Digital Shadows and Twins for Human Experts and Data-Driven Services in a Framework of Democratic AI-based Decision Support

L. Paletta, Herwig Zeiner, M. Schneeberger, Y. Quadri
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Abstract

Current automated and hierarchical structured production processes can only insufficiently deal with the upcoming flexibilization, specifically regarding the requirements within Industry 5.0. The European project FAIRWork fosters the ‘democratization’ of decision-making in production processes, hence the participation of all involved stakeholders, by introducing a decentralized AI system. Hybrid decision-making faces the challenge first to digitally represent the relevant actors – here we propose the use of digital twins – and the interpretation of that digital twin, by a human expert or by a computer algorithm, to achieve better decisions. Research on existing sensors and data technology is required. In particular, the digital representation of human operators requires so called “Intelligent Sensor Boxes”.Method: ‘Intelligent Sensor Boxes’ are firstly determined by a dedicated group of sensors, such as, low-cost sensors, biosensors, wearables, human sensors, or even virtual sensors. Specific attention is dedicated to the development of the ‘Digital Human Sensor’ (DHS) applying AI-enabled Human Factors measurement technology. Each instantiation of a DHS provides a digital vector of Human Factors state estimates, such as, digital biomarkers on physiological strain, affective state, concentration, cognitive workload, situation awareness, fatigue. On the basis of these vectors, we determine cost function parameters associated with typical (inter-)actions in the work environment. We outline an advanced approach to represent cognitive strain by studying workload related to task switching, multitasking and interruption as well as monotony effects. Furthermore, we will investigate cognitive strain in the context of environmental parameters, such as, air quality, and combine IOT with wearable bio-sensor shirts, smartwatches with biosensors, eye tracking glasses, digital events, and spatiotemporal patterns from human-machine interaction. Cost functions for optimization algorithms can be related to well-being of the worker, this allows data processing with the goal to optimize according to several input factors using data that are derived from humans or from machines like lines and robots. Those data are described with corresponding meta data to result in a descriptive data lake. Such meta data correspond to domain specific models like the production process, the working environment model, or resources models. Data processing and optimization algorithms can then be applied on this data lake. This task complements existing data with human based sensor data and provided adapted data mining tools.Results: We present relevant methodologies for human-centered wearable or mobile measurement technologies for psychological and ecological constructs as typical instantiations of the novel framework. Furthermore, the embedding of the schema of ‘Intelligent Sensor Boxes’ into the framework of ‘Democratic AI-based Decision Support’ (DAI-DDS) is sketched and argued. An outlook on future research trajectories, in particular, in the context of the FAIRWork project, is outlined in detail, and Ethical guidelines are discussed. Experimentation Laboratories, such as, the Austrian Human Factors Lab, are not only considered and presented as a co-creation space to develop new ideas, but also as test, training and communication environment for and between all stakeholders of an innovation chain. Conclusion: The framework and development of ‘Intelligent Sensor Boxes’ with data quality control and including decision modules is described in the context of its relevance within production related environments. ‘Digital Human Sensors’ applying AI-enabled digital Human Factors measurement technology will represent key drivers in the novel Industry 5.0 era.
基于民主人工智能的决策支持框架中人类专家和数据驱动服务的数字阴影和孪生
当前的自动化和分层结构化生产流程只能不足以应对即将到来的灵活性,特别是关于工业5.0中的要求。欧洲FAIRWork项目通过引入分散的人工智能系统,促进了生产过程中决策的“民主化”,从而使所有相关利益相关者都参与进来。混合决策首先面临的挑战是以数字方式代表相关参与者——在这里我们建议使用数字双胞胎——以及由人类专家或计算机算法对数字双胞胎的解释,以实现更好的决策。需要对现有的传感器和数据技术进行研究。特别是,人类操作员的数字表示需要所谓的“智能传感器盒”。方法:“智能传感器盒”首先由一组专门的传感器确定,例如低成本传感器,生物传感器,可穿戴设备,人体传感器,甚至虚拟传感器。特别关注应用人工智能人为因素测量技术的“数字人体传感器”(DHS)的开发。DHS的每个实例都提供了人为因素状态估计的数字向量,例如生理应变、情感状态、注意力、认知工作量、情境意识、疲劳等方面的数字生物标志物。在这些向量的基础上,我们确定了与工作环境中典型(相互)行为相关的成本函数参数。我们通过研究与任务切换、多任务处理和中断以及单调效应相关的工作量,概述了一种表征认知压力的高级方法。此外,我们将研究环境参数(如空气质量)背景下的认知应变,并将物联网与可穿戴生物传感器衬衫、带有生物传感器的智能手表、眼动追踪眼镜、数字事件和人机交互的时空模式相结合。优化算法的成本函数可能与工人的福祉有关,这使得数据处理的目标是根据使用来自人类或生产线和机器人等机器的数据的几个输入因素进行优化。这些数据用相应的元数据进行描述,从而形成描述性数据湖。这些元数据对应于特定领域的模型,如生产过程、工作环境模型或资源模型。然后,数据处理和优化算法可以应用于该数据湖。该任务用基于人的传感器数据补充了现有数据,并提供了适应的数据挖掘工具。结果:我们提出了以人为中心的可穿戴或移动测量技术的相关方法,用于心理和生态结构,作为新框架的典型实例。此外,将“智能传感器盒”模式嵌入到“基于民主人工智能的决策支持”(DAI-DDS)框架中进行了概述和论证。展望未来的研究轨迹,特别是在FAIRWork项目的背景下,详细概述,并讨论了伦理准则。实验实验室,如奥地利人因实验室,不仅被认为是开发新想法的共同创造空间,而且也是创新链中所有利益相关者之间的测试、培训和交流环境。结论:具有数据质量控制和包括决策模块的“智能传感器盒”的框架和开发在其与生产相关环境的相关性背景下进行了描述。“数字人体传感器”应用人工智能支持的数字人为因素测量技术,将成为工业5.0时代的关键驱动力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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