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CN115169829A - Team cooperation state evaluation system and method based on support vector machine - Google Patents

Team cooperation state evaluation system and method based on support vector machine Download PDF

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CN115169829A
CN115169829A CN202210687308.2A CN202210687308A CN115169829A CN 115169829 A CN115169829 A CN 115169829A CN 202210687308 A CN202210687308 A CN 202210687308A CN 115169829 A CN115169829 A CN 115169829A
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刘双
党予卿
完颜笑如
闵雨晨
冯传宴
周孙夏
王鑫
邓野
周拓阳
田志强
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Abstract

The invention provides a team collaborative state evaluation system and method based on a support vector machine. The data acquisition module acquires four parts of information of a team: team information acquisition, eye movement equipment acquisition, electrocardio equipment acquisition and video recording acquisition. And the data interface module receives the information transmitted by the data acquisition module and converts and extracts the index characteristics. And the online evaluation module performs online analysis and evaluation on the team experimental data. And the output report module comprehensively outputs the read team information and the online evaluation result. The system can be used for rapidly and effectively judging team cooperation states of teams in various task environments, is beneficial to improving team cooperation level of ships, and provides basis for reducing human errors.

Description

基于支持向量机的团队协同状态评定系统和方法System and method of team collaboration state assessment based on support vector machine

技术领域technical field

本发明涉及一种基于支持向量机(Support vector machine,SVM)的团队协同状态评定系统和方法。The present invention relates to a team collaboration state assessment system and method based on a support vector machine (SVM).

背景技术Background technique

在现代军事和工业工作环境中,作业任务通常具有较高的认知性需求,需要通过紧密高效的团队协同才能够顺利完成。团队协同指每位成员形成团队所需要的相互关联的思想、行动和感受的集合,能够促进协调的、适应性的表现和任务目标,从而产生增值结果。团队协同的目标在于创建良好的团队绩效,而优秀的团队绩效则需要通过团队协同来实现准确的信息共享。因此,团队协同状态是衡量一个团队是否能够准确高效完成各项任务的重要指标。In modern military and industrial work environments, operational tasks often have high cognitive demands and require close and efficient teamwork to successfully complete. Team synergy refers to the collection of interconnected thoughts, actions, and feelings that each member needs to form a team that promotes coordinated, adaptive performance and task goals that yield value-added outcomes. The goal of team collaboration is to create good team performance, and excellent team performance requires accurate information sharing through team collaboration. Therefore, team collaboration status is an important indicator to measure whether a team can complete various tasks accurately and efficiently.

现代舰船作为典型复杂的人-机系统,其特征包括长期航行条件下作业环境恶劣;任务复杂,对人员协同状态要求高;人机界面信息繁多,舰员的脑力负荷高。舰船常见事故包括碰撞、火灾、进水、爆炸等。据统计,超过70%的舰艇事故均存在人因失误,而不良的团队协同状态是舰船人因事故不可忽视的原因之一。As a typical complex man-machine system, modern ships are characterized by harsh operating environment under long-term navigation conditions; complex tasks and high requirements for personnel coordination; man-machine interface is rich in information, and the crew's mental load is high. Common accidents on ships include collisions, fires, flooding, explosions, etc. According to statistics, more than 70% of ship accidents are caused by human error, and poor team coordination is one of the reasons why ship accidents cannot be ignored.

团队协同状态的评定方法主要分为四类,分别为自我报告评定(Self-reportmeasures)、观测评定(Observational measures)、基于事件评定(Event-basedmeasurement)和自动化评定(Automated measurement)。The assessment methods of team collaboration status are mainly divided into four categories, namely Self-report measures, Observational measures, Event-based measurement and Automated measurement.

