equipment which is powered by the power supply equipment by utilizing the fault state of the power supply path of the communication equipment according to a set fault judging rule; the fault state of the communication equipment and the bearing service thereof comprises: a power supply normal state, a power supply interruption state, and a power supply reliability reduction state.
Preferably, the method further comprises the following steps:
and the second fault judgment module is used for combining the electric power communication network model, the topological graph and the electric power communication cabinet model graph, and determining the fault states of the communication equipment with the fault point and the entity objects, the borne light paths/circuit channels and the data transmission path relay sections contained in the communication equipment with the power supply equipment by utilizing the fault states of the communication equipment with the fault point and the communication equipment with the power supply equipment.
Preferably, the method further comprises the following steps:
and the fault state display module is used for sequencing the fault states of the communication equipment and the bearing service thereof, the entity objects, the bearing light paths/circuit channels and the relay sections contained in the communication equipment from high to low according to the severity, and displaying the fault state of the communication equipment and the bearing service thereof with the highest severity and the fault states of the entity objects, the bearing light paths/circuit channels and the data transmission path relay sections contained in the communication equipment.
The implementation of the invention has the following beneficial effects: the invention can carry out correlation analysis on a plurality of resource objects and set events for corresponding entity equipment in the power communication network model by constructing the power communication network model, the corresponding network topological graph and the power communication cabinet model graph, so that different types of resource objects are matched with different events And (5) carrying out decision support on the overhaul scheduling scheme.
Drawings
In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings used in the description of the embodiments or the prior art will be briefly described below, it is obvious that the drawings in the following description are only some embodiments of the present invention, and for those skilled in the art, other drawings can be obtained according to the drawings without creative efforts.
Fig. 1 is a flowchart of a fault analysis method for a power communication network provided by the present invention.
Fig. 2 is a schematic block diagram of a fault analysis system of a power communication network provided by the present invention.
Detailed Description
The invention provides a fault analysis method of a power communication network, which comprises the following steps as shown in figure 1:
s1, constructing a power communication network model, a topological graph corresponding to the power communication network model and a power communication cabinet model graph, selecting at least one resource object in the topological graph, selecting at least one resource object in the power communication cabinet model graph, and sequentially setting fault points for the selected resource objects according to a set sequence;
s2, setting an event for the corresponding entity equipment in the power communication network model according to the equipment event selected by the user, so that the entity equipment with the set event is in a normal working state or an abnormal working state; some devices have no event and do not need to be set;
and S3, judging whether the set fault points have power supply equipment, if so, judging the fault states of all communication equipment powered by the power supply equipment according to the set fault judgment rule, judging the fault states of the communication equipment not powered by the power supply equipment in the set fault points according to the set fault judgment rule, and analyzing the fault states of the services carried by all the communication equipment. Specifically, the light paths, circuits, hybrid channels, hops, affected entity objects and summary information carried by all the communication devices are finally analyzed.
Further, in step S2, the setting an event to the corresponding physical device in the power communication network model includes: and setting an event for at least one of a power supply device, an optical cable device and a communication device in the power communication network model. The event is a known influence factor set when equipment failure analysis is performed, and different events can be set for equipment with an event type requirement.
Wherein the event set to the power supply device includes: and the power supply is one of normal power supply, power supply interruption and partial power supply interruption.
The events set up for the cable plant include: one of a disruption and degradation of the fiber segment and the fiber core.
The events set to the communication device include: communication breakpoints, interruptions, input jitter, and lack of sensitivity of the communication device.
Here, events that can be set for different types of communication devices, for example, a 2M branch board, a 2M branch protection board, an MSTP (Multi-Service Transfer Platform, SDH-based Multi-Service transport Platform) function board, an MSTP interface board, a cross board, a clock board, and a transmission power card are off-line (power-off), and events that can be set by the optical line board are: input jitter, lack of sensitivity, dislocation (interruption), etc., and the events that the main control board can set are dislocation (power off) and exception.
Further, in step S3, the method for determining the fault state of all communication devices powered by the power supply device according to the set fault determination rule includes the following steps:
starting to search the communication equipment and the bearing service thereof of the downstream fault point of the power supply by taking the power supply equipment as a starting point; the communication apparatus herein includes: SDH (Synchronous Digital Hierarchy) equipment, data network equipment, switching network equipment, and the like.
