Advertisement ยท 728 ร— 90
#
Hashtag
#DelmarvaDisco
Advertisement ยท 728 ร— 90
Preview
Tadpole aggregations create biogeochemical hotspots in wetland ecosystems This research demonstrates that tadpoles can create biogeochemical hotspots in wetland ecosystems and has important ramifications for our understanding of the functional role of animal species in nut....

Glad to share this recently published article in @animalecology.bsky.social led by Nick Corline on how "(wood frog) #tadpole aggregations create biogeochemical hotspots in (geographically isolated) #wetland ecosystems": besjournals.onlinelibrary.wiley.com/doi/10.1111/...

๐Ÿ’ง๐Ÿงช๐ŸŒŽ๐Ÿธ #DelmarvaDisco

38 16 1 1
Post image Post image Post image Post image

And just like that, our #DelmarvaDisco data collection is complete. Almost 10 years of science in these small, mysterious, and beautiful wetlands is done.

25 3 5 0
Fig 1 from the paper is a multi-panel plot showing the location of our study sites on the Delmarva peninsula of Maryland and within a landscape with many headwater headwater wetland complexes. The graph in the bottom right corner shows the range of wetland areas (<500, >5000 m2) and mean water levels (0.1-0.8m) at our core study sites.

Fig 1 from the paper is a multi-panel plot showing the location of our study sites on the Delmarva peninsula of Maryland and within a landscape with many headwater headwater wetland complexes. The graph in the bottom right corner shows the range of wetland areas (<500, >5000 m2) and mean water levels (0.1-0.8m) at our core study sites.

Three panel plot showing (a) lower CO2 concentrations in wetland surface water compared to shallow groundwater adjacent to each study wetland, (b) higher CH4 concentrations in wetland surface water compared to shallow groundwater, and (c) positive relationships between CO2 and CH4 for surface water (R2 = 0.2) and shallow groundwater (R2 = 0.4).

Three panel plot showing (a) lower CO2 concentrations in wetland surface water compared to shallow groundwater adjacent to each study wetland, (b) higher CH4 concentrations in wetland surface water compared to shallow groundwater, and (c) positive relationships between CO2 and CH4 for surface water (R2 = 0.2) and shallow groundwater (R2 = 0.4).

Six panel plot showing (a) no relationship between wetland area and CO2, (b) a positive relationship between wetland perimeter:area and CO2, (c) a slightly positive relationship between height above drainage network [HAND] and CO2, (d) a negative relationship between wetland area and CH4, (e) a positive relationship between  wetland perimeter:area and CH4, and (f) a positive relationship between height above drainage network [HAND] and CH4

Six panel plot showing (a) no relationship between wetland area and CO2, (b) a positive relationship between wetland perimeter:area and CO2, (c) a slightly positive relationship between height above drainage network [HAND] and CO2, (d) a negative relationship between wetland area and CH4, (e) a positive relationship between wetland perimeter:area and CH4, and (f) a positive relationship between height above drainage network [HAND] and CH4

Happy to share this paper led by @carlalopezpr.bsky.social assessing drivers of #CO2 & #CH4 in headwater #wetlands! Recently published #OA in #Ecosystems: link.springer.com/article/10.1...

#wetland #biogeochemistry #carbon #water #DelmarvaDisco
๐Ÿ’ง๐Ÿงช๐ŸŒŽ๐Ÿ‘ฉโ€๐Ÿ”ฌ

35 14 1 0