Abstract

The sense of touch enables us to safely interact and control our contacts with our surroundings. Many technical systems and applications could profit from a similar type of sense. Yet, despite the emergence of e-skin systems covering more extensive areas, large-area realizations of e-skin effectively boosting applications are still rare. Recent advancements have improved the deployability and robustness of e-skin systems laying the basis for their scalability. However, the upscaling of e-skin systems introduces yet another challenge—the challenge of handling a large amount of heterogeneous tactile information with complex spatial relations between sensing points. We targeted this challenge and proposed an event-driven approach for large-area skin systems. While our previous works focused on the implementation and the experimental validation of the approach, this work now provides the consolidated foundations for realizing, designing, and understanding large-area event-driven e-skin systems for effective applications. This work homogenizes the different perspectives on event-driven systems and assesses the applicability of existing event-driven implementations in large-area skin systems. Additionally, we provide novel guidelines for tuning the novelty-threshold of event generators. Overall, this work develops a systematic approach towards realizing a flexible event-driven information handling system on standard computer systems for large-scale e-skin with detailed descriptions on the effective design of event generators and decoders. All designs and guidelines are validated by outlining their impacts on our implementations, and by consolidating various experimental results. The resulting system design for e-skin systems is scalable, efficient, flexible, and capable of handling large amounts of information without customized hardware. The system provides the feasibility of complex large-area tactile applications, for instance in robotics.

Highlights

  • The sense of touch plays an essential role in our lives and allows us to safely interact and control our contacts with our surroundings

  • Transforming the clock-driven to an event-driven e-skin system proved to be essential in the large-area deployment as we evaluated in Reference [40]

  • Our first realization of an e-skin system focused on providing a scalable, flexible, and robust platform with the multi-modal sensing capabilities to enable applications requiring tactile sensation similar to the human sense of touch [29,82]

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Summary

Introduction

The sense of touch plays an essential role in our lives and allows us to safely interact and control our contacts with our surroundings. The sense of touch allows us to characterize and evaluate contacts, but it allows us to locate contacts. It provides us with a tactile image of our interactions with the world. A deeper study of the sense of touch reveals its fundamental differences in comparison to our other senses. These differences eventually break down to two facts. The sense of touch spreads out its 5 million cutaneous receptors [2]

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