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Main Authors: Tang, Cheng, Barradas, Diogo, Hengartner, Urs, Hu, Yue
Format: Preprint
Published: 2023
Subjects:
Online Access:https://arxiv.org/abs/2312.06802
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author Tang, Cheng
Barradas, Diogo
Hengartner, Urs
Hu, Yue
author_facet Tang, Cheng
Barradas, Diogo
Hengartner, Urs
Hu, Yue
contents This study examines privacy risks in collaborative robotics, focusing on the potential for traffic analysis in encrypted robot communications. While previous research has explored low-level command recovery in teleoperation setups, our work investigates high-level motion recovery from script-based control interfaces. We evaluate the efficacy of prominent website fingerprinting techniques (e.g., Tik-Tok, RF) and their limitations in accurately identifying robotic actions due to their inability to capture detailed temporal relationships. To address this, we introduce a traffic classification approach using signal processing techniques, demonstrating high accuracy in action identification and highlighting the vulnerability of encrypted communications to privacy breaches. Additionally, we explore defenses such as packet padding and timing manipulation, revealing the challenges in balancing traffic analysis resistance with network efficiency. Our findings emphasize the need for continued development of practical defenses in robotic privacy and security.
format Preprint
id arxiv_https___arxiv_org_abs_2312_06802
institution arXiv
publishDate 2023
record_format arxiv
spellingShingle On the Feasibility of Fingerprinting Collaborative Robot Network Traffic
Tang, Cheng
Barradas, Diogo
Hengartner, Urs
Hu, Yue
Cryptography and Security
Robotics
This study examines privacy risks in collaborative robotics, focusing on the potential for traffic analysis in encrypted robot communications. While previous research has explored low-level command recovery in teleoperation setups, our work investigates high-level motion recovery from script-based control interfaces. We evaluate the efficacy of prominent website fingerprinting techniques (e.g., Tik-Tok, RF) and their limitations in accurately identifying robotic actions due to their inability to capture detailed temporal relationships. To address this, we introduce a traffic classification approach using signal processing techniques, demonstrating high accuracy in action identification and highlighting the vulnerability of encrypted communications to privacy breaches. Additionally, we explore defenses such as packet padding and timing manipulation, revealing the challenges in balancing traffic analysis resistance with network efficiency. Our findings emphasize the need for continued development of practical defenses in robotic privacy and security.
title On the Feasibility of Fingerprinting Collaborative Robot Network Traffic
topic Cryptography and Security
Robotics
url https://arxiv.org/abs/2312.06802