WO2019079934A1 - Traffic data processing method and server - Google Patents

Traffic data processing method and server

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Publication number
WO2019079934A1
WO2019079934A1 PCT/CN2017/107318 CN2017107318W WO2019079934A1 WO 2019079934 A1 WO2019079934 A1 WO 2019079934A1 CN 2017107318 W CN2017107318 W CN 2017107318W WO 2019079934 A1 WO2019079934 A1 WO 2019079934A1
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WO
WIPO (PCT)
Prior art keywords
data
sub
target
level
traffic
Prior art date
Application number
PCT/CN2017/107318
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French (fr)
Chinese (zh)
Inventor
阳光
Original Assignee
深圳配天智能技术研究院有限公司
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Publication date
Application filed by 深圳配天智能技术研究院有限公司 filed Critical 深圳配天智能技术研究院有限公司
Priority to CN201780092648.8A priority Critical patent/CN110892738B/en
Priority to PCT/CN2017/107318 priority patent/WO2019079934A1/en
Publication of WO2019079934A1 publication Critical patent/WO2019079934A1/en

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    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06FELECTRIC DIGITAL DATA PROCESSING
    • G06F17/00Digital computing or data processing equipment or methods, specially adapted for specific functions
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W4/00Services specially adapted for wireless communication networks; Facilities therefor
    • H04W4/02Services making use of location information
    • H04W4/029Location-based management or tracking services
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W4/00Services specially adapted for wireless communication networks; Facilities therefor
    • H04W4/30Services specially adapted for particular environments, situations or purposes
    • H04W4/40Services specially adapted for particular environments, situations or purposes for vehicles, e.g. vehicle-to-pedestrians [V2P]
    • H04W4/44Services specially adapted for particular environments, situations or purposes for vehicles, e.g. vehicle-to-pedestrians [V2P] for communication between vehicles and infrastructures, e.g. vehicle-to-cloud [V2C] or vehicle-to-home [V2H]

Definitions

  • the present invention relates to the field of communications, and in particular, to a method and a server for processing traffic data.
  • the in-vehicle system collects data of the current vehicle through the visual system, and uploads data of the current vehicle to the cloud database for use by other vehicles as valid data.
  • the traffic sign or the building changes, for example, one traffic sign of a certain place is replaced with another traffic sign, and a traffic sign or building is newly appeared.
  • a large amount of sample data is added as a positive direction in order to delete the newly appearing traffic sign or the replaced traffic sign or the data corresponding to the newly appearing building.
  • the newly appearing traffic sign or the replaced traffic sign or the data corresponding to the newly appearing building is exactly the data that needs to be sent to the cloud database for updating, so there is no way to maintain the traffic data in the road section.
  • the embodiment of the invention provides a method for processing traffic data and a server for ensuring the correct rate of data in the cloud database.
  • a first aspect of the embodiments of the present invention provides a method for processing traffic data, including:
  • target data of a target location where the target data is collected by the in-vehicle client at the target location Set of traffic data, the target data includes a plurality of sub-data;
  • the first traffic data is updated according to a level of each sub data in the target data.
  • the sub-data in the target data is matched with each sub-data in the first traffic data to determine the target
  • the levels of each subdata in the data include:
  • a second aspect of the embodiments of the present invention provides a server, including:
  • a central processing unit a storage medium, and an input and output interface
  • the storage medium stores a cloud database and program code, and the central processor calls and executes the program code for:
  • target data of the target location is traffic data collected by the in-vehicle client at the target location, where the target data includes several sub-data;
  • the first traffic data is updated according to a level of each sub data in the target data.
  • the target data of the target location may be acquired, and the target data is obtained.
  • Each sub-data and each sub-number in the first traffic data The matching is performed to determine the level of each sub-data in the target data, and the traffic data of the target location in the cloud database is updated according to the level of each sub-data in the target data. It can be seen that when new data is added to the cloud database, the newly added data is automatically classified according to the graded data in the existing database, thereby automatically maintaining data in the cloud database and improving the cloud database. The correct rate of data.
  • FIG. 1 is a schematic diagram of an embodiment of a method for processing traffic data according to an embodiment of the present invention
  • FIG. 2 is a schematic diagram of another embodiment of a method for processing traffic data according to an embodiment of the present invention.
  • FIG. 3 is a schematic structural diagram of a hardware of a server according to an embodiment of the present invention.
  • an embodiment of a method for processing traffic data in an embodiment of the present invention includes:
  • the target data of the target location may be acquired, and the target data is Traffic data collected by the vehicle at the target location, the target The data includes several sub-data, including visual data of the target location and other data, such as weather data of the target location, traffic identification of the target location, and altitude data of the target location, and the cloud server includes the cloud database and Some other functional modules (such as receiving commands, sending data, storing data, etc.), the cloud server and the vehicle are connected wirelessly.
  • the first traffic data is traffic data of the target location stored in a cloud database.
  • Each of the traffic data includes a plurality of sub-data, and each sub-data is data that has been ranked.
  • each traffic data may include the same or similar sub-data, for example, multiple sub-data collected and uploaded by different vehicles for the same-distance traffic identifier.
  • the server may Each sub-data in the target data is matched with each sub-data in the first traffic data to determine the level of each sub-data in the target data. See below for specific solutions.
  • the data in the cloud database is classified into: normal-accurate data, normal data, data to be added, miscellaneous data, data to be deleted, and deleted data, where
  • Normal data indicates that a large probability is determined to be correct data
  • Data to be added indicates: uncertain data
  • Miscellaneous data means: data that can be ignored
  • the data to be deleted indicates that the large probability is determined to be erroneous data
  • Deleted data indicates: incorrect data.
  • the grades of these hierarchical data are normal accurate data, normal data, data to be added, miscellaneous data, data to be deleted, deleted data, the highest level of normal accurate data, the lowest registration of deleted data, and can be used by users. It is normal data as well as normal and accurate data.
  • the above classification is only based on normal data, normal-accurate data, data to be added, miscellaneous data, to be deleted. Except for the data and the deleted data as an example, the first file data, the second file data, the third file data, the fourth file data, the fifth file data, and the sixth file data may also be used, and the specific hierarchical name is not made. limited.
  • the sub-data after the determined level is added to the first traffic data. Specifically, the sub-data after determining the level is added to the sub-data set of the first traffic data.
  • the target data of the target location may be acquired, and each sub-data in the target data is separately Matching each sub-data in the first traffic data to determine the level of each sub-data in the target data, and updating the traffic data of the target location in the cloud database according to the level of each sub-data in the target data. It can be seen that when new data is added to the cloud database, the newly added data is automatically classified according to the graded data in the existing database, thereby automatically maintaining data in the cloud database and improving the cloud database. The correct rate of data.
  • another embodiment of a method for processing traffic data in an embodiment of the present invention includes:
  • the target data of the target location may be acquired, and the target data is Traffic data collected by the vehicle at the target location, the target data includes a plurality of sub-data including visual data of the target location and other data, such as weather data of the target location, traffic identification of the target location, and altitude of the target location Data and other data, the cloud server includes a cloud database and some other functional modules (such as receiving commands, sending data, storing data, etc.), and the cloud server and the vehicle are connected by wireless.
  • the first traffic data is traffic data of the target location stored in a cloud database.
  • Each of the traffic data includes a plurality of sub-data, and each sub-data is data that has been ranked.
  • each traffic data can include the same Or similar sub-data, for example, multiple sub-data collected and uploaded by different vehicles for the same location traffic identification.