Acquiring all power supply paths of the communication equipment;
judging a power supply path fault state of the communication equipment, wherein the power supply path fault state comprises a power supply normal state and a power supply interruption state;
according to a set fault judgment rule, judging the fault state of the communication equipment and the bearing service thereof powered by the power supply equipment by using the power supply path fault state of the communication equipment; the fault state of the communication equipment and the bearing service thereof comprises: a power supply normal state, a power supply interruption state, and a power supply reliability reduction state.
Specifically, for example, when a plurality of rectifier modules corresponding to a rectifier device for supplying power fail, it is necessary to calculate whether a sum of currents (operating currents) of all load devices under the rectifier device is greater than a current maximum current that can be currently output by the rectifier device (remaining rectifier modules that are normally operated), if the current maximum current that can be currently output by the rectifier device (remaining rectifier modules that are normally operated) is greater than the sum of currents of all load devices under the rectifier device, the load devices are normally supplied with power, otherwise, the battery supplies power, a "power supply reliability is reduced" is given by a judgment conclusion, and a corresponding affected channel conclusion is "a channel will be interrupted after a limited time duration" and a "single-side channel routing will be interrupted after the limited time duration".
Further, the fault analysis method of the power communication network further comprises the following steps:
and determining the fault states of the communication equipment with the fault point and the entity objects, the carried light paths/circuit channels and the data transmission path relay sections contained in the communication equipment with the power supply equipment by combining the power communication network model, the topological graph and the power communication cabinet model graph and utilizing the fault states of the communication equipment with the fault point and the communication equipment with the power supply equipment. The optical path/circuit channel, etc. are logical objects, and the physical object and the logical object constitute a resource object of the power communication network.
Further, the fault analysis method of the power communication network further comprises the following steps:
and sequencing the fault states of the communication equipment and the bearing service thereof, the entity object, the bearing light path/circuit channel and the relay section contained in the communication equipment from high to low according to the severity, and displaying the fault state of the communication equipment and the bearing service thereof with the highest severity and the fault states of the entity object, the bearing light path/circuit channel and the relay section of the data transmission path contained in the communication equipment.
The analysis results of the fault states are shown on different label pages and are listed in a tabular form: and the fault conditions and the summary information of the entity equipment, the entity object, the optical path, the circuit and the relay section of the data transmission path are influenced by power supply.
In the failure analysis of the hybrid communication device, the sources of the failed communication device include: communication equipment affected by power supply and equipment set as a fault point.
The communication equipment from the two types of sources are combined together, and the affected optical path/circuit and the fault state result thereof can be obtained by combining the constructed power communication network model and simultaneously analyzing.
Therefore, according to the conclusion of the fault of the communication equipment affected by the power supply, the communication equipment is taken as an analysis object together with other communication equipment set as a fault point, and the situations of entity objects, bearing channels (optical paths/circuits), trunk faults and the like contained in the communication equipment are further analyzed and displayed in the result.
And analyzing the fault analysis results of items such as communication equipment influenced by the fault point, influenced relay sections, optical paths, circuits and the like. The method specifically includes analysis results of "power supply affected communication device", "entity object", "optical path", "photoelectric hybrid channel", "communication transmission circuit", "64K circuit", "relay segment", and "summary information".
And listing the influenced communication equipment and a fault conclusion thereof according to the fault conditions of the communication equipment which is influenced by power supply, has power supply interruption and power supply reliability reduction and is obtained by analyzing the fault of the power supply equipment in the analysis process.
The fault state of a communication device depends on the power supply state of its power supply path.
According to the situation that whether the power supply path of the communication equipment is interrupted or not is analyzed, the fault state of the communication equipment can be analyzed, and the following three situations are divided:
a) when all power supply paths are in normal power supply, the power supply of the communication equipment is normal;
b) when all power supply paths are interrupted, the power supply of the communication equipment is interrupted (when all relevant relay sections and channel routes (nodes) borne by the communication equipment are interrupted);
c) the power supply reliability of the communication equipment is reduced when the partial power supply path is in normal power supply and the partial power supply path is in interruption and the power supply path in normal power supply comprises a power supply path which is not supplied by a storage battery; if only the storage battery pack is left to supply power, the conclusion is that: "power supply reliability is reduced, power supply is interrupted for a limited time (battery pack power supply)".
Specifically, the following are mentioned: because the cross board card has a decisive role in the service borne by the network element, for the network element of a plurality of machine frames, if the power supply of the machine frame bearing the cross board card of the network element is interrupted, all channel services of the whole network element are affected, and the fault condition of the channel services is equal to the power supply interruption of all machine frames of the whole network element.
The fault conclusion varies according to the severity of the fault grade, starting with 1 as the highest grade fault and then sequentially with 2, 3 and …. And in the conclusion list, the conclusion with the highest grade is taken as the conclusion display of the fault conclusion.
