Addresses CoNEXT artifact review comments

This release contains code and documentation to reproduce the experimental results as well as the raw data results of the camera-reayy version of the paper "Securing Name Resolution in the IoT: DNS over CoAP" published in Proceedings of the ACM on Networking (PACMNET).

• Martine S. Lenders, Christian Amsüss, Cenk Gündogan, Marcin Nawrocki, Thomas C. Schmidt, Matthias Wählisch. 2023. Securing Name Resolution in the IoT: DNS over CoAP, Proceedings of the ACM on Networking (PACMNET) 1, CoNEXT2, Article 6 (September 2023), 25 pages. https://doi.org/10.1145/3609423

Abstract

In this paper, we present the design, implementation, and analysis of DNS over CoAP (DoC), a new proposal for secure and privacy-friendly name resolution of constrained IoT devices. We implement different design choices of DoC in RIOT, an open-source operating system for the IoT, evaluate performance measures in a testbed, compare with DNS over UDP and DNS over DTLS, and validate our protocol design based on empirical DNS IoT data. Our findings indicate that plain DoC is on par with common DNS solutions for the constrained IoT but significantly outperforms when additional standard features of CoAP are used such as caching. With OSCORE, we can save more than 10 kBytes of code memory compared to DTLS, when a CoAP application is already present, and retain the end-to-end trust chain with intermediate proxies, while leveraging features such as group communication or encrypted en-route caching. We also discuss a compression scheme for very restricted links that reduces data by up to 70%.

Update CITATION.cff and licenses

This release contains code and documentation to reproduce the experimental results as well as the raw data results of the camera-reayy version of the paper "Securing Name Resolution in the IoT: DNS over CoAP" published in Proceedings of the ACM on Networking (PACMNET).

• Martine S. Lenders, Christian Amsüss, Cenk Gündogan, Marcin Nawrocki, Thomas C. Schmidt, Matthias Wählisch. 2023. Securing Name Resolution in the IoT: DNS over CoAP, Proceedings of the ACM on Networking (PACMNET) 1, CoNEXT2, Article 6 (September 2023), 25 pages. https://doi.org/10.1145/3609423

Abstract

In this paper, we present the design, implementation, and analysis of DNS over CoAP (DoC), a new proposal for secure and privacy-friendly name resolution of constrained IoT devices. We implement different design choices of DoC in RIOT, an open-source operating system for the IoT, evaluate performance measures in a testbed, compare with DNS over UDP and DNS over DTLS, and validate our protocol design based on empirical DNS IoT data. Our findings indicate that plain DoC is on par with common DNS solutions for the constrained IoT but significantly outperforms when additional standard features of CoAP are used such as caching. With OSCORE, we can save more than 10 kBytes of code memory compared to DTLS, when a CoAP application is already present, and retain the end-to-end trust chain with intermediate proxies, while leveraging features such as group communication or encrypted en-route caching. We also discuss a compression scheme for very restricted links that reduces data by up to 70%.

Initial version for camera ready version of paper

This release contains code and documentation to reproduce the experimental results as well as the raw data results of the camera-reayy version of the paper "Securing Name Resolution in the IoT: DNS over CoAP" published in Proceedings of the ACM on Networking (PACMNET).

• Martine S. Lenders, Christian Amsüss, Cenk Gündogan, Marcin Nawrocki, Thomas C. Schmidt, Matthias Wählisch. 2023. Securing Name Resolution in the IoT: DNS over CoAP, Proceedings of the ACM on Networking (PACMNET) 1, CoNEXT2, Article 6 (September 2023), 25 pages. https://doi.org/10.1145/3609423

Abstract

In this paper, we present the design, implementation, and analysis of DNS over CoAP (DoC), a new proposal for secure and privacy-friendly name resolution of constrained IoT devices. We implement different design choices of DoC in RIOT, an open-source operating system for the IoT, evaluate performance measures in a testbed, compare with DNS over UDP and DNS over DTLS, and validate our protocol design based on empirical DNS IoT data. Our findings indicate that plain DoC is on par with common DNS solutions for the constrained IoT but significantly outperforms when additional standard features of CoAP are used such as caching. With OSCORE, we can save more than 10 kBytes of code memory compared to DTLS, when a CoAP application is already present, and retain the end-to-end trust chain with intermediate proxies, while leveraging features such as group communication or encrypted en-route caching. We also discuss a compression scheme for very restricted links that reduces data by up to 70%.