Hyporheic hydraulic geometry: Conceptualizing relationships among hyporheic exchange, storage, and water age.
Hyporheic exchange is now widely acknowledged as a key driver of ecosystem processes in many streams. Yet stream ecologists have been slow to adopt nuanced hydrologic frameworks developed and applied by engineers and hydrologists to describe the relationship between water storage, water age, and wat...
Main Authors: | , , , , , , , |
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Format: | Article |
Language: | English |
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Public Library of Science (PLoS)
2022-01-01
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Series: | PLoS ONE |
Online Access: | https://doi.org/10.1371/journal.pone.0262080 |
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author | Geoffrey C Poole S Kathleen Fogg Scott J O'Daniel Byron E Amerson Ann Marie Reinhold Samuel P Carlson Elizabeth J Mohr Hayley C Oakland |
author_facet | Geoffrey C Poole S Kathleen Fogg Scott J O'Daniel Byron E Amerson Ann Marie Reinhold Samuel P Carlson Elizabeth J Mohr Hayley C Oakland |
author_sort | Geoffrey C Poole |
collection | DOAJ |
description | Hyporheic exchange is now widely acknowledged as a key driver of ecosystem processes in many streams. Yet stream ecologists have been slow to adopt nuanced hydrologic frameworks developed and applied by engineers and hydrologists to describe the relationship between water storage, water age, and water balance in finite hydrosystems such as hyporheic zones. Here, in the context of hyporheic hydrology, we summarize a well-established mathematical framework useful for describing hyporheic hydrology, while also applying the framework heuristically to visualize the relationships between water age, rates of hyporheic exchange, and water volume within hyporheic zones. Building on this heuristic application, we discuss how improved accuracy in the conceptualization of hyporheic exchange can yield a deeper understanding of the role of the hyporheic zone in stream ecosystems. Although the equations presented here have been well-described for decades, our aim is to make the mathematical basis as accessible as possible and to encourage broader understanding among aquatic ecologists of the implications of tailed age distributions commonly observed in water discharged from and stored within hyporheic zones. Our quantitative description of "hyporheic hydraulic geometry," associated visualizations, and discussion offer a nuanced and realistic understanding of hyporheic hydrology to aid in considering hyporheic exchange in the context of river and stream ecosystem science and management. |
first_indexed | 2024-12-24T03:01:32Z |
format | Article |
id | doaj.art-06eef8b0a6cb470f9dcaaae01f9d1ccb |
institution | Directory Open Access Journal |
issn | 1932-6203 |
language | English |
last_indexed | 2024-12-24T03:01:32Z |
publishDate | 2022-01-01 |
publisher | Public Library of Science (PLoS) |
record_format | Article |
series | PLoS ONE |
spelling | doaj.art-06eef8b0a6cb470f9dcaaae01f9d1ccb2022-12-21T17:18:11ZengPublic Library of Science (PLoS)PLoS ONE1932-62032022-01-01171e026208010.1371/journal.pone.0262080Hyporheic hydraulic geometry: Conceptualizing relationships among hyporheic exchange, storage, and water age.Geoffrey C PooleS Kathleen FoggScott J O'DanielByron E AmersonAnn Marie ReinholdSamuel P CarlsonElizabeth J MohrHayley C OaklandHyporheic exchange is now widely acknowledged as a key driver of ecosystem processes in many streams. Yet stream ecologists have been slow to adopt nuanced hydrologic frameworks developed and applied by engineers and hydrologists to describe the relationship between water storage, water age, and water balance in finite hydrosystems such as hyporheic zones. Here, in the context of hyporheic hydrology, we summarize a well-established mathematical framework useful for describing hyporheic hydrology, while also applying the framework heuristically to visualize the relationships between water age, rates of hyporheic exchange, and water volume within hyporheic zones. Building on this heuristic application, we discuss how improved accuracy in the conceptualization of hyporheic exchange can yield a deeper understanding of the role of the hyporheic zone in stream ecosystems. Although the equations presented here have been well-described for decades, our aim is to make the mathematical basis as accessible as possible and to encourage broader understanding among aquatic ecologists of the implications of tailed age distributions commonly observed in water discharged from and stored within hyporheic zones. Our quantitative description of "hyporheic hydraulic geometry," associated visualizations, and discussion offer a nuanced and realistic understanding of hyporheic hydrology to aid in considering hyporheic exchange in the context of river and stream ecosystem science and management.https://doi.org/10.1371/journal.pone.0262080 |
spellingShingle | Geoffrey C Poole S Kathleen Fogg Scott J O'Daniel Byron E Amerson Ann Marie Reinhold Samuel P Carlson Elizabeth J Mohr Hayley C Oakland Hyporheic hydraulic geometry: Conceptualizing relationships among hyporheic exchange, storage, and water age. PLoS ONE |
title | Hyporheic hydraulic geometry: Conceptualizing relationships among hyporheic exchange, storage, and water age. |
title_full | Hyporheic hydraulic geometry: Conceptualizing relationships among hyporheic exchange, storage, and water age. |
title_fullStr | Hyporheic hydraulic geometry: Conceptualizing relationships among hyporheic exchange, storage, and water age. |
title_full_unstemmed | Hyporheic hydraulic geometry: Conceptualizing relationships among hyporheic exchange, storage, and water age. |
title_short | Hyporheic hydraulic geometry: Conceptualizing relationships among hyporheic exchange, storage, and water age. |
title_sort | hyporheic hydraulic geometry conceptualizing relationships among hyporheic exchange storage and water age |
url | https://doi.org/10.1371/journal.pone.0262080 |
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