  • the cloud server may include each subdata in the target data because the target data includes the first traffic data of the target location stored in the cloud database by the plurality of subdata. Matching each sub-data in the first traffic data to determine a matching degree between each sub-data in the target data and each sub-data in the first traffic data, and according to each sub-data and each of the first traffic data The matching degree of the sub data determines the level of each sub data in the target data. For example, setting the level of the sub data in the target data to the level of the sub data having the highest degree of matching with the sub data, or setting the level of the sub data in the target data to match the sub data to a preset threshold (for example, 90%) of the level of subdata.
  • a preset threshold for example, 90%
  • the cloud server may include each of the target data because the target data includes the first traffic data of the target location stored in the cloud database by the plurality of sub-data.
  • the sub-data is respectively matched with each sub-data of the same category in the first traffic data to determine the matching degree between each sub-data in the target data and each sub-data of the same category in the first traffic data, and according to each sub-data and the The degree of matching of each sub-data in a traffic data determines the level of each sub-data in the target data.
  • a preset threshold for example, 90%
  • the cloud server when the cloud server sets the level of the sub data in the target data to the level of the sub data that matches the sub data to a preset threshold (for example, 90%), and has multiple matching degrees reaching the pre
  • a preset threshold for example, 90%
  • the cloud server may set the level of the sub-data in the target data to the level of the sub-data with the highest degree of matching with the sub-data, or the level of the sub-data in the target data. Set to the level of the child data whose time is closest to the current time.
  • the following example illustrates that the cloud server obtains the target data, if the target data contains two data, one is the first traffic identification data of the target location, and the other is the first landmark building data of the target location, and the cloud server will be the first A traffic identification data is matched with all traffic identification data of the target location stored in the cloud database, and the first landmark building data is matched with all landmark building data of the target location stored in the cloud database, due to the cloud Stored in the database All traffic identification data and all landmark data of the target location have hierarchical attributes, such as normal data, normal accurate data, miscellaneous data, data to be added, data to be deleted or deleted data, if the cloud database
  • the matching degree of the second traffic identification data and the first traffic identification data in the traffic identification data of the stored target location reaches a preset threshold (for example, 90%, or other values, which are not limited),
  • the level of the first traffic identification data is set to the level of the second traffic identification data.
  • the hierarchical calibration of the normal data is added to the attribute of the first traffic identification data.
  • the matching degree of a certain second landmark building data in the landmark building data of the target location stored in the cloud database and the first landmark building data reaches a preset threshold
  • the first iconic The level of the building data is set to the level of the second iconic data. If the level of the second landmark building data is band-added data, the level of the first landmark building data is set to be the data to be added, that is, The attribute of the first landmark building data is added to the hierarchical calibration of the data to be added.
  • the similar sub-data refers to that the matching degree is greater than a preset threshold (for example, greater than 90%, and may be other values, which are not limited).
  • the level of the sub-data in the target data is also adjusted according to the number of times of similar sub-data acquired in the preset time. For example, the level of the sub-data is adjusted according to the range to which the number of times belongs.
  • the number of times the sub-data similar to the first sub-data is acquired is smaller than the first preset value (for example, 20 times, which may be Other values, specifically not limited, reduce the level of the first sub-data by one step, for example, the normal accurate data determined from step 202 is reduced to normal data; and at the same time, within the second preset time (for example, within 3 days) If the number of times the sub-data similar to the first sub-data is obtained is greater than the second preset value (for example, 200 times), the level of the second sub-data is increased by one step, for example, the data to be added determined in step 202 is promoted to Normal data.
  • the first preset value for example, 20 times, which may be Other values, specifically not limited
  • the cloud server determines that the traffic data of the target location stored in the cloud server has the level of the data as the level of the data to be deleted, and in the third preset time (for example, one month, it may be other values). , specifically not limited) the data is always at this level, you can use this number It is calibrated as deleted data.
  • the cloud server can regularly clean the data in the cloud database classified into the deleted data labels, so that the space in the cloud database can be more optimally utilized, and the data classified into the deleted data labels is prevented from occupying the storage of the cloud database. space.
  • the sub-data after the determined level is added to the first traffic data. Specifically, the sub-data after determining the level is added to the sub-data set of the first traffic data.
  • the target data of the target location may be acquired first, and each subdata in the target data is acquired. Performing matching with each sub-data in the first traffic data to determine the level of each sub-data in the target data, and adjusting the level of the sub-data in the target data according to the number of times of similar sub-data acquired in the preset time, and according to The level of each sub-data in the target data updates the first traffic data.
  • the cloud database can adjust the rating of the sub-data according to the frequency of the sub-data of the acquired target data when the traffic data of the target location actually changes, thereby realizing automatic change of the traffic data at the target location. Maintain the data in the cloud database to mention the correct rate of data such as the cloud database.
  • FIG. 3 is a schematic structural diagram of a server according to an embodiment of the present invention.
  • the server 300 may have a large difference due to different configurations or performances, and may include one or more central processing units (central processing units). , CPU) 310 (eg, one or more processors), one or more storage media 330 storing program code 331 or data 332 (the storage medium may be one or one storage device in Shanghai, or one or more A temporary storage device such as a memory may also be used for one or one hard disk, or one or more memories and a hard disk, which are not limited herein. Wherein, the storage medium 330 can be short-term storage or persistent storage.
  • central processor 310 can be configured to communicate with storage medium 330 to invoke and execute a series of program codes in storage medium 330.
  • the storage medium 330 also stores a cloud
  • the end database at least the traffic data of the target location is stored in the cloud database, that is, at least the first traffic data of the target location is stored.
  • the server also includes one or more input and output interfaces 320, which may be one or more wired or wireless network interfaces.
  • the central processing unit 310 of the server invokes and executes the program code, and is used to acquire target data of a target location, where the target data is traffic data collected by the vehicle-mounted client at the target location, where the target data includes several Each sub-data in the target data is matched with each sub-data in the first traffic data to determine a level of each sub-data in the target data, and the first traffic data is a cloud database. Traffic data of the target location stored therein, and each sub-data in the first traffic data is data that has been ranked; updating the first traffic data according to a level of each sub-data in the target data .
  • each sub-data in the target data is matched with each sub-data in the first traffic data to determine a level of each sub-data in the target data, including: each sub-input in the target data Data is respectively matched with each sub-data in the first traffic data to determine a matching degree between each sub-data in the target data and each sub-data in the first traffic data; and according to each sub-data and the first traffic data The degree of matching of each sub-data in the determination determines the level of each sub-data in the target data.
  • determining the level of each sub-data in the target data according to the matching degree of each sub-data and each sub-data in the first traffic data comprises: setting a level of the sub-data in the target data to the sub-data The level of subdata with the highest data matching.
  • determining the level of each sub-data in the target data according to the matching degree of each sub-data and each sub-data in the first traffic data comprises: setting a level of the sub-data in the target data to The level of sub-data whose sub-data match degree reaches the preset threshold.
  • the central processor After matching each sub-data in the target data with each sub-data in the first traffic data to determine the level of each sub-data in the target data, the central processor further: according to The number of times the similar sub-data is acquired within the set time adjusts the level of the sub-data in the target data.
  • the adjusting the level of the sub data in the target data according to the number of times of the similar sub data acquired in the preset time comprises: when the number of similar sub data acquired in the first preset time is less than the first preset value, The level of the sub-data is lowered by one file; when the number of similar sub-data acquired in the second preset time is greater than the second preset value, the level of the sub-data is increased by one step.
  • the updating the first traffic data according to the level of each sub-data in the target data comprises: adding each sub-data after the determined level to the sub-data set of the first traffic data.

