WO2017193722A1

WO2017193722A1 - Detection task scheduling method and apparatus for network quality management system

Info

Publication number: WO2017193722A1
Application number: PCT/CN2017/078455
Authority: WO
Inventors: 胡常举; 孙权; 刘万慧; 范书田
Original assignee: 中兴通讯股份有限公司
Priority date: 2016-05-12
Filing date: 2017-03-28
Publication date: 2017-11-16
Also published as: CN107370612B; CN107370612A

Abstract

Provided are a detection task scheduling method and apparatus for a network quality management system, and a computer storage medium. The method comprises: a detection task scheduling apparatus for a network quality management system acquiring a detection task and further acquiring state information corresponding to the detection task, wherein the state information comprises a current state of the detection task; being able to identify a current state of each detection task according to the state information; and where a detection task with the state being a non-stop state meets a stop condition, controlling the state of the detection task so that the detection task enters into a stop state from the non-stop state.

Description

Network quality management system detection task scheduling method and device

Technical field

The present invention relates to the field of communications technologies, and in particular, to a network quality management system detection task scheduling method, apparatus, and computer storage medium.

Background technique

PTN (Packet Transport Network) refers to setting a layer between the network protocol (IP) service and the underlying optical transmission medium, which meets the requirements for bursty and statistical multiplexing transmission of packet service traffic. Designed to focus on packet services and support multi-service provisioning, with lower overall cost of ownership, while adhering to the traditional advantages of optical transmission, including high availability and reliability, efficient bandwidth management mechanism and traffic engineering, and convenient operation management. Maintenance (OAM, Operation Administration and Maintenance), scalability, high security, etc. Due to the obvious advantages of PNT, the application scale of PTN network is getting larger and larger, and some problems are also brought. Only the traffic performance of the monitoring network can not meet some requirements. For example, the user experience cannot be understood, the quality of the pipeline cannot be measured, and the faulty end. It is difficult to locate at the end and so on.

In order to solve the above problems in the use of the PTN network, it is proposed to use the Network Quality Management (SQM) system to accurately monitor and locate the PTN network performance through a hierarchical measurement system. Real-time performance detection, service provision quality detection, and rapid fault location for online service quality.

The detection process using SQM mainly includes configuring the detection task in advance, manually configuring each detection task after configuring the detection task, and manually ending each detection task manually. In this way, the staff needs to manually stop each inspection task manually, and it may take time and effort to pay attention to the operation status of each detection task. When actually detecting a device, a large number of detection tasks are often used to perform some detection on each device to be tested, so that the staff needs It wastes a lot of time and effort to complete the switching of inspection tasks, which is inefficient and wastes human resources.

Summary of the invention

An embodiment of the present invention provides a network quality management system detection task scheduling method, including:

Obtaining state information corresponding to the detection task, where the state information is used to represent a state in which the detection task is currently located;

In a case where the detection task whose state is the non-stop state satisfies the stop condition, the state in which the detection task is controlled is entered from the non-stop state to the stop state.

In an embodiment of the present invention, the controlling the state of the detecting task from the non-stop state to the stopping state includes:

When the non-stop state is the to-be-opened state, the state of the detection task is controlled to enter a stop state from the to-be-opened state;

In a case where the non-stop state is an open state, controlling a state of the detection task from an open state to a stop state;

In a case where the non-stop state is a to-be-stop state, the state of the detection task is controlled to enter a stop state from a state to be stopped.

In an embodiment of the present invention, the controlling the state of the detecting task from the to-be-opened state to the stopping state includes: controlling the state of the detecting task to be switched from the to-open state to the turned-on state, and then to the to-be-stop state. , enter the stop state;

The controlling the state of the detecting task from the turned-on state to the stopping state includes: controlling the state of the detecting task to be switched from the turned-on state to the to-be-stop state, and entering the stop state.

In an embodiment of the present invention, before controlling the state of the detecting task to enter the stopping state from the non-stop state, the method further includes:

The controlling the state of the detecting task from the to-be-opened state to the stopping state includes: acquiring an opening time of the detecting task, determining whether the opening time is reached, and if so, turning on the opening Detecting a task, switching the state of the detection task to an already-on state; and acquiring an end time of the detection task in a started state, determining whether the end time is reached, and if so, determining a state of the detection task by Turning on the state to be stopped; stopping the detection task that has entered the state to be stopped, and controlling the state of the detection task to enter a stop state;

The controlling the state of the detecting task from the turned-on state to the stopping state includes: acquiring an end time of the detecting task, determining whether the end time is reached, and if yes, the detecting task enters a to-be-stop state, and the The state of the detection task is switched from the opened state to the to-be-stop state; the detection task that has entered the to-be-stopped state is stopped, and the state of the detection task is switched from the to-be-stopped state to the stopped state;

The controlling the state of the detecting task from the to-be-stopped state to the stopping state includes: stopping the detecting task, and controlling the state of the detecting task to enter a stopped state.

In an embodiment of the invention, the detecting task includes at least one measurement instance;

If the non-stop state is the to-be-opened state, the stopping the in-stop state detection task includes: querying the measurement instance corresponding to the detection task, and stopping the measurement instance;

If the non-stop state is the enabled state, the stopping the detection of the in-stop state includes: querying the measurement instance corresponding to the detection task, and stopping the measurement instance;

When the non-stop state is the to-be-stopped state, stopping the state detection task includes: querying the measurement instance corresponding to the detection task, and stopping the measurement instance.