And analyzing the entity object analysis result contained in the fault equipment according to the equipment type of the fault point. The "name", "type", "analysis conclusion" of the entity object are listed.
And analyzing the optical path analysis result influenced by the fault equipment. The serial number, the fiber core model, the service information, the associated transmission segment name, the fault condition and the analysis conclusion of the light path are listed.
The content includes a channel name, a channel composition, a fault conclusion and a power supply influence conclusion of the hybrid channel, and each value is according to the name of the optical circuit hybrid channel carried by the power supply influenced device. The content of the channel composition is the light, circuit channel name + light/circuit type composing the mixed channel.
The properties and "fault conclusions" of the affected transmission circuit are shown.
The content is the attributes of the affected 64K circuit and the 'failure conclusion', and the analysis condition is the same as the 'transmission circuit' analysis condition.
The display contents are 'belonged network plane', 'channel', 'relay section', 'bandwidth' and 'failure conclusion' and 'power supply influence conclusion'.
Wherein, the value of the network plane is the network plane to which the relay link belongs; "channel" is taken as the channel name associated with the hop;
the "failure conclusion" is that there are both point-of-failure affected and power-affected failures.
The situation in which the fault point affects:
the "failure conclusion" value is consistent with the channel analysis conclusion associated with the relay link.
The conclusion of the fault affected by power supply is mainly divided into three conditions:
a) the device with "power interruption" has a "power interruption" hop conclusion to which it is connected (the "power reliability reduction" device is not listed in the conclusion list as considering not to affect the hop state);
b) when the hop is only affected by the associated channel, if the associated channel is interrupted, the analysis conclusion of the hop is "hop interruption"; if the associated channel single-side route is interrupted, the analysis conclusion of the relay segment is that the relay segment backup protection route is interrupted.
c) If the relay segment has a and b situations, the analysis conclusion gives the conclusion of 'relay segment interruption' according to the processing mode of a. Meanwhile, the relay data in the situation is only displayed once, and the conclusion influenced by the associated channel does not need to be presented.
Summary information
The contents are all the channels (light/circuits) affected in the fault analysis, and the summary hierarchical relationship between the circuits and the light path, the low-speed circuit and the upper-level circuit thereof is displayed at the same time. The present invention also provides a fault analysis system of a power communication network, as shown in fig. 2, the analysis system 1 includes: the system comprises a model building and fault point setting module 11, an event setting module 12 and a first fault judgment module 13.
The model building and fault point setting module 11 is configured to build a power communication network model, a topology map and a power communication cabinet model map corresponding to the power communication network model, select at least one resource object in the topology map, select at least one resource object in the power communication cabinet model map, and sequentially set fault points for the selected resource objects according to a set sequence.
The event setting module 12 is configured to set an event for a corresponding entity device in the power communication network model according to a device event selected by a user, so that the entity device with the set event is in a normal operating state or an abnormal operating state.
The first fault determining module 13 is configured to determine whether there is a power supply device in the set fault point, if so, determine fault states of all communication devices powered by the power supply device according to the set fault determining rule, determine fault states of communication devices not powered by the power supply device in the set fault point according to the set fault determining rule, and analyze fault states of services carried by all communication devices.
Further, setting an event for the corresponding entity device in the power communication network model includes: and setting an event for at least one of a power supply device, an optical cable device and a communication device in the power communication network model.
Wherein the event set to the power supply device includes: and the power supply is one of normal power supply, power supply interruption and partial power supply interruption.
The events set up for the cable plant include: one of a disruption and degradation of the fiber segment and the fiber core.
The events set to the communication device include: communication breakpoints, interruptions, input jitter, and lack of sensitivity of the communication device.
Further, the first failure determination module 13 includes: the device comprises a communication equipment searching unit, a power supply path acquiring unit, a power supply path fault judging unit, equipment and a service fault judging unit.
The communication equipment searching unit is used for starting to search the communication equipment and the bearing service thereof of the power supply downstream fault point by taking the power supply equipment as a starting point.
The power supply path acquisition unit is used for acquiring all power supply paths of the communication equipment.
The power supply path fault judging unit is used for judging the power supply path fault state of the communication equipment, and the power supply path fault state comprises a power supply normal state and a power supply interruption state.
The equipment and service fault judging unit is used for judging the fault state of the communication equipment and the service carried by the communication equipment which is powered by the power supply equipment according to the set fault judging rule by utilizing the power supply path fault state of the communication equipment; the fault state of the communication equipment and the bearing service thereof comprises: a power supply normal state, a power supply interruption state, and a power supply reliability reduction state.
