CN110708116A - Optical path management system and method for rapidly positioning and analyzing same route of optical path - Google Patents
Optical path management system and method for rapidly positioning and analyzing same route of optical path Download PDFInfo
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- H04B10/07—Arrangements for monitoring or testing transmission systems; Arrangements for fault measurement of transmission systems
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- H04B10/079—Arrangements for monitoring or testing transmission systems; Arrangements for fault measurement of transmission systems using an in-service signal using measurements of the data signal
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Abstract
The invention discloses a light path management system and a method for rapidly positioning and analyzing the same route of light paths, wherein the system comprises an application layer, a service layer, a cache layer and a data layer, can identify 1 or more light paths in the same optical cable, can check whether the light paths in a main light path loop and a standby light path loop have the same route phenomenon, and can rapidly and visually display; the method combines a multi-section optical path naming rule technology, a rapid computer search technology and an imaging display technology, can rapidly and accurately analyze and position whether the optical path co-routing phenomenon occurs, rapidly analyzes and learns the number of the optical paths, specific information of the optical paths and the like in the same optical cable, can rapidly position fault positions, timely eliminate hidden dangers, can visually display the hidden dangers of the loop co-routing, even automatically eliminate and present the hidden dangers of the co-routing, can improve the accuracy of data, and is convenient for an operator to search the corresponding optical paths.
Description
Technical Field
The invention belongs to the field of optical communication management, and particularly relates to an optical path management system and method.
Background
In the existing communication resource management system, external resources such as optical cables, pipelines, pole lines and the like are the key points of optical path network management. It has the obvious characteristics that: the optical cable and the line have wide distribution range and large resource information amount, and have direct connection relation with upper-layer equipment and lower-layer customers. Telecommunication operation maintenance workers make business with a large amount of optical cable data information every day, but the use states, use conditions, asset information and the like of a large amount of optical cables are difficult to be mastered through manual management, and the increasingly complex and growing data are difficult to be effectively and quickly managed through simple system management.
The existing pipeline resource management system only realizes the management of physical resources such as optical cables, pipelines, pole lines and the like, the main system function is only resource input, the management of the dummy resources cannot accurately reflect the current situation of the existing optical cable resources, and effective support cannot be provided for the work of network maintenance, resource scheduling, resource utilization and the like; the main problems in the existing pipeline resource system are as follows:
1. the optical cable network bears upper layer networks such as a transmission network, a data network and the like, and the logic relationship exists among different optical cables, but the logic relationship among fiber cores is not reflected in the existing pipeline resource system;
2. the field fiber core service names are not uniform: the names of the same service in different optical cable sections are inconsistent, which means that tail fiber labels of optical cable end-forming frames at different stations are inconsistent and cannot be automatically associated;
3. the rental pipeline is not incorporated into the system;
4. the hidden danger of the optical cable cannot be automatically presented: the system cannot automatically troubleshoot hidden dangers of the optical route.
In the field of optical communication, an optical path is adopted to record a series of interconnected fiber cores or channel information; the optical path is a logic concept, and the optical path realizes the encapsulation of the lower layer fiber core and the optical cable information, and corresponds to the upper layer directly with a transmission topology or a service system, that is, the optical path is a bridge for connecting communication service information with the optical cable and the fiber core information. The basic attributes of the optical path include an optical path name, an optical path route, opening time and the like, wherein the optical path name is a unique identifier of the optical path, and the optical path route records detailed information of the optical path, such as an ODF, an optical cable segment, a splice closure and the like.
Multiple optical paths of the same optical fiber loop are prevented from passing through the same optical cable, and if multiple optical paths pass through the same optical cable, the optical paths are considered to be in the same route; if the optical cables on the same route of the optical path are broken, communication interruption occurs at the stations on the loop. As shown in fig. 1, on the optical fiber communication loop, a rerouted optical path occurs between the site a4 and the site a5, and if the optical cable is broken between the site a4 and the site a5, the site a5 will be disconnected, and the service will be interrupted. The current optical path management system has the following defects: the same routing condition of the main optical path loop, such as the same routing of the two optical paths between the stations a4 and a5 in fig. 1, cannot be quickly and intuitively checked, but in the existing optical path management system, the optical path condition in the same optical cable is difficult to identify.
Patent application CN201410718439.8 discloses an optical cable intelligent resource management system and an intelligent management method, which includes: intelligent chip, handheld terminal and backstage management system in the implantation optical cable, backstage management system includes: the system comprises an optical cable resource database, a data receiving module, a data transmission module and a data comparison module; the optical cable resource database is used for storing optical cable identification codes and optical cable information corresponding to the optical cable identification codes, the data receiving module is used for receiving information obtained through the handheld terminal, the data comparison module is used for comparing the information received by the data receiving module with the information in the optical cable resource database, and the data transmission module is used for transmitting the compared optical cable resource information to the handheld terminal. The system has simple structure and convenient operation, is a quick, practical and intelligent management system and method, can realize effective management and quick maintenance of optical cable resources, can eliminate optical cable dummy resources, can quickly and accurately find out a fault optical cable, shortens the maintenance time of the fault optical cable, and reduces the loss caused by optical cable faults. However, the invention cannot identify the optical path conditions in the same optical cable, and cannot rapidly and intuitively find out the same routing condition of the main optical path loop.
Disclosure of Invention
In order to solve the above problems, the present invention provides an optical path management system for rapidly positioning and analyzing the same route of optical paths, which can identify whether there are 1 or more optical paths in the same optical cable, can check whether the optical paths in the main and standby optical path loops have the same route, and can rapidly and visually display.