Obtaining a measurement instance corresponding to the detection task in an open state and a reflector corresponding to the measurement instance, and transmitting, by the direct mining platform, the measurement instance and the reflector corresponding to the measurement instance to the device to be detected, and The platform transmits a pair of the measurement instance and the measurement instance The control instruction of the reflector, wherein the direct mining platform is configured to detect the device to be detected according to the measurement instance, the reflector corresponding to the measurement instance, and the control instruction;

Receiving a detection result of the control instruction by the direct mining platform, and saving the measurement instance, a reflector corresponding to the measurement instance, and a corresponding detection result.

In an embodiment of the present invention, before acquiring the measurement instance corresponding to the detection task in the open state and the reflector corresponding to the measurement instance, the method further includes:

Determining whether there is a corresponding reflector in the measurement instance of the detection task, and if not, creating a reflector for the measurement instance; if yes, determining whether the reflector corresponding to the measurement instance is normal, if not, The measurement example recreates the reflector.

The embodiment of the invention further provides a network quality management system detection task scheduling device, comprising:

An acquiring module: configured to acquire each detection task, and obtain state information corresponding to each detection task, where the state information is used to represent a current state of each detection task;

The processing module is configured to control the state of the detection task to enter a stop state from a non-stop state in a case where the detection task whose state is a non-stop state satisfies the stop condition.

In an embodiment of the invention, the processing module includes:

The to-be-opened state processing module is configured to control, when the non-stop state is the to-be-opened state, to control the state of the detecting task from the to-be-opened state to the stopped state;

The state processing module is turned on: configured to control, when the non-stop state is the turned-on state, to control the state of the detecting task from the turned-on state to the stopped state;

The state to be stopped processing module is configured to control the state of the detecting task from the state to be stopped to the state of stopping when the non-stop state is the state to be stopped.

The to-be-opened state processing sub-module includes a first sub-module configured to control the state of the detecting task to be switched from the to-be-opened state to the turned-on state, and then to the to-be-stopped state to enter the stopped state;

The opened state processing sub-module includes a second sub-module configured to control the state of the detection task to be switched from an open state to a to-be-stop state, and to a stop state.

In an embodiment of the present invention, the first sub-module includes a first processing unit configured to acquire an open time of the detection task, determine whether the open time is reached, and if so, open the detection task, and The state of the detecting task is switched to the turned-on state; and the end time of the detecting task in the started state is obtained, and it is determined whether the end time is reached, and if so, the state of the detecting task is switched from the turned-on state to the waiting state. Stopping the state; stopping the detection task that has entered the state to be stopped, and controlling the state of the detection task to enter a stop state;

The second sub-module includes a second processing unit configured to acquire an end time of the detection task, determine whether the end time is reached, and if so, the detection task enters a to-be-stop state, and the status of the detection task Switching from the turned-on state to the state to be stopped; stopping the detecting task that has entered the state to be stopped, and switching the state of the detecting task from the state to be stopped to the state of stopping;

The to-be-stop state processing module includes a third processing unit configured to stop the detection task and control a state of the detection task to enter a stop state.

The first processing unit includes a first stop sub-unit, configured to query a measurement instance corresponding to the detection task, and stop the measurement instance, in a case that the non-stop state is a to-be-opened state;

The second processing unit includes a second stop sub-unit configured to query a measurement instance corresponding to the detection task to stop the measurement instance if the non-stop state is an open state;

The third processing unit includes a third stop subunit configured to query a measurement instance corresponding to the detection task when the non-stop state is a to-be-stop state, and stop the measurement instance.

In an embodiment of the present invention, the method further includes: an information processing module configured to acquire a measurement instance corresponding to the detection task in the open state and the measurement before controlling the state of the detection task to enter the stop state from the non-stop state The reflector corresponding to the instance sends the measurement instance and the reflector corresponding to the measurement instance to the device to be detected through the direct mining platform, and sends a reflection corresponding to the measurement instance and the measurement instance to the direct mining platform Control instruction of the device, wherein the direct mining platform is configured to detect the device to be detected according to the measurement instance, the reflector corresponding to the measurement instance, and the control instruction; and receive the control by the direct mining platform The detection result of the instruction saves the measurement instance, the reflector corresponding to the measurement instance, and the corresponding detection result.

In an embodiment of the present invention, the method further includes: determining, by the processing module, that the measurement instance of the detection task is determined before acquiring the measurement instance corresponding to the detection task in the open state and the reflector corresponding to the measurement instance There is a corresponding reflector, if not, a reflector is created for the measurement instance; if it is, it is determined whether the reflector corresponding to the measurement instance is normal, and if not, a reflector is newly created for the measurement instance.

The acquiring module, the processing module, the to-be-opened state processing module, the opened state processing module, the to-be-stopped state processing module, the first sub-module, the second sub-module, and the a first processing unit, the second processing unit, the third processing unit, the first stopping subunit, the second stopping subunit, the third stopping subunit, the information processing module, and the The determination processing module may be implemented by a central processing unit (CPU), a digital signal processor (DSP), or a field-programmable gate array (FPGA).

The embodiment of the invention further provides a computer storage medium, wherein the computer executable instructions are configured to execute the network quality management system detection task scheduling method.

