CN111562989A - Method and device for separate deployment of dynamic resources and static resources - Google Patents

Method and device for separate deployment of dynamic resources and static resources Download PDF

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CN111562989A
CN111562989A CN202010671499.4A CN202010671499A CN111562989A CN 111562989 A CN111562989 A CN 111562989A CN 202010671499 A CN202010671499 A CN 202010671499A CN 111562989 A CN111562989 A CN 111562989A
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deployment
virtual map
distance
virtual
resources
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CN111562989B (en
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李蕾
于洋
王鹏亮
黄锋
蒋平川
李利军
于滨峰
张春林
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Beijing Dongfangtong Software Co ltd
Beijing Tongtech Co Ltd
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Beijing Tongtech Co Ltd
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    • G06—COMPUTING; CALCULATING OR COUNTING
    • G06F—ELECTRIC DIGITAL DATA PROCESSING
    • G06F9/00—Arrangements for program control, e.g. control units
    • G06F9/06—Arrangements for program control, e.g. control units using stored programs, i.e. using an internal store of processing equipment to receive or retain programs
    • G06F9/46—Multiprogramming arrangements
    • G06F9/50—Allocation of resources, e.g. of the central processing unit [CPU]
    • G06F9/5005—Allocation of resources, e.g. of the central processing unit [CPU] to service a request
    • G06F9/5027—Allocation of resources, e.g. of the central processing unit [CPU] to service a request the resource being a machine, e.g. CPUs, Servers, Terminals

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Abstract

The invention provides a method and a device for separately deploying dynamic resources and static resources, wherein the method comprises the following steps: step S1: acquiring Web resources and separating static resources and dynamic resources; step S2: acquiring a first list and a second list; step S3: screening out a first deployment position from the first list based on a first preset rule and deploying the static resource; step S4: and screening out a second deployment position from the second list based on a second preset rule and deploying the dynamic resource. According to the method for separately deploying the dynamic resources and the static resources, the dynamic resources and the static resources are separately deployed at different deployment positions, and when a WEB request of a client is received, the static resources and the dynamic resources in the WEB request are acquired from the different deployment positions, so that the speed of acquiring the dynamic resources is increased, and further the response speed of WEB service is increased.

Description

Method and device for separate deployment of dynamic resources and static resources
Technical Field
The invention relates to the technical field of separation deployment, in particular to a method and a device for separation deployment of dynamic resources and static resources.
Background
At present, static resources are generally designed html pages, and dynamic resources realize dynamic response according to requirements by means of designed programs;
the WEB system returns the static resources and the dynamic resources included in the accessed page to the browser according to the WEB request of the user, so that the page to be accessed by the user is displayed on the browser.
The static resources and the dynamic resources are both deployed in the same deployment position (such as a WEB container), and each time a user sends a WEB request through a client, the deployment position loads the static resources and acquires the dynamic resources according to the WEB request, and then returns the static resources and the dynamic resources to the client to complete WEB service.
However, after receiving the WEB request, the deployment location needs to load the required static resource and run the corresponding program to obtain the dynamic resource, which requires a long time to complete the step of obtaining the dynamic resource.
Disclosure of Invention
One of the objectives of the present invention is to provide a method for separately deploying dynamic resources and static resources, where the dynamic resources and the static resources are separately deployed at different deployment positions, and when a WEB request of a client is received, the static resources and the dynamic resources in the WEB request are acquired from the different deployment positions, so as to improve the speed of acquiring the dynamic resources, and further improve the response speed of the WEB service.
The method for separately deploying the dynamic resources and the static resources, provided by the embodiment of the invention, comprises the following steps:
step S1: acquiring Web resources and separating static resources and dynamic resources;
step S2: obtaining a first list and a second list, the first list comprising: a plurality of first deployment locations for static resource deployment, the second list comprising: a plurality of second deployment locations for dynamic resource deployment;
step S3: screening out a first deployment position from the first list based on a first preset rule and deploying the static resource;
step S4: and screening out a second deployment position from the second list based on a second preset rule and deploying the dynamic resource.
Preferably, step S3: screening out a first deployment position from the first list and deploying the static resources based on a first preset rule, specifically comprising:
step S31: determining the size of a static resource to be deployed;
step S32: deleting a first deployment position of which the deployable residual capacity is smaller than or equal to the size of the static resource in the first list;
step S33: establishing a first virtual map based on spatial position attributes corresponding to the remaining first deployment positions in the first list;
step S34: determining a first deployment location at a first virtual map center location;
step S35: taking a first deployment position located at the center position of a first virtual map as a first reference, and when the maximum distance between the other first deployment positions on the first virtual map and the reference is greater than a first preset value, determining a plurality of first secondary references in a plurality of preset directions according to the distances between the other first deployment positions on the first virtual map and the first reference;
step S36: deploying the static resource at a first deployment location as a first reference and a first secondary reference;
step S4: screening out a second deployment position from the second list based on a second preset rule and deploying the dynamic resource, wherein the method specifically comprises the following steps:
step S41: determining the size of a dynamic resource to be deployed;
step S42: deleting a second deployment position of which the deployable residual capacity is less than or equal to the size of the dynamic resource in the second list;
step S43: establishing a second virtual map based on the spatial position attribute corresponding to the remaining second deployment positions in the second list;
step S44: determining a second deployment location at a second virtual map center location;
step S45: taking a second deployment position located at the center position of the second virtual map as a second reference, and when the maximum distance between the second deployment position on the second virtual map and the second reference is greater than a second preset value, determining a plurality of second secondary references in a plurality of preset directions according to the distance between the second deployment position on the second virtual map and the second reference;
step S46: the dynamic resource is deployed at the first deployment location as a second benchmark and a second secondary benchmark.