①自我报告评定主要包括问卷调查和评定量表,对个人和团队水平的团队协同状态进行评定,特别是那些本质上具有情感性(如信任)且不易观测的特性。例如团队氛围清单(The Team Climate Inventory,TCI),评定了多种团队协同能力。具体来说,TCI具有5个顶层量表,对应15个子量表;5个顶层量表分别评定参与安全、创新支持、团队愿景、任务导向、社会赞许性。其他一些工具评定与团队协同状态相关的单个因素,如1999年提出的心理安全量表,该量表是对团队协同状态最广泛使用的评定标准之一。使用自我报告对团队协同状态进行评定的一个重大挑战是如何将个体的反应聚合或转化为团队水平的特征。即使对各自的结构有详细的理论理解,各种聚合方法也很可能会产生非常不同的结果,无法捕捉个体反应的独特特征。此外,自我报告评定往往产生夸大的分数,因为被试者会比观察者对自己具有更高的评价;自我报告评定经常在团队任务前或后执行,无法捕捉团队绩效在任务执行时的动态本质。①Self-report assessment mainly includes questionnaires and rating scales to assess the state of team collaboration at the individual and team levels, especially those that are inherently emotional (such as trust) and difficult to observe. For example, The Team Climate Inventory (TCI) assesses a variety of team synergies. Specifically, TCI has 5 top-level scales, corresponding to 15 sub-scales; the 5 top-level scales respectively assess participation security, innovation support, team vision, task orientation, and social desirability. Other tools assess individual factors associated with team coordination status, such as the Psychological Safety Scale proposed in 1999, which is one of the most widely used assessment criteria for team coordination status. A major challenge in using self-reports to assess team synergy status is how to aggregate or translate individual responses into team-level characteristics. Even with a detailed theoretical understanding of the respective structures, the various aggregation methods are likely to yield very different results and fail to capture the unique features of individual responses. In addition, self-report assessments tend to produce inflated scores because subjects rate themselves higher than observers; self-report assessments are often performed before or after team tasks and fail to capture the dynamic nature of team performance as tasks are performed .

②观测评定可以实时收集或用团队协同任务的录像来收集,从而具有捕捉团队协同过程的动态性质的潜力。行为锚定评级量表(Behaviorally Anchored Rating Scales,BARS)是一种典型的观测评定技术:对于优秀、一般、较差的团队绩效,分别使用简短的行为描述作为锚点,进行观测评定。这些行为可以在个人层面进行评定,并汇总为团队得分或团队等级。BARS被广泛应用于医疗机构团队功能评估、机组环境中评估飞行员行为的非技术技能系统等领域中。虽然提供的行为具体描述有助于更准确的评级,但可能导致观察者只关注列表上的行为。② Observational assessments can be collected in real time or with videos of team collaboration tasks, thus having the potential to capture the dynamic nature of team collaboration processes. Behaviorally Anchored Rating Scales (BARS) is a typical observational assessment technique: for excellent, average, and poor team performance, a short behavioral description is used as an anchor for observational assessment. These behaviors can be rated at the individual level and aggregated into a team score or team rating. BARS is widely used in the assessment of team function in medical institutions, non-technical skill systems for assessing pilot behavior in the crew environment, etc. While providing specific descriptions of behaviors contributes to more accurate ratings, it may lead observers to focus only on behaviors on the list.

③基于事件评定(Event-Based Measurement,EBAT)是一种结构化的观察技术,通常应用于团队模拟场景。通过系统地将事件引入训练练习中,EBAT提供了观察感兴趣的特定行为的机会,这些行为随后被标记为存在或不存在。例如,在一个航空场景中,可以通过引入一个事件来评估情境意识,在这个事件中,教练员故意将飞机驶离航线。目标行为反应是“检查导航”,结果为检测成功或检测失败。使用这种方法,学习目标可以被明确量化,可以设置团队协同能力训练的具体关注点。但是,由于特定事件的场景限制,EBAT只能在训练场景中使用,而不能在真实的性能场景中使用。此外,EBAT度量方法的开发十分耗时。③ Event-Based Measurement (EBAT) is a structured observation technique that is usually used in team simulation scenarios. By systematically introducing events into training exercises, EBAT provides the opportunity to observe specific behaviors of interest, which are then flagged as present or absent. For example, in an aviation scenario, situational awareness can be assessed by introducing an event in which the trainer deliberately steers the plane off course. The target behavior response is "Check Navigation" and the result is a detection success or a detection failure. Using this approach, learning objectives can be clearly quantified, and specific concerns for teamwork ability training can be set. However, due to event-specific scenario limitations, EBAT can only be used in training scenarios, but not in real performance scenarios. Furthermore, the development of the EBAT metric is time-consuming.

④自动化评定通过与团队交互的计算机系统收集与团队相关的数据,具有减少中断、最小化测量误差和减少实验人员资源的优点。这种类型的评定已经被最频繁和成功地应用于团队绩效和团队协同状态的评定。④ Automated assessment Collecting team-related data through a computer system that interacts with the team has the advantages of reducing interruptions, minimizing measurement errors, and reducing experimental staff resources. This type of assessment has been most frequently and successfully applied to the assessment of team performance and team synergy status.

关于团队协同状态评定的相关研究显示了不一致的信度和效度测试报告,以及在船舶指控系统领域缺乏相关的研究与应用。Related studies on team collaboration status assessment have shown inconsistent reliability and validity test reports, as well as a lack of related research and applications in the field of ship command and control systems.