According to the embodiment of the present invention, the network quality management system detects the task scheduling device to obtain the detection And obtaining status information corresponding to the detection task, the status information includes the current state of the detection task; the status of each detection task can be identified according to the status information; and the detection task in the non-stop state is satisfied to stop. In the case of a condition, the state in which the detection task is controlled is entered from the non-stop state to the stop state. According to the solution of the present invention, for the detection task in the non-stop state, when the stop condition is met, the detection tasks are directly controlled to enter the stop state from the non-stop state, and the process does not require the staff to monitor the status of each detection task. The worker does not need to manually switch the working state; the corresponding state processing is directly performed according to the recognized state, and the state of the detecting task is controlled to enter the stop state, which solves the problem that the SQM system in the prior art requires a lot of time and effort to complete the switching. The problem of wasted human resources and inefficient work is detected in the state of the task. In the prior art, the staff member spends a lot of time and effort to complete the state of the handover detection task, resulting in wasted human resources and inefficient work. The automatic switching of the detection task state according to the embodiment of the invention can save human resources and improve work efficiency.

DRAWINGS

1 is a flowchart of a method for detecting a task of a network quality management system according to Embodiment 1 of the present invention;

2 is a flowchart of a process in which a detection task in an open state enters a state to be stopped according to the first embodiment of the present invention;

3 is a flowchart of a process in which a detection task to be turned on enters a state to be stopped according to the first embodiment of the present invention;

4 is a flowchart of a process in which a detection task to be turned on enters a stop state according to Embodiment 1 of the present invention;

FIG. 5 is a flowchart of a process for executing a detection task in an open state according to Embodiment 1 of the present invention; FIG.

6 is a flowchart of detecting completion of interaction between an SQM platform and a direct mining platform according to Embodiment 1 of the present invention;

FIG. 7 is a flowchart of an example of sending a measurement according to Embodiment 1 of the present invention;

FIG. 8 is a schematic structural diagram of a set top box and a smart bracelet according to Embodiment 2 of the present invention.

detailed description

The present invention will be further described in detail below with reference to the accompanying drawings.

Embodiment 1:

This embodiment provides a network quality management system detection task scheduling method. Referring to FIG. 1, the method includes:

S101: Acquire each detection task, and obtain state information corresponding to each detection task;

S102: When the detection task whose state is the non-stop state satisfies the stop condition, the state of controlling the detection task enters the stop state from the non-stop state.

The present invention mainly processes some scheduling processing of the detection task in the SQM system, including switching the status of the detection task. Therefore, step S101 is generally performed to acquire each detection task, and also obtain state information corresponding to the detection task. It includes the current status of each detection task. The inspection task is usually configured by the staff, and the staff usually saves the inspection task into the database after configuration. Subsequent changes in the status of each test task may be updated in the database. In the database, these detection tasks are usually stored in the detection task table. Since the task detection table stored in the database may be many, the storage method of the detection task may be stored according to the status information, or may be stored in the order of creation. It is ok; but no matter how it is stored, there will be detection tasks, as well as status information of the detection tasks, and the correspondence between the two can be clarified. For example, the following storage manners may be adopted. For different states, there are corresponding detection task tables; for example, if the status information of one table is stopped, the status of each detection task in the corresponding table is stopped. State; other states are similar. In addition, according to the configuration time of the detection task, each detection task is sequentially stored in the database, and the content of the status information includes the current state of the detection task. The above examples are only intended to illustrate the solution of the present invention, and are not intended to limit the scope of the present invention.

Obtaining the status information of the detection task may identify the current state of the detection task according to the status information, and the status information may not be stored in a directly identifiable manner, for example, a certain character may correspond to the corresponding status (for example, The stop state can be represented by 00. At this time, the state of each detection task is identified according to the state information, and only the corresponding character needs to be converted into the corresponding state. Of course, it can also be a very intuitive way to identify. For example, it can be a direct description, and stop is used to represent the stop state. At this time, the current state of each detection task can be identified according to the state information, and the detection can be directly recognized. The current state of the task is the stop state.

Then, in step 102, for the detection task whose state is non-stop state, in the case of its foot stop condition, the state of the detection task is controlled to enter the stop state from the non-stop state. In this embodiment, the status of the detection task may include: a to-be-on state, an on-off state, a to-be-stop state, and a stop state. The so-called open state means that the detection task is being executed; while the state to be stopped indicates that the detection task has been executed, it needs to be stopped, but has not stopped yet; and the stop state means that the detection task has been stopped; The detection task has not been opened yet, but needs to be turned on. For the detection task that is in the on state or the on state, the stop condition is: the detection task enters the to-be-stop state; automatically switching the detection task from the non-stop state to the stop state includes: stopping the detection task that has entered the to-be-stop state, and detecting The status of the task is switched from the state to be stopped to the state of the stop.

In this embodiment, a plurality of measurement instances and a reflector corresponding to the measurement instance may be set under one detection task according to the type of the detection task, instead of having one measurement task corresponding to one measurement instance in the prior art, so that there are as many In the case of the measurement example, the number of detection tasks can be reduced. On the one hand, the management of the measurement instance is facilitated, and on the other hand, the number of switching of the detection task can be reduced, so that a detection task state switching is performed without completing a measurement instance. For the classification criteria, the classification can be classified according to the specific action type of the detection task. For example, a detection task is set, and voice detection is performed, and three are set for the voice aspect. The measured measurement instances can then be added to the measurement task for speech detection by adding these three measurement instances for speech detection. Of course, it is also possible to flexibly classify according to specific needs, and add similar measurement instances to the same detection task.

