CN108304176B - Visual point burying method of cross-platform mobile terminal - Google Patents
Visual point burying method of cross-platform mobile terminal Download PDFInfo
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Abstract
The invention discloses a visual point burying method of a cross-platform mobile terminal, which comprises the following steps: after the client establishes connection with the server, refreshing the control tree related information of the current interactive interface sent to the server; the server side synchronously updates the rendering interface according to the received information, and the user performs visual embedded point selection operation on the control at the server side; testing the binding condition of the control, sending the embedded point information to the client by the server, and confirming and binding the control specified in the acquired embedded point information by the client; and triggering the control bound by the test at the client, triggering event information of the control, sending the event information to the server, and after the test is passed, deploying the control selected by the server in a circle of the embedded points. The invention adds the self-defined dimensionality function of the embedded point and the embedded point support of the HTML element; the interactive interface control is made to be universal to various user-defined client interactive interfaces; meanwhile, for the webpage control, a visual code injection point burying function and a similar element point burying function are supported.
Description
Technical Field
The invention relates to the technical field of re-rendering technology and data acquisition, in particular to a visual point burying method of a cross-platform mobile terminal.
Background
The existing big data acquisition method mainly comprises the following three steps: code burial points, visual burial points and full burial points. The visual point burying method comprises the steps that self interaction interface information is sent to a server side through a client side, point burying information is configured through the visual interface to bury points, the point burying maintenance is friendly, the point burying cost is lower than that of code point burying, and the point burying method has the defect that all interaction cannot be performed.
The existing visual point burying technical scheme has the following defects:
(1) the embedded point control part is few, and HTML elements in hybrid development application are not supported to be embedded;
(2) for the native controls of each mobile terminal platform, only the controls with simple structure levels can be subjected to point burying, and when the control structure levels are complex, the conditions that the controls cannot be identified, point burying binding events are not effective and the like can occur;
(3) the webpage elements of each mobile terminal platform do not support visual embedded points, and when the development of hybrid application is met, the existing scheme cannot meet the embedded point requirement.
Disclosure of Invention
The invention aims to solve the technical problems that the existing visual point burying technology has few point burying control pieces and does not support HTML element point burying in mixed development application; for the native controls of each mobile terminal platform, only the controls with simple structure levels can be subjected to point burying, and when the control structure levels are complex, the conditions that the controls cannot be identified, point burying binding events are not effective and the like can occur; the webpage elements of each mobile terminal platform do not support visual embedded points, and when the development of hybrid application is met, the existing scheme cannot meet the embedded point requirement.
In order to solve the technical problem, the technical scheme adopted by the invention is to provide a visual point burying method of a cross-platform mobile terminal, which comprises the following steps:
after the connection between the client and the server is established, the client refreshes the control tree related information of the current interactive interface sent to the server according to the preset conditions;
the server side synchronously updates the rendering interface according to the received related information of the interactive interface control tree, and a user performs visual embedded point selection operation on the control at the server side;
after the embedded point selection is finished, testing the binding condition of the control, sending the embedded point information to the client by the server, and confirming and binding the specified control in the acquired embedded point information by the client;
and triggering the control bound by the test at the client, triggering event information of the control, sending the event information to the server, and after the test is passed, deploying the control selected by the server in a circle of the embedded points.
In the technical scheme, when the developed application is the mixed type mobile application, the native code and the JavaScript code of the visual embedded point are injected into the webpage for execution in the software development kit, so that the webpage can be bound according to the circled selection of the HTML element to realize embedded point.
In the above technical solution. And correspondingly setting the page in a visual embedded point management interface, and when the software development kit determines that the current page is consistent with the set page through a page path, defaulting to send browsing and staying event data of each page, and automatically adding page name dimensionality.
In the above technical solution, establishing a connection between the client and the server specifically includes the following steps:
opening a visual embedded point two-dimensional code page provided by a server, scanning the two-dimensional code by a client, and starting to establish connection with the server through the interpretation of a software development kit;
after receiving a request of a client for establishing connection, a server verifies the connection establishment request, and if the verification is passed, the server requests the client for acquiring equipment information; if the verification fails, continuing to wait;
after receiving a request of a server, the client returns self equipment information to the server;
after receiving the equipment information of the client, the server further requests to acquire the interactive interface information;
after receiving a request of a receiving server for acquiring interactive interface information, a client traverses a control tree of a current interactive interface to acquire related information and returns the related information to the server;
and the server side explains and generates a control path which can be identified by the client side according to the information sent by the client side twice, and renders the interactive interface of the current client side into the current webpage, so that the connection between the server side and the client side is successfully established.