Preferably, step S34: determining a first deployment location at a first virtual map center location; the method specifically comprises the following steps:
calculating relative distances between the remaining first deployment locations in the first list and other first deployment locations;
calculating the variance of the relative distance;
the first deployment position with the smallest difference is the first deployment position located at the center position of the first virtual map;
step S34: determining a second deployment location at a second virtual map center location; the method specifically comprises the following steps:
calculating relative distances between the remaining second deployment locations in the second list and other second deployment locations;
calculating the variance of the relative distance;
the second deployment position with the smallest difference is the second deployment position located at the center position of the second virtual map.
Preferably, the determining a plurality of first secondary references in a plurality of preset directions according to the distances between the other first deployment positions on the first virtual map and the first references specifically includes:
acquiring a first distance judgment value of a first secondary standard and a first standard;
determining a first secondary reference based on the first distance decision value and the distance of the other first deployment location on the first virtual map from the first reference; the error between the distance of the first secondary reference from the first reference and the first distance judgment value is minimum;
determining a plurality of first judging position points according to the first initial included angles and the first distance judgment values by taking the included angle between the first secondary reference and the first reference as a first initial included angle;
calculating distances of other first deployment positions on the first virtual map from the first decision position point
Figure 542161DEST_PATH_IMAGE001
The calculation formula is as follows:
Figure 637156DEST_PATH_IMAGE002
wherein the content of the first and second substances,
Figure 24275DEST_PATH_IMAGE003
，
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representing the second on the first virtual map
Figure 599186DEST_PATH_IMAGE005
A virtual longitude and a virtual latitude corresponding to the first deployment location;
Figure 599503DEST_PATH_IMAGE006
represents a first distance determination value;
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representing a first initial included angle;
Figure 37623DEST_PATH_IMAGE008
is a preset constant;
Figure 251567DEST_PATH_IMAGE009
，
Figure 953944DEST_PATH_IMAGE010
representing a virtual longitude and a virtual latitude corresponding to the first reference;
determining a plurality of second secondary references in a plurality of preset directions according to distances between other second deployment positions on the second virtual map and the second references, specifically including:
acquiring a second distance judgment value of a second secondary standard and a second standard;
determining a second secondary reference based on the second distance decision value and the distance of the other second deployment location on the second virtual map from the second reference; the error of the distance between the second secondary reference and the second distance judgment value is minimum;
determining a plurality of second judgment position points according to the second initial included angle and a second distance judgment value by taking the included angle between the second secondary standard and the second standard as a second initial included angle;
calculating the distance between the other second deployment position and the second judgment position on the second virtual map
Figure 50076DEST_PATH_IMAGE011
The calculation formula is as follows:
Figure 886314DEST_PATH_IMAGE012
wherein the content of the first and second substances,
Figure 206961DEST_PATH_IMAGE013
，
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representing the second on a second virtual map
Figure 335771DEST_PATH_IMAGE015
A virtual longitude and a virtual latitude corresponding to the second deployment location;
Figure 38017DEST_PATH_IMAGE016
represents a second distance determination value;
Figure 226553DEST_PATH_IMAGE017
representing a second initial included angle;
Figure 5153DEST_PATH_IMAGE018
is a preset constant;
Figure 75877DEST_PATH_IMAGE019
，
Figure 129284DEST_PATH_IMAGE020
and indicates a virtual longitude and a virtual latitude corresponding to the second reference.
Preferably, the method for separately deploying the dynamic resource and the static resource further includes:
step S5: acquiring a Web request of a client and the position of the client;
step S6: mapping the location of the client to a first virtual map and a second virtual map;
step S7: acquiring static resources in the Web request by using a first deployment position with a distance from a client side in a first virtual map as a preset first threshold;
step S8: and acquiring the dynamic resources in the Web request at a second deployment position which is away from the client side in the second virtual map and is a preset second threshold value.
The invention also provides a system for separately deploying dynamic resources and static resources, which comprises:
the Web resource acquisition module is used for acquiring Web resources and separating static resources and dynamic resources;
a list obtaining module, configured to obtain a first list and a second list, where the first list includes: a plurality of first deployment locations for static resource deployment, the second list comprising: a plurality of second deployment locations for dynamic resource deployment;
the static resource deployment module is used for screening out a first deployment position from the first list based on a first preset rule and deploying the static resource;
and the dynamic resource deployment module is used for screening out a second deployment position from the second list based on a second preset rule and deploying the dynamic resource.
Preferably, the static resource deployment module performs operations including:
determining the size of a static resource to be deployed;
deleting a first deployment position of which the deployable residual capacity is smaller than or equal to the size of the static resource in the first list;
establishing a first virtual map based on spatial position attributes corresponding to the remaining first deployment positions in the first list;
determining a first deployment location at a first virtual map center location;
taking a first deployment position located at the center position of a first virtual map as a first reference, and when the maximum distance between the other first deployment positions on the first virtual map and the reference is greater than a first preset value, determining a plurality of first secondary references in a plurality of preset directions according to the distances between the other first deployment positions on the first virtual map and the first reference;
deploying the static resource at a first deployment location as a first reference and a first secondary reference;
the dynamic resource deployment module executes the following operations:
determining the size of a dynamic resource to be deployed;
deleting a second deployment position of which the deployable residual capacity is less than or equal to the size of the dynamic resource in the second list;
establishing a second virtual map based on the spatial position attribute corresponding to the remaining second deployment positions in the second list;
determining a second deployment location at a second virtual map center location;
taking a second deployment position located at the center position of the second virtual map as a second reference, and when the maximum distance between the second deployment position on the second virtual map and the second reference is greater than a second preset value, determining a plurality of second secondary references in a plurality of preset directions according to the distance between the second deployment position on the second virtual map and the second reference;
the dynamic resource is deployed at the first deployment location as a second benchmark and a second secondary benchmark.
Preferably, a first deployment position located at the center position of the first virtual map is determined; the method specifically comprises the following steps:
calculating relative distances between the remaining first deployment locations in the first list and other first deployment locations;
calculating the variance of the relative distance;
the first deployment position with the smallest difference is the first deployment position located at the center position of the first virtual map;
determining a second deployment location at a second virtual map center location; the method specifically comprises the following steps:
calculating relative distances between the remaining second deployment locations in the second list and other second deployment locations;
calculating the variance of the relative distance;
the second deployment position with the smallest difference is the second deployment position located at the center position of the second virtual map.
