An automated integrated display system for data scheduling

Abstract

The present invention provides an automated integrated display system for data scheduling, including: a framework construction module, which is used to construct a digital scheduling framework based on the source location of target data, the data type of target data, the generation time of the same data type, and the terminal to be transmitted; an information configuration module, which is used to obtain the individual scene of the transmission terminal and configure resource rendering information under each scheduling node in the digital scheduling framework; an integration module, which is used to render different scheduling nodes based on the resource rendering information, and after the rendering is completed, perform similarity analysis on the rendering results of different scheduling nodes to integrate similar nodes and output them for display. It is convenient to reasonably display data scheduling and improve processing efficiency.

Description

Technical Field

[0001] The present invention relates to the field of integrated display technology, and in particular to an automated integrated display system for data scheduling. Background Art

[0002] Display is the most intuitive visualization method, which provides a macro-to-micro view display effect and can realize free switching between different scales. By associating the display data with different scales, complex data can be displayed.

[0003] Moreover, with the development of big data technology, more and more platforms have data scheduling to alleviate resource congestion, but there are few systems that display data scheduling, which to some extent reduces the intuitive understanding of data scheduling.

[0004] Therefore, the present invention proposes an automated integrated display system for data scheduling. Summary of the invention

[0005] The present invention provides an automated integrated display system for data scheduling, which is used to construct a framework by analyzing target data, and then integrate nodes through scene rendering, so as to improve the display efficiency of the scheduling process of data scheduling.

[0006] The present invention provides an automated integrated display system for data scheduling, comprising:

[0007] A framework building module, used to build a digital scheduling framework based on the source location of target data, the data type of target data, the generation time of the same data type, and the data transmission terminal;

[0008] An information configuration module, used to obtain the personalized scene of the transmission terminal and configure resource rendering information for each scheduling node in the digital scheduling framework;

[0009] The integration module is used to render different scheduling nodes based on resource rendering information, and after the rendering is completed, perform similarity analysis on the rendering results of different scheduling nodes to integrate similar nodes and output them for display.

[0010] Preferably, the framework building module includes:

[0011] The initial construction unit is used to parse the target data to determine the source set and build the initial framework;

[0012] The structure acquisition unit is used to acquire the resource identifier of each sub-resource in the pre-included resource of each source position, and at the same time, according to the source attribute of the corresponding source position, retrieve the traversal mode from the attribute-traversal database, traverse the corresponding pre-included resource, and obtain the topological structure of the corresponding pre-included resource;

[0013] A label setting unit, configured to set a resource priority label to a corresponding source location based on the acquisition identifier, the topology structure, and the resource usage log of the pre-enclosed resource;

[0014] The framework optimization unit is used to optimize the initial framework according to the data type, generation time, data to be transmitted terminal and resource priority label of the target data to obtain a digital scheduling framework.

[0015] Preferably, the label setting unit includes:

[0016] A determination block is used to determine the scheduling fatigue of the corresponding sub-resource from the identification-attribute database according to the acquisition identification of the sub-resource, determine the node line from the current node of the corresponding sub-resource to the central node from the topological structure to obtain the resource relevance of the corresponding sub-resource, extract the number of individual uses and the number of joint uses of the corresponding sub-resource based on the resource use log of the pre-capsulated summary resource, and determine the effective use;

[0017] A calculation block, used to calculate the scheduling possibility of the corresponding sub-resources based on scheduling fatigue, resource relevance and effective utilization;

[0018] ; Where X1 represents the scheduling possibility of the corresponding sub-resource; Indicates obtaining the original parameter value corresponding to the maximum value from B1, B2 and B3; represents the combined calculated value corresponding to the minimum value obtained from B1, B2 and B3; lg represents the sign of the logarithmic function; P1 represents the corresponding scheduling fatigue; Z1 represents the corresponding resource correlation; S0 represents the corresponding effective utilization; B1 represents the weight of scheduling fatigue; B2 represents the weight of resource correlation; B3 represents the weight of effective utilization;

[0019] When the scheduling possibility is greater than or equal to a preset possibility, setting a highlight tag for the corresponding sub-resource;

[0020] When the scheduling possibility is less than a preset possibility, setting a hiding tag for the corresponding sub-resource;

[0021] The priority setting block is used to count the highlighted number of highlighted tags and the hidden number of hidden tags set by the pre-included resources under the corresponding source position, and set the resource priority tag to the corresponding source position.