In the above technical solution, acquiring deployed information of the embedded point control in a common mode specifically includes the following steps:
initializing a singleton mode object of a visual buried point after the application integrated with the software development kit is started;
in the initialization process, a server is requested to acquire configuration information of a visual embedded point;
analyzing the obtained information of the visual embedded point configuration, carrying out event monitoring on a native control or a webpage element of the current application corresponding binding information by a software development kit, and setting page names and other operations for each page according to page paths;
when an event is triggered, performing dimension verification on data according to the data type in the configuration information, packaging the data, and sending the packaged data to a server;
and when the server successfully receives the data, clearing the packed data in the software development kit, otherwise, waiting for sending the next packed data.
In the above technical solution, the configuration information includes binding information of the native control and the web page element, a data type for packaging data, a native page, and page setting information of the web page.
In the above technical solution, the preset condition is a timing transmission or a time when the interactive interface is changed.
The invention provides a visual embedded point method of a cross-platform mobile terminal, which is characterized in that optimization is carried out on the basis of visual embedded points, embedded point self-defined dimension functions are added, and embedded point support of HTML elements in a webpage control of the cross-platform mobile terminal is added; optimizing the generation path logic of the interactive interface control on the visual embedded point webpage editor, so that the interactive interface control is universal for various user-defined client interactive interfaces; meanwhile, for the webpage control, a visual code injection embedding function and a similar element embedding function are supported; in addition, the method not only supports the embedding of the native control of the complex structure level and the embedding of the webpage element, but also supports the embedding of the self-defined dimension during the embedding, the embedding of the homogeneous element of the webpage element and the embedding of the visual code.
Drawings
FIG. 1 is a flow chart of a visual point burying method of a cross-platform mobile terminal according to the present invention;
FIG. 2 is a flowchart illustrating a first embodiment of the present invention;
fig. 3 is a specific flowchart for acquiring deployed information of the embedded point control device in the common mode according to the present invention.
Detailed Description
The method aims to solve the problems that the existing visual point burying technology has few point burying control parts and does not support HTML element point burying in mixed development application; for the native controls of each mobile terminal platform, only the controls with simple structure levels can be subjected to point burying, and when the control structure levels are complex, the conditions that the controls cannot be identified, point burying binding events are not effective and the like can occur; the webpage elements of each mobile terminal platform do not support visual embedded points, and when the development of hybrid application is met, the existing scheme cannot meet the embedded point requirement.
The invention provides a visual embedded point method of a cross-platform mobile terminal, which is characterized in that optimization is carried out on the basis of visual embedded points, embedded point self-defined dimension functions are added, and embedded point support of HTML elements in a webpage control of the cross-platform mobile terminal is added; optimizing the generation path logic of the interactive interface control on the visual embedded point webpage editor, so that the interactive interface control is universal for various user-defined client interactive interfaces; meanwhile, for the webpage control, a visual code injection embedding function and a similar element embedding function are supported; in addition, the method not only supports the embedding of the native control of the complex structure level and the embedding of the webpage element, but also supports the embedding of the self-defined dimension during the embedding, the embedding of the homogeneous element of the webpage element and the embedding of the visual code.
The invention is described in detail below with reference to the drawings and the detailed description.
The embodiment of the invention provides a cross-platform mobile terminal visual embedded point method, which is realized by a cross-platform mobile terminal visual embedded point console and a software development kit which can be integrated by each mobile terminal platform, and is divided into a visual embedded point mode and a common mode according to different network interaction interfaces, as shown in fig. 1, wherein the visual embedded point mode specifically comprises the following steps:
step one, establishing connection between a client and a server.
And step two, after the connection is established, the client refreshes the control tree related information of the current interactive interface sent to the server according to the preset condition (the preset condition is timing sending or when the interactive interface changes).
And step three, the server side continuously and synchronously updates the rendering interface according to the received related information of the interactive interface control tree, and meanwhile, the user performs visual embedded point selection operation on the control at the server side.
And step four, after completing the embedded point selection of the control, testing the binding condition of the control through the test button, and sending the embedded point information to the client through the established connection by the server.
And step five, the client acquires the embedded point information from the established connection, confirms the control specified in the embedded point information and binds the control.
