Touch-to-Touch Translation - Learning the Mapping Between Heterogeneous Tactile Sensing Technologies

The use of data-driven techniques for tactile data processing and classification has recently increased. However, collecting tactile data is a time-expensive and sensor-specific procedure. Indeed, due to the lack of hardware standards in tactile sensing, data is required to be collected for each different sensor. This paper considers the problem of learning the mapping between two tactile sensor outputs with respect to the same physical stimulus - we refer to this problem as touch-to-touch translation. In this respect, we proposed two data-driven approaches to address this task and we compared their performance. The first one exploits a generative model developed for image-to-image translation and adapted for this context. The second one uses a ResNet model trained to perform a regression task. We validated both methods using two completely different tactile sensors - a camera-based, Digit [1] and a capacitance-based, CySkin [2]. In particular, we used Digit images to generate the corresponding CySkin data. We trained the models on a set of tactile features that can be found in common larger objects and we performed the testing on a previously unseen set of data. Experimental results show the possibility of translating Digit images into the CySkin output by preserving the contact shape and with an error of 15.18% in the magnitude of the sensor responses.

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Publication Details

Published
2025-08-17
DOI
https://doi.org/10.1109/case58245.2025.11163952
Citations
1
Primary Topic
Architecture and Computational Design
Type
article
Field-Weighted Citation Impact
9.49
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article

Touch-to-Touch Translation - Learning the Mapping Between Heterogeneous Tactile Sensing Technologies

Alessandro Albini, Giorgio Cannata, Perla Maiolino, Francesco Grella
1 citations
Architecture and Computational Design
9.49
article

Touch-to-Touch Translation - Learning the Mapping Between Heterogeneous Tactile Sensing Technologies

Alessandro Albini, Giorgio Cannata, Perla Maiolino, Francesco Grella
article en
1 citations

Abstract

The use of data-driven techniques for tactile data processing and classification has recently increased. However, collecting tactile data is a time-expensive and sensor-specific procedure. Indeed, due to the lack of hardware standards in tactile sensing, data is required to be collected for each different sensor. This paper considers the problem of learning the mapping between two tactile sensor outputs with respect to the same physical stimulus - we refer to this problem as touch-to-touch translation. In this respect, we proposed two data-driven approaches to address this task and we compared their performance. The first one exploits a generative model developed for image-to-image translation and adapted for this context. The second one uses a ResNet model trained to perform a regression task. We validated both methods using two completely different tactile sensors - a camera-based, Digit [1] and a capacitance-based, CySkin [2]. In particular, we used Digit images to generate the corresponding CySkin data. We trained the models on a set of tactile features that can be found in common larger objects and we performed the testing on a previously unseen set of data. Experimental results show the possibility of translating Digit images into the CySkin output by preserving the contact shape and with an error of 15.18% in the magnitude of the sensor responses.

University of Oxford (GB), Science Oxford (GB), University of Genoa (IT)
Openalex Percentile: Top 2%
Architecture and Computational Design
9.49
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