Preferably, the determining a plurality of first secondary references in a plurality of preset directions according to the distances between the other first deployment positions on the first virtual map and the first references specifically includes:
acquiring a first distance judgment value of a first secondary standard and a first standard;
determining a first secondary reference based on the first distance decision value and the distance of the other first deployment location on the first virtual map from the first reference; the error between the distance of the first secondary reference from the first reference and the first distance judgment value is minimum;
determining a plurality of first judging position points according to the first initial included angles and the first distance judgment values by taking the included angle between the first secondary reference and the first reference as a first initial included angle;
calculating distances of other first deployment positions on the first virtual map from the first decision position point
Figure 811807DEST_PATH_IMAGE001
The calculation formula is as follows:
Figure 495729DEST_PATH_IMAGE002
wherein the content of the first and second substances,
Figure 991432DEST_PATH_IMAGE003
，
Figure 569569DEST_PATH_IMAGE004
representing the second on the first virtual map
Figure 467117DEST_PATH_IMAGE005
A virtual longitude and a virtual latitude corresponding to the first deployment location;
Figure 321941DEST_PATH_IMAGE006
represents a first distance determination value;
Figure 85367DEST_PATH_IMAGE007
representing a first initial included angle;
Figure 480576DEST_PATH_IMAGE008
is a preset constant;
Figure 29369DEST_PATH_IMAGE009
，
Figure 976465DEST_PATH_IMAGE010
representing a virtual longitude and a virtual latitude corresponding to the first reference;
determining a plurality of second secondary references in a plurality of preset directions according to distances between other second deployment positions on the second virtual map and the second references, specifically including:
acquiring a second distance judgment value of a second secondary standard and a second standard;
determining a second secondary reference based on the second distance decision value and the distance of the other second deployment location on the second virtual map from the second reference; the error of the distance between the second secondary reference and the second distance judgment value is minimum;
determining a plurality of second judgment position points according to the second initial included angle and a second distance judgment value by taking the included angle between the second secondary standard and the second standard as a second initial included angle;
calculating the distance between the other second deployment position and the second judgment position on the second virtual map
Figure 446761DEST_PATH_IMAGE011
The calculation formula is as follows:
Figure 98191DEST_PATH_IMAGE012
wherein the content of the first and second substances,
Figure 970332DEST_PATH_IMAGE013
，
Figure 432537DEST_PATH_IMAGE014
representing the second on a second virtual map
Figure 655708DEST_PATH_IMAGE015
A virtual longitude and a virtual latitude corresponding to the second deployment location;
Figure 606038DEST_PATH_IMAGE016
represents a second distance determination value;
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representing a second initial included angle;
Figure 559267DEST_PATH_IMAGE018
is a preset constant;
Figure 659947DEST_PATH_IMAGE019
，
Figure 403913DEST_PATH_IMAGE020
and indicates a virtual longitude and a virtual latitude corresponding to the second reference.
Preferably, the system for separately deploying dynamic resources and static resources further includes:
the Web request acquisition module is used for acquiring a Web request of a client and the position of the client;
a mapping module for mapping a location of a client to a first virtual map and a second virtual map;
the static resource acquisition module is used for acquiring static resources in the Web request at a first deployment position with a distance from the client side in the first virtual map as a preset first threshold;
and the dynamic resource acquisition module is used for acquiring the dynamic resources in the Web request at a second deployment position with the distance from the client side in the second virtual map as a preset second threshold value.
Additional features and advantages of the invention will be set forth in the description which follows, and in part will be obvious from the description, or may be learned by practice of the invention. The objectives and other advantages of the invention will be realized and attained by the structure particularly pointed out in the written description and claims hereof as well as the appended drawings.
The technical solution of the present invention is further described in detail by the accompanying drawings and embodiments.
Drawings
The accompanying drawings, which are included to provide a further understanding of the invention and are incorporated in and constitute a part of this specification, illustrate embodiments of the invention and together with the description serve to explain the principles of the invention and not to limit the invention. In the drawings:
fig. 1 is a schematic diagram of a method for separately deploying dynamic resources and static resources in an embodiment of the present invention.
Detailed Description
The preferred embodiments of the present invention will be described in conjunction with the accompanying drawings, and it will be understood that they are described herein for the purpose of illustration and explanation and not limitation.
An embodiment of the present invention provides a method for separately deploying dynamic resources and static resources, as shown in fig. 1, including:
step S1: acquiring Web resources and separating static resources and dynamic resources;
step S2: obtaining a first list and a second list, the first list comprising: a plurality of first deployment locations for static resource deployment, the second list comprising: a plurality of second deployment locations for dynamic resource deployment;
step S3: screening out a first deployment position from the first list based on a first preset rule and deploying the static resource;
step S4: and screening out a second deployment position from the second list based on a second preset rule and deploying the dynamic resource.
The working principle and the beneficial effects of the technical scheme are as follows:
the method comprises the steps of firstly separating Web resources into static resources and dynamic resources, and separately deploying the static resources and the dynamic resources to provide a data basis for responding WEB services. Then, acquiring a first list of a plurality of first deployment positions where static resources can be deployed and a second list of a plurality of second deployment positions where dynamic static resources can be deployed, specifically: inquiring nodes deployed by each static resource in the WEB system when the Web resource is received, and adding the static resource into a first list after receiving the response of the nodes deployed by the static resource; and inquiring each dynamic resource deployed node in the WEB system when the Web resource is received, and adding the dynamic resource into the second list after receiving the response of the dynamic resource deployed node. Finally, screening out a first deployment position from the first list and deploying the static resources based on a first preset rule, and screening out a second deployment position from the second list and deploying the dynamic resources based on a second preset rule; and realizing the separate deployment of the static resources and the dynamic resources. The first preset rule and the second preset rule may both include one or more of parameters [ hardware parameters, software version numbers, response speeds, network transmission speeds, and the like ] of the first deployment location, and a real location of the first deployment location.