And step six, triggering the control bound in the test at the client, triggering the event information of the control, and sending the event information to the server through the established connection.
And step seven, the server displays the received event information triggered by the test on a webpage interface, after the test is passed, deployment operation is carried out on the control selected by the embedded point through a deployment button, after the deployment is finished, the visual embedded point operation is carried out, and the connection between the server and the client is disconnected.
As shown in fig. 2, the first step specifically includes the following steps:
and S10, opening a visual embedded point two-dimensional code page provided by the server, scanning the two-dimensional code by the client, and starting to establish connection with the server through the interpretation of the software development kit.
S11, after receiving the request of the client for establishing the connection, the server verifies the request of establishing the connection, if the verification is passed, the server requests the client for obtaining the equipment information; and if the verification fails, continuing to wait.
And S12, after receiving the request of the server, the client returns the self equipment information to the server.
And S13, after receiving the equipment information of the client, the server further requests to acquire the interactive interface information.
And S14, after receiving the request of the receiving server for obtaining the interactive interface information, the client traverses the control tree of the current interactive interface to obtain the related information, and returns the related information to the server.
And S15, the server side explains and generates a control path which can be identified by the client side according to the information sent by the client side twice, and renders the interactive interface of the current client side into the current webpage, so that the connection between the server side and the client side is successfully established.
In the visual embedded point interface, a user can select a control piece in a circle to realize embedded points, and the control piece capable of selecting the embedded points in the circle is more complete than the control piece capable of selecting the embedded points in the existing visual embedded point scheme, so that the embedded point requirement of the control piece developed by the current mobile terminal can be met.
The invention has the following advantages:
1. the method supports HTML element visualization embedded points in the webpage control, and when the developed application is a mixed type mobile application, native codes and JavaScript codes of the visualization embedded points are injected into the webpage for execution in a software development toolkit, so that the webpage can be bound according to the selection of the HTML elements to realize embedded points.
(1) And for the condition that the CSS paths of the HTML elements are similar, the function of embedding points and selecting points of the similar elements is provided, so that the function of selecting one or embedding a plurality of similar elements is realized.
(2) The method has the advantages that more flexible requirements are needed for HTML elements, advanced functions of visual embedded points can be used, JavaScript codes can be filled after the embedded point elements are circled and selected and 'advanced options' are selected in a visual embedded point interface, the JavaScript codes are injected into a webpage when a software development toolkit obtains a binding event, and the JavaScript codes are executed after the circled elements are triggered and can return data required by a user.
2. The method supports setting of page events, for different mobile terminal platforms, no matter native pages or web pages, different screen contents are specified to be considered as different pages, corresponding setting can be performed on the pages in a visual embedded point management interface, and page name dimensions are automatically added when a software development kit judges that the current page is consistent with the set pages through a page path and defaults to send browsing and retention event data of each page.
(1) The native page is provided with the page name, so that when entering or exiting the corresponding page, the browsing or stopping event of the native page can carry the page name, and the native page can help a client to distinguish the origin of data generation.
(2) When entering or exiting the corresponding page, the web page can set the page name to enable the browsing and stopping event to have the page name, and can fill in a JavaScript code to enable the web page to be executed when the browsing event is triggered, so that the flexible and changeable requirements of a user are met.
(3) The native control can select a user-defined dimension function in the advanced function when a click event is required to be triggered or information of other controls is acquired, and then the controls required to be acquired are selected, after the software development toolkit acquires the embedded point configuration information, additional controls can be searched through the control tree, information of the controls is acquired, and the controls are sent to the server through the triggered event in attributes dimensions.
(4) And testing and deploying, wherein in the process of visually embedding points, a test button can be clicked, the server side sends control information which is selected by the embedded points at present to an interface corresponding to a software development kit through long connection for analysis, the software development kit stops old visually embedded points and executes new visually embedded points, when the embedded point control is triggered, events of the software development kit are sent to the server side through the long connection, and a client can immediately check event data triggered by testing from a visual embedded point console. And after the deployment button is clicked successfully, the current information of the circled and selected embedded point control pieces is sent to the deployment table from the draft table, and after the application integrated with the software development toolkit is started and initialized, the visual embedded point configuration information of the server side is pulled, and deployed controls in the visual embedded point mode are bound.