Another object of the present invention is to provide a method for optical path management to quickly locate and analyze the same route of optical paths, the method combines the multi-section optical path naming rule technology, the rapid computer search technology and the imaging display technology, can rapidly and accurately analyze and position whether the optical path co-routing phenomenon occurs, and quickly analyzes and knows the number of the specific optical paths and the specific information of the optical paths in the same optical cable, can quickly position the fault position, eliminate hidden dangers in time, can visually display the hidden dangers of the same route of the loop, even automatically checks and presents the hidden dangers of the same route, the accuracy of data can be promoted, the operator can conveniently search the corresponding light path, the use of the existing optical cable resources can be continuously excavated, effective basis is provided for realizing accurate fiber core scheduling, the fiber core scheduling is flat and simplified, and the existing optical cable is conveniently and clearly managed.
In order to achieve the purpose, the technical scheme of the invention is as follows:
an optical path management system for rapidly positioning and analyzing the same route of an optical path, which comprises:
the application layer comprises an APP module and a Web application module;
the service layer comprises a platform server and a service bus, and the platform server comprises a service module;
the cache layer provides distributed cache capacity for the system;
the data layer processes data according to data characteristics;
the APP module and the Web application module are in communication connection with the platform server through a service bus and access the service module on the platform server through the service bus; the cache layer and the data layer are in communication connection with the platform server;
in the invention, the basic information of the existing optical cable is input into an APP module or a Web application module, optical path line information is generated, an operator names an optical path on the Web application module according to a multi-section optical path naming rule, the Web application module associates the name with corresponding optical path physical information and stores the result (the result of naming the optical path and the result of associating the optical path name with the optical path physical information) in a data layer, the query condition of the optical path is input and clicked on the APP module or the Web application module, a service module on a platform server is accessed and fed back to the application layer by the service module, then the same routing condition of the optical path is displayed on the corresponding APP interface or the Web interface, 1 or a plurality of optical paths in the same optical cable can be identified, namely whether the optical path same routing phenomenon occurs in the optical cable can be detected, so that whether the optical paths in a main optical path loop and a standby optical path loop have the same routing phenomenon can be detected, different light paths in the same optical cable can be distinguished by different colors, so that the display and the identification are convenient; the multi-section optical path naming rule is a more than 2-section type optical path naming rule.
Specifically, the APP module comprises a two-dimensional code scanning unit, an APP fiber core scheduling unit and a light path query display unit; the Web application module comprises a resource network access unit, a Web fiber core scheduling unit, a system management module and a route analysis display unit;
the two-dimensional code scanning unit, the APP fiber core scheduling unit, the light path inquiry display unit, the resource network access unit, the Web fiber core scheduling unit, the system management module and the route analysis display unit are all in communication connection with the platform server through a service bus and all access to a service module on the platform server through the service bus;
inputting the basic information of the existing network optical cable into a two-dimensional code scanning unit or a resource network access unit, and generating optical path line information through an APP fiber core scheduling unit or a Web fiber core scheduling unit; an operator names an optical path on a system management module according to a multi-section optical path naming rule, the system management module associates the name with corresponding optical path physical information and stores a naming result and a result obtained by associating the optical path name with the optical path physical information in a data layer; inputting a query condition of the optical path in the optical path query display unit or the route analysis display unit and clicking, completing a query function by a service module on the platform server, returning a query result to an application layer in a graphic form, and displaying the same route condition of the optical path on a corresponding APP interface or Web interface; the nomenclature of the lightpath includes words and characters.
Specifically, the APP module further comprises a GIS application unit, a resource checking unit and a work order processing unit, the Web application module further comprises a cut-over management unit and a fault positioning unit, and the GIS application unit, the resource checking unit, the work order processing unit, the cut-over management unit and the fault positioning unit are all in communication connection with the platform server through a service bus and access to the service module through the service bus.
The system comprises a data layer, a platform server and a data layer, wherein the data layer comprises a structured database and a distributed database, the structured database comprises a resource database unit, a worksheet data unit and an alarm data unit with an alarm function, the distributed database comprises a voice storage unit, a character storage unit and a picture storage unit, the system also comprises a distributed agent DaaS, and the resource database unit, the worksheet data unit, the alarm data unit, the voice storage unit, the character storage unit and the picture storage unit are all in communication connection with the platform server through the distributed agent DaaS; the resource database unit stores the naming result of the optical path, and stores the result obtained by associating the optical path naming with the physical information of the optical path.
Specifically, the platform server is a JBOSS server, the service bus comprises an HSF data bus and an ESB data bus which are matched for use, and the APP application module and the Web application module are communicated with the platform server through the HSF data bus and the ESB data bus; the service module comprises a service object unit, a GIS service unit, a metadata unit and a service query unit for realizing the function of fuzzy search of light path names, and is in communication connection with the HSF data bus and the ESB data bus; the GIS service unit is supported by GeoServer open source software.