According to the method for separately deploying the dynamic resources and the static resources, the dynamic resources and the static resources are separately deployed at different deployment positions, and when a WEB request of a client is received, the static resources and the dynamic resources in the WEB request are acquired from the different deployment positions, so that the speed of acquiring the dynamic resources is increased, and further the response speed of WEB service is increased.
In one embodiment, step S3: screening out a first deployment position from the first list and deploying the static resources based on a first preset rule, specifically comprising:
step S31: determining the size of a static resource to be deployed;
step S32: deleting a first deployment position of which the deployable residual capacity is smaller than or equal to the size of the static resource in the first list;
step S33: establishing a first virtual map based on spatial position attributes corresponding to the remaining first deployment positions in the first list;
step S34: determining a first deployment location at a first virtual map center location;
step S35: taking a first deployment position located at the center position of a first virtual map as a first reference, and when the maximum distance between the other first deployment positions on the first virtual map and the reference is greater than a first preset value, determining a plurality of first secondary references in a plurality of preset directions according to the distances between the other first deployment positions on the first virtual map and the first reference;
step S36: deploying the static resource at a first deployment location as a first reference and a first secondary reference;
step S4: screening out a second deployment position from the second list based on a second preset rule and deploying the dynamic resource, wherein the method specifically comprises the following steps:
step S41: determining the size of a dynamic resource to be deployed;
step S42: deleting a second deployment position of which the deployable residual capacity is less than or equal to the size of the dynamic resource in the second list;
step S43: establishing a second virtual map based on the spatial position attribute corresponding to the remaining second deployment positions in the second list;
step S44: determining a second deployment location at a second virtual map center location;
step S45: taking a second deployment position located at the center position of the second virtual map as a second reference, and when the maximum distance between the second deployment position on the second virtual map and the second reference is greater than a second preset value, determining a plurality of second secondary references in a plurality of preset directions according to the distance between the second deployment position on the second virtual map and the second reference;
step S46: the dynamic resource is deployed at the first deployment location as a second benchmark and a second secondary benchmark.
The working principle and the beneficial effects of the technical scheme are as follows:
first, a first step of screening is carried out on a first deployment position and a second deployment position in a first list and a second list according to the size of a static resource and a dynamic resource in a WEB resource, and the deployment positions with the residual capacity smaller than the size of the static resource and the size of the dynamic resource are removed. Mapping the first deployment position and the second deployment position to a first virtual map and a second virtual map respectively, and performing multipoint deployment according to virtual longitudes and virtual latitudes of the first deployment position and the second deployment position in the first virtual map and the second virtual map; when a WEB request of a client is received, static resources and dynamic resources can be conveniently obtained nearby according to the position of the client, and the speed of obtaining the static resources and the dynamic resources is improved; and further improve the response to the WEB request of the client.
In one embodiment, step S34: determining a first deployment location at a first virtual map center location; the method specifically comprises the following steps:
calculating relative distances between the remaining first deployment locations in the first list and other first deployment locations;
calculating the variance of the relative distance;
the first deployment position with the smallest difference is the first deployment position located at the center position of the first virtual map;
step S34: determining a second deployment location at a second virtual map center location; the method specifically comprises the following steps:
calculating relative distances between the remaining second deployment locations in the second list and other second deployment locations;
calculating the variance of the relative distance;
the second deployment position with the smallest difference is the second deployment position located at the center position of the second virtual map.
The working principle and the beneficial effects of the technical scheme are as follows:
and determining the first deployment position located at the central position according to the variance of the relative distance between the first deployment positions, so that the accuracy of the central determination is improved. Similarly, the second deployment position located at the center position is determined according to the variance of the relative distance between the second deployment positions, so that the accuracy of center determination is improved.
In one embodiment, the determining a plurality of first secondary references in a plurality of preset directions according to the distances between the other first deployment locations on the first virtual map and the first references specifically includes:
acquiring a first distance judgment value of a first secondary standard and a first standard;
determining a first secondary reference based on the first distance decision value and the distance of the other first deployment location on the first virtual map from the first reference; the error between the distance of the first secondary reference from the first reference and the first distance judgment value is minimum;
determining a plurality of first judging position points according to the first initial included angles and the first distance judgment values by taking the included angle between the first secondary reference and the first reference as a first initial included angle;
calculating distances of other first deployment positions on the first virtual map from the first decision position point
Figure 765493DEST_PATH_IMAGE001
The calculation formula is as follows:
Figure 303921DEST_PATH_IMAGE002
wherein the content of the first and second substances,
Figure 236105DEST_PATH_IMAGE003
，
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representing the second on the first virtual map
Figure 734269DEST_PATH_IMAGE005
A virtual longitude and a virtual latitude corresponding to the first deployment location;
Figure 974757DEST_PATH_IMAGE006
represents a first distance determination value;
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representing a first initial included angle;
Figure 73480DEST_PATH_IMAGE008
is a preset constant;
Figure 22369DEST_PATH_IMAGE009
，
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representing a virtual longitude and a virtual latitude corresponding to the first reference;
determining a plurality of second secondary references in a plurality of preset directions according to distances between other second deployment positions on the second virtual map and the second references, specifically including:
acquiring a second distance judgment value of a second secondary standard and a second standard;
determining a second secondary reference based on the second distance decision value and the distance of the other second deployment location on the second virtual map from the second reference; the error of the distance between the second secondary reference and the second distance judgment value is minimum;
determining a plurality of second judgment position points according to the second initial included angle and a second distance judgment value by taking the included angle between the second secondary standard and the second standard as a second initial included angle;
calculating the distance between the other second deployment position and the second judgment position on the second virtual map
Figure 324223DEST_PATH_IMAGE011
The calculation formula is as follows:
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wherein the content of the first and second substances,
Figure 873202DEST_PATH_IMAGE013
，
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representing the second on a second virtual map
Figure 318407DEST_PATH_IMAGE015
A virtual longitude and a virtual latitude corresponding to the second deployment location;
Figure 542715DEST_PATH_IMAGE016
represents a second distance determination value;
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representing a second initial included angle;
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is a preset constant;
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，
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and indicates a virtual longitude and a virtual latitude corresponding to the second reference.
