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CN105472009A - A method suitable for adaptive monitoring frequency of cloud platform resources - Google Patents

A method suitable for adaptive monitoring frequency of cloud platform resources Download PDF

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Publication number
CN105472009A
CN105472009A CN201510963580.9A CN201510963580A CN105472009A CN 105472009 A CN105472009 A CN 105472009A CN 201510963580 A CN201510963580 A CN 201510963580A CN 105472009 A CN105472009 A CN 105472009A
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Prior art keywords
monitoring
monitoring frequency
frequency
monitored item
minimum
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马桂成
杨松
季统凯
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G Cloud Technology Co Ltd
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G Cloud Technology Co Ltd
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    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04LTRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L67/00Network arrangements or protocols for supporting network services or applications
    • H04L67/01Protocols
    • H04L67/02Protocols based on web technology, e.g. hypertext transfer protocol [HTTP]
    • H04L67/025Protocols based on web technology, e.g. hypertext transfer protocol [HTTP] for remote control or remote monitoring of applications
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04LTRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L67/00Network arrangements or protocols for supporting network services or applications
    • H04L67/50Network services
    • H04L67/56Provisioning of proxy services

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  • Engineering & Computer Science (AREA)
  • Computer Networks & Wireless Communication (AREA)
  • Signal Processing (AREA)
  • Debugging And Monitoring (AREA)

Abstract

The invention relates to the technical field of cloud platform monitoring, in particular to a method suitable for self-adaptive monitoring of cloud platform resources. Firstly, setting a monitoring item; the monitoring management terminal acquires monitoring item setting information; the monitoring agent reports data periodically according to the monitoring frequency; the monitoring management end analyzes data; if the threshold value is not reached, the monitoring management end calculates the next monitoring frequency of the monitoring item, and if the threshold value is reached, the next monitoring frequency of the monitoring item is the minimum monitoring frequency; returning the latest monitoring frequency to the monitoring agent; and finally, the monitoring agent sets the monitoring frequency to be the latest value. The method solves the problem that the current cloud platform cannot monitor the frequency in a self-adaptive manner when monitoring a plurality of virtual machines and computing nodes; the method can be applied to monitoring the cloud platform resources.

Description

一种适用于云平台资源自适应监控频率的方法A method suitable for adaptive monitoring frequency of cloud platform resources

技术领域technical field

本发明涉及云平台监控技术领域,特别是一种适用于云平台资源自适应监控频率的方法。The invention relates to the technical field of cloud platform monitoring, in particular to a method suitable for self-adaptive monitoring frequency of cloud platform resources.

背景技术Background technique

一般的云计算平台上有多个计算节点,而每个计算节点上都有多个虚拟机,有些性能较高的节点甚至有几十个虚拟机。监控代理监控这些虚拟机以及计算节点本身就需要消耗一部分系统资源。而大部分的情况下,计算节点以及虚拟机都是处于正常状态。客户想看到的时候,虚拟机或物理机监控状态处于长期正常的时候,不需要对其进行频繁监控,只有当虚拟机或物理机状态出现异常的情况下要较频繁监控,这样会带来以下问题:A general cloud computing platform has multiple computing nodes, and each computing node has multiple virtual machines, and some nodes with high performance even have dozens of virtual machines. The monitoring agent monitors these virtual machines and the computing nodes themselves need to consume some system resources. In most cases, computing nodes and virtual machines are in a normal state. When the customer wants to see, when the monitoring status of the virtual machine or physical machine is normal for a long time, there is no need to monitor it frequently. The following questions:

一是虚拟机数量越多,计算节点上的监控代理占用系统资源就越大,反而影响了虚拟机的正常运行。First, the more virtual machines there are, the more system resources will be occupied by the monitoring agent on the computing node, which will affect the normal operation of the virtual machines.

二是常规的监控代理监控频率不能自适应,一般按照程序给定的特定频率长时间监控。The second is that the monitoring frequency of conventional monitoring agents cannot be self-adaptive, and generally monitors for a long time according to a specific frequency given by the program.

三是无法满足客户的监控频率需求。The third is that it cannot meet the monitoring frequency requirements of customers.

四是无法根据监控项的监控数据上升情况来动态调整监控频率。Fourth, it is impossible to dynamically adjust the monitoring frequency according to the increase in the monitoring data of the monitoring item.

为了解决上述问题,需要有一种适用于云平台资源自适应监控频率的方法。监控系统自身根据监控对象所处于的监控状态来自适应监控频率。In order to solve the above problems, a method suitable for adaptive monitoring frequency of cloud platform resources is needed. The monitoring system itself adapts the monitoring frequency according to the monitoring state of the monitoring object.

