Automated Author Profile

Call, Mitchell

Current S-Index

2.3

Sum of Dataset Indices for all datasets

Average Dataset Index per Dataset

0.8

Average Dataset Index per dataset

Total Datasets

3

Total datasets for this author

Average FAIR Score

14.1%

Average FAIR Score per dataset

Total Citations

3

Total citations to the author's datasets

Total Mentions

0

Total mentions of the author's datasets

S-Index Interpretation

S-Index Over Time

Cumulative Citations Over Time

Cumulative Mentions Over Time

Datasets

Radon-traced pore-water as a potential source of CO2 and CH4 to receding black and clear water environments in the Amazon Basin

Here we report coupled, high resolution measurements of pCO2, CH4 and 222Rn during receding waters in the three major water types of the Central Amazon Basin: black (Negro River); clear (Tapajos River); white (Madeira River). Considerable spatial heterogeneity was observed in pCO2, CH4 and 222Rn concentrations ranging from 460 to 8030 uatm, 7 to 281 nM, and 713 to 8516 dpm m-3, respectively. the significant correlations between pCO2 and CH4 to 222Rn in the black and clear waters suggests that pore-water further enhanced CO2 supersaturation by 18 - 47 % and is a driver of CH4 dynamics in these waters.

Authors

  • Call, Mitchell
2 Citations0 Mentions13% FAIR1.2 Dataset Index
10.6084/m9.figshare.6267494January 2018

Radon-traced pore-water as a potential source of CO2 and CH4 to receding black and clear water environments in the Amazon Basin

Here we report coupled, high resolution measurements of pCO2, CH4 and 222Rn during receding waters in the three major water types of the Central Amazon Basin: black (Negro River); clear (Tapajos River); white (Madeira River). Considerable spatial heterogeneity was observed in pCO2, CH4 and 222Rn concentrations ranging from 460 to 8030 uatm, 7 to 281 nM, and 713 to 8516 dpm m-3, respectively. the significant correlations between pCO2 and CH4 to 222Rn in the black and clear waters suggests that pore-water further enhanced CO2 supersaturation by 18 - 47 % and is a driver of CH4 dynamics in these waters.

Authors

  • Call, Mitchell
1 Citation0 Mentions13% FAIR0.7 Dataset Index
10.6084/m9.figshare.6267494.v1January 2018

Radon-traced pore-water as a potential source of CO2 and CH4 to receding black and clear water environments in the Amazon Basin

Here we report coupled, high resolution measurements of pCO2, CH4 and 222Rn during receding waters in the three major water types of the Central Amazon Basin: black (Negro River); clear (Tapajos River); white (Madeira River). Considerable spatial heterogeneity was observed in pCO2, CH4 and 222Rn concentrations ranging from 460 to 8030 uatm, 7 to 281 nM, and 713 to 8516 dpm m-3, respectively. the significant correlations between pCO2 and CH4 to 222Rn in the black and clear waters suggests that pore-water further enhanced CO2 supersaturation by 18 - 47 % and is a driver of CH4 dynamics in these waters.

Authors

  • Call, Mitchell
0 Citations0 Mentions15% FAIR0.4 Dataset Index
10.6084/m9.figshare.6267494.v2January 2018