When the detection task in the open state is to enter the stop state, it will enter the state to be stopped first. The process includes: obtaining an end time of the detection task, and determining whether the end time is reached according to a timer. When the end time arrives, the detection task enters a to-be-stop state; and the state of the detection task is switched from the opened state to the to-be-stop state. . Specifically, how to implement the specific solution when the detection task reaches the end time, and the state of the detection task is switched to the state to be stopped. This embodiment provides a specific solution.

S201: Acquire a detection task that is in an open state;

S202: Obtain an end time of the detection task.

S203: determining whether the detection task has a timer, and if so, executing step S204, otherwise performing step S206;

S204: determining whether the end time of the detection task arrives, if step S205 is performed, otherwise repeating step S204;

S205: Switch the state of the detection task to a state to be stopped;

S206: Create a timer for the detection task, and execute step S204.

In the solution of this embodiment, a timer is created when the detection task is started, and the timer is used to time the detection task, and the timer is used to determine whether the end time is reached. Of course, there may be some detection tasks that have been enabled, but no timer has been set. For these detection tasks, a corresponding timer needs to be created for them. When the end time of the timer arrives, it will prove that the detection task can be stopped, but the execution stop often requires a process, and there may be multiple detection tasks that need to complete the stop, so the status of these detection tasks that need to be stopped will be Switching to the state to be stopped proves that it does not need to be executed again, and it needs to perform a stop action on it. For the specific time setting of the timer, set for different detection tasks. The duration may vary and can be flexibly set according to your needs.

When the detection task in the to-be-opened state enters the stop state, it first enters the opened state; the process includes: obtaining the opening time of the detection task, and determining, according to the timer, that when the opening time arrives, the detection task is automatically turned on, and the state is switched. After the switch to the open state, the detection task is the task that is in the open state, and the process of entering the state to be stopped is the same as the process in which the detection task in the opened state directly enters the state to be stopped. The following describes how the detection task in the to-be-on state is switched to the enabled state. Please refer to Figure 3, including:

S301: Acquire a detection task in a state to be turned on;

S302: Acquire a start time corresponding to the detection task.

S303: determining whether the detection task reaches the start time, and if so, executing step S304, otherwise, repeating step S303;

S304: Turn on the detection task, and switch the state of the detection task to the state to be stopped.

The detection task in the to-be-opened state first obtains the opening time of the detection task, and determines whether the opening time is reached according to the timer. When the opening time is reached, the detection task is automatically turned on, and the state of the detection task is switched to the enabled state. . After switching to the open state, the execution process is the same as the process in FIG. 2, and can be switched to the state to be stopped. After entering the state to be stopped, the detection task is stopped, and after the detection task is stopped, it can be switched to the stop state. .

For a specific implementation of the stop detection task, the state of the detection task is switched from the state to be stopped to the stop state. This embodiment provides a specific solution. Referring to FIG. 4, the method includes:

S401: Acquire a detection task in a state to be stopped;

S402: Acquire a measurement instance corresponding to the detection task.

S403: determining whether the state of the measurement instance is already stopped or stopping, if yes, proceeding to step S405, otherwise, performing step S404;

S404: Stop the measurement instance without stopping, and perform step S405;

S405: When all the measurement instances are completed, the state of the detection task is switched to the stop state.

Since the detection is actually completed, it mainly relies on the measurement example. The stop detection task actually stops the measurement instance corresponding to the detection task. As mentioned above, firstly, the measurement task that needs to be stopped will be in the state to be stopped first. Secondly, one test task may correspond to one or more measurement instances. Therefore, in this embodiment, the detection task in the state to be stopped is acquired first, and the measurement instance corresponding to the detection task is also acquired. The measurement instance here is usually all measurement instances corresponding to the detection task; Judging the status of these measurement instances to see if they have stopped. If they have stopped, they do not need to do any further processing. If they have not stopped, they need to stop the measurement instances that have not stopped before; When the measurement instances are all in the stopped state, the state to be stopped of the detection task can be switched to the stopped state.

Since the intention of the system is to detect certain performance tasks and the like of the device to be detected, the main need to complete the detection task in the open state is also to perform detection. For the specific detection process, reference may be made to FIG. 5, including:

S501: Acquire a detection task that is in an open state;

S502: Acquire a measurement instance corresponding to the detection task.

S503: determining whether the measurement instance is being issued or has been issued, if yes, proceeding to step S505; otherwise, performing step S504;

S504: The measurement instance is sent to the direct mining platform, and proceeds to step S505;

S505: When all measurement instances are completed, the process ends.

For the specific implementation process of the detection task, the SQM platform, the direct mining platform and the equipment to be tested are involved. The SQM platform and the direct mining platform may be arranged on the same hardware device, or on different devices, or on the same system. The SQM platform usually generates detection tasks, measurement instances, and corresponding reflectors of the measurement instances according to the configuration of the user, and completes the overall global control of the detection; for the generated detection tasks, the detection tasks may not be executed immediately, and may be Save it in the database first, and then get these detection tasks when you need to use it. The direct mining platform is generally used to interact with the device to be tested, and the detection device or the measurement instance corresponding to the reflector is used to complete the detection of the device to be detected; the device to be detected is obviously the device to be detected, The tests it performs include the detection of its performance, functions and so on. The content of the measurement instance and the reflector may be a detection of a certain function of the device to be detected. For example, the measurement instance A and the reflector A corresponding to the measurement instance A may be suitable for detecting whether the voice function of the device to be detected can be performed normally. The direct mining platform will interact with the device to be tested according to the information configured in the measurement instance A and the reflector A to obtain the detection result. For the reflector, it is mainly used to cooperate with the measurement example to complete the test. For the interaction process between the SQM platform and the direct mining platform, please refer to Figure 6, including:

S601: The SQM platform sends a reflector corresponding to the measurement instance and the measurement instance to the direct mining platform;

S602: The direct mining platform receives the reflector corresponding to the measurement instance and the measurement instance;

S603: The SQM platform sends a control instruction for the measurement instance to the direct mining platform;

S604: The direct mining platform receives the control instruction and executes the control instruction;

S605: feedback the detection result to the SQM platform;

S606: The SQM platform receives the detection result, and saves the detection result and the corresponding measurement instance and the reflector.