发明内容Contents of the invention

本发明解决的技术问题在于提供一种适用于云平台资源自适应监控频率的方法;解决监控代理监控频率不能自适应、监控对象处于正常状态而监控代理占用系统资源就越大、无法根据监控项的监控数据上升情况来动态调整监控频率等问题。The technical problem solved by the present invention is to provide a method suitable for self-adaptive monitoring frequency of cloud platform resources; to solve the problem that the monitoring agent monitoring frequency cannot be self-adaptive, the monitoring object is in a normal state, and the monitoring agent occupies more system resources, and cannot monitor according to the monitoring items. The monitoring data rises to dynamically adjust the monitoring frequency and other issues.

本发明解决上述技术问题的技术方案是:The technical scheme that the present invention solves the problems of the technologies described above is:

所述的方法包括如下步骤:Described method comprises the steps:

步骤1:设置监控项;Step 1: Set monitoring items;

步骤2:监控管理端获取监控项设置信息;Step 2: The monitoring management terminal obtains the monitoring item setting information;

步骤3:监控代理根据监控频率定期上报数据;Step 3: The monitoring agent regularly reports data according to the monitoring frequency;

步骤4:监控管理端分析数据,若没有达到阈值则执行步骤5;若达到阈值则执行步骤6;Step 4: Monitor and manage the analysis data, if the threshold is not reached, then execute step 5; if the threshold is reached, execute step 6;

步骤5:监控管理端计算监控项下次的监控频率;执行步骤7;Step 5: The monitoring management terminal calculates the next monitoring frequency of the monitoring item; execute step 7;

步骤6:监控项下次的监控频率=最小监控频率;Step 6: The next monitoring frequency of the monitoring item = the minimum monitoring frequency;

步骤7:返回最新监控频率给监控代理;Step 7: Return the latest monitoring frequency to the monitoring agent;

步骤8:监控代理设置监控频率为最新值;执行步骤2。Step 8: The monitoring agent sets the monitoring frequency to the latest value; go to step 2.

所述的设置监控项是设置监控项的比较方式、阈值、最小监控频率、最大监控频率及时间间隔。The setting of the monitoring item is to set the comparison mode, threshold, minimum monitoring frequency, maximum monitoring frequency and time interval of the monitoring item.

所述的监控项的比较方式,常用比较方式有两种:大于等于、小于等于;There are two commonly used comparison methods for the comparison methods of the monitoring items: greater than or equal to, less than or equal to;

所述的最小监控频率,最小监控频率是指自适应监控频率的下限。The minimum monitoring frequency mentioned above refers to the lower limit of the adaptive monitoring frequency.

所述的最大监控频率,最大监控频率是指自适应监控频率的上限。The maximum monitoring frequency mentioned above refers to the upper limit of the adaptive monitoring frequency.

所述的时间间隔,是指连续多长时间没有达到阈值就进入最大监控频率,用户可以设置多少年、多少月、多少日、多少周或者多少个小时,然后程序后台自动转化成最小单位,通常监控频率最小是1分钟,那么就转成分钟单位,如1周时间=7X24X60分钟=10080分钟。The time interval mentioned refers to how long the continuous time does not reach the threshold before entering the maximum monitoring frequency. The user can set how many years, how many months, how many days, how many weeks or how many hours, and then the background of the program will automatically convert it into the smallest unit, usually The minimum monitoring frequency is 1 minute, then convert it into minutes, such as 1 week time = 7X24X60 minutes = 10080 minutes.

所述的监控管理端分析数据是根据上报的最新监控项数据,比较是否达到阈值、比较最新监控值与上一次监控值。The analysis data of the monitoring management terminal is based on the latest monitoring item data reported, comparing whether the threshold is reached, comparing the latest monitoring value with the last monitoring value.

所述的监控管理端计算监控项下次的监控频率,下次的监控频率=最小监控频率+((最大监控频率-最小监控频率)Xlog(正常状态累加值-((上升累加值/监控项最大值)X时间间隔))/log(时间间隔)),其中X表示乘以,log表示对数函数;若下次的监控频率计算结果大于最大监控频率,则设置下次的监控频率=最大监控频率;若下次的监控频率计算结果小于最小监控频率,则设置下次的监控频率=最小监控频率;当正常状态累加值越大,那么就越接近或者达到最大监控频率;当上升累加值越大,那么就越接近或者达到最小监控频率;The monitoring management terminal calculates the monitoring frequency of the monitoring item next time, and the monitoring frequency of the next time=minimum monitoring frequency+((maximum monitoring frequency-minimum monitoring frequency)Xlog(normal state cumulative value-((increasing cumulative value/monitoring item Maximum value) X time interval))/log (time interval)), where X represents multiplication, and log represents a logarithmic function; if the calculation result of the next monitoring frequency is greater than the maximum monitoring frequency, then set the next monitoring frequency = maximum Monitoring frequency; if the calculation result of the next monitoring frequency is less than the minimum monitoring frequency, then set the next monitoring frequency = the minimum monitoring frequency; when the cumulative value of the normal state is larger, it will be closer to or reach the maximum monitoring frequency; when the cumulative value increases The bigger it is, the closer it is to or reaches the minimum monitoring frequency;