The invention also provides a light path management method for rapidly positioning and analyzing the same route of the light path, which comprises the following steps:
s1: an operator inputs the basic information of the existing network optical cable at the APP end or the Web end, and the APP end or the Web end generates optical circuit information;
s2: naming the optical path: an operator names a single light path on a system management module of a Web end according to a multi-section light path naming rule, the system management module associates the naming of the light path with corresponding light path physical information and stores the obtained results (the naming result of the light path and the result of associating the light path naming with the light path physical information) in a resource database unit of a data layer so as to facilitate daily light path management;
the naming of the optical path and the corresponding optical path physical information are automatically associated, so that dynamic optical path management is realized, and the existing optical cable is convenient to manage;
s3: the optical path co-route condition is searched by a rapid computer technology: an operator inputs any section of an optical path name in an optical path query display unit or a route analysis display unit, then clicks for query, a service query unit on a platform server is accessed, all optical path information which is in fuzzy matching with input content is automatically searched, and finally, a result is output to an APP interface or a Web interface for display; when an operator needs to search the same routing condition of a certain optical path, the system can automatically search only by inputting one section of the optical path name, and the operation is convenient and simple;
s4: imaging display of optical path co-route: after the system obtains the fuzzy matching light path common route information, an imaging display technology is adopted to display at least 2 light paths of the same route on corresponding APP interfaces or Web interfaces according to at least 2 corresponding colors, and meanwhile, an alarm data unit is called to prompt an operator to find the light path common route for light path optimization.
In the method, a multi-section optical path naming rule technology, a rapid computer search technology and an imaging display technology are adopted, whether the optical path co-routing phenomenon occurs or not can be rapidly and accurately analyzed and positioned, the number of the optical paths and the specific information of the optical paths in the same optical cable can be rapidly analyzed and known, the fault position can be rapidly positioned, the hidden danger can be timely eliminated, the hidden danger of the loop co-routing can be visually displayed, and even the hidden danger of the co-routing can be automatically eliminated and presented.
In the method for naming the optical path, the number of the sections of the multi-section optical path naming rule is not fixed, more than 2 sections of various forms can be adopted as required, the four-section naming example is adopted, basic information such as professions, network levels, use objects, specific starting and stopping positions and the like is coded into the optical path name, and the optical path naming is composed of a string of characters and characters, and the method specifically comprises the following steps:
a first stage: specialties or departments using optical paths, there are CSs (standing for "transport" specialties); SJ (standing for "data" specialty); JK (standing for "guest gatherers") specialty;
and a second stage: professional or intra-office classification of light paths is used. There is HX (standing for "core" specialties); HJ (standing for "convergence" specialty); JR (standing for "Access") specialty;
a third stage: professional or intra-department secondary classification of light paths is used. Used for recording information of loops, links and the like;
a fourth stage: starting and ending points of the optical path.
For example, knowing the starting and ending points of the lightpath as plateau and sextuple, respectively, which is a transport-specific access loop PA10C36, it can be named CS-JR-PA10C 36-plateau to sextuple.
The multi-section naming can improve the accuracy of data and is convenient for an operator to search a corresponding light path.
Specifically, step S1 specifically includes the following steps:
s11, recording the basic information of the existing network optical cable: the method comprises the steps that existing network optical cable basic information is input into a two-dimensional code scanning unit or a resource network access unit, wherein the existing network optical cable basic information comprises position information of optical cables, the number of fiber cores and the trend of the optical cables, and the data accuracy is improved;
s12, generating optical path line information: according to an optical path starting point and an optical path destination input by an operator, the APP fiber core scheduling unit or the Web fiber core scheduling unit is automatically matched and associated with the most appropriate optical fiber circuit combination, a system automatic calculation optical path circuit result is given, then the operator carries out manual adjustment according to actual conditions, and the adjustment is flexible;
the input of the existing network optical cable information and the generation of the optical circuit can continuously excavate the use of the existing optical cable resources, provide effective basis for realizing accurate fiber core scheduling, simplify the fiber core scheduling and facilitate the clear management of the existing network optical cable.
When the light path information is recorded, all the stations are digitalized, and then the light paths between adjacent stations are stored in a computer by using a two-dimensional array.
Specifically, in step S4, the fast computer search technique includes performing the same-route detection after data entry, and finding a repeated optical path in the two-dimensional array, and specifically includes the following steps:
a. sorting the A columns and the B columns of the two-dimensional arrays [ A, B ], wherein the small column is in the A column, and the large column is in the B column;
b. the A groups of the two-dimensional arrays [ A, B ] which are arranged in sequence are arranged from small to large;
c. the method adopts a quick sequencing algorithm, and comprises the following specific steps:
let the array to be sorted be A0 … … A N-1, first choose arbitrarily one data as the key data, then put all the numbers smaller than it in front of it, all the numbers larger than it in back of it,
c1. two variables i, j are set, and when the sorting starts: i is 0, j is N-1;
c2. assigning a key by using the first array element as key data, namely assigning the key to A [0 ];
c3. starting to search from j, namely starting to search from back to front (j-), finding out a first value aj smaller than key, and exchanging aj and ai;
c4. searching backwards from i, namely searching backwards from the front (i + +), finding the first A [ i ] larger than key, and exchanging the A [ i ] with the A [ j ];
c5. repeating steps c3 and c4 until i ═ j, and the loop ends;
d. selecting the array with the same A columns of the two-dimensional arrays which are arranged in the order according to the A columns;
e. and comparing the numerical values of the B column, if the numerical values are the same, determining that the optical path is a repeated optical path, searching the name of the station corresponding to the numerical value, and knowing that the repeated optical path exists between the two stations.
