Biotelemetry devices such as GPS collars are animal-borne electronic tags used by pet carers, wildlife researchers, and farmers for remotely track movements and measure vital parameters in animals. Although humans are the users of such technology, the tags are physically carried by animals which are exposed to physical, physiological and behavioural impacts. This is problematic both on ethical and scientific grounds, as the animal’s welfare is undermined and the validity of collected data is biased. Even the most common tracking collars sold on the pet market can cause adverse effects on animal wearers.
As a case in point, in an evaluation of two different off-the-shelf tracking collars, we observed 13 cats under three different randomised conditions: while they where wearing one or the other tracker and while they were wearing nothing. Our findings show that cats scratched and shook their heads and bodies more when wearing the devices than when not wearing anything. The way in which they behaved during the observations also allowed us to find potential flaws in the design of the devices, and suggested implications as to which elements of the trackers could be re-designed to improve the wearability of these and other devices.
The aim of the project was to provide designers with a tool that would enable them to develop biotelemetry devices in a wearer-centred way and thus improve their wearability. The project delivered a wearer-centred design framework to establish requirements for designing animal wearables that are consistent with the needs of wearers. The framework was evaluated through design workshops and the redesign of animal wearables, highlighting significant wearability improvements against their off-the-shelf counterparts. The framework can be used to identify species-specific wearability requirements for new wearable devices, or to aid the analysis and refinement of requirements emerging from evaluation studies.
In our approach animal wearers are the main stakeholders in the biotelemetry design process, as we regard such a wearer-centred perspective essential to effectively improve the wearability of animal-borne tags and reduce device-induced effects.
For more information about the research underpinning the project, please refer to the related publications below:
Paci, P., Mancini, C., Price, B. (2020). Understanding the Interaction Between Animals and Wearables: the Wearer Experience of Cats. International Conference on Designing Interactive Systems, ACM DIS2020, ACM Press. Honorable Mention
Paci, P., Mancini, C., Price, B. (2019). Designing for wearability: an animal-centred framework. International Conference on Animal-Computer Interaction, ACI2019, in co-operation with ACM, ACM Digital Library.
Paci, P., Mancini, C., Price, B. (2019). Wearer-Centered Design for Animal Biotelemetry: Implementation and Wearability Test of a Prototype. Proc. International Symposium on Wearable Computing, ACM ISWC’19, ACM Press, pp. 177-185.
Paci P. A wearer-centred framework to design for wearability in animal biotelemetry. PhD Thesis, The Open University
Paci, P., Mancini, C., Price, B. (2017). The Role of Ethological Observation for Measuring Animal Reactions to Biotelemetry Devices. Proc. Fourth International Conference on Animal-Computer Interaction, ACI’17, ACM Digital Library, to appear.
Paci, P., Mancini, C., Price, B. (2016). Designing for Wearability in Animal Biotelemetry. Proc. International Conference on Animal-Computer Interaction, ACI2016, ACM Press.
Paci, P., Mancini, C., Price, B. (2016). Towards a Wearer-Centred Framework for Animal Biotelemetry. Symposium on Animal-Computer Interaction. Proc. Measuring Behaviour’16, Dublin University Press, pp. 440-443.