In this article, the authors propose a novel approach to robot adaptation that focuses on enhancing the user experience by guiding individuals towards a state of optimal engagement, known as the "flow zone." The flow zone is characterized by heightened focus, enjoyment, and performance, and is achieved when the user’s skills match the challenges of a task.
The authors begin by highlighting the importance of understanding the complex interplay between cognitive and affective factors that influence the user experience. They explain that cognitive factors, such as task challenge and skill level, impact the flow zone, while affective factors, such as anxiety and boredom, also play a significant role.
The authors then introduce their adaptation goal, which is designed to scaffold users towards the flow zone by adapting the robot’s behavior in real-time based on user feedback. The adaptation goal is grounded in the "flow experience" model, which shows how the ow state of an individual or group can be influenced by various constructs, such as focused attention and excitement.
To achieve this goal, the authors propose a dynamic role adaptation approach that enables the robot to adapt its behavior based on the user’s performance and emotional state. This approach involves continuously assessing the user’s progress towards the flow zone and adjusting the robot’s role accordingly. The authors illustrate how this approach can be applied in various contexts, such as education and entertainment, where the constructs of focused attention and excitement play critical roles.
The authors also address the challenge of balancing individual-level aective sub-objectives with the need to consider the constraints of available interaction time and resources. They propose using compositional distribution of sub-objectives to ensure that the robot’s adaptation goal is both ecient and effective in guiding users towards the flow zone.
Throughout the article, the authors provide engaging analogies and metaphors to demystify complex concepts and make them more accessible to a general audience. For instance, they compare the flow zone to a "sweet spot" where an athlete feels fully immersed in their performance, or a "harmonious balance" between skill and challenge.
In summary, this article presents a novel approach to robot adaptation that prioritizes enhancing user experience by guiding individuals towards the flow zone. The authors provide a detailed explanation of the complex interplay between cognitive and affective factors that influence the ow state and propose a dynamic role adaptation approach to adapt the robot’s behavior based on user feedback. By using engaging analogies and metaphors, the authors make this complex concept more accessible and easier to understand for a general audience.