Abstract

Disclosed are a traffic data processing method and a server, wherein same are used for improving the accuracy of data of a cloud database. The method comprises: acquiring target data of a target location, wherein the target data is traffic data collected by a vehicle-mounted client at the target location, and the target data comprises several pieces of sub-data; respectively matching each piece of sub-data in the target data with each piece of sub-data in first traffic data to determine the level of each piece of sub-data in the target data, wherein the first traffic data is traffic data, stored in a cloud database, of the target location, and each piece of sub-data in the first traffic data is data that has been classified; and updating the first traffic data according to the level of each piece of sub-data in the target data.

Description

一种交通数据的处理方法及服务器Traffic data processing method and server 技术领域Technical field
本发明涉及通信领域,尤其涉及一种交通数据的处理方法及服务器。The present invention relates to the field of communications, and in particular, to a method and a server for processing traffic data.
背景技术Background technique
车载系统通过视觉系统采集当前车辆的数据,且将采集当前车辆的数据上传至云端数据库,供其它车辆当作有效数据使用。此时,问题有两个:The in-vehicle system collects data of the current vehicle through the visual system, and uploads data of the current vehicle to the cloud database for use by other vehicles as valid data. At this point, there are two problems:
(1)当前车辆采集的数据是否正确?(1) Is the data collected by the current vehicle correct?
(2)不同车辆在不同时段,不同角度将数据上传到云端,上传的多个数据中哪些数据是可以使用的,哪些数据是不会被使用的。少数的数据是正确的还是错误的数据?(2) Different vehicles upload data to the cloud at different time points and at different angles. Which of the uploaded data is usable and which data is not used. Is the minority data correct or wrong?
针对这些问题,现有技术中,一般会通过机器学习等算法,通常都会将大量样本数据作为正向增强,也就是说数据出现的次数越多,该数据的正确性就越高,该数据就会被保存,而当该数据中的某个数据发生变化的时会把该发生变化的数据当做无效数据舍弃。In view of these problems, in the prior art, algorithms such as machine learning are generally used, and a large amount of sample data is generally used as a positive enhancement, that is, the more times the data appears, the higher the correctness of the data, and the data is Will be saved, and when a certain data in the data changes, the changed data will be discarded as invalid data.
但是,当交通标识或者建筑发生变化时,例如某地的一个交通标识被替换为另一个交通标识,新出现一个交通标识或者建筑等情况。按照现有技术中将大量样本数据作为正向增加的做法是需要删除新出现的交通标识或者被替换的交通标识或者新出现的建筑对应的数据。然而新出现的交通标识或者被替换的交通标识或者新出现的建筑对应的数据恰恰是需要发送到云端数据库进行更新的数据,这样就没有办法对路段中的交通数据进行维护。However, when the traffic sign or the building changes, for example, one traffic sign of a certain place is replaced with another traffic sign, and a traffic sign or building is newly appeared. According to the prior art, a large amount of sample data is added as a positive direction in order to delete the newly appearing traffic sign or the replaced traffic sign or the data corresponding to the newly appearing building. However, the newly appearing traffic sign or the replaced traffic sign or the data corresponding to the newly appearing building is exactly the data that needs to be sent to the cloud database for updating, so there is no way to maintain the traffic data in the road section.
发明内容Summary of the invention
本发明实施例提供了一种交通数据的处理方法及服务器,用于保证云端数据库中的数据的正确率。The embodiment of the invention provides a method for processing traffic data and a server for ensuring the correct rate of data in the cloud database.
本发明实施例第一方面提供一种交通数据的处理方法,包括:A first aspect of the embodiments of the present invention provides a method for processing traffic data, including:
获取目标地点的目标数据,所述目标数据为车载客户端在所述目标地点采 集的交通数据,所述目标数据中包括若干个子数据;Obtaining target data of a target location, where the target data is collected by the in-vehicle client at the target location Set of traffic data, the target data includes a plurality of sub-data;
将所述目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定所述目标数据中的各子数据的级别,所述第一交通数据为云端数据库中存储的所述目标地点的交通数据,且所述第一交通数据中的各子数据为已经进行分级的数据;Matching each sub-data in the target data with each sub-data in the first traffic data to determine a level of each sub-data in the target data, where the first traffic data is stored in a cloud database Traffic data of the target location, and each subdata in the first traffic data is data that has been classified;
根据所述目标数据中各子数据的级别对所述第一交通数据进行更新。The first traffic data is updated according to a level of each sub data in the target data.
结合第一方面,在第一方面的第一种可能的实现方式中,所述将所述目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定所述目标数据中各子数据的级别包括:In conjunction with the first aspect, in a first possible implementation manner of the first aspect, the sub-data in the target data is matched with each sub-data in the first traffic data to determine the target The levels of each subdata in the data include:
将所述目标数据中的各子数据分别与所述第一交通数据中的各子数据进行匹配,以确定目标数据中的各子数据与第一交通数据中的各子数据的匹配度;Matching each sub-data in the target data with each sub-data in the first traffic data to determine a matching degree between each sub-data in the target data and each sub-data in the first traffic data;
并根据各子数据与第一交通数据中的各子数据的匹配度确定目标数据中各子数据的级别。And determining the level of each sub-data in the target data according to the matching degree of each sub-data with each sub-data in the first traffic data.
本发明实施例第二方面提供了一种服务器,具体包括:A second aspect of the embodiments of the present invention provides a server, including:
中央处理器,存储介质以及输入输出接口;a central processing unit, a storage medium, and an input and output interface;
所述存储介质上存储有云端数据库以及程序代码,所述中央处理器调用并执行所述程序代码,用于:The storage medium stores a cloud database and program code, and the central processor calls and executes the program code for:
获取目标地点的目标数据,所述目标数据为车载客户端在所述目标地点采集的交通数据,所述目标数据中包括若干个子数据;Obtaining target data of the target location, where the target data is traffic data collected by the in-vehicle client at the target location, where the target data includes several sub-data;
将所述目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定所述目标数据中的各子数据的级别,所述第一交通数据为云端数据库中存储的所述目标地点的交通数据,且所述第一交通数据中的各子数据为已经进行分级的数据;Matching each sub-data in the target data with each sub-data in the first traffic data to determine a level of each sub-data in the target data, where the first traffic data is stored in a cloud database Traffic data of the target location, and each subdata in the first traffic data is data that has been classified;
根据所述目标数据中各子数据的级别对所述第一交通数据进行更新。The first traffic data is updated according to a level of each sub data in the target data.
本发明实施例提供的技术方案中,当云端服务器需要对目标地点的交通数据进行更新时或者在接收到车辆上传的目标地点的目标数据时,可以获取目标地点的目标数据,并将目标数据中的各子数据分别与第一交通数据中的各子数 据进行匹配,以确定目标数据中各子数据的级别,并根据目标数据中的各子数据的级别对云端数据库中的目标地点的交通数据进行更新。由此可见,可以在有新数据添加至云端数据库的时候,根据现有数据库中的已分级的数据来自动对新添加的数据进行分级,从而自动对云端数据库中的数据进行维护,提高云端数据库的数据的正确率。In the technical solution provided by the embodiment of the present invention, when the cloud server needs to update the traffic data of the target location or receives the target data of the target location uploaded by the vehicle, the target data of the target location may be acquired, and the target data is obtained. Each sub-data and each sub-number in the first traffic data The matching is performed to determine the level of each sub-data in the target data, and the traffic data of the target location in the cloud database is updated according to the level of each sub-data in the target data. It can be seen that when new data is added to the cloud database, the newly added data is automatically classified according to the graded data in the existing database, thereby automatically maintaining data in the cloud database and improving the cloud database. The correct rate of data.