Further, the fault analysis system 1 of the power communication network further includes: and a second failure determination module 14.
The second fault judging module 14 is configured to combine the power communication network model, the topology diagram, and the power communication cabinet model diagram, and determine, by using the fault states of the communication device provided with the fault point and the communication device powered by the power supply device, the fault states of the physical objects, the carried optical/electrical paths, and the data transmission path hops included in the communication device provided with the fault point and the communication device powered by the power supply device.
Further, the fault analysis system 1 of the power communication network further includes: a fault status presentation module 15.
The fault status display module 15 is configured to display the fault statuses of the communication device and its bearer service, and the fault statuses of the entity object, the bearer optical path/circuit path, and the relay segment included in the communication device, in which the fault statuses are sorted from high to low according to the severity, and the fault status of the communication device and its bearer service with the highest severity, and the fault statuses of the entity object, the bearer optical path/circuit path, and the relay segment of the data transmission path included in the communication device.
In summary, the method and the system provided by the invention perform N-x analysis on various power communication resource objects such as the optical cable segment, the fiber core, the power supply equipment, the transmission network element, the rack, the machine frame, the module, the machine disk, the port and the like to construct a mixed resource object N-x analysis algorithm, fully utilize graphical means such as a topological graph, a power communication cabinet model graph and the like of a power communication network to perform correlation analysis on the resource objects, and provide a new idea for seeking power communication network service influence analysis based on the whole network resource objects.
The method can be used for power communication network fault simulation, analyzes the influence range and degree on the power communication network service, and provides the communication scheduling operation and maintenance staff with decision support for the fault emergency disposal plan and the maintenance scheduling plan of the power communication network.
"x" of the "N-x" analysis refers to 1 or more power communication network resource objects, when x is 1, i.e. N-1 analysis. The N-x analysis in the power grid communication resource management system refers to simulating completely unusable fault conditions by specifying resources or light paths of entity equipment in one or more electric power communication rooms, facilities in a transmission topological graph and equipment resources, and analyzing the influence degree of the light paths and circuit service channels borne by the facilities and the equipment through the positions and the connection conditions of the facilities and the equipment simulating the faults in the routes, so as to give analysis conclusions of the quantity and the influence degree of the influenced light paths and circuit service channels, thereby achieving the purpose of fault simulation prediction.
The mixed resource object N-x analysis refers to the fault analysis which is carried out on a plurality of entity devices of different types at the same time. The entity device types include: the optical fiber cable comprises an optical fiber cable section, a fiber core, power supply equipment, a transmission network element (communication equipment), a frame, a machine frame, a module, a machine disc and a port.
The foregoing is a more detailed description of the invention in connection with specific preferred embodiments and it is not intended that the invention be limited to these specific details. For those skilled in the art to which the invention pertains, several simple deductions or substitutions can be made without departing from the spirit of the invention, and all shall be considered as belonging to the protection scope of the invention.
Claims (8)
1. A fault analysis method of a power communication network is characterized by comprising the following steps:
s1, constructing a power communication network model, a topological graph corresponding to the power communication network model and a power communication cabinet model graph, selecting at least one resource object in the topological graph, selecting at least one resource object in the power communication cabinet model graph, and sequentially setting fault points for the selected resource objects according to a set sequence;
s2, setting an event for the corresponding entity equipment in the electric power communication network model according to the equipment event selected by the user, so that the entity equipment with the set event is in a normal working state or an abnormal working state;
s3, judging whether power equipment exists in the set fault points, if so, judging the fault states of all communication equipment powered by the power equipment according to the set fault judgment rule, judging the fault states of the communication equipment not powered by the power equipment in the set fault points according to the set fault judgment rule, and analyzing the fault states of the services borne by all the communication equipment;
further comprising the steps of:
and determining the fault states of the communication equipment with the fault point and the entity objects, the carried optical paths/circuit channels and the data transmission path relay sections contained in the communication equipment with the power supply equipment by combining the power communication network model, the topological graph and the power communication cabinet model graph and utilizing the fault states of the communication equipment with the fault point and the communication equipment with the power supply equipment.
2. The method for analyzing faults of an electric power communication network according to claim 1, wherein in the step S2, setting an event to the corresponding entity device in the electric power communication network model includes: setting an event for at least one of a power supply device, an optical cable device and a communication device in the power communication network model;
wherein the event set to the power supply device includes: one of normal power supply, power supply interruption and partial power supply interruption;
the events set up for the cable plant include: one of interruption and degradation of the fiber segment and the fiber core;
the events set to the communication device include: communication breakpoints, interruptions, input jitter, and lack of sensitivity of the communication device.
