Active Observer Visual Problem-Solving Methods are Dynamically Hypothesized, Deployed and Tested
Markus D. Solbach, John K. Tsotsos

TL;DR
This study explores how humans actively solve complex 3D visuospatial problems, revealing diverse strategies and the importance of active observation, which informs the development of the STAR cognitive architecture.
Contribution
It introduces a novel experimental setup to analyze human active observation strategies in 3D tasks, extending the STAR model to real-world scenarios.
Findings
Humans use diverse, complex problem-solving strategies.
Active observation plays a crucial role in task solving.
No significant learning effect observed across trials.
Abstract
The STAR architecture was designed to test the value of the full Selective Tuning model of visual attention for complex real-world visuospatial tasks and behaviors. However, knowledge of how humans solve such tasks in 3D as active observers is lean. We thus devised a novel experimental setup and examined such behavior. We discovered that humans exhibit a variety of problem-solving strategies whose breadth and complexity are surprising and not easily handled by current methodologies. It is apparent that solution methods are dynamically composed by hypothesizing sequences of actions, testing them, and if they fail, trying different ones. The importance of active observation is striking as is the lack of any learning effect. These results inform our Cognitive Program representation of STAR extending its relevance to real-world tasks.
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Taxonomy
TopicsSpatial Cognition and Navigation · Gaze Tracking and Assistive Technology · Visual perception and processing mechanisms