[0022] Preferably, the priority setting block includes:

[0023] The first accommodating sub-block is used to accommodate and display the corresponding highlighted label according to the display unit S1 when the highlight quantity T1 is less than the highlight threshold T0, and to accommodate and display the remaining space according to the display unit S1. Evenly divide the hidden tags to accommodate and display them separately, among which, represents the partition threshold;

[0024] The second accommodating sub-block is used to accommodate and display the corresponding highlighted labels according to the display unit S1 when the highlight quantity is equal to the highlight threshold;

[0025] The third accommodating sub-block is used to filter all the highlighted tags from the corresponding source position when the highlighted number is greater than the highlight threshold. The first tag of the highlighted tag is displayed in the display unit S1. Meanwhile, the remaining tags in the highlighted tag are displayed in the display unit S2. The remaining highlight space is divided to accommodate the display separately, among which, Indicates a preset ratio; Indicates the label weight corresponding to the highlighted label; Indicates preset weight; represents the i1th remaining label in the highlighted label; n01 represents the number of remaining labels in the highlighted label;

[0026] The breadth assignment sub-block is used to count the end types of resource use ends of different sub-resources, and obtain the signal format conversion difficulty and signal format conversion frequency of the corresponding sub-resources based on different end types, so as to assign scheduling breadth to the corresponding sub-resources, and then obtain the breadth vector;

[0027] The reference sub-block is used to attach the accommodation display vector and the breadth vector of the corresponding source position to the corresponding source position as a reference for setting the resource priority label.

[0028] Preferably, the framework optimization unit comprises:

[0029] An extraction block, used for extracting data at different source locations corresponding to the target data to obtain first data;

[0030] A vector building block, used to construct an optimization vector corresponding to the source location according to the data type, generation time, transmission terminal of the first data and the resource priority tag matching the first data in the corresponding source location;

[0031] The appending block is used to append the optimization vector to the corresponding node of the initial framework to obtain a data scheduling framework.

[0032] Preferably, the information configuration module includes:

[0033] A vector acquisition unit, configured to acquire a personalized scenario of the transmission terminal, wherein the personalized scenario includes a plurality of bias items and a bias coefficient of each bias item, and construct a self vector of each bias item and a bias vector of all bias items;

[0034] A rendering determination unit, configured to obtain a rendering vector for each scheduling node based on the allocation of target data to each scheduling node in the digital scheduling framework and the scheduling priority of each scheduling node, and in combination with the own vector and the bias vector of the corresponding transmission terminal;

[0035] The information configuration unit is used to retrieve resource rendering information from a rendering database and configure it on a corresponding scheduling node according to the rendering vector.

[0036] Preferably, the integrated module comprises:

[0037] A similarity analysis unit is used to obtain the key rendering indicators in the rendering results of each scheduling node respectively, and perform similarity analysis on the key rendering indicators under all scheduling nodes according to the similarity function;

[0038] A node integration unit is used to integrate similar nodes according to similarity analysis results;

[0039] The centralized display unit is used to centrally display the rendering results of all similar nodes in each integrated result.

[0040] Preferably, the width is assigned to the sub-block for:

[0041] Based on the corresponding sub-resource, a trigger signal of the resource transmission triggering moment is sent to the matching resource user, and an orthogonal continuous signal based on the corresponding sub-resource and the matching resource user is captured;

[0042] Performing signal formatting on each continuous point in the orthogonal continuous signal to obtain a formatted continuous signal, and obtaining a peak-to-valley difference in each continuous period of the formatted continuous signal to calculate a first variance;

[0043] Capturing the periodic signals of the same matching resource user when performing multiple transmission interactions with the same sub-resource, and obtaining the highest peak value of each periodic signal to calculate the second variance and obtaining the lowest valley value of each periodic signal to calculate the third variance;

[0044] Based on the first variance, the second variance and the third variance, the difficulty of signal format conversion of the corresponding sub-resource based on the matching resource user is calculated.

[0045] Preferably, the width is assigned to the sub-block and is also used for:

[0046] ; Wherein, Gd represents the scheduling breadth of the corresponding sub-resource; H1 represents the number of end types of the resource-using end of the corresponding sub-resource; Indicates the difficulty of signal format conversion under the j2th terminal type corresponding to the corresponding resource; Indicates the weight of the j2th end type corresponding to the corresponding resource based on the signal format; Indicates the signal format conversion frequency of the j2th terminal type corresponding to the corresponding resource; Indicates the weight of the j2-th terminal type corresponding to the corresponding resource based on conversion frequency.

[0047] Other features and advantages of the present invention will be described in the following description, and partly become apparent from the description, or understood by practicing the present invention. The purpose and other advantages of the present invention can be realized and obtained by the structures particularly pointed out in the written description, claims, and drawings.

