Root activity may alter the temperature sensitivity (Q10) of soil respiration. However, we lack a comprehensive understanding of root effects on Q10 across different climatic regions and ecosystem types. Here, we conducted a global synthesis of 87 observations of Q10 values of soil respiration and its components from 40 published studies. We found that roots significantly enhanced Q10 of soil respiration because root and rhizosphere respiration was more temperature-sensitive than the respiration of root-free soil, especially in cold regions (mean annual temperature < 10 °C). Moreover, roots significantly enhanced Q10 of soil respiration in grassland and cropland but not in forest ecosystems. Overall, our results suggest that the positive ef...
types: Journal Article; Research Support, Non-U.S. Gov'tThis a post-print, author-produced version o...
Understanding the sensitivity of soil respiration to temperature change and its impacting factors is...
Soils store about four times as much carbon as plant biomass(1), and soil microbial respiration rele...
Adjustment of ecosystem root respiration to warmer climatic conditions can alter the autotrophic por...
Adjustment of ecosystem root respiration to warmer climatic conditions can alter the autotrophic por...
The temperature sensitivity of soil respiration (Q10) plays a key role in benchmarking the intensity...
Warming is expected to stimulate soil microbial respiration triggering a positive soil carbon-climat...
© 2016, National Academy of Sciences. All rights reserved. The respiratory release of carbon dioxide...
The respiratory release of carbon dioxide (CO2) from soil is a major yet poorly understood flux in t...
Aims: Respiration of sugar maple (Acer saccharum) surface fine roots has been shown to partially acc...
Soil respiration (SR) is highly sensitive to future climate change, and particularly to global warmi...
The response of root respiration to warmer soil can affect ecosystem carbon (C) allocation and the s...
The temperature response of ecosystem processes is key to understand and predict impacts of climate ...
The temperature dependence of soil respiration (R(S)) is widely used as a key characteristic of soil...
Increasing global temperatures could potentially cause large increases in root respiration and assoc...
types: Journal Article; Research Support, Non-U.S. Gov'tThis a post-print, author-produced version o...
Understanding the sensitivity of soil respiration to temperature change and its impacting factors is...
Soils store about four times as much carbon as plant biomass(1), and soil microbial respiration rele...
Adjustment of ecosystem root respiration to warmer climatic conditions can alter the autotrophic por...
Adjustment of ecosystem root respiration to warmer climatic conditions can alter the autotrophic por...
The temperature sensitivity of soil respiration (Q10) plays a key role in benchmarking the intensity...
Warming is expected to stimulate soil microbial respiration triggering a positive soil carbon-climat...
© 2016, National Academy of Sciences. All rights reserved. The respiratory release of carbon dioxide...
The respiratory release of carbon dioxide (CO2) from soil is a major yet poorly understood flux in t...
Aims: Respiration of sugar maple (Acer saccharum) surface fine roots has been shown to partially acc...
Soil respiration (SR) is highly sensitive to future climate change, and particularly to global warmi...
The response of root respiration to warmer soil can affect ecosystem carbon (C) allocation and the s...
The temperature response of ecosystem processes is key to understand and predict impacts of climate ...
The temperature dependence of soil respiration (R(S)) is widely used as a key characteristic of soil...
Increasing global temperatures could potentially cause large increases in root respiration and assoc...
types: Journal Article; Research Support, Non-U.S. Gov'tThis a post-print, author-produced version o...
Understanding the sensitivity of soil respiration to temperature change and its impacting factors is...
Soils store about four times as much carbon as plant biomass(1), and soil microbial respiration rele...