所述的正常状态累加值=上次正常状态累加值+1;The accumulated value of the normal state=the accumulated value of the last normal state+1;

所述的上升累加值,若比较方式是大于等于,那么上升累加值=上次上升累加值+(最新监控项的监控数据-旧监控项的监控数据);若比较方式是小于等于,那么上升累加值=上次上升累加值+(旧监控项的监控数据-最新监控项的监控数据);Described rising cumulative value, if the comparison mode is greater than or equal to, then the rising cumulative value=the last rising cumulative value+(the monitoring data of the latest monitoring item-the monitoring data of the old monitoring item); if the comparison mode is less than or equal, then the rising Accumulated value = last rising accumulative value + (monitoring data of the old monitoring item-monitoring data of the latest monitoring item);

所述的监控项最大值,一开始由程序默认一个最大值,当发现监控项的监控数据大于最大值,则设置最大值=监控项的监控数据。The maximum value of the monitoring item is initially defaulted by the program to a maximum value, and when the monitoring data of the monitoring item is found to be greater than the maximum value, then set the maximum value=monitoring data of the monitoring item.

所述的监控项下次的“监控频率=最小监控频率”,设置下次的监控频率为最小监控频率;设置正常状态累加值为零;设置上升累加值为零。For the next "monitoring frequency=minimum monitoring frequency" of the monitoring item, set the next monitoring frequency as the minimum monitoring frequency; set the accumulated value of normal state to zero; set the accumulated value of rising to zero.

本发明通过一种适用于云平台资源自适应监控频率的方法,解决了监控代理监控频率不能自适应、监控对象越多但都处于正常状态而监控代理占用系统资源就越大、无法根据监控项的监控数据上升情况来动态调整监控频率等问题。本发明由监控代理主动上报监控数据,根据监控管理端返回的频率重新动态调整监控频率,区域一般的云平台监控代理。本发明提供一个自适应频率的计算公式,区域一般的云平台监控管理端。The present invention uses a method suitable for self-adaptive monitoring frequency of cloud platform resources, which solves the problem that monitoring agent monitoring frequency cannot be self-adaptive, the more monitoring objects are in a normal state, the more system resources occupied by monitoring agents, and the more system resources cannot be monitored according to monitoring items. The monitoring data rises to dynamically adjust the monitoring frequency and other issues. In the present invention, the monitoring agent actively reports the monitoring data, and dynamically adjusts the monitoring frequency according to the frequency returned by the monitoring management terminal, and the cloud platform monitoring agent in a general area. The present invention provides a calculation formula for adaptive frequency, and the cloud platform monitors and manages the general area.

附图说明Description of drawings

下面结合附图对本发明进一步说明:Below in conjunction with accompanying drawing, the present invention is further described:

图1为本发明的流程图;Fig. 1 is a flowchart of the present invention;

图2为本发明的逻辑结构图。Fig. 2 is a logical structure diagram of the present invention.

具体实施方式detailed description

本发明的实施方式有多种,这里以云平台为例说明其中一种实现方法,如图1、2所示,具体实施过程如下:There are multiple implementations of the present invention, and here a cloud platform is used as an example to illustrate one of the implementation methods, as shown in Figures 1 and 2, and the specific implementation process is as follows:

1、设置监控项;1. Set monitoring items;

/**/**

*设置监控项*Set monitoring items

*paramcompare比较方式*paramcompare comparison method

*paramthreshold阈值*paramthreshold threshold

*parammin最小监控频率*parammin minimum monitoring frequency

*parammax最大监控频率*parammax maximum monitoring frequency

*paramperiod时间间隔*paramperiod time interval

*returnboolean告警评估和告警任务结果*return boolean alarm evaluation and alarm task results

*/*/

publicbooleanevalationAndAction(Stringcompare,Longthreshold,intmin,intmax,intperiod){public booleanvalationAndAction(Stringcompare, Longthreshold, intmin, intmax, intperiod){

returnRule.setThreshold(compare,threshold,min,max,period);return Rule.setThreshold (compare, threshold, min, max, period);