基于上述考虑,需要开发一种基于模拟船舶团队实验,通过计算机自动化采集处理生理数据、沟通数据等数据信息,利用机器学习算法中的支持向量机,对数据信息进行分析,从而能够直接、便捷地自动在线评定团队协同状态的系统。尤其希望,该评定系统能够应用于船舶班组团队协同状态的工效学评估分析,从而为改善船舶班组团队协同作业状态、提升船舶班组团队协同作业能力提供依据。Based on the above considerations, it is necessary to develop an experiment based on a simulated ship team, collect and process physiological data, communication data and other data information automatically through computers, and use the support vector machine in the machine learning algorithm to analyze the data information, so that the data information can be analyzed directly and conveniently. A system for automatically assessing team collaboration status online. It is especially hoped that the evaluation system can be applied to the ergonomic evaluation and analysis of the collaborative state of the ship team, so as to provide a basis for improving the collaborative operation state of the ship team and enhancing the collaborative operation ability of the ship team.

发明内容SUMMARY OF THE INVENTION

根据本发明的一个方面,提供了一种基于支持向量机的团队协同状态评定系统,其包括四个子模块:数据采集模块、数据接口模块、在线评定模块、输出报告模块。其中数据采集模块,用于采集团队的四部分信息:团队信息采集、眼动设备采集、心电设备采集、视频录像采集;数据接口模块,用于接收数据采集模块传输的信息并转换提取指标特征;在线评定模块,用于对团队实验数据进行在线分析评定;输出报告模块,用于将读入的团队信息和在线评定结果进行综合输出。According to one aspect of the present invention, a support vector machine-based team collaboration status assessment system is provided, which includes four sub-modules: a data acquisition module, a data interface module, an online assessment module, and an output report module. Among them, the data collection module is used to collect four parts of information of the team: team information collection, eye tracking equipment collection, ECG equipment collection, and video recording collection; the data interface module is used to receive the information transmitted by the data collection module and convert and extract index features. ; Online evaluation module for online analysis and evaluation of team experimental data; output report module for comprehensive output of the read team information and online evaluation results.

根据本发明的另一方面,提供了一种团队协同状态评定方法,其特征在于包括:评定操作前的初始界面,用于采集团队信息;评定操作中的数据采集与处理界面,用于进行数据的采集与处理;评定操作中的在线评定界面,用于对团队实验数据进行在线分析评定;评定操作后的输出结果界面,用于将读入的团队信息和在线评定结果进行综合输出。According to another aspect of the present invention, there is provided a team collaboration state assessment method, which is characterized by comprising: an initial interface before the assessment operation for collecting team information; a data acquisition and processing interface during the assessment operation for performing data analysis The online evaluation interface in the evaluation operation is used to analyze and evaluate the team experimental data online; the output result interface after the evaluation operation is used to comprehensively output the read team information and online evaluation results.

本发明有益的效果为:The beneficial effects of the present invention are:

本发明克服当前团队协同状态水平在线评定技术的不足,针对船舶实验过程中的团队协同状态,通过接口模块连接眼动仪设备、心电设备实时读取团队生理数据,连接视频录制与分析设备实时采集团队沟通数据,实现团队协同状态水平的在线评估,能够快速判别团队在多种任务环境下的团队协同状态,以保障有效的团队协同,为减少人因失误提供依据。The present invention overcomes the deficiency of the current online assessment technology of team collaboration state level, aiming at the team collaboration state in the ship experiment process, the interface module is connected to the eye tracker device and the electrocardiogram device to read the team's physiological data in real time, and the video recording and analysis device is connected to real-time data. Collect team communication data, realize online assessment of team coordination status, and quickly identify team coordination status in various task environments, so as to ensure effective team coordination and provide a basis for reducing human errors.

本发明的优点包括:Advantages of the present invention include:

(1)提供了一种自动化的团队协同状态评定系统,无需依赖繁琐的问卷调查、事后分析评估,仅通过采集团队协同实验过程中的眼动数据、心电数据以及视频录像,即可对团队协同状态水平进行在线自动评定,系统使用方法简单可行,且提供了优化的用户界面和使用流程,尤其适于对诸如船舶班组团队协同状态进行评估分析,有助于改善船舶班组团队协同作业状态。(1) An automated team collaboration status assessment system is provided, which does not need to rely on cumbersome questionnaires and post-event analysis and evaluation. It only needs to collect eye movement data, ECG data and video recordings during the team collaborative experiment. Online automatic assessment of the level of collaboration status, the system is simple and feasible to use, and provides an optimized user interface and use process, which is especially suitable for evaluating and analyzing the collaborative status of ship crews, helping to improve the collaborative work status of ship crews.

(2)提供一种团队协同状态的客观评定方法,基于支持向量机,只需采集团队协同实验的生理数据与沟通数据,就能够直接、便捷、自动地评定团队协同状态水平。(2) Provide an objective assessment method of team collaboration state. Based on support vector machine, the team collaboration state level can be assessed directly, conveniently and automatically only by collecting the physiological data and communication data of the team collaboration experiment.