附图说明DRAWINGS
图1为本发明实施例中交通数据的处理方法的一个实施例示意图;1 is a schematic diagram of an embodiment of a method for processing traffic data according to an embodiment of the present invention;
图2为本发明实施例中交通数据的处理方法的另一实施例示意图;2 is a schematic diagram of another embodiment of a method for processing traffic data according to an embodiment of the present invention;
图3为本发明实施例中服务器的硬件结构示意图。FIG. 3 is a schematic structural diagram of a hardware of a server according to an embodiment of the present invention.
具体实施方式Detailed ways
下面将结合本发明实施例中的附图,对本发明实施例中的技术方案进行清楚、完整地描述,显然,所描述的实施例仅仅是本发明一部分实施例,而不是全部的实施例。The technical solutions in the embodiments of the present invention are clearly and completely described in the following with reference to the accompanying drawings in the embodiments of the present invention. It is obvious that the described embodiments are only a part of the embodiments of the present invention, but not all embodiments.
本发明的说明书和权利要求书及上述附图中的术语“第一”、“第二”、“第三”和“第四”等(如果存在)是用于区别类似的对象,而不必用于描述特定的顺序或先后次序。应该理解这样使用的数据在适当情况下可以互换,以便这里描述的实施例能够以除了在这里图示或描述的内容以外的顺序实施。此外,术语“包括”和“具有”以及他们的任何变形,意图在于覆盖不排他的包含,例如,包含了一系列步骤或单元的过程、方法、系统、产品或设备不必限于清楚地列出的那些步骤或单元,而是可包括没有清楚地列出的或对于这些过程、方法、产品或设备固有的其它步骤或单元。The terms "first", "second", "third" and "fourth", etc. (if present) in the specification and claims of the present invention and the above figures are used to distinguish similar objects without having to use To describe a specific order or order. It is to be understood that the data so used may be interchanged where appropriate so that the embodiments described herein can be implemented in a sequence other than what is illustrated or described herein. In addition, the terms "comprises" and "comprises" and "the" and "the" are intended to cover a non-exclusive inclusion, for example, a process, method, system, product, or device that comprises a series of steps or units is not necessarily limited to Those steps or units may include other steps or units not explicitly listed or inherent to such processes, methods, products or devices.
请参阅图1,本发明实施例中交通数据的处理方法的一个实施例包括:Referring to FIG. 1, an embodiment of a method for processing traffic data in an embodiment of the present invention includes:
101、获取目标地点的目标数据。101. Obtain target data of the target location.
本实施例中,当云端服务器需要对云端数据库中存储的目标地点的交通数据进行维护的时候或者在接收到车辆上传的目标地点的目标数据时,可以获取目标地点的目标数据,该目标数据为车辆在目标地点采集的交通数据,该目标 数据中包含若干个子数据,该交通数据包括目标地点的视觉数据以及其他一些数据,例如目标地点的天气数据、目标地点的交通标识以及目标地点的海拔高度数据等数据,云端服务器中包括云端数据库以及一些其他的功能模块(例如接收命令,发送数据,存储数据等模块),云端服务器与车辆通过无线方式连接。In this embodiment, when the cloud server needs to maintain the traffic data of the target location stored in the cloud database or when receiving the target data of the target location uploaded by the vehicle, the target data of the target location may be acquired, and the target data is Traffic data collected by the vehicle at the target location, the target The data includes several sub-data, including visual data of the target location and other data, such as weather data of the target location, traffic identification of the target location, and altitude data of the target location, and the cloud server includes the cloud database and Some other functional modules (such as receiving commands, sending data, storing data, etc.), the cloud server and the vehicle are connected wirelessly.
102、将目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定目标数据中各子数据的级别。所述第一交通数据为云端数据库中存储的所述目标地点的交通数据。所述每个交通数据均包括若干个子数据,且每个子数据均为已经分级的数据。同时需要说明的是,每个交通数据中可以包括相同或者相似的子数据,例如,不同车辆针对同一地点的交通标识采集并上传的多个子数据。102. Match each sub-data in the target data with each sub-data in the first traffic data to determine a level of each sub-data in the target data. The first traffic data is traffic data of the target location stored in a cloud database. Each of the traffic data includes a plurality of sub-data, and each sub-data is data that has been ranked. At the same time, it should be noted that each traffic data may include the same or similar sub-data, for example, multiple sub-data collected and uploaded by different vehicles for the same-distance traffic identifier.
本实施例中,当服务器得到目标地点的目标数据之后,由于该目标数据中包含有若干个子数据,且云端数据库中存储的目标地点的第一交通数据中的各数据已经进行分级,服务器可以将目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定目标数据中各子数据的级别。具体方案请参见下文。In this embodiment, after the server obtains the target data of the target location, since the target data includes several sub-data, and the data in the first traffic data of the target location stored in the cloud database has been classified, the server may Each sub-data in the target data is matched with each sub-data in the first traffic data to determine the level of each sub-data in the target data. See below for specific solutions.
需要说明的是,在本实施例中,所述云端数据库中的数据分级为:正常-精确数据、正常数据、待增加数据、杂数据、待删除数据、已删除数据,其中,It should be noted that, in this embodiment, the data in the cloud database is classified into: normal-accurate data, normal data, data to be added, miscellaneous data, data to be deleted, and deleted data, where
正常-精确数据表示:精确数据;Normal - accurate data representation: accurate data;
正常数据表示:大概率确定是正确数据;Normal data indicates that a large probability is determined to be correct data;
待增加数据表示:不确定的数据;Data to be added indicates: uncertain data;
杂数据表示:可被忽略的数据;Miscellaneous data means: data that can be ignored;
待删除数据表示:大概率确定是错误数据;The data to be deleted indicates that the large probability is determined to be erroneous data;
已删除数据表示:错误数据。Deleted data indicates: incorrect data.
其中,这些分级数据的等级分别为正常精确数据,正常数据,待增加数据,杂数据,待删除数据,已删除数据,正常精确数据的等级最高,已删除数据的登记最低,可以供用户使用的是正常数据以及正常精确数据。Among them, the grades of these hierarchical data are normal accurate data, normal data, data to be added, miscellaneous data, data to be deleted, deleted data, the highest level of normal accurate data, the lowest registration of deleted data, and can be used by users. It is normal data as well as normal and accurate data.
上述的分级仅以正常数据、正常-精确数据、待增加数据、杂数据、待删 除数据、已删除数据为例进行说明,也可以为第一档数据、第二档数据、第三档数据、第四档数据、第五档数据以及第六档数据,具体的分级名称不做限定。The above classification is only based on normal data, normal-accurate data, data to be added, miscellaneous data, to be deleted. Except for the data and the deleted data as an example, the first file data, the second file data, the third file data, the fourth file data, the fifth file data, and the sixth file data may also be used, and the specific hierarchical name is not made. limited.
103、根据目标数据中各子数据的级别对第一交通数据进行更新。103. Update the first traffic data according to the level of each sub data in the target data.
本实施例中,当云端服务器在确定目标数据中各子数据的级别后,将确定级别后的子数据添加到第一交通数据中。具体的,将确定级别后的子数据添加到第一交通数据的子数据集合中。In this embodiment, after the cloud server determines the level of each sub-data in the target data, the sub-data after the determined level is added to the first traffic data. Specifically, the sub-data after determining the level is added to the sub-data set of the first traffic data.