}}

2、监控管理端获取监控项设置信息;2. The monitoring management terminal obtains the monitoring item setting information;

/**/**

*监控管理端获取监控项设置信息*The monitoring management terminal obtains the monitoring item setting information

*paramobjectId监控项Id*paramobjectId monitoring item Id

*returnRule取监控项设置信息*returnRule fetches monitoring item setting information

*/*/

publicRulegetRule(stringobjectId){public Rule getRule(stringobjectId){

returnRules.getRule(objectId);return Rules.getRule (objectId);

}}

3、监控代理根据监控频率定期上报数据;3. The monitoring agent regularly reports data according to the monitoring frequency;

/**/**

*监控代理根据监控频率定期上报数据*The monitoring agent regularly reports data according to the monitoring frequency

*returnvoid无返回结果*returnvoid no return result

*/*/

publicvoidrequestMonitorData(){public void requestMonitorData(){

returnService.requestMonitorData();return Service.requestMonitorData ();

}}

4、监控管理端分析数据,若没有达到阈值则执行计算监控频率流程;若达到阈值则执行设置为最小监控频率流程4. The monitoring management terminal analyzes the data, and if the threshold is not reached, the process of calculating the monitoring frequency is executed; if the threshold is reached, the process of setting the minimum monitoring frequency is executed

/**/**

*监控管理端分析数据*Monitoring management terminal analysis data

*paramdata监控数据对象*paramdata monitoring data object

*returnboolean分析结果* return boolean analysis result

*/*/

publicbooleananalysis(DataModeldata){public boolean analysis (DataModel data ) {

returnThresholdRule.analysis(data);return ThresholdRule . analysis(data);

}}

5、监控管理端计算监控项下次的监控频率;执行返回监控频率流程;5. The monitoring management terminal calculates the next monitoring frequency of the monitoring item; executes the process of returning to the monitoring frequency;

/**/**

*监控管理端计算监控项下次的监控频率*The monitoring management terminal calculates the next monitoring frequency of the monitoring items

*paramdata监控数据对象*paramdata monitoring data object

*returnLong新的监控频率*returnLong new monitoring frequency

*/*/

publicLongcaculate(DataModeldata){publicLongcaculate (DataModel data ) {

returnThresholdRule.caculate(data);return ThresholdRule.caculate (data);

}}

6、设置监控项下次的监控频率为最小监控频率;6. Set the next monitoring frequency of the monitoring item to the minimum monitoring frequency;

/**/**

*设置监控项下次的监控频率为最小监控频率;*Set the next monitoring frequency of the monitoring item to the minimum monitoring frequency;

*returnvoid无返回结果*returnvoid no return result

*/*/

publicvoidsetFrequency(){public void setFrequency( ) {

this.frequency=this.min this.frequency = this.min ;

}}

7、返回最新监控频率给监控代理;7. Return the latest monitoring frequency to the monitoring agent;

/**/**

*返回最新监控频率给监控代理*Return the latest monitoring frequency to the monitoring agent

*paramfrequency最新监控频率*paramfrequency latest monitoring frequency

*returnvoid无返回结果*returnvoid no return result

*/*/

publicvoidsendResponse(Longfrequency){public void sendResponse ( Longfrequency ) {

Service.sendResponse(frequency); Service . sendResponse(frequency);

}}

8、监控代理设置监控频率为最新值;重新执行汇报监控项的监控数据。8. The monitoring agent sets the monitoring frequency to the latest value; re-executes the reporting of the monitoring data of the monitoring items.

/**/**

*监控代理设置监控频率为最新值*The monitoring agent sets the monitoring frequency to the latest value

*paramfrequency最新监控频率*paramfrequency latest monitoring frequency

*returnvoid无返回结果*returnvoid no return result

*/*/

publicvoidsetFrequency(Longfrequency){public void setFrequency ( Longfrequency ) {

Service.setFrequency(frequency); Service.setFrequency (frequency);

}}

整个流程结束。The whole process is over.