[0048] The technical solution of the present invention is further described in detail below through the accompanying drawings and embodiments. BRIEF DESCRIPTION OF THE DRAWINGS

[0049] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0050] Figure 1 The structure diagram of an automated integrated display system for data scheduling in an embodiment of the present invention. DETAILED DESCRIPTION

[0051] The preferred embodiments of the present invention are described below in conjunction with the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.

[0052] The present invention provides an automated integrated display system for data scheduling, such as Figure 1 As shown, including:

[0053] A framework building module, used to build a digital scheduling framework based on the source location of target data, the data type of target data, the generation time of the same data type, and the data transmission terminal;

[0054] An information configuration module, used to obtain the personalized scene of the transmission terminal and configure resource rendering information for each scheduling node in the digital scheduling framework;

[0055] The integration module is used to render different scheduling nodes based on resource rendering information, and after the rendering is completed, perform similarity analysis on the rendering results of different scheduling nodes to integrate similar nodes and output them for display.

[0056] In this embodiment, the source location of the target data refers to where the data comes from, for example, data a1 extracted from resource database 1, and data a2 extracted from resource database 2. At this time, data a1 and data a2 constitute the target data, and the data type refers to the type of data a1 and the type of data a2, and the type is the difference in the type of the data. For example, the data type of data a1 is the environmental information type, and the data type of data a2 is the network information type, etc.

[0057] In this embodiment, the production time refers to the time when the data a1 is obtained from the resource database 1 .

[0058] In this embodiment, the data transmission terminal refers to the client to which the target data needs to be transmitted, that is, the target data is transmitted from the resource database (source) to the terminal, and a digital scheduling framework is constructed for this process.

[0059] In this embodiment, the digital scheduling framework is dependent on the source location, transmission node and transmission terminal. To put it simply, it is: source location (source location) - transmission node (node ​​where the target data is located) - transmission terminal (location where it needs to be sent).

[0060] In this embodiment, the personalized scene refers to a user-preferred display mode of the corresponding transmission terminal, and different display models correspond to different scenes.

[0061] In this embodiment, resource rendering information refers to information configured to the corresponding node for rendering the data transmitted on the node. For example, scheduling node 1 needs to transmit data a1. At this time, the individual scenario of the transmission terminal needs to highlight the transmitted data in red. At this time, the red highlight rendering information is attached to the corresponding scheduling node to render the data a1, ensuring that the display data finally output to the terminal is rendered in red.

[0062] In this embodiment, the similarity analysis is to collectively send the data of the scheduling nodes with similar rendering results, thereby improving the user experience and improving the transmission efficiency compared to sending the nodes one by one.

[0063] In this embodiment, the integration mentioned is to centrally output and display similar scheduling nodes.

[0064] The beneficial effect of the above technical solution is: by analyzing the target data to build a framework, and then integrating the nodes through scene rendering, it is convenient to improve the display efficiency of the data scheduling process.

[0065] The present invention provides an automated integrated display system for data scheduling, wherein the framework building module comprises:

[0066] The initial construction unit is used to parse the target data to determine the source set and build the initial framework;

[0067] The structure acquisition unit is used to acquire the resource identifier of each sub-resource in the pre-included resource of each source position, and at the same time, according to the source attribute of the corresponding source position, retrieve the traversal mode from the attribute-traversal database, traverse the corresponding pre-included resource, and obtain the topological structure of the corresponding pre-included resource;

[0068] A label setting unit, configured to set a resource priority label to a corresponding source location based on the acquisition identifier, the topology structure, and the resource usage log of the pre-enclosed resource;

[0069] The framework optimization unit is used to optimize the initial framework according to the data type, generation time, data to be transmitted terminal and resource priority label of the target data to obtain a digital scheduling framework.

[0070] In this embodiment, the initial frame is determined by different source positions, and all the source positions are simply arranged one by one to facilitate direct identification later.

[0071] In this embodiment, each source location contains a resource database, that is, a pre-capsule snail resource, and different pre-capsule snail resources contain a number of pre-set sub-resources, and each sub-resource has its unique identifier, that is, a resource identifier.

[0072] In this embodiment, the source attribute refers to the location attribute of the corresponding location, that is, the resource type and the location storage structure of the location, so as to call the traversal method.

[0073] In this embodiment, the attribute-traversal database includes different resource types and location storage results, and the traversal methods that match them. The traversal methods are mainly based on the difference in the number of traversals, mainly to ensure the accuracy of obtaining the topological structure.

[0074] In this embodiment, the acquisition of the topological structure is based on traversing the pre-included resources to determine what kind of resources are stored in the location storage area under the corresponding source location, and then obtain the resource distribution based on the source location, that is, the topological structure.