本实施例中,当云端服务器需要对目标地点的交通数据进行更新时或者在接收到车辆上传的目标地点的目标数据时,可以获取目标地点的目标数据,并将目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定目标数据中各子数据的级别,并根据目标数据中的各子数据的级别对云端数据库中的目标地点的交通数据进行更新。由此可见,可以在有新数据添加至云端数据库的时候,根据现有数据库中的已分级的数据来自动对新添加的数据进行分级,从而自动对云端数据库中的数据进行维护,提高云端数据库的数据的正确率。In this embodiment, when the cloud server needs to update the traffic data of the target location or receives the target data of the target location uploaded by the vehicle, the target data of the target location may be acquired, and each sub-data in the target data is separately Matching each sub-data in the first traffic data to determine the level of each sub-data in the target data, and updating the traffic data of the target location in the cloud database according to the level of each sub-data in the target data. It can be seen that when new data is added to the cloud database, the newly added data is automatically classified according to the graded data in the existing database, thereby automatically maintaining data in the cloud database and improving the cloud database. The correct rate of data.
请参阅图2,本发明实施例中交通数据的处理方法的另一实施例包括:Referring to FIG. 2, another embodiment of a method for processing traffic data in an embodiment of the present invention includes:
201、获取目标地点的目标数据。201. Obtain target data of the target location.
本实施例中,当云端服务器需要对云端数据库中存储的目标地点的交通数据进行维护的时候或者在接收到车辆上传的目标地点的目标数据时,可以获取目标地点的目标数据,该目标数据为车辆在目标地点采集的交通数据,该目标数据中包含若干个子数据,该交通数据包括目标地点的视觉数据以及其他一些数据,例如目标地点的天气数据、目标地点的交通标识以及目标地点的海拔高度数据等数据,云端服务器中包括云端数据库以及一些其他的功能模块(例如接收命令,发送数据,存储数据等模块),云端服务器与车辆通过无线方式连接。In this embodiment, when the cloud server needs to maintain the traffic data of the target location stored in the cloud database or when receiving the target data of the target location uploaded by the vehicle, the target data of the target location may be acquired, and the target data is Traffic data collected by the vehicle at the target location, the target data includes a plurality of sub-data including visual data of the target location and other data, such as weather data of the target location, traffic identification of the target location, and altitude of the target location Data and other data, the cloud server includes a cloud database and some other functional modules (such as receiving commands, sending data, storing data, etc.), and the cloud server and the vehicle are connected by wireless.
202、将目标数据的各子数据分别与第一交通数据中的各子数据进行匹配,以确定目标数据中各子数据的级别。所述第一交通数据为云端数据库中存储的所述目标地点的交通数据。所述每个交通数据均包括若干个子数据,且每个子数据均为已经分级的数据。同时需要说明的是,每个交通数据中可以包括相同 或者相似的子数据,例如,不同车辆针对同一地点的交通标识采集并上传的多个子数据。202. Match each sub-data of the target data with each sub-data in the first traffic data to determine a level of each sub-data in the target data. The first traffic data is traffic data of the target location stored in a cloud database. Each of the traffic data includes a plurality of sub-data, and each sub-data is data that has been ranked. At the same time, it should be noted that each traffic data can include the same Or similar sub-data, for example, multiple sub-data collected and uploaded by different vehicles for the same location traffic identification.
本实施例中,云端服务器在获取到目标地点的目标数据之后,由于目标数据中包括由若干个子数据,且云端数据库中存储的目标地点的第一交通数据,可以将目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定目标数据中的各子数据与第一交通数据中的各子数据的匹配度,并根据各子数据与第一交通数据中的各子数据的匹配度确定目标数据中各子数据的级别。例如,将目标数据中的子数据的级别设置为与该子数据匹配度最高的子数据的级别,或者将目标数据中的子数据的级别设置为与该子数据匹配度达到预设阈值(例如90%)的子数据的级别。In this embodiment, after acquiring the target data of the target location, the cloud server may include each subdata in the target data because the target data includes the first traffic data of the target location stored in the cloud database by the plurality of subdata. Matching each sub-data in the first traffic data to determine a matching degree between each sub-data in the target data and each sub-data in the first traffic data, and according to each sub-data and each of the first traffic data The matching degree of the sub data determines the level of each sub data in the target data. For example, setting the level of the sub data in the target data to the level of the sub data having the highest degree of matching with the sub data, or setting the level of the sub data in the target data to match the sub data to a preset threshold (for example, 90%) of the level of subdata.
在另一实施例中,云端服务器在获取到目标地点的目标数据之后,由于目标数据中包括由若干个子数据,且云端数据库中存储的目标地点的第一交通数据,可以将目标数据中的各子数据分别与第一交通数据中同类别的各子数据进行匹配,以确定目标数据中的各子数据与第一交通数据中同类别的各子数据的匹配度,并根据各子数据与第一交通数据中的各子数据的匹配度确定目标数据中各子数据的级别。例如,将目标数据中的子数据的级别设置为与该子数据匹配度最高的子数据的级别,或者将目标数据中的子数据的级别设置为与该子数据匹配度达到预设阈值(例如90%)的子数据的级别。In another embodiment, after acquiring the target data of the target location, the cloud server may include each of the target data because the target data includes the first traffic data of the target location stored in the cloud database by the plurality of sub-data. The sub-data is respectively matched with each sub-data of the same category in the first traffic data to determine the matching degree between each sub-data in the target data and each sub-data of the same category in the first traffic data, and according to each sub-data and the The degree of matching of each sub-data in a traffic data determines the level of each sub-data in the target data. For example, setting the level of the sub data in the target data to the level of the sub data having the highest degree of matching with the sub data, or setting the level of the sub data in the target data to match the sub data to a preset threshold (for example, 90%) of the level of subdata.
同时需要说明的是,当云端服务器将目标数据中的子数据的级别设置为与该子数据匹配度达到预设阈值(例如90%)的子数据的级别时,且具有多个匹配度达到预设阈值的子数据时,所述云端服务器可以将所述目标数据中的子数据的级别设置为与该子数据匹配度最高的子数据的级别,或者将所述目标数据中的子数据的级别设置为时间与当前时间最近的子数据的级别。At the same time, it should be noted that when the cloud server sets the level of the sub data in the target data to the level of the sub data that matches the sub data to a preset threshold (for example, 90%), and has multiple matching degrees reaching the pre When the sub-data of the threshold is set, the cloud server may set the level of the sub-data in the target data to the level of the sub-data with the highest degree of matching with the sub-data, or the level of the sub-data in the target data. Set to the level of the child data whose time is closest to the current time.