附图说明Description of drawings

图1是根据本发明的一个实施例的基于支持向量机的团队协同状态评定系统架构图;1 is an architectural diagram of a team collaboration state assessment system based on a support vector machine according to an embodiment of the present invention;

图2是根据本发明的一个实施例的基于支持向量机的团队协同状态评定系统用户界面操作方法流程图;2 is a flowchart of a user interface operation method of a support vector machine-based team collaboration state assessment system according to an embodiment of the present invention;

图3(a)至3(d)是据本发明的一个实施例的基于支持向量机的团队协同状态评定系统在各个操作状态下的用户界面示意图。3(a) to 3(d) are schematic diagrams of user interfaces of a support vector machine-based team collaboration state assessment system in various operating states according to an embodiment of the present invention.

具体实施方式Detailed ways

1总体情况1 General situation

本发明针对实时采集不同场景和/或不同设备的应用与不同的使用需求,提出了基于模拟船舶团队实验过程中团队成员的眼动、心电与沟通特征的团队协同状态在线评定系统与方法,通过对实验过程中采集梳理的生理与沟通数据基于支持向量机进行分类,评定团队协同状态水平。Aiming at real-time collection of different scenarios and/or applications of different equipment and different usage requirements, the present invention proposes an online assessment system and method for team collaboration status based on the eye movement, electrocardiogram and communication characteristics of team members during the simulated ship team experiment process. By classifying the physiological and communication data collected and combed during the experiment based on support vector machine, the level of team collaboration was assessed.

2基于支持向量机的团队协同状态评定系统架构设计2 Architecture design of team collaboration status assessment system based on support vector machine

如图1所示,根据本发明的一个实施例的基于支持向量机的团队协同状态评定系统包括四个模块:数据采集模块、数据接口模块、在线评定模块、输出报告模块。具体说明如下。As shown in FIG. 1 , a support vector machine-based team collaboration state assessment system according to an embodiment of the present invention includes four modules: a data acquisition module, a data interface module, an online assessment module, and an output report module. The specific description is as follows.

(1)数据采集模块(1) Data acquisition module

该模块采集团队的四部分数据信息:团队信息采集、眼动设备采集、心电设备采集、视频录像采集。其中①团队信息采集包括团队测试编号,通过用户界面端输入;②眼动设备采集通过佩戴眼动设备实时读入原始眼动数据,例如眼动原始的空间位置坐标、眨眼标记、注视标记、扫视标记等,③心电设备采集通过佩戴心电设备实时读取原始心电数据,例如心率、心电原始波形数据等。④视频录像采集通过对活动(团队协同)全程录像,记录活动的视频,包括画面与音频。This module collects four parts of team data information: team information collection, eye tracking equipment collection, ECG equipment collection, and video recording collection. Among them, ① the team information collection includes the team test number, which is input through the user interface; ② the eye tracking device collection reads the original eye movement data in real time by wearing the eye tracking device, such as the original spatial position coordinates of the eye movement, blink marks, gaze marks, saccades Marking, etc., ③ ECG equipment collection By wearing ECG equipment, real-time reading of raw ECG data, such as heart rate, ECG original waveform data, etc. ④Video recording collection: Record the video of the activity, including the picture and audio, by recording the whole process of the activity (team collaboration).

(2)数据接口模块(2) Data interface module

该模块用于接收数据采集模块传输的信息并转换提取指标特征,包含三个主要模块:数据收发接口模块、数据存储模块、数据转换模块。其中:This module is used to receive the information transmitted by the data acquisition module and convert and extract the index features. It includes three main modules: a data transceiver interface module, a data storage module, and a data conversion module. in:

①数据收发接口模块:首先设置眼动设备、心电设备中UDP端口号、Host地址,然后基于C++平台通过数据收发接口建立数据接口模块与眼动设备、心电设备之间的UDP数据通信,以60Hz的频率读取眼动设备采集的原始数据,以1Hz的频率读取心电原始数据;通过音频分析软件对团队实验中的沟通音频进行沟通文本的提取;①Data transceiver interface module: First set the UDP port number and Host address in the eye tracking device and the ECG device, and then establish the UDP data communication between the data interface module and the eye tracking device and the ECG device through the data transceiver interface based on the C++ platform. Read the raw data collected by the eye tracking device at a frequency of 60Hz, and read the raw ECG data at a frequency of 1Hz; extract the communication text from the communication audio in the team experiment through audio analysis software;