[0075] In this embodiment, the resource tag priority is set to set a priority for the sub-resources under the corresponding source location, providing an effective basis for subsequent display.

[0076] In this embodiment, the initial framework optimization includes one step of completing the framework and the other step of attaching corresponding information (data type, time, label) to the framework, thereby obtaining a digital scheduling framework.

[0077] The beneficial effect of the above technical solution is: by constructing an initial framework based on a source set, and then setting priority labels based on the acquisition of resource identifiers and topological structures, the framework is optimized to obtain a digital scheduling framework, which provides traversal for subsequent automated integrated display and improves display efficiency.

[0078] The present invention provides an automated integrated display system for data scheduling, wherein the label setting unit comprises:

[0079] A determination block is used to determine the scheduling fatigue of the corresponding sub-resource from the identification-attribute database according to the acquisition identification of the sub-resource, determine the node line from the current node of the corresponding sub-resource to the central node from the topological structure to obtain the resource relevance of the corresponding sub-resource, extract the number of individual uses and the number of joint uses of the corresponding sub-resource based on the resource use log of the pre-capsulated summary resource, and determine the effective use;

[0080] A calculation block, used to calculate the scheduling possibility of the corresponding sub-resources based on scheduling fatigue, resource relevance and effective utilization;

[0081] ; Where X1 represents the scheduling possibility of the corresponding sub-resource; Indicates obtaining the original parameter value corresponding to the maximum value from B1, B2 and B3; represents the combined calculated value corresponding to the minimum value obtained from B1, B2 and B3; lg represents the sign of the logarithmic function; P1 represents the corresponding scheduling fatigue; Z1 represents the corresponding resource correlation; S0 represents the corresponding effective utilization; B1 represents the weight of scheduling fatigue; B2 represents the weight of resource correlation; B3 represents the weight of effective utilization;

[0082] When the scheduling possibility is greater than or equal to a preset possibility, setting a highlight tag for the corresponding sub-resource;

[0083] When the scheduling possibility is less than a preset possibility, setting a hiding tag for the corresponding sub-resource;

[0084] The priority setting block is used to count the highlighted number of highlighted tags and the hidden number of hidden tags set by the pre-included resources under the corresponding source position, and set the resource priority tag to the corresponding source position.

[0085] In this embodiment, the identifier-attribute database contains different acquisition identifiers and scheduling fatigue corresponding to the identifiers, and the scheduling fatigue refers to the wear and tear of the corresponding sub-resource during the scheduling process, that is, the more likely the sub-resource is to have scheduling failures during the scheduling process, such as missing, the greater the corresponding fatigue, wherein the acquisition identifier is the resource identifier of the corresponding sub-resource.

[0086] In this embodiment, the central node refers to the node where each sub-resource is located, and each sub-resource needs to pass through this node to connect with the transmission terminal, thereby realizing data transmission.

[0087] In this embodiment, the correlation refers to the ratio of the current distance between the node line of the corresponding node and the central node to the set distance. Generally, the smaller the ratio, the higher the corresponding resource correlation.

[0088] In this embodiment, the resource usage log is mainly aimed at the usage of different sub-resources. For example, sub-resource 1 may be used alone or together with other sub-resources, and then the corresponding number of times is removed. Effective usage = (number of times the corresponding sub-resource is used alone + number of times the corresponding sub-resource is used together) / total number of times all resources at the corresponding source location are used.

[0089] In this embodiment, It means extracting the maximum value from P1, Z1, and S0;

[0090] Refers to , , Extract the maximum value from .

[0091] In this embodiment, B1+B2+B3=1, and the value of the preset probability is 0.8.

[0092] The beneficial effects of the above technical solution are: analyzing from three aspects: scheduling fatigue, resource relevance and effective use to determine the scheduling possibility, setting prominent tags and hidden tags, providing a basis for subsequent setting priorities for source locations, and ensuring efficient scheduling.