The working principle and the beneficial effects of the technical scheme are as follows:
determining a plurality of first deployment positions from the first deployment position by taking the first deployment position of the central position as a reference, deploying static resources at the first deployment position taken as the reference and the other determined plurality of first deployment positions, determining a plurality of second deployment positions from the second deployment position by taking the second deployment position of the central position as a reference, and deploying dynamic resources at the second deployment position taken as the reference and the other determined plurality of second deployment positions; when a WEB request of a client is received, the static resource and the dynamic resource are acquired nearby according to the position of the client, and the speed of acquiring the static resource and the dynamic resource is increased; and further improve the response to the WEB request of the client.
In one embodiment, the method for separately deploying the dynamic resource and the static resource further includes:
step S5: acquiring a Web request of a client and the position of the client;
step S6: mapping the location of the client to a first virtual map and a second virtual map;
step S7: acquiring static resources in the Web request by using a first deployment position with a distance from a client side in a first virtual map as a preset first threshold;
step S8: and acquiring the dynamic resources in the Web request at a second deployment position which is away from the client side in the second virtual map and is a preset second threshold value.
The working principle and the beneficial effects of the technical scheme are as follows:
when a WEB request of a client is received, the position of the client is synchronously acquired, the position of the client is mapped into a first virtual map and a second virtual map, and static resources and dynamic resources are acquired nearby according to the position of the client, so that the speed of acquiring the static resources and the dynamic resources is improved; and further improve the response to the WEB request of the client.
The invention also provides a system for separately deploying dynamic resources and static resources, which comprises:
the Web resource acquisition module is used for acquiring Web resources and separating static resources and dynamic resources;
a list obtaining module, configured to obtain a first list and a second list, where the first list includes: a plurality of first deployment locations for static resource deployment, the second list comprising: a plurality of second deployment locations for dynamic resource deployment;
the static resource deployment module is used for screening out a first deployment position from the first list based on a first preset rule and deploying the static resource;
and the dynamic resource deployment module is used for screening out a second deployment position from the second list based on a second preset rule and deploying the dynamic resource.
The working principle and the beneficial effects of the technical scheme are as follows:
the method comprises the steps of firstly separating Web resources into static resources and dynamic resources, and separately deploying the static resources and the dynamic resources to provide a data basis for responding WEB services. Then, acquiring a first list of a plurality of first deployment positions where static resources can be deployed and a second list of a plurality of second deployment positions where dynamic static resources can be deployed, specifically: inquiring nodes deployed by each static resource in the WEB system when the Web resource is received, and adding the static resource into a first list after receiving the response of the nodes deployed by the static resource; and inquiring each dynamic resource deployed node in the WEB system when the Web resource is received, and adding the dynamic resource into the second list after receiving the response of the dynamic resource deployed node. Finally, screening out a first deployment position from the first list and deploying the static resources based on a first preset rule, and screening out a second deployment position from the second list and deploying the dynamic resources based on a second preset rule; and realizing the separate deployment of the static resources and the dynamic resources. The first preset rule and the second preset rule may both include one or more of parameters [ hardware parameters, software version numbers, response speeds, network transmission speeds, and the like ] of the first deployment location, and a real location of the first deployment location.
According to the system for separately deploying the dynamic resources and the static resources, the dynamic resources and the static resources are separately deployed at different deployment positions, and when a WEB request of a client is received, the static resources and the dynamic resources in the WEB request are acquired from the different deployment positions, so that the speed of acquiring the dynamic resources is increased, and further the response speed of WEB service is increased.
In one embodiment, the static resource deployment module performs operations comprising:
determining the size of a static resource to be deployed;
deleting a first deployment position of which the deployable residual capacity is smaller than or equal to the size of the static resource in the first list;
establishing a first virtual map based on spatial position attributes corresponding to the remaining first deployment positions in the first list;
determining a first deployment location at a first virtual map center location;
taking a first deployment position located at the center position of a first virtual map as a first reference, and when the maximum distance between the other first deployment positions on the first virtual map and the reference is greater than a first preset value, determining a plurality of first secondary references in a plurality of preset directions according to the distances between the other first deployment positions on the first virtual map and the first reference;
deploying the static resource at a first deployment location as a first reference and a first secondary reference;
the dynamic resource deployment module executes the following operations:
determining the size of a dynamic resource to be deployed;
deleting a second deployment position of which the deployable residual capacity is less than or equal to the size of the dynamic resource in the second list;
establishing a second virtual map based on the spatial position attribute corresponding to the remaining second deployment positions in the second list;
determining a second deployment location at a second virtual map center location;
taking a second deployment position located at the center position of the second virtual map as a second reference, and when the maximum distance between the second deployment position on the second virtual map and the second reference is greater than a second preset value, determining a plurality of second secondary references in a plurality of preset directions according to the distance between the second deployment position on the second virtual map and the second reference;
the dynamic resource is deployed at the first deployment location as a second benchmark and a second secondary benchmark.
The working principle and the beneficial effects of the technical scheme are as follows:
first, a first step of screening is carried out on a first deployment position and a second deployment position in a first list and a second list according to the size of a static resource and a dynamic resource in a WEB resource, and the deployment positions with the residual capacity smaller than the size of the static resource and the size of the dynamic resource are removed. Mapping the first deployment position and the second deployment position to a first virtual map and a second virtual map respectively, and performing multipoint deployment according to virtual longitudes and virtual latitudes of the first deployment position and the second deployment position in the first virtual map and the second virtual map; when a WEB request of a client is received, static resources and dynamic resources can be conveniently obtained nearby according to the position of the client, and the speed of obtaining the static resources and the dynamic resources is improved; and further improve the response to the WEB request of the client.