Specifically, in step S4, the imaging display technique specifically includes:
the method comprises the following steps of highlighting a repeated light path in a two-dimensional map, knowing the longitude and latitude of two stations, solving the longitude and latitude of other points on the path, and adopting a Bresenham line drawing algorithm, wherein the method comprises the following specific steps:
s41, drawing a starting point (x1, y 1);
s42, drawing an nth point, adding 1 to the abscissa, judging whether the terminal point is reached, and if so, finishing; if not, searching the next point, and jumping to S43; n is an integer, and n is more than or equal to 2;
s43, determining the position of the (n +1) th point: obtaining the y coordinate of the intersection point of the line segment ax + by + c being 0 and x being x1+1, judging whether y is greater than (y +. y +1))/2, if so, selecting the upper right point, and if not, selecting the lower right point;
the method comprises the following steps of (1) calculating an intersection point y of ax + by + c ═ 0 and x ═ 1+1, and taking y1, y2 and y3 as points which are close to y, wherein ax + by + c ═ 0 is a general equation of a straight line and is equivalent to y ═ - (a/b) x- (c/b), and assuming that x axes are the same and y axes are different from each other, (x1, y1), (x1, y3) and (x1, y 3);
s44, drawing the selected points;
s45, jumping to S42;
the longitude and latitude coordinates are represented by decimal floating point numbers, 6 bits are reserved behind decimal points, the longitude is in the front, the latitude is in the rear, and the effective range is longitude-180 degrees to +180 degrees, and latitude-85 degrees to +85 degrees.
The invention has the advantages that:
compared with the prior art, the optical path management system and the method for rapidly positioning and analyzing the same route of the optical paths can identify 1 or more optical paths in the same optical cable, can check whether the optical paths in the main and standby optical path loops have the same route phenomenon, and can rapidly and visually display; the method combines a multi-section optical path naming rule technology, a rapid computer search technology and an imaging display technology, can rapidly and accurately analyze and position whether the optical path co-routing phenomenon occurs, rapidly analyze and learn the number of specific optical paths, specific information of the optical paths and the like in the same optical cable, rapidly position fault positions, timely eliminate hidden dangers, visually display the hidden dangers of the loop co-routing, even automatically eliminate and present the hidden dangers of the co-routing, improve the accuracy of data, facilitate operators to search corresponding optical paths, continuously excavate the use of existing optical cable resources, provide effective basis for realizing accurate optical fiber core scheduling, enable the optical fiber core scheduling to be flat and simplified, and facilitate clear management of the existing network optical cable.
Drawings
Fig. 1 is a schematic diagram illustrating a common routing phenomenon of optical paths in the prior art.
Fig. 2 is a block diagram of a light path management system for quickly positioning and analyzing the same route of light paths implemented by the present invention.
Fig. 3 is a schematic diagram of an optical path of an example of determining whether the optical path co-routing phenomenon occurs in the present invention.
Fig. 4 is a schematic optical path diagram of another example of determining whether the optical path co-routing phenomenon occurs in the present invention.
Fig. 5 is a two-dimensional coordinate diagram obtained by using an imaging display technology in the optical path management method for rapidly positioning and analyzing the same route of the optical path according to the present invention.
Detailed Description
In order to make the objects, technical solutions and advantages of the present invention more apparent, the present invention is described in further detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the invention and are not intended to limit the invention.
The technical scheme of the invention is as follows:
referring to fig. 2, the optical path management system for quickly positioning and analyzing the same route of optical paths implemented by the present invention includes:
the application layer comprises an APP module and a Web application module;
the service layer comprises a platform server and a service bus, and the platform server comprises a service module;
the cache layer provides distributed cache capacity for the system;
the data layer processes data according to data characteristics;
the APP module and the Web application module are in communication connection with the platform server through a service bus and access the service module on the platform server through the service bus; the cache layer and the data layer are in communication connection with the platform server;
in the invention, the basic information of the existing optical cable is input into an APP module or a Web application module, optical path line information is generated, an operator names an optical path on the Web application module according to a multi-section optical path naming rule, the Web application module associates the name with corresponding optical path physical information and stores the result (the result of naming the optical path and the result of associating the optical path name with the optical path physical information) in a data layer, the query condition of the optical path is input and clicked on the APP module or the Web application module, a service module on a platform server is accessed and fed back to the application layer by the service module, then the same routing condition of the optical path is displayed on the corresponding APP interface or the Web interface, 1 or a plurality of optical paths in the same optical cable can be identified, namely whether the optical path same routing phenomenon occurs in the optical cable can be detected, so that whether the optical paths in a main optical path loop and a standby optical path loop have the same routing phenomenon can be detected, different light paths in the same optical cable can be distinguished by different colors, so that the display and the identification are convenient; the multi-section optical path naming rule is a more than 2-section type optical path naming rule.
In this embodiment, the APP application module includes a two-dimensional code scanning unit, an APP fiber core scheduling unit, and an optical path query display unit; the Web application module comprises a resource network access unit, a Web fiber core scheduling unit, a system management module and a route analysis display unit;
the two-dimensional code scanning unit, the APP fiber core scheduling unit, the light path inquiry display unit, the resource network access unit, the Web fiber core scheduling unit, the system management module and the route analysis display unit are all in communication connection with the platform server through a service bus and all access to a service module on the platform server through the service bus;
inputting the basic information of the existing network optical cable into a two-dimensional code scanning unit or a resource network access unit, and generating optical path line information through an APP fiber core scheduling unit or a Web fiber core scheduling unit; an operator names an optical path on a system management module according to a multi-section optical path naming rule, the system management module associates the name with corresponding optical path physical information and stores a naming result and a result obtained by associating the optical path name with the optical path physical information in a data layer; inputting a query condition of the optical path in the optical path query display unit or the route analysis display unit and clicking, completing a query function by a service module on the platform server, returning a query result to an application layer in a graphic form, and displaying the same route condition of the optical path on a corresponding APP interface or Web interface; the nomenclature of the lightpath includes words and characters.