3. The method for analyzing the fault of the power communication network according to claim 1, wherein in step S3, the method for determining the fault state of all the communication devices powered by the power supply device according to the set fault determination rule includes the following steps:
starting to search the communication equipment and the bearing service thereof of the downstream fault point of the power supply by taking the power supply equipment as a starting point;
acquiring all power supply paths of the communication equipment;
judging a power supply path fault state of the communication equipment, wherein the power supply path fault state comprises a power supply normal state and a power supply interruption state;
according to a set fault judgment rule, judging the fault state of the communication equipment and the service carried by the communication equipment which is powered by the power supply equipment by utilizing the fault state of the power supply path of the communication equipment; the fault state of the communication equipment and the bearing service thereof comprises: a power supply normal state, a power supply interruption state, and a power supply reliability reduction state.
4. The method for analyzing the fault of the power communication network according to claim 3, further comprising the steps of:
and sequencing the fault states of the communication equipment and the bearing service thereof, the entity object, the bearing light path/circuit channel and the relay section contained in the communication equipment from high to low according to the severity, and displaying the fault state of the communication equipment and the bearing service thereof with the highest severity and the fault states of the entity object, the bearing light path/circuit channel and the relay section of the data transmission path contained in the communication equipment.
5. A fault analysis system for a power communication network, comprising:
the model building and fault point setting module is used for building a power communication network model, a topological graph and a power communication cabinet model graph corresponding to the power communication network model, selecting at least one resource object in the topological graph, selecting at least one resource object in the power communication cabinet model graph and sequentially setting fault points for the selected resource objects according to a set sequence;
the event setting module is used for setting an event for the corresponding entity equipment in the electric power communication network model according to the equipment event selected by the user, so that the entity equipment with the set event is in a normal working state or an abnormal working state;
the first fault judgment module is used for judging whether power supply equipment exists in set fault points or not, if so, judging fault states of all communication equipment powered by the power supply equipment according to set fault judgment rules, judging the fault states of the communication equipment not powered by the power supply equipment in the set fault points according to the set fault judgment rules, and analyzing the fault states of services borne by all the communication equipment;
and the second fault judgment module is used for combining the electric power communication network model, the topological graph and the electric power communication cabinet model graph, and determining the fault states of the communication equipment with the fault point and the entity objects, the borne light paths/circuit channels and the data transmission path relay sections contained in the communication equipment with the power supply equipment by utilizing the fault states of the communication equipment with the fault point and the communication equipment with the power supply equipment.
6. The system of claim 5, wherein setting an event to the corresponding physical device in the power communication network model comprises: setting an event for at least one of a power supply device, an optical cable device and a communication device in the power communication network model;
wherein the event set to the power supply device includes: one of normal power supply, power supply interruption and partial power supply interruption;
the events set up for the cable plant include: one of interruption and degradation of the fiber segment and the fiber core;
the events set to the communication device include: communication breakpoints, interruptions, input jitter, and lack of sensitivity of the communication device.
7. The system for analyzing the fault of the power communication network according to claim 5, wherein the first fault determination module includes:
the communication equipment searching unit is used for starting to search the communication equipment and the bearing service thereof of the downstream fault point of the power supply by taking the power supply equipment as a starting point;
a power supply path acquisition unit configured to acquire all power supply paths of the communication device;
the power supply path fault judging unit is used for judging the power supply path fault state of the communication equipment, and the power supply path fault state comprises a power supply normal state and a power supply interruption state;
the equipment and service fault judging unit is used for judging the fault state of the communication equipment and the service carried by the communication equipment which is powered by the power supply equipment by utilizing the fault state of the power supply path of the communication equipment according to a set fault judging rule; the fault state of the communication equipment and the bearing service thereof comprises: a power supply normal state, a power supply interruption state, and a power supply reliability reduction state.
8. The system for analyzing a fault of a power communication network according to claim 7, further comprising:
and the fault state display module is used for sequencing the fault states of the communication equipment and the bearing service thereof, the entity objects, the bearing light paths/circuit channels and the relay sections contained in the communication equipment from high to low according to the severity, and displaying the fault state of the communication equipment and the bearing service thereof with the highest severity and the fault states of the entity objects, the bearing light paths/circuit channels and the data transmission path relay sections contained in the communication equipment.
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