In one embodiment, a first deployment location is determined that is centered on a first virtual map; the method specifically comprises the following steps:
calculating relative distances between the remaining first deployment locations in the first list and other first deployment locations;
calculating the variance of the relative distance;
the first deployment position with the smallest difference is the first deployment position located at the center position of the first virtual map;
determining a second deployment location at a second virtual map center location; the method specifically comprises the following steps:
calculating relative distances between the remaining second deployment locations in the second list and other second deployment locations;
calculating the variance of the relative distance;
the second deployment position with the smallest difference is the second deployment position located at the center position of the second virtual map.
The working principle and the beneficial effects of the technical scheme are as follows:
and determining the first deployment position located at the central position according to the variance of the relative distance between the first deployment positions, so that the accuracy of the central determination is improved. Similarly, the second deployment position located at the center position is determined according to the variance of the relative distance between the second deployment positions, so that the accuracy of center determination is improved.
In one embodiment, the determining a plurality of first secondary references in a plurality of preset directions according to the distances between the other first deployment locations on the first virtual map and the first references specifically includes:
acquiring a first distance judgment value of a first secondary standard and a first standard;
determining a first secondary reference based on the first distance decision value and the distance of the other first deployment location on the first virtual map from the first reference; the error between the distance of the first secondary reference from the first reference and the first distance judgment value is minimum;
determining a plurality of first judging position points according to the first initial included angles and the first distance judgment values by taking the included angle between the first secondary reference and the first reference as a first initial included angle;
calculating distances of other first deployment positions on the first virtual map from the first decision position point
Figure 762868DEST_PATH_IMAGE001
The calculation formula is as follows:
Figure 670650DEST_PATH_IMAGE002
wherein the content of the first and second substances,
Figure 773736DEST_PATH_IMAGE003
，
Figure 808688DEST_PATH_IMAGE004
representing the second on the first virtual map
Figure 579198DEST_PATH_IMAGE005
A virtual longitude and a virtual latitude corresponding to the first deployment location;
Figure 205351DEST_PATH_IMAGE006
represents a first distance determination value;
Figure 592470DEST_PATH_IMAGE007
representing a first initial included angle;
Figure 539435DEST_PATH_IMAGE008
is a preset constant;
Figure 898872DEST_PATH_IMAGE009
，
Figure 899189DEST_PATH_IMAGE010
representing a virtual longitude and a virtual latitude corresponding to the first reference;
determining a plurality of second secondary references in a plurality of preset directions according to distances between other second deployment positions on the second virtual map and the second references, specifically including:
acquiring a second distance judgment value of a second secondary standard and a second standard;
determining a second secondary reference based on the second distance decision value and the distance of the other second deployment location on the second virtual map from the second reference; the error of the distance between the second secondary reference and the second distance judgment value is minimum;
determining a plurality of second judgment position points according to the second initial included angle and a second distance judgment value by taking the included angle between the second secondary standard and the second standard as a second initial included angle;
calculating the distance between the other second deployment position and the second judgment position on the second virtual map
Figure 963485DEST_PATH_IMAGE011
The calculation formula is as follows:
Figure 340240DEST_PATH_IMAGE012
wherein the content of the first and second substances,
Figure 803451DEST_PATH_IMAGE013
，
Figure 505828DEST_PATH_IMAGE014
representing the second on a second virtual map
Figure 601960DEST_PATH_IMAGE015
A virtual longitude and a virtual latitude corresponding to the second deployment location;
Figure 47984DEST_PATH_IMAGE016
represents a second distance determination value;
Figure 303385DEST_PATH_IMAGE017
representing a second initial included angle;
Figure 442243DEST_PATH_IMAGE018
is a preset constant;
Figure 25671DEST_PATH_IMAGE019
，
Figure 400020DEST_PATH_IMAGE020
and indicates a virtual longitude and a virtual latitude corresponding to the second reference.
The working principle and the beneficial effects of the technical scheme are as follows:
determining a plurality of first deployment positions from the first deployment position by taking the first deployment position of the central position as a reference, deploying static resources at the first deployment position taken as the reference and the other determined plurality of first deployment positions, determining a plurality of second deployment positions from the second deployment position by taking the second deployment position of the central position as a reference, and deploying dynamic resources at the second deployment position taken as the reference and the other determined plurality of second deployment positions; when a WEB request of a client is received, the static resource and the dynamic resource are acquired nearby according to the position of the client, and the speed of acquiring the static resource and the dynamic resource is increased; and further improve the response to the WEB request of the client.
In one embodiment, the system for separately deploying dynamic resources and static resources further includes:
the Web request acquisition module is used for acquiring a Web request of a client and the position of the client;
a mapping module for mapping a location of a client to a first virtual map and a second virtual map;
the static resource acquisition module is used for acquiring static resources in the Web request at a first deployment position with a distance from the client side in the first virtual map as a preset first threshold;
and the dynamic resource acquisition module is used for acquiring the dynamic resources in the Web request at a second deployment position with the distance from the client side in the second virtual map as a preset second threshold value.
The working principle and the beneficial effects of the technical scheme are as follows:
when a WEB request of a client is received, the position of the client is synchronously acquired, the position of the client is mapped into a first virtual map and a second virtual map, and static resources and dynamic resources are acquired nearby according to the position of the client, so that the speed of acquiring the static resources and the dynamic resources is improved; and further improve the response to the WEB request of the client.
It will be apparent to those skilled in the art that various changes and modifications may be made in the present invention without departing from the spirit and scope of the invention. Thus, if such modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalents, the present invention is also intended to include such modifications and variations.

Claims (10)

1. A method for separate deployment of dynamic resources and static resources is characterized by comprising the following steps:
step S1: acquiring Web resources and separating static resources and dynamic resources;
step S2: obtaining a first list and a second list, wherein the first list comprises: a plurality of first deployment locations for the static resource deployment, the second list comprising: a plurality of second deployment locations for the dynamic resource deployment;
step S3: screening out the first deployment position from the first list based on a first preset rule and deploying the static resource;
step S4: and screening the second deployment position from the second list based on a second preset rule and deploying the dynamic resource.