[0093] The present invention provides an automated integrated display system for data scheduling, wherein the priority setting block comprises:

[0094] The first accommodating sub-block is used to accommodate and display the corresponding highlighted label according to the display unit S1 when the highlight quantity T1 is less than the highlight threshold T0, and to accommodate and display the remaining space according to the display unit S1. Evenly divide the hidden tags to accommodate and display them separately, among which, represents the partition threshold;

[0095] The second accommodating sub-block is used to accommodate and display the corresponding highlighted labels according to the display unit S1 when the highlight quantity is equal to the highlight threshold;

[0096] The third accommodating sub-block is used to filter all the highlighted tags from the corresponding source position when the highlighted number is greater than the highlight threshold. The first tag of the highlighted tag is displayed in the display unit S1. Meanwhile, the remaining tags in the highlighted tag are displayed in the display unit S2. The remaining highlight space is divided to accommodate the display separately, among which, Indicates a preset ratio; Indicates the label weight corresponding to the highlighted label; Indicates preset weight; represents the i1th remaining label in the highlighted label; n01 represents the number of remaining labels in the highlighted label;

[0097] The breadth assignment sub-block is used to count the end types of resource use ends of different sub-resources, and obtain the signal format conversion difficulty and signal format conversion frequency of the corresponding sub-resources based on different end types, so as to assign scheduling breadth to the corresponding sub-resources, and then obtain the breadth vector;

[0098] The reference sub-block is used to attach the accommodation display vector and the breadth vector of the corresponding source position to the corresponding source position as a reference for setting the resource priority label.

[0099] In this embodiment, the highlighting threshold is preset.

[0100] In this embodiment, the display unit refers to the display width, and the display width of each highlighted label is S1.

[0101] In this embodiment, the terminal type refers to the terminal type of the device terminal that schedules different sub-resources in the historical process, such as a mobile phone terminal, a computer terminal, a serial port terminal, etc., and the signal format of different terminals in the scheduling process is different.

[0102] In this embodiment, the signal conversion difficulty refers to the signal conversion difficulty of the sub-resource based on the corresponding end type, for example, the difficulty of converting from signal 1 to signal 2, and the conversion difficulty between different signals is different.

[0103] In this embodiment, the signal format conversion frequency refers to the number of conversions under the corresponding terminal type. For example, the historical conversion frequency of the signal format based on terminal type E is 100 times.

[0104] In this embodiment, the width vector = {the scheduling width of sub-resource 1, the scheduling width of sub-resource 2, ...}.

[0105] In this embodiment, the scheduling breadth is obtained based on the difficulty of signal format conversion and the frequency of signal format conversion.

[0106] In this embodiment, the priority is set based on the combination of the accommodated display vector and the breadth vector. Therefore, the accommodated display vector = {display status of sub-resource 1, display status of sub-resource 2...}, and the two are combined to obtain the corresponding priority. For example, if the display status is the same, the priority of a larger breadth is higher than the priority of a smaller breadth.

[0107] The beneficial effect of the above technical solution is: by comparing the highlight quantity with the highlight threshold, the label can be displayed in different situations, and combined with the scheduling breadth of different sub-resources, resource priorities can be added to different sub-resources, providing an effective reference basis for subsequent scheduling, thereby indirectly improving scheduling efficiency.

[0108] The present invention provides an automated integrated display system for data scheduling, wherein the framework optimization unit comprises:

[0109] An extraction block, used for extracting data at different source locations corresponding to the target data to obtain first data;

[0110] A vector building block, used to construct an optimization vector corresponding to the source location according to the data type, generation time, transmission terminal of the first data and the resource priority tag matching the first data in the corresponding source location;

[0111] The appending block is used to append the optimization vector to the corresponding node of the initial framework to obtain a data scheduling framework.

[0112] In this embodiment, because the target data includes data from different source locations, the data corresponding to each source location is the first data, and all the first data are the target data.

[0113] In this embodiment, each element in the optimization vector is related to the data type, generation time, transmission terminal, and resource priority label that matches the first data in the corresponding source position. For example, the optimization vector = {optimization result of sub-resource 1 + optimization result of sub-resource 2....}, where the optimization result of sub-resource 1 = {data type, generation time, transmission terminal, resource priority label of sub-resource 1}.

[0114] In this embodiment, the data scheduling framework is obtained after the addition.

[0115] The beneficial effect of the above technical solution is: by determining various parameters of data at different source positions, an optimization vector corresponding to the source position is constructed, thereby optimizing the initial framework and facilitating effective rendering of the subsequent display process.

[0116] The present invention provides an automated integrated display system for data scheduling, wherein the information configuration module comprises:

[0117] A vector acquisition unit, configured to acquire a personalized scenario of the transmission terminal, wherein the personalized scenario includes a plurality of bias items and a bias coefficient of each bias item, and construct a self vector of each bias item and a bias vector of all bias items;

[0118] A rendering determination unit, configured to obtain a rendering vector for each scheduling node based on the allocation of target data to each scheduling node in the digital scheduling framework and the scheduling priority of each scheduling node, and in combination with the own vector and the bias vector of the corresponding transmission terminal;

[0119] The information configuration unit is used to retrieve resource rendering information from a rendering database and configure it on a corresponding scheduling node according to the rendering vector.