In a specific implementation manner of the embodiment, the measurement instance and the reflector appear in pairs, and the reflector completes the detection according to the measurement instance, that is, one detection task corresponds to one or more measurement instances, and each measurement instance has a Corresponding reflector. Therefore, when the measurement instance is delivered, the reflector corresponding to the measurement instance is sent, and the reflector corresponding to the measurement instance needs to be checked before the measurement instance is sent. Therefore, before obtaining the measurement instance corresponding to the detection task in the open state and the reflector corresponding to the measurement instance, it is determined whether the measurement instance of the detection task has a corresponding reflector, and if not, the measurement instance is created. a reflector; if present, it is determined whether the reflector corresponding to the measurement instance is normal, and if it is not normal, the test is required The quantity instance recreates the reflector.

The specific task of the detection task in the open state is that all the measurement instances corresponding to the detection task are sent to the direct mining platform, and the control command is also sent to the direct mining platform, and the control command usually includes Instance open command, instance stop command, etc.; the so-called instance open command means that the SQM platform needs the direct mining platform to start executing the measurement instance; the direct mining platform will start executing the measurement instance after receiving the control command, regardless of whether the startup is successful or not. The startup failure will be fed back to the SQM platform for a test result; in addition, for the control command to open the measurement instance, the direct mining platform will open the measurement instance, and the direct mining platform and the device to be tested will interact with each other, using measurement examples and The reflector corresponding to the measurement example completes the detection of the device to be inspected, and the detection result is usually obtained according to the configuration state of the reflector. Therefore, for the case where the control instruction is to open the measurement instance, the direct mining platform also returns a reflector message to the SQM platform, and the detection status of the device to be detected can be known according to the status message in the reflector; when the reflector is configured, the reflection The state of the device is normal. If the reflector is not configured, the state of the reflector is invalid. In addition, the control command may also be a stop command, that is, the stop command needs to stop the measurement instance that is in the open state, and after receiving the stop command, the direct mining platform performs the action of stopping the corresponding measurement instance, whether the stop is successful or not. If the stop fails, the stop result will be returned to the SQM platform. After receiving the information data fed back by the direct mining platform, the SQM platform saves the corresponding measurement instance or reflector and the corresponding detection result. The SQM platform sends a control instruction to stop the measurement instance A to the direct mining platform. After receiving the control command, the direct mining platform stops the measurement instance A, the measurement instance A stops successfully, and the direct mining platform sends the measurement instance A to stop the successful message transmission. After receiving the message, the SQM platform knows that the measurement instance A has stopped successfully, so the measurement instance A and the corresponding detection result are successfully saved. When the measurement instance A is queried next time, the measurement instance can be known. A is now in a stopped state. When saving each measurement instance and the corresponding detection result, the update method is usually adopted, that is, the measurement instance A may be repeatedly stopped, and the previous coverage is saved. The way to save. Of course, it is also possible to save multiple times of information, and the query is based on the save time. Obviously, using the previous save method is more convenient and saves space.

For the SQM platform to send measurement examples and corresponding reflectors to the direct mining platform, refer to Figure 7, including:

S701: Obtain a measurement instance.

S702: determining whether the reflector corresponding to the measurement instance exists, and if so, executing step S703; otherwise, performing step S708;

S703: determining whether the number of failed delivery times of the measurement instance reaches a preset number of times, if yes, executing step S709; otherwise, executing step S704;

S704: Constructing a measurement instance and a reflector to deliver the object;

S705: Delivering the delivered object to the direct mining platform;

S706: determining whether the delivery is successful, if yes, proceeding to step S707; otherwise, proceeding to step S709;

S707: The measurement instance is successfully delivered;

S708: Create and configure a corresponding reflector, and perform step S703;

S709: The measurement instance fails to be delivered.

In the process of steps S701-S709, it is mainly required to determine whether a corresponding reflector exists in the measurement instance. If it already exists, the measurement instance and the corresponding reflector can be directly configured as a delivery object for transmission, and if it does not exist, it is required. Create a corresponding reflector. Here, the object to be sent needs to be constructed because the measurement instance and the reflector are specific to the device to be tested, and different devices to be tested may require different detection formats, so it is usually necessary to construct the measurement instance and the reflector into the device to be tested. Corresponding format. In addition, before the issuance, it is determined whether the number of previous failures has reached the preset number of times, and is not issued until the preset number of times is reached; thus, it can prevent multiple failures due to some errors, and It is always executed and takes up resources. For the preset number of times, it can be flexibly set according to the specific situation, 10 times, 15 times, 20 times.