2. The method for separate deployment of dynamic resources and static resources according to claim 1, wherein the step S3: screening out the first deployment position from the first list and deploying the static resource based on a first preset rule, specifically comprising:
step S31: determining the size of the static resource to be deployed;
step S32: deleting the first deployment position with the deployable residual capacity less than or equal to the size of the static resource in the first list;
step S33: establishing a first virtual map based on spatial position attributes corresponding to the remaining first deployment positions in the first list;
step S34: determining the first deployment location at the first virtual map center location;
step S35: taking the first deployment position located at the center position of the first virtual map as a first reference, and when the maximum distance between the other first deployment positions on the first virtual map and the reference is greater than a first preset value, determining a plurality of first secondary references in a plurality of preset directions according to the distances between the other first deployment positions on the first virtual map and the first reference;
step S36: deploying the static resource at the first deployment location as the first benchmark and the first secondary benchmark;
the step S4: screening out the second deployment position from the second list based on a second preset rule and deploying the dynamic resource, specifically comprising:
step S41: determining the size of the dynamic resource to be deployed;
step S42: deleting the second deployment position with the deployable residual capacity less than or equal to the size of the dynamic resource in the second list;
step S43: establishing a second virtual map based on spatial location attributes corresponding to the second deployment locations remaining in the second list;
step S44: determining the second deployment location at the second virtual map center location;
step S45: taking the second deployment position located at the center position of the second virtual map as a second reference, and when the maximum distance between the other second deployment positions on the second virtual map and the second reference is greater than a second preset value, determining a plurality of second secondary references in a plurality of preset directions according to the distances between the other second deployment positions on the second virtual map and the second reference;
step S46: deploying the dynamic resource at the first deployment location as the second benchmark and the second secondary benchmark.
3. The method for separate deployment of dynamic resources and static resources according to claim 2, wherein the step S34: determining the first deployment location at the first virtual map center location; the method specifically comprises the following steps:
calculating relative distances between the first deployment locations remaining in the first list and the other first deployment locations;
calculating a variance of the relative distance;
the first deployment position with the minimum variance is the first deployment position located at the center position of the first virtual map;
the step S34: determining the second deployment location at the second virtual map center location; the method specifically comprises the following steps:
calculating relative distances between the second deployment locations remaining in the second list and the other second deployment locations;
calculating a variance of the relative distance;
the second deployment position with the minimum variance is the second deployment position located at the center position of the second virtual map.
4. The method for separate deployment of dynamic resources and static resources according to claim 2, wherein the determining a plurality of first secondary references in a plurality of preset directions according to the distances between the first deployment locations on the first virtual map and the first references specifically includes:
acquiring a first distance judgment value of the first secondary reference and the first reference;
determining a first secondary reference based on the first distance decision value and the distance of the other first deployment locations on the first virtual map from the first reference; the distance of the first secondary reference from the first reference and the first distance decision value error are minimum;
determining a plurality of first judging position points according to the first initial included angles and the first distance judging values by taking the included angle between the first secondary reference and the first reference as a first initial included angle;
calculating distances of the other first deployment locations on the first virtual map from the first determination location point
Figure 203623DEST_PATH_IMAGE001
The calculation formula is as follows:
Figure 513381DEST_PATH_IMAGE002
wherein the content of the first and second substances,
Figure 708739DEST_PATH_IMAGE003
，
Figure 762146DEST_PATH_IMAGE004
representing the second on the first virtual map
Figure 729489DEST_PATH_IMAGE005
A virtual longitude and a virtual latitude corresponding to the first deployment location;
Figure 210149DEST_PATH_IMAGE006
represents a first distance determination value;
Figure 502590DEST_PATH_IMAGE007
representing the first initial included angle;
Figure 484322DEST_PATH_IMAGE008
is a preset constant;
Figure 178608DEST_PATH_IMAGE009
，
Figure 954803DEST_PATH_IMAGE010
representing a virtual longitude and a virtual latitude corresponding to the first reference;
the determining, according to the distances between the other second deployment positions on the second virtual map and the second reference, a plurality of second secondary references in a plurality of preset directions specifically includes:
acquiring a second distance judgment value of the second secondary standard and the second standard;
determining a second secondary reference based on the second distance decision value and the distance of the other second deployment location on the second virtual map from the second reference; the error between the distance of the second secondary reference from the second reference and the second distance determination value is minimum;
determining a plurality of second judgment position points according to the second initial included angle and the second distance judgment value by taking the included angle between the second secondary standard and the second standard as a second initial included angle;
calculating distances between the second deployment positions and the second judgment position points on the second virtual map
Figure 120DEST_PATH_IMAGE011
The calculation formula is as follows:
Figure 395329DEST_PATH_IMAGE012
wherein the content of the first and second substances,
Figure 68756DEST_PATH_IMAGE013
，
Figure 156797DEST_PATH_IMAGE014
representing the second on the second virtual map
Figure 551394DEST_PATH_IMAGE015
A virtual longitude and a virtual latitude corresponding to the second deployment location;
Figure 484715DEST_PATH_IMAGE016
represents a second distance determination value;
Figure 278228DEST_PATH_IMAGE017
representing the second initial included angle;
Figure 537171DEST_PATH_IMAGE018
is a preset constant;
Figure 25921DEST_PATH_IMAGE019
，
Figure 153146DEST_PATH_IMAGE020
and the virtual longitude and the virtual latitude corresponding to the second reference are represented.
5. The method for split deployment of dynamic and static resources according to claim 4, further comprising:
step S5: acquiring a Web request of a client and the position of the client;
step S6: mapping the location of the client to the first virtual map and the second virtual map;
step S7: acquiring the static resource in the Web request by using the first deployment position which is away from the client in the first virtual map and is a preset first threshold;
step S8: and acquiring the dynamic resources in the Web request by using the second deployment position which is in the second virtual map and is away from the client as a preset second threshold.