②数据存储模块:将实时采集的不同频率的眼动、心电原始数据与提取的沟通文本存储在内存空间中;②Data storage module: store the real-time collection of eye movement and ECG raw data of different frequencies and the extracted communication text in the memory space;

③数据转换模块:在一个实施例中,本系统基于活动全程,将眼动及心电的原始数据进行指标的计算转换并求平均值,转换为注视率、扫视率、瞳孔直径、平均注视时间等眼动特征指标数据,以及平均心率、平均RR间期、标准化低频功率、标准化高频功率等心电特征指标数据。3. Data conversion module: in one embodiment, based on the entire activity, the system converts the raw data of eye movement and electrocardiogram into the calculation conversion and average value of the index, and converts it into gaze rate, saccade rate, pupil diameter, average gaze time. Eye movement characteristic index data, as well as ECG characteristic index data such as average heart rate, average RR interval, normalized low-frequency power, and normalized high-frequency power.

对于沟通文本,通过文本分析软件进行文本分析,统计沟通编码的出现频率以及沟通关键词的词频数据,得到沟通文本特征数据。For communication texts, text analysis is performed through text analysis software, and the frequency of occurrence of communication codes and word frequency data of communication keywords are counted to obtain characteristic data of communication texts.

(3)在线评定模块(3) Online assessment module

该模块主要用于对团队实验数据进行在线分析评定,包含四个模块:眼动特征预处理模块、心电特征预处理模块、沟通特征预处理模块、在线评定分类器模块。其中:This module is mainly used for online analysis and evaluation of team experimental data, including four modules: eye movement feature preprocessing module, ECG feature preprocessing module, communication feature preprocessing module, and online assessment classifier module. in:

①眼动特征预处理模块,读入数据接口模块中发送的眼动特征指标(注视率、扫视率、瞳孔直径、平均注视时间等),并进行空值或异常值剔除等规范化处理,以及标准化处理等预处理操作;①The eye movement feature preprocessing module reads the eye movement feature indicators (gazing rate, saccade rate, pupil diameter, average fixation time, etc.) sent in the data interface module, and performs normalization processing such as null or outlier elimination, and standardization Preprocessing operations such as processing;

②心电特征预处理模块,读入数据接口模块中发送的心电特征指标(平均心率、平均RR间期、标准化低频功率、标准化高频功率等),并进行空值或异常值剔除等规范化处理,以及标准化处理等预处理操作。②The ECG feature preprocessing module reads the ECG feature indicators (average heart rate, average RR interval, normalized low-frequency power, normalized high-frequency power, etc.) sent in the data interface module, and performs normalization such as null or abnormal value elimination processing, and preprocessing operations such as normalization.

③沟通特征预处理模块,读入数据接口模块中发送的沟通文本特征指标(沟通编码频率、沟通关键词词频等),并进行空值或异常值剔除等规范化处理,以及标准化处理等预处理操作;③ Communication feature preprocessing module, which reads the communication text feature indicators (communication coding frequency, communication keyword word frequency, etc.) sent in the data interface module, and performs normalization processing such as null value or outlier elimination, and preprocessing operations such as normalization processing. ;

④在线评定分类器模块,读入经过标准化、规范化处理的眼动、心电及沟通特征数据,分别传输至三个“一对一”(One-Against-One,OAO)支持向量机进行在线计算:其中SVM1将高团队协同状态所对应的向量作为正集+1,中团队协同状态所对应的向量作为负集-1;SVM2将高团队协同状态所对应的向量作为正集+1,低团队协同状态所对应的向量作为负集-1;SVM3将中团队协同状态所对应的向量作为正集+1,低团队协同状态所对应的向量作为负集-1。这三个SVM分别进行计算,得到3个分类结果分类1、分类2、分类3。使用投票法确定团队协同状态水平最终分类,即3个分类结果中出现最多的结果即为最终分类。举例说明,若SVM1判断为高团队协同状态,SVM2判断为高团队协同状态,SVM3判断为中团队协同状态,则最终分类结果为高团队协同状态,从而实现对不同团队协同状态水平的在线评定。④Online evaluation classifier module, which reads in the standardized and normalized eye movement, ECG and communication feature data, and transmits them to three "One-Against-One" (OAO) support vector machines for online calculation. : Among them, SVM1 takes the vector corresponding to the high team coordination state as the positive set +1, and the vector corresponding to the medium team coordination state as the negative set -1; SVM2 takes the vector corresponding to the high team coordination state as the positive set +1, and the low team coordination state as the positive set +1. The vector corresponding to the collaborative state is taken as the negative set -1; SVM3 takes the vector corresponding to the collaborative state of the middle team as the positive set +1, and the vector corresponding to the collaborative state of the low team as the negative set -1. The three SVMs are calculated separately, and three classification results are obtained: classification 1, classification 2, and classification 3. Use the voting method to determine the final classification of the team collaboration state level, that is, the result with the most appearance among the three classification results is the final classification. For example, if SVM1 is judged to be a high team collaboration state, SVM2 is judged to be a high team collaboration state, and SVM3 is judged to be a medium team collaboration state, then the final classification result is a high team collaboration state, thus realizing the online assessment of the level of different team collaboration states.