In one embodiment of the invention, the detection task that has been stopped is judged to see if it needs to be cleaned, and if it needs to be cleaned, a cleaning step is performed on it. Delete all reflectors under the detection task, delete all measurement instances, and delete the entire inspection task. For a specific detection task, if it is to be deleted after it is executed and enters the stop state, it can usually be flexibly selected according to specific needs during configuration. In order to facilitate the repeated use of the detection task, in a specific embodiment, it is also possible to set the detection task that has been in the stopped state to be switched on. For example, when configuring the detection task, it is possible to set the monitoring task A to perform periodically, not only to configure the start time of the detection task A, but also to set the execution period. For example, the detection task A has a start time of 10:00 and an end time of 10: 05, the execution period is 24 hours; if the detection task A is just created and the configuration phase is completed, then it can be known that the detection task A is now in the to-be-open state, and the detection task needs to be started at 10:00, and it is switched. When it reaches 10:00, it will switch from the open state to the stop state, and after entering the state to be stopped, it only needs to stop the detection task, which mainly includes stopping the corresponding measurement instance. Then you can switch the state from the state to be stopped to the stop state. Of course, when it is in the open state, it is also necessary to complete the interaction process with the direct mining platform as described above in FIG. 6 and FIG. 7 . In this way, if a detection process is completed, it will wait for the arrival of the next execution cycle. Since the execution cycle set here is 24 hours, after 24 hours, the above steps are repeated to complete the automatic detection. In this case, you can also set it in advance, you need to perform several fixed cycles, and then delete the task.

The network quality management system in this embodiment detects the task scheduling method, firstly, the manual detection and switching of the detection task state is not required to be manually performed, thereby reducing the waste of human resources; secondly, setting one or more measurement instances in one detection task, reducing The task status is switched to improve the efficiency. In addition, the stopped detection task can be repeatedly executed. The process does not require manual operation, which is convenient for management and saves resources.

Embodiment 2:

This embodiment provides a network quality management system detection task scheduling apparatus. Referring to FIG. 8, the method mainly includes an obtaining module 81 and a processing module 82. The obtaining module 81 is configured to acquire each detection task and corresponding state information, and the so-called state information is information for characterizing the current state of each detection task; the processing module 82 is configured to detect the non-stop state when the state is in the state When the task satisfies the stop condition, the state in which the detection task is controlled is entered from the non-stop state to the stop state. The inspection task is usually configured by the staff, and the staff usually saves the inspection task into the database after configuration. Subsequent changes in the status of each test task may be updated in the database.

The processing module 82 includes a to-be-opened state processing module 822, an opened state processing module 821, and a to-be-stopped state processing module 823. The to-be-opened state processing module 822 is configured to control the state of the detected task from the to-be-opened state to the stopped state in a case where the non-stop state is the to-be-opened state. The turned-on state processing module 821 is configured to control the state of the detected task from the turned-on state to the stopped state in the case where the non-stop state is the turned-on state. The to-be-stated state processing module 823 is configured to control the state of the detection task from the to-be-stopped state to the stopped state in the case where the non-stop state is the to-be-stopped state.

The detection task includes at least one measurement instance; the opened state processing module 821 includes a first sub-module 8211 configured to control the state of the detection task to be switched from the to-be-opened state to the turned-on state, and then to the to-be-stopped state to enter the stopped state. The to-be-opened state processing module 822 includes a second sub-module 8221 configured to control the state of the detected task to be switched from the turned-on state to the to-be-stop state, and to the stop state.

The first sub-module 8211 includes a first processing unit 82111 configured to acquire an open time of the detection task, determine whether the open time is reached, and if so, turn on the detection task, switch the state of the detection task to the enabled state; and obtain the started state. The end time of the detection task determines whether the end time is reached. If yes, the state of the detection task is switched from the opened state to the to-be-stop state; the detection task that has entered the to-be-stop state is stopped, and the state of the detection task is controlled. Enter the stop state.

The second sub-module 8221 includes a second processing unit 82211 configured to acquire an end time of the detection task, determine whether the end time is reached, and if so, the detection task enters a to-be-stop state, and switches the state of the detection task from the opened state to the to-be-stopped state. a state; stopping the detection task that has entered the state to be stopped, and switching the state of the detection task from the state to be stopped to the stop state; the state to be stopped processing module 823 includes a third processing unit 8231 configured to stop the detection task and control the measurement task The state enters the stop state.

The first processing unit 82111 includes a first stop subunit 821111 configured to query a measurement instance corresponding to the detection task in a case where the non-stop state is a to-be-opened state, and stop the measurement instance. The second processing unit 82211 includes a second stop subunit 822111 configured to query the measurement instance corresponding to the detection task in the case that the non-stop state is the on state, and stop the measurement instance. The third processing unit 8231 includes a third stop subunit 82311 configured to query the measurement instance corresponding to the detection task in the case that the non-stop state is the to-be-stop state, and stop the measurement instance.

In an embodiment of the present invention, the network quality management system detection task scheduling apparatus further includes an information processing module 83 configured to acquire the detection task in the open state before controlling the state of the detection task from the non-stop state to the stop state. Corresponding measurement instance and the reflector corresponding to the quantity instance, the measurement instance and the reflector corresponding to the quantity instance are sent to the direct mining platform, and the reflector corresponding to the measurement instance and the quantity instance is sent to the direct mining platform. Controlling the instruction, and receiving the detection result of the direct control platform for the control instruction, and saving the measurement instance and the reflector corresponding to the quantity instance and the corresponding detection result. The direct mining platform is generally used to interact with the device to be tested, and the detection device or the measurement instance corresponding to the reflector is used to complete the detection of the device to be detected; the device to be detected is obviously a device that needs to be detected, The tests performed include the detection of various aspects of its performance, functions and so on.