[0120] In this embodiment, the preference item refers to the display mode preferred by the user, and different display modes contain several preference items, such as color, etc. The preference coefficient refers to the preference for the preference item, that is, the larger the coefficient, the higher the corresponding preference, and the higher the possibility of being displayed in the final display results.

[0121] In this embodiment, bias vector={bias entry 1 bias entry 2 ...}, bias vector={bias parameter 1 bias parameter 2 ...}.

[0122] In this embodiment, the scheduling node refers to a node in the corresponding target data that matches data at different source locations, and the node is used to render and transmit the corresponding data, and the rendering is achieved based on analyzing the data resources at the source location and setting priorities.

[0123] In this embodiment, the node allocation status refers to the allocation status obtained after the corresponding nodes are located in different data in the corresponding target data. The scheduling priority is comprehensively determined based on the resource priority of the sub-resources undertaken by the corresponding scheduling node, and can be the average priority of all resource priorities undertaken.

[0124] In this embodiment, the rendering vector refers to determining the rendering order according to the corresponding average priority, and then determining the rendering information according to its own vector and the bias vector, where the rendering vector={rendering value 1 of the sub-resource corresponding to the first data 01 existing in the scheduling node 1, rendering value 2 of the sub-resource corresponding to the first data 02 existing in the scheduling node 1 ...}.

[0125] In this embodiment, the rendering database includes a rendering level that matches the rendering value and a rendering method that corresponds to the rendering level. For example, the first data corresponds to a red rendering level, and based on preference, it can be determined that the rendering is performed in pink, and the corresponding first data is rendered according to the display width S1. The content is attached to the corresponding node.

[0126] The beneficial effect of the above technical solution is: by obtaining its own vector and bias vector, and combining the allocation situation and scheduling priority, the rendering vector can be obtained, which facilitates the configuration of the node's rendering information and achieves effective display.

[0127] The present invention provides an automated integrated display system for data scheduling, wherein the integrated module comprises:

[0128] A similarity analysis unit is used to obtain the key rendering indicators in the rendering results of each scheduling node respectively, and perform similarity analysis on the key rendering indicators under all scheduling nodes according to the similarity function;

[0129] A node integration unit is used to integrate similar nodes according to similarity analysis results;

[0130] The centralized display unit is used to centrally display the rendering results of all similar nodes in each integrated result.

[0131] In this embodiment, key rendering indicators can be directly extracted from the rendering results, such as color, size, etc. For example, scheduling node 1 is similar to scheduling node 2, and scheduling node 3 is similar to scheduling nodes 4 and 5. At this time, scheduling node 1 and scheduling node 2 are centrally output and displayed, and scheduling node 3 and scheduling nodes 4 and 5 are centrally output and displayed.

[0132] The beneficial effect of the above technical solution is: by performing similarity analysis according to rendering indicators, reasonable integration of nodes is achieved, which facilitates subsequent centralized display and improves display efficiency.

[0133] The present invention provides an automated integrated display system for data scheduling, with a breadth-endowed sub-block for:

[0134] Based on the corresponding sub-resource, a trigger signal of the resource transmission triggering moment is sent to the matching resource user, and an orthogonal continuous signal based on the corresponding sub-resource and the matching resource user is captured;

[0135] Performing signal formatting on each continuous point in the orthogonal continuous signal to obtain a formatted continuous signal, and obtaining a peak-to-valley difference in each continuous period of the formatted continuous signal to calculate a first variance;

[0136] Capturing the periodic signals of the same matching resource user when performing multiple transmission interactions with the same sub-resource, and obtaining the highest peak value of each periodic signal to calculate the second variance and obtaining the lowest valley value of each periodic signal to calculate the third variance;

[0137] Based on the first variance, the second variance and the third variance, the difficulty of signal format conversion of the corresponding sub-resource based on the matching resource user is calculated.

[0138] In this embodiment, sub-resource 1 needs to be transmitted to the matching user end 1. At this time, the trigger moment is t1. When the trigger signal at the trigger moment t1 is captured, the orthogonal continuous signal is captured. Because the signal is expressed in a sinusoidal manner, there is fluctuation, so it is called an orthogonal continuous signal. The signal at each time point in the orthogonal continuous signal is a floating signal, that is, there is a decimal point value. Therefore, subsequent formatting refers to the corresponding rounding up format conversion, rounding down format conversion, binary conversion, etc., mainly based on the signal format selected by the corresponding terminal. At this time, a formatted continuous signal will be obtained after the conversion.

