An autonomous and economical benthic incubation chamber for measuring dissolved oxygen fluxes in shallow, low‐flow environments

Abstract Benthic incubation chambers enclose a known volume of water overlying a known area to measure water chemistry changes and are typically used to quantify the metabolic activity of benthic organisms or communities. Here we present an economical benthic incubation chamber for shallow, low‐flow environments, built using off‐the‐shelf components, that minimizes three major limitations or challenges of traditional chamber designs. Our chamber design features: (1) non‐static mixing that avoids radial pressure gradient formation, (2) reduced unnatural shading of the benthic surface, and (3) easier field operation. We used commercially available dissolved oxygen sensors and programmable stirring motors, both oriented horizontally to minimize shading and eliminate rotational flow and radial pressure gradients. We provide design specifications and a complete materials list in a supplement to this paper. The chamber was tested successfully in bare sediment patches in temperate eelgrass meadows, capturing day‐night dissolved oxygen fluxes caused in part by dense benthic microalgal mats.

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Publication Details

Journal
Limnology and Oceanography Methods
Published
2026-02-22
DOI
https://doi.org/10.1002/lom3.70039
Primary Topic
Marine and coastal ecosystems
Type
article
Field-Weighted Citation Impact
0.00

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article

An autonomous and economical benthic incubation chamber for measuring dissolved oxygen fluxes in shallow, low‐flow environments

P.M. van den Berg, Robert J. Orth, Luke D. Groff
Limnology and Oceanography Methods
Marine and coastal ecosystems
article

An autonomous and economical benthic incubation chamber for measuring dissolved oxygen fluxes in shallow, low‐flow environments

P.M. van den Berg, Robert J. Orth, Luke D. Groff
article en

Abstract

Abstract Benthic incubation chambers enclose a known volume of water overlying a known area to measure water chemistry changes and are typically used to quantify the metabolic activity of benthic organisms or communities. Here we present an economical benthic incubation chamber for shallow, low‐flow environments, built using off‐the‐shelf components, that minimizes three major limitations or challenges of traditional chamber designs. Our chamber design features: (1) non‐static mixing that avoids radial pressure gradient formation, (2) reduced unnatural shading of the benthic surface, and (3) easier field operation. We used commercially available dissolved oxygen sensors and programmable stirring motors, both oriented horizontally to minimize shading and eliminate rotational flow and radial pressure gradients. We provide design specifications and a complete materials list in a supplement to this paper. The chamber was tested successfully in bare sediment patches in temperate eelgrass meadows, capturing day‐night dissolved oxygen fluxes caused in part by dense benthic microalgal mats.

Limnology and Oceanography Methods
University of Virginia (US)
National Science Foundation, Virginia Sea Grant, Virginia Institute of Marine Science
Openalex Percentile: Top 53%
Marine and coastal ecosystems
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