In an embodiment of the present invention, the network quality management system detection task scheduling apparatus further includes The determining processing module 84 is configured to determine, before acquiring the measurement instance corresponding to the detection task in the open state and the reflector corresponding to the measurement instance, whether the measurement instance of the detection task has a corresponding reflector, and if not, the The measurement instance creates a reflector; if it exists, it determines whether the reflector corresponding to the measurement instance is normal, and if not, recreates the reflector for the measurement instance.

It is to be understood that the network quality management system detection task scheduling apparatus in this embodiment may be used to perform the network quality management system detection task scheduling method in the first embodiment. That is, for each step in the network quality management system detection task scheduling method of the above embodiment, the network quality management system detection task scheduling apparatus in this embodiment has a corresponding module to complete, although it may be in this There is no one in the examples. When the network quality management system detection task scheduling device is set in the SQM platform, corresponding modules are also provided to complete the steps of the network quality management system detection task scheduling method in the first embodiment.

The network quality management system in this embodiment detects the task scheduling device, completes the detection task, and can manually perform the detection and switching of the detection task state manually, and set one or more measurement instances in one detection task, which can be flexibly The device is deployed with an SQM system and the like. It has the advantages of low manual participation rate and high execution efficiency.

Obviously, those skilled in the art should understand that the above modules or steps of the present invention can be implemented by a general-purpose computing device, which can be concentrated on a single computing device or distributed over a network composed of multiple computing devices. Alternatively, they may be implemented by program code executable by the computing device such that they may be stored in a storage medium (ROM/RAM, diskette, optical disk) by a computing device, and in some cases The steps shown or described may be performed in a different order than that herein, or they may be separately fabricated into individual integrated circuit modules. Alternatively, multiple modules or steps of them can be implemented as a single integrated circuit module. Therefore, the invention is not limited to any particular combination of hardware and software.

The above is a further detailed description of the present invention in connection with the specific embodiments, and the specific embodiments of the present invention are not limited to the description. It will be apparent to those skilled in the art that the present invention may be made without departing from the spirit and scope of the invention.

Industrial applicability

According to the embodiment of the present invention, the detection task is acquired, and the state information corresponding to the task is detected. The status information includes the status of the current task. According to the status information, the current state of each detection task can be identified. In a case where the detection task whose state is the non-stop state satisfies the stop condition, the state in which the detection task is controlled is entered from the non-stop state to the stop state. For the detection task in the non-stop state, when it meets the stop condition, directly control these detection tasks from the non-stop state to the stop state. This process does not require the staff to monitor the status of each detection task, and does not require manual switching by the staff. The working state; directly performs the corresponding state processing according to the recognized state, and controls the state of the detecting task to enter the stopping state, which solves the waste in the prior art due to the need for the staff to spend a lot of time and effort to complete the switching detection task state. Human resources, low work efficiency, by automatically switching the status of detection tasks, saving human resources and improving work efficiency.

Claims

A network quality management system detection task scheduling method, comprising:

Obtaining state information corresponding to the detection task, where the state information is used to represent a state in which the detection task is currently located;

In a case where the detection task whose state is the non-stop state satisfies the stop condition, the state in which the detection task is controlled is entered from the non-stop state to the stop state.
The network quality management system detecting task scheduling method according to claim 1, wherein the controlling the state of the detecting task from the non-stop state to the stopping state comprises:

When the non-stop state is the to-be-opened state, the state of the detection task is controlled to enter a stop state from the to-be-opened state;

In a case where the non-stop state is an open state, controlling a state of the detection task from an open state to a stop state;

In a case where the non-stop state is a to-be-stop state, the state of the detection task is controlled to enter a stop state from a state to be stopped.
The network quality management system detecting task scheduling method according to claim 2, wherein the controlling the state of the detecting task from the to-be-opened state to the stopping state comprises: controlling the state of the detecting task to be switched from the to-be-opened state to the Open state, then switch to the state to be stopped, enter the stop state;

The controlling the state of the detecting task from the turned-on state to the stopping state includes: controlling the state of the detecting task to be switched from the turned-on state to the to-be-stop state, and entering the stop state.
The network quality management system detecting task scheduling method according to claim 3, wherein the controlling the state of the detecting task from the to-be-opened state to the stopping state comprises: acquiring an opening time of the detecting task, determining whether the reaching of the detecting task Turning on the time, if yes, turning on the detection task, switching the state of the detection task to the opened state; and acquiring the end time of the detection task in the started state, determining whether the end time is reached, and if so, Place The state of the detection task is switched from the opened state to the to-be-stop state; the detection task that has entered the state to be stopped is stopped, and the state of the detection task is controlled to enter a stop state;

The controlling the state of the detecting task from the turned-on state to the stopping state includes: acquiring an end time of the detecting task, determining whether the end time is reached, and if yes, the detecting task enters a to-be-stop state, and the The state of the detection task is switched from the opened state to the to-be-stop state; the detection task that has entered the to-be-stopped state is stopped, and the state of the detection task is switched from the to-be-stopped state to the stopped state;

The controlling the state of the detecting task from the to-be-stopped state to the stopping state includes: stopping the detecting task, and controlling the state of the detecting task to enter a stopped state.
The network quality management system detecting task scheduling method according to claim 4, wherein the detecting task comprises at least one measurement instance;

If the non-stop state is the to-be-opened state, the stopping the in-stop state detection task includes: querying the measurement instance corresponding to the detection task, and stopping the measurement instance;