下面进行举例说明,云端服务器获取到目标数据,假如该目标数据中包含两个数据,一个是目标地点的第一交通标识数据,另一是目标地点的第一标志性建筑数据,云端服务器将第一交通标识数据与云端数据库中存储的该目标地点的所有的交通标识数据进行匹配,并将第一标志性建筑数据与云端数据库中存储的该目标地点的所有标志性建筑数据进行匹配,由于云端数据库中存储的 目标地点的所有的交通标识数据以及所有的标志性建筑数据都有分级的属性,例如是正常数据、正常精确数据、杂数据、待增加数据、待删除数据或者已删除数据,假如该云端数据库中存储的目标地点的交通标识数据中的某一第二交通标识数据与第一交通标识数据的匹配度达到预设的阈值(例如90%,也可以是其他数值,具体不做限定),则将该第一交通标识数据的级别设置为该第二交通标识数据的级别,如果该第二交通标识数据的分级为正常数据,即在该第一交通标识数据的属性上增加正常数据的分级标定。同理,如果该云端数据库中存储的目标地点的标志性建筑数据中的某一第二标志性建筑数据与第一标志性建筑数据的匹配度达到预设的阈值,则将该第一标志性建筑数据的级别设置为该第二标志性数据的级别,如果该第二标志性建筑数据的级别为带增加数据,则将该第一标志性建筑数据的级别设置为待增加数据,也即在该第一标志性建筑数据的属性上增加待增加数据的分级标定。The following example illustrates that the cloud server obtains the target data, if the target data contains two data, one is the first traffic identification data of the target location, and the other is the first landmark building data of the target location, and the cloud server will be the first A traffic identification data is matched with all traffic identification data of the target location stored in the cloud database, and the first landmark building data is matched with all landmark building data of the target location stored in the cloud database, due to the cloud Stored in the database All traffic identification data and all landmark data of the target location have hierarchical attributes, such as normal data, normal accurate data, miscellaneous data, data to be added, data to be deleted or deleted data, if the cloud database The matching degree of the second traffic identification data and the first traffic identification data in the traffic identification data of the stored target location reaches a preset threshold (for example, 90%, or other values, which are not limited), The level of the first traffic identification data is set to the level of the second traffic identification data. If the classification of the second traffic identification data is normal data, the hierarchical calibration of the normal data is added to the attribute of the first traffic identification data. Similarly, if the matching degree of a certain second landmark building data in the landmark building data of the target location stored in the cloud database and the first landmark building data reaches a preset threshold, the first iconic The level of the building data is set to the level of the second iconic data. If the level of the second landmark building data is band-added data, the level of the first landmark building data is set to be the data to be added, that is, The attribute of the first landmark building data is added to the hierarchical calibration of the data to be added.
203、根据在预置时间内获取的相似子数据的次数调整该目标数据中的子数据的级别。需要说明的是,所述相似子数据指的是匹配度大于预设的阈值(例如大于90%,也可以是其他数值,具体不做限定)。203. Adjust a level of the sub data in the target data according to the number of times the similar sub data is acquired within the preset time. It should be noted that the similar sub-data refers to that the matching degree is greater than a preset threshold (for example, greater than 90%, and may be other values, which are not limited).
在本实施例中,当云端服务器确定目标数据中的各子数据的分级之后,还会根据在预置时间内获取的相似子数据的次数来调整该目标数据中的该子数据的级别。例如,根据所述次数所属的范围来调整所述子数据的级别。In this embodiment, after the cloud server determines the ranking of each sub-data in the target data, the level of the sub-data in the target data is also adjusted according to the number of times of similar sub-data acquired in the preset time. For example, the level of the sub-data is adjusted according to the range to which the number of times belongs.
例如在第一预置时间内(例如1天内,可以是其他数值,具体不做限定)获取到的与第一子数据相似的子数据的次数小于第一预设值(例如20次,可以是其他数值,具体不做限定),则将该第一子数据的级别降低一档,例如从步骤202确定的正常精确数据降低为正常数据;同时,在第二预置时间(例如3天内)内获取到的与第一子数据相似的子数据的次数大于第二预设值(例如200次),则将该第二子数据的级别提升一档,例如从步骤202确定的待增加数据提升为正常数据。For example, in the first preset time (for example, within 1 day, other values may be used, specifically not limited), the number of times the sub-data similar to the first sub-data is acquired is smaller than the first preset value (for example, 20 times, which may be Other values, specifically not limited, reduce the level of the first sub-data by one step, for example, the normal accurate data determined from step 202 is reduced to normal data; and at the same time, within the second preset time (for example, within 3 days) If the number of times the sub-data similar to the first sub-data is obtained is greater than the second preset value (for example, 200 times), the level of the second sub-data is increased by one step, for example, the data to be added determined in step 202 is promoted to Normal data.
需要说明的是,当云端服务器确定云端服务器中存储的目标地点的交通数据中有数据的级别为待删除数据的级别,且在第三预置时间内(例如1个月,还可以是其他数值,具体不做限定)该数据始终处于该级别,此时可以将该数 据标定为已删除数据。It should be noted that when the cloud server determines that the traffic data of the target location stored in the cloud server has the level of the data as the level of the data to be deleted, and in the third preset time (for example, one month, it may be other values). , specifically not limited) the data is always at this level, you can use this number It is calibrated as deleted data.
需要说明的是,云端服务器可以定期清理云端数据库中的分级为已删除数据标签的数据,以使得云端数据库中的空间得到更加优化的利用,防止分级为已删除数据标签的数据占据云端数据库的存储空间。It should be noted that the cloud server can regularly clean the data in the cloud database classified into the deleted data labels, so that the space in the cloud database can be more optimally utilized, and the data classified into the deleted data labels is prevented from occupying the storage of the cloud database. space.
204、根据目标数据中各子数据的级别对第一交通数据进行更新。204. Update the first traffic data according to the level of each sub data in the target data.
本实施例中,当云端服务器在确定目标数据中各子数据的级别后,将确定级别后的子数据添加到第一交通数据中。具体的,将确定级别后的子数据添加到第一交通数据的子数据集合中。In this embodiment, after the cloud server determines the level of each sub-data in the target data, the sub-data after the determined level is added to the first traffic data. Specifically, the sub-data after determining the level is added to the sub-data set of the first traffic data.
综上所述,当云端服务器需要对目标地点的交通数据进行更新时或者在接收到车辆上传的目标地点的目标数据时,可以先获取目标地点的目标数据,并将目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配确定目标数据中的各子数据的级别,根据在预置时间内获取的相似子数据的次数调整该目标数据中的子数据的级别,并根据目标数据中各子数据的级别对第一交通数据进行更新。由此可见,云端数据库可以在目标地点的交通数据实际发生改变时,根据获取的目标数据的子数据的频率来调整对该子数据的评级,从而实现在目标地点的交通数据发生改变时,自动对云端数据库中的数据进行维护,从而提到云端数据库这种的数据的正确率。In summary, when the cloud server needs to update the traffic data of the target location or receives the target data of the target location uploaded by the vehicle, the target data of the target location may be acquired first, and each subdata in the target data is acquired. Performing matching with each sub-data in the first traffic data to determine the level of each sub-data in the target data, and adjusting the level of the sub-data in the target data according to the number of times of similar sub-data acquired in the preset time, and according to The level of each sub-data in the target data updates the first traffic data. It can be seen that the cloud database can adjust the rating of the sub-data according to the frequency of the sub-data of the acquired target data when the traffic data of the target location actually changes, thereby realizing automatic change of the traffic data at the target location. Maintain the data in the cloud database to mention the correct rate of data such as the cloud database.
上面从交通数据的处理方法的角度对本发明实施例进行描述,下面从服务器的角度对本发明实施例进行描述。The embodiments of the present invention are described above from the perspective of a method for processing traffic data. The embodiments of the present invention are described below from the perspective of a server.