6. A system for separate deployment of dynamic resources and static resources, comprising:
the Web resource acquisition module is used for acquiring Web resources and separating static resources and dynamic resources;
a list obtaining module, configured to obtain a first list and a second list, where the first list includes: a plurality of first deployment locations for the static resource deployment, the second list comprising: a plurality of second deployment locations for the dynamic resource deployment;
the static resource deployment module is used for screening out the first deployment position from the first list based on a first preset rule and deploying the static resource;
and the dynamic resource deployment module is used for screening out the second deployment position from the second list based on a second preset rule and deploying the dynamic resource.
7. The system for split deployment of dynamic and static resources of claim 6, wherein the static resource deployment module performs operations comprising:
determining the size of the static resource to be deployed;
deleting the first deployment position with the deployable residual capacity less than or equal to the size of the static resource in the first list;
establishing a first virtual map based on spatial position attributes corresponding to the remaining first deployment positions in the first list;
determining the first deployment location at the first virtual map center location;
taking the first deployment position located at the center position of the first virtual map as a first reference, and when the maximum distance between the other first deployment positions on the first virtual map and the reference is greater than a first preset value, determining a plurality of first secondary references in a plurality of preset directions according to the distances between the other first deployment positions on the first virtual map and the first reference;
deploying the static resource at the first deployment location as the first benchmark and the first secondary benchmark;
the dynamic resource deployment module performs operations comprising:
determining the size of the dynamic resource to be deployed;
deleting the second deployment position with the deployable residual capacity less than or equal to the size of the dynamic resource in the second list;
establishing a second virtual map based on spatial location attributes corresponding to the second deployment locations remaining in the second list;
determining the second deployment location at the second virtual map center location;
taking the second deployment position located at the center position of the second virtual map as a second reference, and when the maximum distance between the other second deployment positions on the second virtual map and the second reference is greater than a second preset value, determining a plurality of second secondary references in a plurality of preset directions according to the distances between the other second deployment positions on the second virtual map and the second reference;
deploying the dynamic resource at the first deployment location as the second benchmark and the second secondary benchmark.
8. The system for split deployment of dynamic and static resources according to claim 7, wherein said determining said first deployment location is centered on said first virtual map; the method specifically comprises the following steps:
calculating relative distances between the first deployment locations remaining in the first list and the other first deployment locations;
calculating a variance of the relative distance;
the first deployment position with the minimum variance is the first deployment position located at the center position of the first virtual map;
the determining the second deployment location at the second virtual map center location; the method specifically comprises the following steps:
calculating relative distances between the second deployment locations remaining in the second list and the other second deployment locations;
calculating a variance of the relative distance;
the second deployment position with the minimum variance is the second deployment position located at the center position of the second virtual map.
9. The system for separate deployment of dynamic resources and static resources according to claim 7, wherein the determining a plurality of first secondary references in a plurality of preset directions according to the distances between the first deployment locations on the first virtual map and the first references specifically includes:
acquiring a first distance judgment value of the first secondary reference and the first reference;
determining a first secondary reference based on the first distance decision value and the distance of the other first deployment locations on the first virtual map from the first reference; the distance of the first secondary reference from the first reference and the first distance decision value error are minimum;
determining a plurality of first judging position points according to the first initial included angles and the first distance judging values by taking the included angle between the first secondary reference and the first reference as a first initial included angle;
calculating the saidDistances of other first deployment locations on a first virtual map from the first decision location point
Figure 676531DEST_PATH_IMAGE001
The calculation formula is as follows:
Figure 965430DEST_PATH_IMAGE002
wherein the content of the first and second substances,
Figure 207055DEST_PATH_IMAGE003
，
Figure 747758DEST_PATH_IMAGE004
representing the second on the first virtual map
Figure 253213DEST_PATH_IMAGE005
A virtual longitude and a virtual latitude corresponding to the first deployment location;
Figure 853959DEST_PATH_IMAGE006
represents a first distance determination value;
Figure 317301DEST_PATH_IMAGE007
representing the first initial included angle;
Figure 786329DEST_PATH_IMAGE008
is a preset constant;
Figure 284306DEST_PATH_IMAGE009
，
Figure 790374DEST_PATH_IMAGE010
representing a virtual longitude and a virtual latitude corresponding to the first reference;
the determining, according to the distances between the other second deployment positions on the second virtual map and the second reference, a plurality of second secondary references in a plurality of preset directions specifically includes:
acquiring a second distance judgment value of the second secondary standard and the second standard;
determining a second secondary reference based on the second distance decision value and the distance of the other second deployment location on the second virtual map from the second reference; the error between the distance of the second secondary reference from the second reference and the second distance determination value is minimum;
determining a plurality of second judgment position points according to the second initial included angle and the second distance judgment value by taking the included angle between the second secondary standard and the second standard as a second initial included angle;
calculating distances between the second deployment positions and the second judgment position points on the second virtual map
Figure 131225DEST_PATH_IMAGE011
The calculation formula is as follows:
Figure 13731DEST_PATH_IMAGE012
wherein the content of the first and second substances,
Figure 366214DEST_PATH_IMAGE013
，
Figure 167817DEST_PATH_IMAGE014
representing the second on the second virtual map
Figure 605752DEST_PATH_IMAGE015
A virtual longitude and a virtual latitude corresponding to the second deployment location;
Figure 291948DEST_PATH_IMAGE016
represents a second distance determination value;
Figure 649939DEST_PATH_IMAGE017
representing the second initial included angle;
Figure 763389DEST_PATH_IMAGE018
is a preset constant;
Figure 813253DEST_PATH_IMAGE019
，
Figure 37561DEST_PATH_IMAGE020
and the virtual longitude and the virtual latitude corresponding to the second reference are represented.
10. The system for decoupled deployment of dynamic and static resources according to claim 9, further comprising:
the Web request acquisition module is used for acquiring a Web request of a client and the position of the client;
a mapping module to map a location of the client to the first virtual map and the second virtual map;
a static resource obtaining module, configured to obtain the static resource in the Web request at the first deployment location in the first virtual map, where a distance from the client is a preset first threshold;
and the dynamic resource acquisition module is used for acquiring the dynamic resources in the Web request according to the second deployment position with the distance from the client side in the second virtual map as a preset second threshold value.
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