Saved in:
Bibliographic Details
Main Authors: Gill, Taylor J, Jankulak, Mike, Osborne, John, Kiel, Patrick M, Palacio-Castro, Ana M, Enochs, Ian C
Format: Artículo científico
Language:en
Published: HardwareX 2026
Online Access:https://pubmed.ncbi.nlm.nih.gov/42027796/
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1868266056187904000
author Gill, Taylor J
Jankulak, Mike
Osborne, John
Kiel, Patrick M
Palacio-Castro, Ana M
Enochs, Ian C
author_facet Gill, Taylor J
Jankulak, Mike
Osborne, John
Kiel, Patrick M
Palacio-Castro, Ana M
Enochs, Ian C
Gill, Taylor J
Jankulak, Mike
Osborne, John
Kiel, Patrick M
Palacio-Castro, Ana M
Enochs, Ian C
collection PubMed - marine biology
contents Real-time acidification monitoring through Sofar buoy and SAMI-pH integration. Gill, Taylor J Jankulak, Mike Osborne, John Kiel, Patrick M Palacio-Castro, Ana M Enochs, Ian C Ocean acidification (OA) impairs the ability of corals to build and maintain reef structures by reducing calcium carbonate deposition and accelerating the dissolution of existing frameworks. OA conditions can result from both natural pH fluctuations, driven by diel and seasonal variability in biological activity and water quality, and long-term increases in atmospheric CO absorption. Accurate characterization of OA requires precise, high-frequency time-series data, particularly in nearshore ecosystems where benthic community metabolism can cause rapid, localized shifts in carbonate chemistry. However, continuous, high-resolution pH monitoring remains challenging, and most existing technologies lack real-time feedback capabilities. Here, we present a real-time acidification monitoring system that integrates a Sofar Spotter buoy with a Sunburst SAMI-pH sensor. The system delivers continuous environmental data (benthic pH and temperature, surface temperature, wind, wave height, and barometric pressure) and sensor health diagnostics (battery levels and cellular connectivity status) to a public-facing dashboard. This system enables real-time access to high-frequency pH data and provides a modular and cost-effective alternative to larger, more complex platforms such as MAPCO buoys. Increased accessibility supports broader and more scalable monitoring efforts, supporting scientists, resource managers, and policymakers in tracking diel, seasonal, and long-term OA dynamics.
format Artículo científico
id pubmed_42027796
institution PubMed
language en
publishDate 2026
publisher HardwareX
record_format pubmed
spellingShingle Real-time acidification monitoring through Sofar buoy and SAMI-pH integration.
Gill, Taylor J
Jankulak, Mike
Osborne, John
Kiel, Patrick M
Palacio-Castro, Ana M
Enochs, Ian C
Real-time acidification monitoring through Sofar buoy and SAMI-pH integration. Gill, Taylor J Jankulak, Mike Osborne, John Kiel, Patrick M Palacio-Castro, Ana M Enochs, Ian C Ocean acidification (OA) impairs the ability of corals to build and maintain reef structures by reducing calcium carbonate deposition and accelerating the dissolution of existing frameworks. OA conditions can result from both natural pH fluctuations, driven by diel and seasonal variability in biological activity and water quality, and long-term increases in atmospheric CO absorption. Accurate characterization of OA requires precise, high-frequency time-series data, particularly in nearshore ecosystems where benthic community metabolism can cause rapid, localized shifts in carbonate chemistry. However, continuous, high-resolution pH monitoring remains challenging, and most existing technologies lack real-time feedback capabilities. Here, we present a real-time acidification monitoring system that integrates a Sofar Spotter buoy with a Sunburst SAMI-pH sensor. The system delivers continuous environmental data (benthic pH and temperature, surface temperature, wind, wave height, and barometric pressure) and sensor health diagnostics (battery levels and cellular connectivity status) to a public-facing dashboard. This system enables real-time access to high-frequency pH data and provides a modular and cost-effective alternative to larger, more complex platforms such as MAPCO buoys. Increased accessibility supports broader and more scalable monitoring efforts, supporting scientists, resource managers, and policymakers in tracking diel, seasonal, and long-term OA dynamics.
title Real-time acidification monitoring through Sofar buoy and SAMI-pH integration.
url https://pubmed.ncbi.nlm.nih.gov/42027796/