(4)输出报告模块(4) Output report module

将上述模块中读入的团队信息和在线评定结果进行综合输出,其中评定结果为团队协同状态水平最终分类,可支持选择指定路径将数据列表保存及导出。The team information read in the above modules and the online assessment results are comprehensively output, and the assessment results are the final classification of the team collaboration status level, which can support selecting a specified path to save and export the data list.

3基于支持向量机的团队协同状态评定系统用户交互界面操作方法3 User interface operation method of team collaboration state assessment system based on support vector machine

如图2所示,根据本发明的一个实施例的基于支持向量机的团队协同状态评定系统用户界面操作方法流程图,依次包括四个界面:评定操作前(初始界面)、评定操作中(数据采集与处理界面)、评定操作中(在线评定界面)、评定操作后(输出结果界面),分别对应图3(a)至3(d)。具体说明如下。As shown in FIG. 2 , according to an embodiment of the present invention, the flow chart of the user interface operation method of the team collaboration state assessment system based on support vector machine includes four interfaces in turn: before the assessment operation (initial interface), during the assessment operation (data Acquisition and processing interface), during evaluation operation (online evaluation interface), and after evaluation operation (output result interface), respectively corresponding to Figures 3(a) to 3(d). The specific description is as follows.

如图3(a)至3(d)所示,为根据本发明的一个实施例的基于支持向量机的团队协同状态评定系统的用户界面示意图。As shown in FIGS. 3( a ) to 3 ( d ), it is a schematic diagram of a user interface of a team collaboration state assessment system based on a support vector machine according to an embodiment of the present invention.

进入基于支持向量机的团队协同状态评定系统后,评定操作前(初始界面)如图3(a)所示。该系统界面包括四个部分:标题、输入、状态、评定结果。标题部分为“团队协同状态在线评定系统”;输入部分包括测试编号输入栏以及“开始评定”按钮;状态部分能够显示系统运行状态;评定结果部分包括团队协同状态水平和评定结果输出栏,以及“保存数据”、“导出结果”和“关闭系统”三个按钮。After entering the team collaboration state assessment system based on support vector machine, the pre-assessment operation (initial interface) is shown in Figure 3(a). The system interface includes four parts: title, input, status, and evaluation result. The title part is "Online Evaluation System of Team Collaboration Status"; the input part includes the test number input field and the "Start Evaluation" button; the status part can display the operating status of the system; the evaluation result part includes the team cooperation state level and the evaluation result output column, and " Save data", "Export results" and "Close system" buttons.

实验开始时,由用户在测试编号栏输入测试编号,点击“开始评定”按钮,即可开始进行数据的采集与梳理,实验过程中,状态部分显示“数据采集与处理中…”,如图3(b)所示,为评定操作中(数据采集与处理界面)。At the beginning of the experiment, the user enters the test number in the test number column, and clicks the "Start Evaluation" button to start data collection and sorting. During the experiment, the status part displays "Data collection and processing...", as shown in Figure 3 As shown in (b), the evaluation is in operation (data acquisition and processing interface).

实验结束后,状态部分显示“数据采集与处理完成,在线评定中…”,表示开始对采集的数据进行在线分析,基于支持向量机分类评定团队协同状态水平,如图3(c)所示,为评定操作中(在线评定界面)。After the experiment is over, the status part will display "Data acquisition and processing completed, online assessment in progress...", which means that online analysis of the collected data is started, and the team collaboration status level is assessed based on support vector machine classification, as shown in Figure 3(c). For evaluation in operation (online evaluation interface).

在线评定完成后,状态部分显示“在线评定完成”,评定结果部分输出团队协同状态水平与评定结果。点击“保存数据”按钮即可对数据及评定结果保存,点击“导出结果”按钮即可导出测试编号以及对应的测试结果,点击“关闭系统”即可关闭团队协同状态在线评定系统,如图3(d)所示,为评定操作后(输出结果界面)。After the online assessment is completed, the status section displays "Online assessment completed", and the assessment results section outputs the team collaboration status level and assessment results. Click the "Save Data" button to save the data and evaluation results, click the "Export Results" button to export the test number and the corresponding test results, and click "Close System" to close the team collaboration status online assessment system, as shown in Figure 3 (d) shows after the evaluation operation (output result interface).