In this embodiment, the APP application module further includes a G IS application unit, a resource checking unit, and a work order processing unit, the Web application module further includes a cutover management unit and a fault location unit, and the GIS application unit, the resource checking unit, the work order processing unit, the cutover management unit, and the fault location unit are all in communication connection with the platform server through a service bus and access the service module through the service bus.
In this embodiment, the data layer includes a structured database and a distributed database, the structured database includes a resource database unit, a worksheet data unit and an alarm data unit with an alarm function, the distributed database includes a voice storage unit, a text storage unit and a picture storage unit, the system further includes a distributed agent DaaS, and the resource database unit, the worksheet data unit, the alarm data unit, the voice storage unit, the text storage unit and the picture storage unit are all in communication connection with the platform server through the distributed agent DaaS; the resource database unit stores the naming result of the optical path, and stores the result obtained by associating the optical path naming with the physical information of the optical path.
In this embodiment, the platform server is a JBOSS server, the service bus includes an HSF data bus and an ESB data bus, and the HSF data bus and the ESB data bus are used in cooperation with each other, and each unit in the APP application module and the Web application module establishes communication with the platform server through the HSF data bus and the ESB data bus; the service module comprises a service object unit, a GIS service unit, a metadata unit and a service query unit for realizing the function of fuzzy search of light path names, and is in communication connection with the HSF data bus and the ESB data bus; the GIS service unit is supported by GeoServer open source software.
The invention also implements a light path management method for rapidly positioning and analyzing the same route of the light path, which comprises the following steps:
s1: an operator inputs the basic information of the existing network optical cable at the APP end or the Web end, and the APP end or the Web end generates optical circuit information;
s2: naming the optical path: an operator names a single light path on a system management module of a Web end according to a multi-section light path naming rule, the system management module associates the naming of the light path with corresponding light path physical information and stores the obtained results (the naming result of the light path and the result of associating the light path naming with the physical information of the light path) in a resource database unit of a data layer; during naming, an operator can name a specific optical path according to multi-section optical path naming, so that naming is selective and targeted, and daily optical path management is facilitated;
the naming of the optical path and the corresponding optical path physical information are automatically associated, so that dynamic optical path management is realized, and the existing optical cable is convenient to manage;
s3: the optical path co-route condition is searched by a rapid computer technology: an operator inputs any section of an optical path name in an optical path query display unit or a route analysis display unit, then clicks for query, a service query unit on a platform server is accessed, all optical path information which is in fuzzy matching with input content is automatically searched, and finally, a result is output to an APP interface or a Web interface for display; when an operator needs to search the same routing condition of a certain optical path, the system can automatically search only by inputting one section of the optical path name, and the operation is convenient and simple;
s4: imaging display of optical path co-route: after the system obtains the fuzzy matching light path common route information, an imaging display technology is adopted to display at least 2 light paths of the same route on corresponding APP interfaces or Web interfaces according to at least 2 corresponding colors, and meanwhile, an alarm data unit is called to prompt an operator to find the light path common route for light path optimization.
In the method, a multi-section optical path naming rule technology, a rapid computer search technology and an imaging display technology are adopted, whether the optical path co-routing phenomenon occurs or not can be rapidly and accurately analyzed and positioned, the number of the optical paths and the specific information of the optical paths in the same optical cable can be rapidly analyzed and known, the fault position can be rapidly positioned, the hidden danger can be timely eliminated, the hidden danger of the loop co-routing can be visually displayed, and even the hidden danger of the co-routing can be automatically eliminated and presented.
In the method for naming the optical path, the number of the sections of the multi-section optical path naming rule is not fixed, more than 2 sections of various forms can be adopted as required, the four-section naming example is adopted, basic information such as professions, network levels, use objects, specific starting and stopping positions and the like is coded into the optical path name, and the optical path naming is composed of a string of characters and characters, and the method specifically comprises the following steps:
a first stage: specialties or departments using optical paths, there are CSs (standing for "transport" specialties); SJ (standing for "data" specialty); JK (standing for "guest gatherers") specialty;
and a second stage: professional or intra-office classification of light paths is used. There is HX (standing for "core" specialties); HJ (standing for "convergence" specialty); JR (standing for "Access") specialty;
a third stage: professional or intra-department secondary classification of light paths is used. Used for recording information of loops, links and the like;
a fourth stage: starting and ending points of the optical path.
For example, knowing the starting and ending points of the lightpath as plateau and sextuple, respectively, which is a transport-specific access loop PA10C36, it can be named CS-JR-PA10C 36-plateau to sextuple.
Recording all optical paths in the optical cable network in a computer system according to a rule of optical path naming in advance; by the name of the light path, the speciality, the network level, the specific use object and the basic routing information of the light path can be quickly known; according to the information, the relation among the service, the light path and the station can be quickly inquired; the multi-section naming can improve the accuracy of data and is convenient for an operator to search a corresponding light path.
In the present embodiment, in step S1, the method specifically includes the following steps:
s11, recording the basic information of the existing network optical cable: the method comprises the steps that existing network optical cable basic information is input into a two-dimensional code scanning unit or a resource network access unit, wherein the existing network optical cable basic information comprises position information of optical cables, the number of fiber cores and the trend of the optical cables, and the data accuracy is improved;
s12, generating optical path line information: according to an optical path starting point and an optical path destination input by an operator, the APP fiber core scheduling unit or the Web fiber core scheduling unit is automatically matched and associated with the most appropriate optical fiber circuit combination, a system automatic calculation optical path circuit result is given, then the operator carries out manual adjustment according to actual conditions, and the adjustment is flexible;
the input of the existing network optical cable information and the generation of the optical circuit can continuously excavate the use of the existing optical cable resources, provide effective basis for realizing accurate fiber core scheduling, simplify the fiber core scheduling and facilitate the clear management of the existing network optical cable.