[0139] In this embodiment, the periodic signal under multiple transmission interactions refers to a signal under historical conditions, and the second variance and the third variance are obtained by analysis, and the calculation formula of the variance is well known.

[0140] In this embodiment, the formatted continuous signal includes a plurality of continuous periods, and then the first variance is calculated.

[0141] In this embodiment, the format conversion difficulty = the first variance + the second variance + the third variance, that is, in the conversion process, if the difference after conversion is larger, it means that the conversion is less accurate, and thus the conversion is more difficult.

[0142] The beneficial effects of the above technical solution are: by obtaining orthogonal continuous information and signal formatting, it is convenient to obtain the first variance based on the peak-to-valley difference, and by calculating the second variance of the peak value and the third variance of the valley value under multiple transmission interactions, it is convenient to obtain the difficulty of signal format conversion, providing a basis for subsequent display.

[0143] The present invention provides an automated integrated display system for data scheduling, wherein the breadth is assigned to the sub-block and is further used for:

[0144] ; Wherein, Gd represents the scheduling breadth of the corresponding sub-resource; H1 represents the number of end types of the resource-using end of the corresponding sub-resource; Indicates the difficulty of signal format conversion under the j2th terminal type corresponding to the corresponding resource; Indicates the weight of the j2th end type corresponding to the corresponding resource based on the signal format; Indicates the signal format conversion frequency of the j2th terminal type corresponding to the corresponding resource; Indicates the weight of the j2-th terminal type corresponding to the corresponding resource based on conversion frequency.

[0145] The beneficial effect of the above technical solution is: combining the difficulty of format conversion and the frequency of signal format conversion to comprehensively determine the scheduling breadth, provide a reasonable basis for the setting of priority labels, and improve subsequent display efficiency.

[0146] Obviously, those skilled in the art can make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if these 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 these modifications and variations.

Claims

1. An automated integrated display system for data scheduling, characterized in that: include: A framework building module, used to build a digital scheduling framework based on the source location of target data, the data type of target data, the generation time of the same data type, and the data transmission terminal; An information configuration module, used to obtain the personalized scene of the transmission terminal and configure resource rendering information for each scheduling node in the digital scheduling framework; The integration module is used to render different scheduling nodes based on resource rendering information, and after the rendering is completed, the rendering results of different scheduling nodes are analyzed for similarity, so as to integrate similar nodes and output them for display; Wherein, the integrated module includes: A similarity analysis unit is used to obtain the key rendering indicators in the rendering results of each scheduling node respectively, and perform similarity analysis on the key rendering indicators under all scheduling nodes according to the similarity function; A node integration unit is used to integrate similar nodes according to similarity analysis results; A centralized display unit is used to centrally display the rendering results of all similar nodes in each integrated result; Wherein, the information configuration module includes: A vector acquisition unit, configured to acquire a personalized scenario of the transmission terminal, wherein the personalized scenario includes a plurality of bias items and a bias coefficient of each bias item, and construct a self vector of each bias item and a bias vector of all bias items; A rendering determination unit, configured to obtain a rendering vector for each scheduling node based on the allocation of target data to each scheduling node in the digital scheduling framework and the scheduling priority of each scheduling node, and in combination with the own vector and the bias vector of the corresponding transmission terminal; The information configuration unit is used to retrieve resource rendering information from a rendering database and configure it on a corresponding scheduling node according to the rendering vector.

2. The automated integrated display system for data scheduling according to claim 1, characterized in that: The framework building blocks include: The initial construction unit is used to parse the target data to determine the source set and build the initial framework; The structure acquisition unit is used to acquire the resource identifier of each sub-resource in the pre-included resource of each source position, and at the same time, according to the source attribute of the corresponding source position, retrieve the traversal mode from the attribute-traversal database, traverse the corresponding pre-included resource, and obtain the topological structure of the corresponding pre-included resource; A label setting unit, configured to set a resource priority label to a corresponding source location based on the acquisition identifier, the topology structure, and the resource usage log of the pre-enclosed resource; The framework optimization unit is used to optimize the initial framework according to the data type, generation time, data to be transmitted terminal and resource priority label of the target data to obtain a digital scheduling framework.