Claims (9)

1. A team cooperation state evaluation system based on a support vector machine is characterized by comprising:
data acquisition module for gather team's data information, include through user input collection team information, through the eye movement data of eye movement equipment collection team, through electrocardio equipment collection team's electrocardio data, through the video recording data to the activity video recording collection team, wherein:
the team information includes a team test number,
the team's eye movement data includes the raw eye movement data read in real time,
the electrocardiographic data of the team comprises real-time read original electrocardiographic data,
team video recording data includes full-range video and/or recorded video, including picture and audio,
the data interface module is used for receiving the data transmitted from the data acquisition module and converting and extracting the index characteristics, and comprises:
the data receiving and transmitting interface module is used for firstly setting UDP port numbers and Host addresses in the eye movement equipment and the electrocardio equipment, then establishing UDP data communication between the data interface module and the eye movement equipment and the electrocardio equipment through the data receiving and transmitting interface based on a C + + platform, reading original eye movement data collected by the eye movement equipment, reading original electrocardio data and extracting a communication text of a team cooperative communication audio;
the data storage module is used for storing the original eye movement data, the original electrocardiogram data and the extracted communication text which are collected in real time in a memory space;
the data conversion module is used for converting the indexes of the original eye movement data and the original electrocardio data and averaging the indexes, wherein the conversion of the indexes comprises the steps of converting the original eye movement data into eye movement characteristic index data comprising fixation rate, saccade rate, pupil diameter and average fixation time and converting the original electrocardio data into electrocardio characteristic index data comprising average heart rate, average RR interval, standardized low-frequency power and standardized high-frequency power,
the data interface module is also used for carrying out text analysis through text analysis software, counting the occurrence frequency of communication codes and word frequency data of communication keywords for communication texts to obtain communication text characteristic data,
the online evaluation module is used for performing online analysis and evaluation on the eye movement data of the team, the electrocardio data of the team and the communication text characteristic data of the team, and comprises:
the eye movement characteristic preprocessing module is used for reading eye movement characteristic index data sent by the data interface module, and performing standardized processing including null value and/or abnormal value elimination and preprocessing operation including standardized processing;
the electrocardio characteristic preprocessing module is used for reading electrocardio characteristic index data sent by the data interface module, and performing standardized processing including null value and/or abnormal value elimination and preprocessing operation including standardized processing;
the communication characteristic preprocessing module is used for reading communication text characteristic index data sent by the data interface module, and performing standardized processing including null value and/or abnormal value elimination and preprocessing operation including standardized processing;
the online evaluation classifier module is used for reading in standardized and normalized eye movement characteristic index data, electrocardiogram characteristic index data and communication text characteristic index data, and respectively transmitting the eye movement characteristic index data, the electrocardiogram characteristic index data and the communication text characteristic index data to three OAO support vector machines for online calculation: wherein:
the first OAO support vector machine SVM1 takes a vector corresponding to the high team cooperation state as a positive set +1, and takes a vector corresponding to the medium team cooperation state as a negative set-1;
the second OAO support vector machine SVM2 takes the vector corresponding to the high team cooperation state as a positive set +1, and takes the vector corresponding to the low team cooperation state as a negative set-1;
the third OAO support vector machine SVM3 takes the vector corresponding to the middle team cooperation state as a positive set +1, the vector corresponding to the low team cooperation state as a negative set-1,
SVM1, SVM2 and SVM3 are respectively calculated to obtain 3 classification results, namely classification 1, classification 2 and classification 3,
and determining the final classification result of the team collaborative state level by using a voting method, namely taking the result which appears most in the 3 classification results as the final classification result,
and the output report module is used for comprehensively outputting the team information and the final classification result.
2. The support vector machine-based team collaborative status assessment system according to claim 1, wherein:
team information is input through the user interface terminal,
the eye movement device comprises a wearable eye movement device,
the raw eye movement data includes raw spatial position coordinates of the eye movement, blink markers, gaze markers, glance markers,
the electrocardio-device comprises a wearable electrocardio-device,
the original electrocardio data comprises heart rate and electrocardio original waveform data.
3. The support vector machine-based team collaborative status assessment system of claim 1, wherein:
in the online evaluation classifier module, if the SVM1 judges that the team cooperation state is high, the SVM2 judges that the team cooperation state is high, and the SVM3 judges that the team cooperation state is medium, the final classification result is the high team cooperation state.
4. The support vector machine-based team collaborative status assessment system according to claim 1, wherein:
the data receiving and transmitting interface module reads original eye movement data at the frequency of 60Hz, reads original electrocardio data at the frequency of 1Hz, and extracts communication texts from communication audios in team experiments through audio analysis software.
