Metabolic processes have the potential to modulate the effects of ocean acidification (OA) in nearshore macroalgal beds. We investigated whether natural mixed assemblages of the articulate coralline macroalga Arthrocardia corymbosa and understory crustose coralline algae (CCA) altered pH and O₂ concentrations within and immediately above their canopies. In a unidirectional flume, we tested the effect of water velocity (0-0.1 ms⁻¹), bulk seawater pH (ambient pH 8.05, and pH 7.65), and irradiance (photosynthetically saturating light and darkness) on pH and O₂ concentration gradients, and the derived concentration boundary layer (CBL) thickness. At bulk seawater pH 7.65 and slow velocities (0 and 0.015 ms⁻¹), pH at the CCA surface increased to...
Seaweeds are able to modify the chemical environment at their surface, in a micro‐zone ...
Seaweeds are able to modify the chemical environment at their surface, in a micro‐zone ...
Despite the heightened awareness of ocean acidification (OA) effects on marine organisms, few studie...
Metabolic processes have the potential to modulate the effects of ocean acidification (OA) in nearsh...
Metabolic processes have the potential to modulate the effects of ocean acidification (OA) in nearsh...
Metabolic processes have the potential to modulate the effects of ocean acidification (OA) in nearsh...
Ocean acidification (hereafter OA) is the process of increasing surface seawater CO2 and decreasing ...
Macroalgae are able to modify their local environment via biological processes, thereby creating a d...
International audienceNatural variability in pH in the diffusive boundary layer (DBL), the discrete ...
Coralline algae are globally abundant components of benthic habitats and play foundational roles in ...
Anthropogenically-modulated reductions in pH, termed ocean acidification, could pose a major threat ...
Anthropogenically-modulated reductions in pH, termed ocean acidification, could pose a major threat ...
Seaweeds are able to modify the chemical environment at their surface, in a micro‐zone called the di...
Seaweeds are able to modify the chemical environment at their surface, in a micro‐zone ...
The physical environment plays a key role in facilitating the transfer of nutrients and dissolved ga...
Seaweeds are able to modify the chemical environment at their surface, in a micro‐zone ...
Seaweeds are able to modify the chemical environment at their surface, in a micro‐zone ...
Despite the heightened awareness of ocean acidification (OA) effects on marine organisms, few studie...
Metabolic processes have the potential to modulate the effects of ocean acidification (OA) in nearsh...
Metabolic processes have the potential to modulate the effects of ocean acidification (OA) in nearsh...
Metabolic processes have the potential to modulate the effects of ocean acidification (OA) in nearsh...
Ocean acidification (hereafter OA) is the process of increasing surface seawater CO2 and decreasing ...
Macroalgae are able to modify their local environment via biological processes, thereby creating a d...
International audienceNatural variability in pH in the diffusive boundary layer (DBL), the discrete ...
Coralline algae are globally abundant components of benthic habitats and play foundational roles in ...
Anthropogenically-modulated reductions in pH, termed ocean acidification, could pose a major threat ...
Anthropogenically-modulated reductions in pH, termed ocean acidification, could pose a major threat ...
Seaweeds are able to modify the chemical environment at their surface, in a micro‐zone called the di...
Seaweeds are able to modify the chemical environment at their surface, in a micro‐zone ...
The physical environment plays a key role in facilitating the transfer of nutrients and dissolved ga...
Seaweeds are able to modify the chemical environment at their surface, in a micro‐zone ...
Seaweeds are able to modify the chemical environment at their surface, in a micro‐zone ...
Despite the heightened awareness of ocean acidification (OA) effects on marine organisms, few studie...