Zoekresultaten

IMPROVING USER'S CONFIDENCE TO ACT WHEN USING ADVICE ALGORITHMS THROUGH INTERACTIVE USE OF COUNTERFACTUALS

In this paper, we explore the design of web-based advice robots to enhance users' confidence in acting upon the provided advice. Drawing from research on algorithm acceptance and explainable AI, we hypothesise four design principles that may encourage interactivity and exploration, thus fostering users' confidence to act. Through a value-oriented prototype experiment and valueoriented semi-structured interviews, we tested these principles, confirming three of them and identifying an additional principle. The four resulting principles: (1) put context questions and resulting advice on one page and allow live, iterative exploration, (2) use action or change oriented questions to adjust the input parameters, (3) actively offer alternative scenarios based on counterfactuals, and (4) show all options instead of only the recommended one(s), appear to contribute to the values of agency and trust. Our study integrates the Design Science Research approach with a Value Sensitive Design approach.

Design specifications for a social robot math tutor

To benefit from the social capabilities of a robot math tutor, instead of being distracted by them, a novel approach is needed where the math task and the robot's social behaviors are better intertwined. We present concrete design specifications of how children can practice math via a personal conversation with a social robot and how the robot can scaffold instructions. We evaluated the designs with a three-session experimental user study (n = 130, 8-11 y.o.). Participants got better at math over time when the robot scaffolded instructions. Furthermore, the robot felt more as a friend when it personalized the conversation.

Technical evaluation - background report pilot autonomous and electric delivery robot at BUas campus.

Collaborative Robots Entering the Factory Floor

Using the latest industrial robot technology, the collaborative robot (cobot), industrial manufacturers work towards high-mix low-volume production systems that could satisfy a diversifying customer demand. As the utilization of the cobot’s potential depends on the dynamic interaction with operators, one would expect HR professionals to play a central role in this implementation process. However, cobot-related literature is unanimous: HR is not involved. This is in line with the results of our study in 2019 on seventeen cobot experiments in Dutch industrial manufacturing companies. To explore what human cobot collaboration emerges when engineers and line managers take the lead in their design, we revisited the data from our previous interview study (N=53). HR was absent in all implementations. We found that line managers and engineers prepared operators for rigid human-cobot collaborations that were aimed at getting the cobot to work, enhancing production efficiency and handling a few batches of mass-produced goods (low-mix, high-volume). Furthermore, the collaborations all showed signs of being difficult to sustain over time and posed a direct threat to operators’ well-being. To protect operators’ future of work and build towards interdependent human-cobot collaboration suitable for high-mix low-volume production, we propose an approach in which operators themselves, and HR too, are much more involved in the cobot implementation process. Operators should be allowed and supported to design, program, operate, and repair as much of their human-cobot workstations themselves as possible. To support this, HR has to familiarize itself with the cobot technology, secure operators’ decision latitude, facilitate the required support, and become the work design expert that helps operators co-design sustainable cobot applications that optimally utilize the strengths of both man and machine.

The role of robotization in work design

Robots are increasingly used in a variety of work environments, but surprisingly little attention has been paid to how robots change work. In this comparative case study, we explore how robotization changed the work design of order pickers and order packers in eight logistic warehouses. We found that all warehouses robotized tasks based on technological functionality to increase efficiency, which sometimes created jobs consisting of ‘left-over tasks’. Only two warehouses used a bottom-up approach, where employees were involved in the implementation and quality of work was considered important. Although the other warehouses did not, sometimes their work design still benefitted from robotization. The positive effects we identified are reduced physical and cognitive demands and opportunities for upskilling. Warehouses that lack attention to the quality of work may risk ending up with the negative effects for employees, such as simplification and intensification of work, and reduced autonomy. We propose that understanding the consequences of robots on work design supports HR professionals to help managing this transition by both giving relevant input on a strategic level about the importance of work design and advocating for employees and their involvement.

Handbook for Strategic City-University co-operation

Worldwide, there is a growing recognition that strategic partnering between cities and universities can bring substantial benefits for both sides. The big question is how to organize such partnerships successfully. This handbook offers insights, best practices and advice for leaders in cities and universities that want to go beyond “ad hoc” projects and take the next step towards a strategic and sustainable partnership. The handbook identifies promising avenues, but also barriers and pitfalls and how to avoid them. Illustrated by a rich variety of examples from European cities, the handbook provides concrete advice on the various stages of strategic city-university collaboration. This handbook intends to provide inspiring practices and guidance to develop strategic interaction between city and university, considering the complex and layered nature of both. The focus lies on the more strategic, transformational types of collaborations, that are more complex.