3. The automated integrated display system for data scheduling according to claim 2, characterized in that: The label setting unit comprises: A determination block is used to determine the scheduling fatigue of the corresponding sub-resource from the identification-attribute database according to the acquisition identification of the sub-resource, determine the node line from the current node of the corresponding sub-resource to the central node from the topological structure to obtain the resource relevance of the corresponding sub-resource, extract the number of individual uses and the number of joint uses of the corresponding sub-resource based on the resource use log of the pre-capsulated summary resource, and determine the effective use; A calculation block, used to calculate the scheduling possibility of the corresponding sub-resources based on scheduling fatigue, resource relevance and effective utilization; ; Where X1 represents the scheduling possibility of the corresponding sub-resource; Indicates obtaining the original parameter value corresponding to the maximum value from B1, B2 and B3; represents the combined calculated value corresponding to the minimum value obtained from B1, B2 and B3; lg represents the sign of the logarithmic function; P1 represents the corresponding scheduling fatigue; Z1 represents the corresponding resource correlation; S0 represents the corresponding effective utilization; B1 represents the weight of scheduling fatigue; B2 represents the weight of resource correlation; B3 represents the weight of effective utilization; When the scheduling possibility is greater than or equal to a preset possibility, setting a highlight tag for the corresponding sub-resource; When the scheduling possibility is less than a preset possibility, setting a hiding tag for the corresponding sub-resource; The priority setting block is used to count the highlighted number of highlighted tags and the hidden number of hidden tags set by the pre-included resources under the corresponding source position, and set the resource priority tag to the corresponding source position.

4. The automated integrated display system for data scheduling according to claim 3, characterized in that: The priority setting block comprises: The first accommodating sub-block is used to accommodate and display the corresponding highlighted label according to the display unit S1 when the highlight quantity T1 is less than the highlight threshold T0, and to accommodate and display the remaining space according to the display unit S1. Evenly divide the hidden tags to accommodate and display them separately, among which, represents the partition threshold; The second accommodating sub-block is used to accommodate and display the corresponding highlighted labels according to the display unit S1 when the highlight quantity is equal to the highlight threshold; The third accommodating sub-block is used to filter all the highlighted tags from the corresponding source position when the highlighted number is greater than the highlight threshold. The first tag of the highlighted tag is displayed in the display unit S1. Meanwhile, the remaining tags in the highlighted tag are displayed in the display unit S2. The remaining highlight space is divided to accommodate the display separately, among which, Indicates a preset ratio; Indicates the label weight corresponding to the highlighted label; represents the i1th remaining label in the highlighted label; n01 represents the number of remaining labels in the highlighted label; The breadth assignment sub-block is used to count the end types of resource use ends of different sub-resources, and obtain the signal format conversion difficulty and signal format conversion frequency of the corresponding sub-resources based on different end types, so as to assign scheduling breadth to the corresponding sub-resources, and then obtain the breadth vector; The reference sub-block is used to attach the accommodation display vector and the breadth vector of the corresponding source position to the corresponding source position as a reference for setting the resource priority label.

5. The automated integrated display system for data scheduling according to claim 2, characterized in that: The framework optimization unit comprises: An extraction block, used for extracting data at different source locations corresponding to the target data to obtain first data; A vector building block, used to construct an optimization vector corresponding to the source location according to the data type, generation time, transmission terminal of the first data and the resource priority tag matching the first data in the corresponding source location; The appending block is used to append the optimization vector to the corresponding node of the initial framework to obtain a data scheduling framework.

6. The automated integrated display system for data scheduling according to claim 4, characterized in that: The width is given to the sub-block, which is used to: Based on the corresponding sub-resource, a trigger signal of the resource transmission triggering moment is sent to the matching resource user, and an orthogonal continuous signal based on the corresponding sub-resource and the matching resource user is captured; Performing signal formatting on each continuous point in the orthogonal continuous signal to obtain a formatted continuous signal, and obtaining a peak-to-valley difference in each continuous period of the formatted continuous signal to calculate a first variance; Capturing the periodic signals of the same matching resource user when performing multiple transmission interactions with the same sub-resource, and obtaining the highest peak value of each periodic signal to calculate the second variance and obtaining the lowest valley value of each periodic signal to calculate the third variance; Based on the first variance, the second variance and the third variance, the difficulty of signal format conversion of the corresponding sub-resource based on the matching resource user is calculated.

7. The automated integrated display system for data scheduling according to claim 4, characterized in that: The width is assigned to the sub-block and is also used for: ; Wherein, Gd represents the scheduling breadth of the corresponding sub-resource; H1 represents the number of end types of the resource-using end of the corresponding sub-resource; Indicates the difficulty of signal format conversion under the j2th terminal type corresponding to the corresponding resource; Indicates the weight of the j2th end type corresponding to the corresponding resource based on the signal format; Indicates the signal format conversion frequency of the j2th terminal type corresponding to the corresponding resource; Indicates the weight of the j2-th terminal type corresponding to the corresponding resource based on conversion frequency.

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