5. The team cooperation state evaluation system based on the support vector machine is characterized by comprising the following steps of:
a) Gather the data information of team, include through user input gather team information, through the eye movement data of eye movement equipment collection team, through the electrocardio data of electrocardio equipment collection team, through the video recording data to the activity video recording collection team, wherein:
the team information includes a team test number,
the team's eye movement data includes the raw eye movement data read in real time,
the electrocardiographic data of the team comprises original electrocardiographic data read in real time,
team video recording data includes full-range video and/or recorded video, including picture and audio,
b) Receiving data transmitted from a data acquisition module and converting and extracting index characteristics, wherein the index characteristics comprise:
b1 Firstly, UDP port numbers and Host addresses in the eye movement equipment and the electrocardio equipment are set, then UDP data communication between a data interface module and the eye movement equipment and between the data interface module and the electrocardio equipment is established through a data receiving and sending interface based on a C + + platform, original eye movement data collected by the eye movement equipment are read, original electrocardio data are read, and communication texts are extracted from communication audios coordinated by a team;
b2 Storing the original eye movement data, the original electrocardio data and the extracted communication text which are collected in real time in a memory space;
b3 Original eye movement data and original electrocardio data are subjected to index conversion and averaged, the index conversion comprises the steps of converting the original eye movement data into eye movement characteristic index data comprising fixation rate, saccade rate, pupil diameter and average fixation time and converting the original electrocardio data into electrocardio characteristic index data comprising average heart rate, average RR interval, standardized low-frequency power and standardized high-frequency power,
c) Text analysis is carried out through text analysis software, the occurrence frequency of communication codes and word frequency data of communication keywords are counted for communication texts, communication text characteristic data are obtained,
d) Carrying out online analysis and evaluation on the eye movement data of the team, the electrocardio data of the team and the communication text characteristic data of the team, wherein the online analysis and evaluation comprises the following steps:
d1 Read in the eye movement characteristic index data sent in the data interface module, and carry on the normalization processing including null value and/or abnormal value rejection and include the preconditioning operation of the normalization processing;
d2 Read in the electrocardio characteristic index data sent in the data interface module, and carry out standardized processing including null value and/or abnormal value elimination and preprocessing operation including standardized processing;
d3 Read in the communication text characteristic index data sent in the data interface module, and carry out standardized processing including null value and/or abnormal value elimination, and preprocessing operation including standardized processing;
d4 The standardized and standardized eye movement characteristic index data, the standardized and standardized electrocardio characteristic index data and the standardized and communicated text characteristic index data are read in, and the eye movement characteristic index data, the electrocardio characteristic index data and the communicated text characteristic index data are respectively transmitted to three OAO support vector machines for online calculation: wherein:
the first OAO support vector machine SVM1 takes a vector corresponding to the high team cooperation state as a positive set +1, and takes a vector corresponding to the medium team cooperation state as a negative set-1;
the second OAO support vector machine SVM2 takes the vector corresponding to the high team cooperation state as a positive set +1, and takes the vector corresponding to the low team cooperation state as a negative set-1;
the third OAO support vector machine SVM3 takes the vector corresponding to the middle team cooperation state as a positive set +1, the vector corresponding to the low team cooperation state as a negative set-1,
d5 Respectively calculated by SVM1, SVM2 and SVM3 to obtain 3 classification results, namely classification 1, classification 2 and classification 3,
d6 Using voting to determine a final classification result of team collaborative status level, taking the most appeared result of the 3 classification results as the final classification result,
e) And comprehensively outputting the team information and the final classification result.
6. The support vector machine-based team collaborative status assessment method according to claim 5, wherein:
team information is input through the user interface terminal,
the eye movement device comprises a wearable eye movement device,
the raw eye movement data includes raw spatial position coordinates of the eye movement, blink marks, gaze marks, glance marks,
the electrocardio-device comprises a wearable electrocardio-device,
the original electrocardio data comprises heart rate and electrocardio original waveform data.
7. The support vector machine-based team collaborative status assessment method according to claim 5, wherein:
in the step D4), if the SVM1 is judged to be in the high team cooperation state, the SVM2 is judged to be in the high team cooperation state, the SVM3 is judged to be in the medium team cooperation state, and the final classification result is in the high team cooperation state.
8. The support vector machine-based team collaborative status assessment method according to claim 5, wherein:
in the step B1), reading original eye movement data at the frequency of 60Hz, reading original electrocardio data at the frequency of 1Hz, and extracting a communication text of a communication audio in a team experiment through audio analysis software.
9. A computer-readable storage medium storing a computer program enabling a processor to execute the support vector machine-based team collaborative status assessment method according to one of claims 5-9.
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