When the optical path information is recorded, all the stations are digitalized, such as: eastern village of plateau ═ 21; -terrace-rago-luo-huh 33; the plateau industrial area is 45; plateau 53; 67, six-way; the Changjiang river garden is 89; 98 in southern union;
the lightpaths between adjacent sites are then stored in a computer in a two-dimensional array, as in the eastern village to the plateau guru: [21,33 ]; plateau-to-plateau-land industrial area: [33,45 ]; plateau industrial area to plateau: [45,53 ]; plateau to hexamer: [53,67 ]; six-fold to plateau: [67,53 ]; yangtze garden to lawn: [89,53 ]; six-linkage to Yangtze river garden: [67,89 ]; six-linkage to south-linkage: [67,98 ]; southern to plateau: [98,53].
In this specific implementation method, in step S4, the fast computer search technique includes performing the same-route detection after data entry, and finding a repeated optical path in the two-dimensional array, and specifically includes the following steps:
suppose the number of sites is 100000;
a. sorting the A and B columns of each two-dimensional array [ A, B ], small in the A column and large in the B column, such as:
[21,33]→[21,33]
[33,45]→[33,45]
[45,53]→[45,53]
[53,67]→[53,67]
[67,53]→[53,67]
[89,53]→[53,89]
[67,89]→[67,89]
[67,98]→[67,98]
[98,53]→[53,98]
……
b. and (3) sequencing the A components of the sequenced two-dimensional arrays [ A, B ] from small to large, such as:
[21,33]
[33,45]
[45,53]
[53,67]
[53,67]
[53,89]
[53,98]
[67,89]
[67,98]
……
c. the method adopts a quick sequencing algorithm, and comprises the following specific steps:
let the array to be sorted be A0 … … A N-1, first choose arbitrarily one data as the key data, then put all the numbers smaller than it in front of it, all the numbers larger than it in back of it,
c1. two variables i, j are set, and when the sorting starts: i is 0, j is N-1;
c2. assigning a key by using the first array element as key data, namely assigning the key to A [0 ];
c3. starting to search from j, namely starting to search from back to front (j-), finding out a first value aj smaller than key, and exchanging aj and ai;
c4. searching backwards from i, namely searching backwards from the front (i + +), finding the first A [ i ] larger than key, and exchanging the A [ i ] with the A [ j ];
c5. repeating steps c3 and c4 until i ═ j, and the loop ends;
d. selecting the array with the same A columns of the two-dimensional arrays which are arranged in the order according to the A columns, such as: [53,67]
[53,67]
[53,89]
[53,98]；
e. Comparing the values in column B, if the values are the same, the optical path is considered to be repeated, for example: [53,67], the station name corresponding to the number is searched, and the repeated light path exists between the two stations.
As shown in fig. 3, it is determined whether the loop has the optical path co-routing phenomenon, and the loop PA10C36 is accessed in the figure, so that the operator can query "PA 10C 36" according to the third section in the optical path naming rule, and can match all the optical paths constituting the PA10C36 loop:
CS-JR-PA10C 36-plateau to plateau eastern village;
CS-JR-PA10C 36-Yaowdown to Yaowaro;
CS-JR-PA10C 36-lawn Lolo-lawn-park industrial area;
CS-JR-PA10C 36-plateau Industrial area to plateau;
CS-JR-PA10C 36-plateau to hexamer;
CS-JR-PA10C 36-hexa-linkage to plateau;
and the optical path with the same station points at two ends in the fourth section of the optical path name exists in the search result: and when the circuit is in CS-JR-PA10C 36-plateau to six-way and CS-JR-PA10C 36-plateau to six-way, the circuit is considered to have the same routing phenomenon of the optical paths.
For another example, when the optical cable co-route scenario occurs at the intermediate node, as shown in fig. 4, the loop PA10C37 is accessed in the figure, and the operator queries "PA 10C 37" according to the third segment in the optical path naming rule, so that all optical paths constituting the PA10C37 loop can be matched:
CS-JR-PA10C 37-Hexigoto Topan Dongcun;
CS-JR-PA10C 37-Yaowdown to Yaowaro;
CS-JR-PA10C 37-Ping Di Luo to Ping shan;
CS-JR-PA10C 37-Ping shan to Ping ground industrial area;
CS-JR-PA10C 37-Tanko Industrial district to Tanko Lou;
CS-JR-PA10C 37-Ping Di Luo House to Ping Di Dongcun;
CS-JR-PA10C 37-eastern village to plateau of plateau;
CS-JR-PA10C 37-plateau to hexamer;
and the optical path with the same station points at two ends in the fourth section of the optical path name exists in the search result: CS-JR-PA10C 37-Tanskyo Tokyo and CS-JR-PA10C 37-Tanskyo Tokyo, namely, the same route phenomenon occurs on the optical paths of the loop.