Claims (7)

1. be applicable to a method for cloud platform resource adaptive process monitoring frequency, it is characterized in that: described method comprises the steps:
Step 1: monitored item is set;
Step 2: monitoring management end obtains monitored item configuration information;
Step 3: monitoring agent is according to the regular reported data of monitoring frequency;
Step 4: monitoring management end analyzes data, if do not reach threshold value, performs step 5; If reach threshold value, perform step 6;
Step 5: monitoring management end calculates the monitoring frequency of monitored item next time; Perform step 7;
Step 6: the monitoring frequency=minimum monitoring frequency of monitored item next time;
Step 7: return up-to-date monitoring frequency to monitoring agent;
Step 8: it is last look that monitoring agent arranges monitoring frequency; Perform step 2.
2. method according to claim 1, is characterized in that: the described monitored item that arranges arranges the manner of comparison of monitored item, threshold value, minimum monitoring frequency, maximum monitoring frequency and the time interval.
The manner of comparison of described monitored item, conventional manner of comparison has two kinds: be more than or equal to, be less than or equal to;
Described minimum monitoring frequency, minimum monitoring frequency refers to the lower limit of adaptive process monitoring frequency.
Described maximum monitoring frequency, maximum monitoring frequency refers to the upper limit of adaptive process monitoring frequency.
The described time interval, refer to that how long not reaching threshold value just enters maximum monitoring frequency continuously, user can arrange how many years, Duo Shaoyue, Duo Shao, how many week or how many hours, then program backstage changes into least unit automatically, usual monitoring frequency is minimum is 1 minute, so just change into a minute unit, as 1 time-of-week=7X24X60 minute=10080 minutes.
3. method according to claim 1, is characterized in that: it is up-to-date monitored item data that basis reports that described monitoring management end analyzes data, more whether reaches threshold value, more up-to-date monitoring value and last monitoring value.
4. method according to claim 2, is characterized in that: it is up-to-date monitored item data that basis reports that described monitoring management end analyzes data, more whether reaches threshold value, more up-to-date monitoring value and last monitoring value.
5. the method according to any one of Claims 1-4, it is characterized in that: described monitoring management end calculates the monitoring frequency of monitored item next time, monitoring frequency=minimum monitoring frequency+((maximum monitoring frequency-minimum monitoring frequency) Xlog (normal condition accumulated value-((rising accumulated value/monitored item maximum) the X time interval))/log (time interval)) of next time, wherein X represents and is multiplied by, and log represents logarithmic function; If the monitoring frequency computation part result of next time is greater than maximum monitoring frequency, then the monitoring frequency=maximum monitoring frequency of next time is set; If the monitoring frequency computation part result of next time is less than minimum monitoring frequency, then the monitoring frequency=minimum monitoring frequency of next time is set; When normal condition accumulated value is larger, so more close or reach maximum monitoring frequency; When rising accumulated value is larger, so more close or reach minimum monitoring frequency;
Described normal condition accumulated value=last time normal condition accumulated value+1;
Described rising accumulated value, if manner of comparison is more than or equal to, the accumulated value that rose accumulated value=last time of so rising+(monitor data of the monitor data-old monitored item of up-to-date monitored item); If manner of comparison is less than or equal to, the accumulated value that rose accumulated value=last time of so rising+(monitor data of the monitor data-up-to-date monitored item of old monitored item);
Described monitored item maximum, gives tacit consent to a maximum by program at the beginning, when finding that the monitor data of monitored item is greater than maximum, then arranges the monitor data of maximum=monitored item.
6. the method according to any one of Claims 1-4, is characterized in that: " the monitoring frequency=minimum monitoring frequency " of described monitored item next time, and the monitoring frequency arranging next time is minimum monitoring frequency; Arranging normal condition accumulated value is zero; Arranging rising accumulated value is zero.
7. method according to claim 5, is characterized in that: " the monitoring frequency=minimum monitoring frequency " of described monitored item next time, and the monitoring frequency arranging next time is minimum monitoring frequency; Arranging normal condition accumulated value is zero; Arranging rising accumulated value is zero.
CN201510963580.9A 2015-12-18 2015-12-18 A method suitable for adaptive monitoring frequency of cloud platform resources Pending CN105472009A (en)

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Cited By (7)

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CN106502868A (en) * 2016-11-18 2017-03-15 国云科技股份有限公司 A method for dynamically adjusting monitoring frequency suitable for cloud computing
CN107483292A (en) * 2017-09-11 2017-12-15 电子科技大学 Dynamic monitoring method for cloud platform
CN107688523A (en) * 2017-09-07 2018-02-13 郑州云海信息技术有限公司 A kind of intelligent control method and device
CN109101336A (en) * 2018-07-20 2018-12-28 深圳市瑞云科技有限公司 A kind of method of homogeneous dispatch Node station
CN109753401A (en) * 2017-11-03 2019-05-14 中国电信股份有限公司 Monitoring method, collection terminal, control end, monitoring system and device
CN109889602A (en) * 2019-03-13 2019-06-14 深信服科技股份有限公司 Collection of resources frequency adjusting method, device, system and storage medium
CN114138617A (en) * 2022-02-07 2022-03-04 杭州朗澈科技有限公司 Self-learning frequency conversion monitoring method and system, electronic equipment and storage medium

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