If the non-stop state is the enabled state, the stopping the detection of the in-stop state includes: querying the measurement instance corresponding to the detection task, and stopping the measurement instance;

When the non-stop state is the to-be-stopped state, stopping the state detection task includes: querying the measurement instance corresponding to the detection task, and stopping the measurement instance.
The network quality management system detection task scheduling method according to claim 5, wherein before the state of the detection task is controlled to enter a stop state from a non-stop state, the method further includes:

Obtaining a measurement instance corresponding to the detection task in an open state and a reflector corresponding to the measurement instance, and transmitting, by the direct mining platform, the measurement instance and the reflector corresponding to the measurement instance to the device to be detected, and The platform transmits a pair of the measurement instance and the measurement instance The control instruction of the reflector, wherein the direct mining platform is configured to detect the device to be detected according to the measurement instance, the reflector corresponding to the measurement instance, and the control instruction;

Receiving a detection result of the control instruction by the direct mining platform, and saving the measurement instance, a reflector corresponding to the measurement instance, and a corresponding detection result.
The network quality management system detecting task scheduling method according to claim 6, wherein before acquiring the measurement instance corresponding to the detection task in the open state and the reflector corresponding to the measurement instance, the method further includes:

Determining whether there is a corresponding reflector in the measurement instance of the detection task, and if not, creating a reflector for the measurement instance; if yes, determining whether the reflector corresponding to the measurement instance is normal, if not, The measurement example recreates the reflector.
A network quality management system detection task scheduling device includes:

An acquiring module: configured to acquire each detection task, and obtain state information corresponding to each detection task, where the state information is used to represent a current state of each detection task;

The processing module is configured to control the state of the detection task to enter a stop state from a non-stop state in a case where the detection task whose state is a non-stop state satisfies the stop condition.
The network quality management system detecting task scheduling apparatus according to claim 8, wherein the processing module comprises:

The to-be-opened state processing module is configured to control, when the non-stop state is the to-be-opened state, to control the state of the detecting task from the to-be-opened state to the stopped state;

The state processing module is turned on: configured to control, when the non-stop state is the turned-on state, to control the state of the detecting task from the turned-on state to the stopped state;

The state to be stopped processing module is configured to control the state of the detecting task from the state to be stopped to the state of stopping when the non-stop state is the state to be stopped.
The network quality management system detecting task scheduling apparatus according to claim 9, wherein the detecting task comprises at least one measurement instance;

The to-be-opened state processing module includes a first sub-module configured to control a state of the detecting task to be switched from a to-be-opened state to an already-opened state, and then to a to-be-stopped state to enter a stopped state;

The opened state processing module includes a second submodule configured to control a state of the detection task to be switched from an open state to a to-be-stop state, and to a stop state.
The network quality management system detecting task scheduling apparatus according to claim 10, wherein

The first sub-module includes a first processing unit configured to acquire an open time of the detection task, determine whether the open time is reached, and if yes, enable the detection task, and switch the state of the detection task to be enabled. And acquiring an end time of the detection task in the started state, determining whether the end time is reached, and if so, switching the state of the detection task from the opened state to the to-be-stopped state; a detection task of the stop state, controlling the state of the detection task to enter a stop state;

The second sub-module includes a second processing unit configured to acquire an end time of the detection task, determine whether the end time is reached, and if so, the detection task enters a to-be-stop state, and the status of the detection task Switching from the turned-on state to the state to be stopped; stopping the detecting task that has entered the state to be stopped, and switching the state of the detecting task from the state to be stopped to the state of stopping;

The to-be-stop state processing module includes a third processing unit configured to stop the detection task and control a state of the detection task to enter a stop state.
The network quality management system detecting task scheduling apparatus according to claim 11, wherein the detecting task comprises at least one measurement instance;

The first processing unit includes a first stop sub-unit, configured to query a measurement instance corresponding to the detection task, and stop the measurement instance, in a case that the non-stop state is a to-be-opened state;

The second processing unit includes a second stop subunit configured to be in the non-stop state In the case that the state is enabled, the measurement instance corresponding to the detection task is queried, and the measurement instance is stopped;

The third processing unit includes a third stop subunit configured to query a measurement instance corresponding to the detection task when the non-stop state is a to-be-stop state, and stop the measurement instance.
The network quality management system detection task scheduling apparatus according to claim 12, further comprising: an information processing module configured to acquire the detection of the open state before controlling the state of the detection task from the non-stop state to the stop state a measurement instance corresponding to the task and a reflector corresponding to the measurement instance, sending the measurement instance and the reflector corresponding to the measurement instance to the device to be detected through the direct mining platform, and transmitting the measurement to the direct mining platform for the measurement An example and a control instruction of a reflector corresponding to the measurement instance, wherein the direct mining platform is configured to detect a device to be detected according to the measurement instance, a reflector corresponding to the measurement instance, and the control instruction; and receive The detection result of the control instruction by the direct mining platform saves the measurement instance, the reflector corresponding to the measurement instance, and the corresponding detection result.
The network quality management system detection task scheduling apparatus according to claim 13, further comprising: a determination processing module, configured to: before acquiring the measurement instance corresponding to the detection task in the open state and the reflector corresponding to the measurement instance, Determining whether there is a corresponding reflector in the measurement instance of the detection task, and if not, creating a reflector for the measurement instance; if yes, determining whether the reflector corresponding to the measurement instance is normal, if not, The measurement example recreates the reflector.
A computer storage medium storing computer executable instructions configured to perform the network quality management system detection task scheduling method according to any one of claims 1 to 7.