As shown in fig. 5, the abscissa x is longitude and the ordinate y is latitude, in the present embodiment, in step S4, the imaging display technique specifically includes:
the method comprises the following steps of highlighting a repeated light path in a two-dimensional map, knowing the longitude and latitude of two stations, solving the longitude and latitude of other points on the path, and adopting a Bresenham line drawing algorithm, wherein the method comprises the following specific steps:
s41, drawing a starting point (x1, y 1);
s42, drawing an nth point, adding 1 to the abscissa, judging whether the terminal point is reached, and if so, finishing; if not, searching the next point, and jumping to S43; n is an integer, and n is more than or equal to 2;
s43, determining the position of the (n +1) th point: obtaining the y coordinate of the intersection point of the line segment ax + by + c being 0 and x being x1+1, judging whether y is greater than (y +. y +1))/2, if so, selecting the upper right point, and if not, selecting the lower right point;
the method comprises the following steps of (1) calculating an intersection point y of ax + by + c ═ 0 and x ═ 1+1, and taking y1, y2 and y3 as points which are close to y, wherein ax + by + c ═ 0 is a general equation of a straight line and is equivalent to y ═ - (a/b) x- (c/b), and assuming that x axes are the same and y axes are different from each other, (x1, y1), (x1, y3) and (x1, y 3);
s44, drawing the selected points;
s45, jumping to S42;
the specific algorithm is as follows:
the longitude and latitude coordinates are represented by decimal floating point numbers, 6 bits are reserved behind decimal points, the longitude is in the front, the latitude is in the rear, the effective range is from-180 degrees to +180 degrees, and from-85 degrees to +85 degrees, for example, the longitude and latitude of the six-gang village are 114.328316 and 22.787121.
The invention has the advantages that:
compared with the prior art, the optical path management system and the method for rapidly positioning and analyzing the same route of the optical paths can identify 1 or more optical paths in the same optical cable, can check whether the optical paths in the main and standby optical path loops have the same route phenomenon, and can rapidly and visually display; the method combines a multi-section optical path naming rule technology, a rapid computer search technology and an imaging display technology, can rapidly and accurately analyze and position whether the optical path co-routing phenomenon occurs, rapidly analyze and learn the number of specific optical paths, specific information of the optical paths and the like in the same optical cable, rapidly position fault positions, timely eliminate hidden dangers, visually display the hidden dangers of the loop co-routing, even automatically eliminate and present the hidden dangers of the co-routing, improve the accuracy of data, facilitate operators to search corresponding optical paths, continuously excavate the use of existing optical cable resources, provide effective basis for realizing accurate optical fiber core scheduling, enable the optical fiber core scheduling to be flat and simplified, and facilitate clear management of the existing network optical cable.
The above description is illustrative of the preferred embodiment of the present invention and is not to be construed as limiting the invention, but rather as encompassing all the modifications, equivalents, and improvements made within the spirit and principles of the invention.
Claims (9)
1. An optical path management system for rapidly positioning and analyzing the same route of an optical path is characterized by comprising:
the application layer comprises an APP module and a Web application module;
the service layer comprises a platform server and a service bus, wherein the platform server comprises a service module;
the cache layer provides distributed cache capacity for the system;
a data layer, wherein the data layer processes data according to data characteristics;
the APP module and the Web application module are in communication connection with the platform server through the service bus and access the service module on the platform server through the service bus; the cache layer and the data layer are in communication connection with a platform server;
inputting existing optical cable basic information into an APP module or a Web application module, generating optical path line information, naming an optical path on the Web application module by an operator according to a multi-section optical path naming rule, associating the naming with corresponding optical path physical information by the Web application module, storing a result in a data layer, inputting a query condition of the optical path on the APP module or the Web application module, clicking, accessing a service module on a platform server, feeding back the service module to the application layer, and displaying the optical path condition on a corresponding APP interface or a Web interface; the multi-section optical path naming rule is a light path naming rule with a form of more than 2 sections.
2. The optical path management system for rapidly positioning and analyzing the same route of the optical path according to claim 1, wherein the APP application module comprises a two-dimensional code scanning unit, an APP fiber core scheduling unit and an optical path query display unit; the Web application module comprises a resource network access unit, a Web fiber core scheduling unit, a system management module and a route analysis display unit;
the two-dimensional code scanning unit, the APP fiber core scheduling unit, the light path query display unit, the resource networking unit, the Web fiber core scheduling unit, the system management module and the route analysis display unit are all in communication connection with the platform server through the service bus and all access a service module on the platform server through the service bus;
inputting the basic information of the existing network optical cable into a two-dimensional code scanning unit or a resource network access unit, and generating optical path line information through an APP fiber core scheduling unit or a Web fiber core scheduling unit; an operator names an optical path on a system management module according to a multi-section optical path naming rule, the system management module associates the name with corresponding optical path physical information and stores a naming result and a result obtained by associating the optical path name with the optical path physical information in a data layer; inputting a query condition of the optical path in the optical path query display unit or the route analysis display unit and clicking, completing a query function by a service module on the platform server, returning a query result to an application layer in a graphic form, and displaying the optical path condition on a corresponding APP interface or Web interface; the nomenclature of the light path includes words and characters.
3. The optical path management system for rapidly positioning and analyzing an optical path on the same route as claimed in claim 1, wherein the APP application module further comprises a GIS application unit, a resource checking unit and a work order processing unit, the Web application module further comprises a cut-over management unit and a fault location unit, and the GIS application unit, the resource checking unit, the work order processing unit, the cut-over management unit and the fault location unit are all in communication connection with the platform server through a service bus and access the service module through the service bus.
4. The optical path management system for rapidly positioning and analyzing optical paths and routing according to claim 1, wherein the data layer comprises a structured database and a distributed database, the structured database comprises a resource database unit, a worksheet data unit and an alarm data unit with an alarm function, the distributed database comprises a voice storage unit, a text storage unit and a picture storage unit, the system further comprises a distributed agent DaaS, and the resource database unit, the worksheet data unit, the alarm data unit, the voice storage unit, the text storage unit and the picture storage unit are all in communication connection with the platform server through the distributed agent DaaS; the resource database unit stores the naming result of the optical path, and stores the result obtained by associating the optical path naming with the physical information of the optical path.
