This framework connects marine mussel distribution and carbon sequestration with smart wearable technology, suggesting new paths for environmental monitoring.
Marine mussels contribute to blue carbon through biogenic calcification and filtration that enhance carbon burial in coastal sediments. Their ecological role is important yet under-quantified in many regions. Here, we present a practical framework that links mussel ecology with smart wearable sensing to enable continuous in situ observation of environmental drivers and organism responses relevant to carbon sequestration. We specify sensor modalities such as ion-sensitive field effect transistor pH, optical dissolved oxygen, temperature, salinity, turbidity, and inertial shell gape sensing. We detail device form factors for mussel-attached tags and habitat-mounted modules on buoys and autonomous platforms. Mussel-inspired adhesives and hydrogels are used as functional coatings for underwater attachment, encapsulation, and biofouling resistance. We describe renewable energy harvesting, energy storage, and power management for long deployments, together with an Internet of Things data pipeline, edge preprocessing, and cloud-based time series modeling and anomaly detection. We set measurable accuracy and resolution targets and a validation plan against standard instruments. The approach supports environmental, social, and governance reporting, aquaculture management, and citizen science. We discuss anti-biofouling strategies, ethics of bio-tagging, comparison with conventional monitoring, and future directions for robust blue carbon observatories.
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Yap et al. (2025) studied this question.
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