请参阅图3,图3是本发明实施例提供的一种服务器的结构示意图,该服务器300可因配置或性能不同而产生比较大的差异,可以包括一个或一个以上中央处理器(central processing units,CPU)310(例如,一个或一个以上处理器),一个或一个以上存储程序代码331或数据332的存储介质330(存储介质可以为一个或一个以上海量存储设备,也可以为一个或一个以上内存等临时存储设备,也可以为一个或一个硬盘,也可以是一个或一个以上的内存以及硬盘共同使用,具体此处不作限定)。其中,存储介质330可以是短暂存储或持久存储。更进一步地,中央处理器310可以设置为与存储介质330通信,以调用并执行存储介质330中的一系列程序代码。所述存储介质330中还存储有云 端数据库,所述云端数据库中至少存储有目标地点的交通数据,也即至少存储有目标地点的第一交通数据。所述服务器还包括一个或一个以上输入输出接口320,所述输入输出接口320可以为一个或一个以上有线或无线网络接口。Please refer to FIG. 3. FIG. 3 is a schematic structural diagram of a server according to an embodiment of the present invention. The server 300 may have a large difference due to different configurations or performances, and may include one or more central processing units (central processing units). , CPU) 310 (eg, one or more processors), one or more storage media 330 storing program code 331 or data 332 (the storage medium may be one or one storage device in Shanghai, or one or more A temporary storage device such as a memory may also be used for one or one hard disk, or one or more memories and a hard disk, which are not limited herein. Wherein, the storage medium 330 can be short-term storage or persistent storage. Still further, central processor 310 can be configured to communicate with storage medium 330 to invoke and execute a series of program codes in storage medium 330. The storage medium 330 also stores a cloud The end database, at least the traffic data of the target location is stored in the cloud database, that is, at least the first traffic data of the target location is stored. The server also includes one or more input and output interfaces 320, which may be one or more wired or wireless network interfaces.
所述服务器的中央处理器310调用并执行所述程序代码,用于获取目标地点的目标数据,所述目标数据为车载客户端在所述目标地点采集的交通数据,所述目标数据中包括若干个子数据;将所述目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定所述目标数据中的各子数据的级别,所述第一交通数据为云端数据库中存储的所述目标地点的交通数据,且所述第一交通数据中的各子数据为已经进行分级的数据;根据所述目标数据中各子数据的级别对所述第一交通数据进行更新。The central processing unit 310 of the server invokes and executes the program code, and is used to acquire target data of a target location, where the target data is traffic data collected by the vehicle-mounted client at the target location, where the target data includes several Each sub-data in the target data is matched with each sub-data in the first traffic data to determine a level of each sub-data in the target data, and the first traffic data is a cloud database. Traffic data of the target location stored therein, and each sub-data in the first traffic data is data that has been ranked; updating the first traffic data according to a level of each sub-data in the target data .
其中所述将所述目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定所述目标数据中各子数据的级别包括:将所述目标数据中的各子数据分别与所述第一交通数据中的各子数据进行匹配,以确定目标数据中的各子数据与第一交通数据中的各子数据的匹配度;并根据各子数据与第一交通数据中的各子数据的匹配度确定目标数据中各子数据的级别。Wherein each sub-data in the target data is matched with each sub-data in the first traffic data to determine a level of each sub-data in the target data, including: each sub-input in the target data Data is respectively matched with each sub-data in the first traffic data to determine a matching degree between each sub-data in the target data and each sub-data in the first traffic data; and according to each sub-data and the first traffic data The degree of matching of each sub-data in the determination determines the level of each sub-data in the target data.
在一个实施例中,所述根据各子数据与第一交通数据中的各子数据的匹配度确定目标数据中各子数据的级别包括:将目标数据中的子数据的级别设置为与该子数据匹配度最高的子数据的级别。In an embodiment, determining the level of each sub-data in the target data according to the matching degree of each sub-data and each sub-data in the first traffic data comprises: setting a level of the sub-data in the target data to the sub-data The level of subdata with the highest data matching.
在另一实施例中,所述根据各子数据与第一交通数据中的各子数据的匹配度确定目标数据中各子数据的级别包括:将目标数据中的子数据的级别设置为与该子数据匹配度达到预设阈值的子数据的级别。In another embodiment, determining the level of each sub-data in the target data according to the matching degree of each sub-data and each sub-data in the first traffic data comprises: setting a level of the sub-data in the target data to The level of sub-data whose sub-data match degree reaches the preset threshold.
在将所述目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定所述目标数据中的各子数据的级别之后,所述中央处理器还:根据在预置时间内获取的相似子数据的次数调整该目标数据中的子数据的级别。After matching each sub-data in the target data with each sub-data in the first traffic data to determine the level of each sub-data in the target data, the central processor further: according to The number of times the similar sub-data is acquired within the set time adjusts the level of the sub-data in the target data.
所述根据在预置时间内获取的相似子数据的次数调整该目标数据中的子数据的级别包括:当在第一预置时间内获取的相似子数据的次数小于第一预设值,则将该子数据的级别降低一档;当在第二预置时间内获取的相似子数据的次数大于第二预设值,则将该子数据的级别提升一档。 The adjusting the level of the sub data in the target data according to the number of times of the similar sub data acquired in the preset time comprises: when the number of similar sub data acquired in the first preset time is less than the first preset value, The level of the sub-data is lowered by one file; when the number of similar sub-data acquired in the second preset time is greater than the second preset value, the level of the sub-data is increased by one step.
所述根据所述目标数据中各子数据的级别对所述第一交通数据进行更新包括:将确定级别后的各子数据添加到所述第一交通数据的子数据集合中。The updating the first traffic data according to the level of each sub-data in the target data comprises: adding each sub-data after the determined level to the sub-data set of the first traffic data.
所属领域的技术人员可以清楚地了解到,为描述的方便和简洁,上述描述的具体工作过程,可以参考前述方法实施例中的对应过程,在此不再赘述。A person skilled in the art can clearly understand that for the convenience and brevity of the description, the specific working process described above can refer to the corresponding process in the foregoing method embodiments, and details are not described herein again.
以上所述,以上实施例仅用以说明本发明的技术方案,而非对其限制;尽管参照前述实施例对本发明进行了详细的说明,本领域的普通技术人员应当理解:其依然可以对前述各实施例所记载的技术方案进行修改,或者对其中部分技术特征进行等同替换;而这些修改或者替换,并不使相应技术方案的本质脱离本发明各实施例技术方案的精神和范围。 The above embodiments are only used to illustrate the technical solutions of the present invention, and are not intended to be limiting; although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art will understand that The technical solutions described in the embodiments are modified, or the equivalents of the technical features are replaced by the equivalents of the technical solutions of the embodiments of the present invention.

Claims (14)

  1. 一种交通数据的处理方法,其特征在于,包括:A method for processing traffic data, comprising:
    获取目标地点的目标数据,所述目标数据为车载客户端在所述目标地点采集的交通数据,所述目标数据中包括若干个子数据;Obtaining target data of the target location, where the target data is traffic data collected by the in-vehicle client at the target location, where the target data includes several sub-data;
    将所述目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定所述目标数据中的各子数据的级别,所述第一交通数据为云端数据库中存储的所述目标地点的交通数据,且所述第一交通数据中的各子数据为已经进行分级的数据;Matching each sub-data in the target data with each sub-data in the first traffic data to determine a level of each sub-data in the target data, where the first traffic data is stored in a cloud database Traffic data of the target location, and each subdata in the first traffic data is data that has been classified;
    根据所述目标数据中各子数据的级别对所述第一交通数据进行更新。The first traffic data is updated according to a level of each sub data in the target data.
  2. 根据权利要求1所述的方法,其特征在于,所述将所述目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定所述目标数据中各子数据的级别包括:The method according to claim 1, wherein each of the sub-data in the target data is matched with each sub-data in the first traffic data to determine each sub-data in the target data. Levels include:
    将所述目标数据中的各子数据分别与所述第一交通数据中的各子数据进行匹配,以确定目标数据中的各子数据与第一交通数据中的各子数据的匹配度;Matching each sub-data in the target data with each sub-data in the first traffic data to determine a matching degree between each sub-data in the target data and each sub-data in the first traffic data;
    并根据各子数据与第一交通数据中的各子数据的匹配度确定目标数据中各子数据的级别。And determining the level of each sub-data in the target data according to the matching degree of each sub-data with each sub-data in the first traffic data.