5. The system according to claim 1, wherein the platform server is a JBOSS server, the service bus comprises an HSF data bus and an ESB data bus, and the HSF data bus and the ESB data bus are used in cooperation, and each of the units in the APP application module and the Web application module establishes communication with the platform server through the HSF data bus and the ESB data bus; the service module comprises a service object unit, a GIS service unit, a metadata unit and a service query unit for realizing the function of fuzzy search of light path names, and is in communication connection with the HSF data bus and the ESB data bus; the GIS service unit is supported by GeoServer open source software.
6. A light path management method for quickly positioning and analyzing the same route of a light path is characterized by comprising the following steps:
s1: an operator inputs the basic information of the existing network optical cable at the APP end or the Web end, and the APP end or the Web end generates optical circuit information;
s2: naming the optical path: an operator names a single light path on a system management module of a Web end according to a multi-section light path naming rule, the system management module associates the naming of the light path with corresponding light path physical information and stores the obtained result in a resource database unit of a data layer;
s3: the optical path co-route condition is searched by a rapid computer technology: an operator inputs any section of an optical path name in an optical path query display unit or a route analysis display unit, then clicks for query, a service query unit on a platform server is accessed, all optical path information which is in fuzzy matching with input content is automatically searched, and finally, a result is output to an APP interface or a Web interface for display;
s4: imaging display of optical path co-route: after the system obtains the fuzzy matching light path common route information, an imaging display technology is adopted to display at least 2 light paths of the same route on corresponding APP interfaces or Web interfaces according to at least 2 corresponding colors, and meanwhile, an alarm data unit is called to prompt an operator to find the light path common route for light path optimization.
7. The optical path management method for rapidly positioning and analyzing the co-route of optical paths according to claim 6, wherein in the step S1, the method specifically includes the following steps:
s11, recording the basic information of the existing network optical cable: inputting the existing network optical cable basic information into the two-dimensional code scanning unit or the resource network access unit, wherein the existing network optical cable basic information comprises the position information, the fiber core number and the optical cable trend of the optical cable;
s12, generating optical path line information: according to an optical path starting point and an optical path destination input by an operator, the APP fiber core scheduling unit or the Web fiber core scheduling unit is automatically matched and associated with the most appropriate optical fiber circuit combination, a system automatic calculation optical path circuit result is given, and then the operator carries out manual adjustment according to actual conditions;
when the light path information is recorded, all the stations are digitalized, and then the light paths between adjacent stations are stored in a computer by using a two-dimensional array.
8. The method for optical path management with fast positioning analysis of optical paths for same routing as claimed in claim 6, wherein in the step S4, the fast computer search technique includes performing same routing detection after data entry, and finding out duplicate optical paths in a two-dimensional array, specifically including the following steps:
a. sorting the A columns and the B columns of the two-dimensional arrays [ A, B ], wherein the small column is in the A column, and the large column is in the B column;
b. the A groups of the two-dimensional arrays [ A, B ] which are arranged in sequence are arranged from small to large;
c. the method adopts a quick sequencing algorithm, and comprises the following specific steps:
let the array to be sorted be A0 … … A N-1, first choose arbitrarily one data as the key data, then put all the numbers smaller than it in front of it, all the numbers larger than it in back of it,
c1. two variables i, j are set, and when the sorting starts: i is 0, j is N-1;
c2. assigning a key by using the first array element as key data, namely assigning the key to A [0 ];
c3. starting to search from j, namely starting to search from back to front (j-), finding out a first value aj smaller than key, and exchanging aj and ai;
c4. searching backwards from i, namely searching backwards from the front (i + +), finding the first A [ i ] larger than key, and exchanging the A [ i ] with the A [ j ];
c5. repeating steps c3 and c4 until i ═ j, and the loop ends;
d. selecting the array with the same A columns of the two-dimensional arrays which are arranged in the order according to the A columns;
e. and comparing the numerical values of the B column, if the numerical values are the same, determining that the optical path is a repeated optical path, searching the name of the station corresponding to the numerical value, and knowing that the repeated optical path exists between the two stations.
9. The method for optical path management with fast positioning analysis optical path routing as claimed in claim 6, wherein in the step S4, the visualization display technique specifically includes:
the method comprises the following steps of highlighting a repeated light path in a two-dimensional map, knowing the longitude and latitude of two stations, solving the longitude and latitude of other points on the path, and adopting a Bresenham line drawing algorithm, wherein the method comprises the following specific steps:
s41, drawing a starting point (x1, y 1);
s42, drawing an nth point, adding 1 to the abscissa, judging whether the terminal point is reached, and if so, finishing; if not, searching the next point, and jumping to S43; n is an integer, and n is more than or equal to 2;
s43, determining the position of the (n +1) th point: determining the y coordinate of the intersection point of the line segment ax + by + c being 0 and x being x1+1, judging whether y is larger than (y +1))/2, if so, selecting the upper right point, and if not, selecting the lower right point
S44, drawing the selected points;
s45, jumping to S42;
the longitude and latitude coordinates are expressed by decimal floating point numbers, 6 bits are reserved behind a decimal point, the longitude is in the front, the latitude is in the rear, and the effective range is longitude-180 degrees to +180 degrees, and latitude-85 degrees to +85 degrees.
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