As shown in fig. 3, acquiring deployed information of the embedded point control in the common mode specifically includes the following steps:
step one, initializing a singleton mode object of a visual buried point after the application integrated with the software development kit is started.
And step two, in the initialization process, requesting the server to acquire configuration information of the visual embedded point.
The configuration information comprises binding information of the original control and the webpage elements, a data type for packaging data, an original page and page setting information of the webpage.
Analyzing the obtained information of the visual embedded point configuration, carrying out event monitoring on the native control or the webpage element of the current application corresponding binding information by the software development kit, and setting page names and other operations for each page according to the page path.
And step four, when an event is triggered, performing dimension verification on the data according to the data type in the configuration information, packaging the data, and sending the packaged data to the server.
And step five, after the server successfully receives the data, clearing the packed data in the software development kit, otherwise, waiting for the next packed data to be sent.
The present invention is not limited to the above-mentioned preferred embodiments, and any structural changes made by anyone in the light of the present invention, all the technical solutions similar or similar to the present invention, fall within the protection scope of the present invention.
Claims (6)
1. A visual point burying method of a cross-platform mobile terminal is characterized by comprising a visual point burying mode and a common mode, wherein the visual point burying mode comprises the following steps:
after the connection between the client and the server is established, the client refreshes the control tree related information of the current interactive interface sent to the server according to the preset conditions;
the server side synchronously updates the rendering interface according to the received related information of the interactive interface control tree, and a user performs visual embedded point selection operation on the control at the server side;
after the embedded point selection is finished, testing the binding condition of the control, sending the embedded point information to the client by the server, and confirming and binding the specified control in the acquired embedded point information by the client;
triggering a control bound by the test at the client, triggering event information of the control, sending the event information to the server, and after the test is passed, deploying the control selected by the server in a circle of the embedded points;
the method for acquiring the deployed embedded point control information in the common mode specifically comprises the following steps:
initializing a singleton mode object of a visual buried point after the application integrated with the software development kit is started;
in the initialization process, a server is requested to acquire configuration information of a visual embedded point;
analyzing the obtained information of the visual embedded point configuration, carrying out event monitoring on a native control or a webpage element of the current application corresponding binding information by a software development kit, and setting page names and other operations for each page according to page paths;
when an event is triggered, performing dimension verification on data according to the data type in the configuration information, packaging the data, and sending the packaged data to a server;
and when the server successfully receives the data, clearing the packed data in the software development kit, otherwise, waiting for sending the next packed data.
2. The visual point burying method of the cross-platform mobile terminal according to claim 1, wherein when the developed application is a mixed-type mobile application, native codes and JavaScript codes of the visual point burying are injected into a webpage for execution in a software development kit, so that the webpage can be bound according to circled selection of HTML elements to realize point burying.
3. The method as claimed in claim 1, wherein the page is set in the visual embedded point management interface, and when the software development kit determines that the current page matches the set page through the page path, the browsing and staying event data of each page is sent by default, and the page name dimension is added automatically.
4. The visual embedded point method of the cross-platform mobile terminal as claimed in claim 1, wherein the establishing of the connection between the client and the server specifically comprises the following steps:
opening a visual embedded point two-dimensional code page provided by a server, scanning the two-dimensional code by a client, and starting to establish connection with the server through the interpretation of a software development kit;
after receiving a request of a client for establishing connection, a server verifies the connection establishment request, and if the verification is passed, the server requests the client for acquiring equipment information; if the verification fails, continuing to wait;
after receiving a request of a server, the client returns self equipment information to the server;
after receiving the equipment information of the client, the server further requests to acquire the interactive interface information;
after receiving a request of a receiving server for acquiring interactive interface information, a client traverses a control tree of a current interactive interface to acquire related information and returns the related information to the server;
and the server side explains and generates a control path which can be identified by the client side according to the information sent by the client side twice, and renders the interactive interface of the current client side into the current webpage, so that the connection between the server side and the client side is successfully established.
5. The visual point burying method of a cross-platform mobile terminal according to claim 1, wherein said configuration information includes binding information of native controls and web page elements, data types for packed data, native pages, and page setting information of web pages.
6. The visual point burying method for cross-platform mobile terminal as claimed in claim 1, wherein said preset condition is a timing transmission or a change of an interactive interface.
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| CN106844217B (en) * | 2017-01-26 | 2020-03-20 | 网易（杭州）网络有限公司 | Method and device for embedding point of applied control and readable storage medium |
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