  3. 根据权利要求2所述的方法,其特征在于,所述根据各子数据与第一交通数据中的各子数据的匹配度确定目标数据中各子数据的级别包括:将目标数据中的子数据的级别设置为与该子数据匹配度最高的子数据的级别。The method according to claim 2, wherein the determining the level of each sub-data in the target data according to the matching degree of each sub-data with each sub-data in the first traffic data comprises: sub-data in the target data The level is set to the level of the child data that has the highest match with the child data.
  4. 根据权利要求2所述的方法,其特征在于,所述根据各子数据与第一交通数据中的各子数据的匹配度确定目标数据中各子数据的级别包括:将目标数据中的子数据的级别设置为与该子数据匹配度达到预设阈值的子数据的级别。The method according to claim 2, wherein the determining the level of each sub-data in the target data according to the matching degree of each sub-data with each sub-data in the first traffic data comprises: sub-data in the target data The level is set to the level of the sub-data that matches the sub-data to a preset threshold.
  5. 根据权利要求1所述的方法,其特征在于,所述将所述目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定所述目标数据中的各子数据的级别之后,所述方法还包括:The method according to claim 1, wherein each of the sub-data in the target data is matched with each sub-data in the first traffic data to determine each sub-data in the target data. After the level, the method further includes:
    根据在预置时间内获取的相似子数据的次数调整该目标数据中的子数据 的级别。Adjusting the sub-data in the target data according to the number of times of similar sub-data acquired within the preset time Level.
  6. 根据权利要求5所述的方法,其特征在于,所述根据在预置时间内获取的相似子数据的次数调整该目标数据中的子数据的级别包括:The method according to claim 5, wherein the adjusting the level of the sub-data in the target data according to the number of times of similar sub-data acquired in the preset time comprises:
    当在第一预置时间内获取的相似子数据的次数小于第一预设值,则将该子数据的级别降低一档;When the number of times of similar sub-data acquired in the first preset time is less than the first preset value, the level of the sub-data is lowered by one step;
    当在第二预置时间内获取的相似子数据的次数大于第二预设值,则将该子数据的级别提升一档。When the number of times of similar sub-data acquired in the second preset time is greater than the second preset value, the level of the sub-data is increased by one step.
  7. 根据权利要求1所述的方法,其特征在于,所述根据所述目标数据中各子数据的级别对所述第一交通数据进行更新包括:The method according to claim 1, wherein the updating the first traffic data according to a level of each sub data in the target data comprises:
    将确定级别后的各子数据添加到所述第一交通数据的子数据集合中。Each sub-data after the determined level is added to the sub-data set of the first traffic data.
  8. 一种服务器,其特征在于,中央处理器,存储介质以及输入输出接口;A server, characterized by a central processing unit, a storage medium, and an input/output interface;
    所述存储介质上存储有云端数据库以及程序代码,所述中央处理器调用并执行所述程序代码,用于:The storage medium stores a cloud database and program code, and the central processor calls and executes the program code for:
    获取目标地点的目标数据,所述目标数据为车载客户端在所述目标地点采集的交通数据,所述目标数据中包括若干个子数据;Obtaining target data of the target location, where the target data is traffic data collected by the in-vehicle client at the target location, where the target data includes several sub-data;
    将所述目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定所述目标数据中的各子数据的级别,所述第一交通数据为云端数据库中存储的所述目标地点的交通数据,且所述第一交通数据中的各子数据为已经进行分级的数据;Matching each sub-data in the target data with each sub-data in the first traffic data to determine a level of each sub-data in the target data, where the first traffic data is stored in a cloud database Traffic data of the target location, and each subdata in the first traffic data is data that has been classified;
    根据所述目标数据中各子数据的级别对所述第一交通数据进行更新。The first traffic data is updated according to a level of each sub data in the target data.
  9. 根据权利要求8所述的服务器,其特征在于,所述将所述目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定所述目标数据中各子数据的级别包括:The server according to claim 8, wherein each of the sub-data in the target data is matched with each sub-data in the first traffic data to determine each sub-data in the target data. Levels include:
    将所述目标数据中的各子数据分别与所述第一交通数据中的各子数据进行匹配,以确定目标数据中的各子数据与第一交通数据中的各子数据的匹配度;Matching each sub-data in the target data with each sub-data in the first traffic data to determine a matching degree between each sub-data in the target data and each sub-data in the first traffic data;
    并根据各子数据与第一交通数据中的各子数据的匹配度确定目标数据中各子数据的级别。 And determining the level of each sub-data in the target data according to the matching degree of each sub-data with each sub-data in the first traffic data.
  10. 根据权利要求9所述的服务器,其特征在于,所述根据各子数据与第一交通数据中的各子数据的匹配度确定目标数据中各子数据的级别包括:将目标数据中的子数据的级别设置为与该子数据匹配度最高的子数据的级别。The server according to claim 9, wherein the determining the level of each sub-data in the target data according to the matching degree of each sub-data and each sub-data in the first traffic data comprises: sub-data in the target data The level is set to the level of the child data that has the highest match with the child data.
  11. 根据权利要求9所述的服务器,其特征在于,所述根据各子数据与第一交通数据中的各子数据的匹配度确定目标数据中各子数据的级别包括:将目标数据中的子数据的级别设置为与该子数据匹配度达到预设阈值的子数据的级别。The server according to claim 9, wherein the determining the level of each sub-data in the target data according to the matching degree of each sub-data and each sub-data in the first traffic data comprises: sub-data in the target data The level is set to the level of the sub-data that matches the sub-data to a preset threshold.
  12. 根据权利要求8所述的服务器,其特征在于,在将所述目标数据中的各子数据分别与第一交通数据中的各子数据进行匹配,以确定所述目标数据中的各子数据的级别之后,所述中央处理器还:The server according to claim 8, wherein each of the sub-data in the target data is matched with each sub-data in the first traffic data to determine each sub-data in the target data. After the level, the central processor also:
    根据在预置时间内获取的相似子数据的次数调整该目标数据中的子数据的级别。The level of the sub data in the target data is adjusted according to the number of times the similar sub data is acquired within the preset time.
  13. 根据权利要求12所述的服务器,其特征在于,所述根据在预置时间内获取的相似子数据的次数调整该目标数据中的子数据的级别包括:The server according to claim 12, wherein the adjusting the level of the sub-data in the target data according to the number of times of similar sub-data acquired within the preset time comprises:
    当在第一预置时间内获取的相似子数据的次数小于第一预设值,则将该子数据的级别降低一档;When the number of times of similar sub-data acquired in the first preset time is less than the first preset value, the level of the sub-data is lowered by one step;
    当在第二预置时间内获取的相似子数据的次数大于第二预设值,则将该子数据的级别提升一档。When the number of times of similar sub-data acquired in the second preset time is greater than the second preset value, the level of the sub-data is increased by one step.
  14. 根据权利要求8所述的服务器,其特征在于,所述根据所述目标数据中各子数据的级别对所述第一交通数据进行更新包括:The server according to claim 8, wherein the updating the first traffic data according to a level of each sub data in the target data comprises:
    将确定级别后的各子数据添加到所述第一交通数据的子数据集合中。 Each sub-data after the determined level is added to the sub-data set of the first traffic data.
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