We investigated the occurrence of and mechanisms responsible for acclimation of fine‐root respiration of mature sugar maple (Acer saccharum) after 3+ years of experimental soil warming (+4 to 5 °C) in a factorial combination with soil moisture addition. Potential mechanisms for thermal respiratory acclimation included changes in enzymatic capacity, as indicated by root N concentration; substrate limitation, assessed by examining nonstructural carbohydrates and effects of exogenous sugar additions; and adenylate control, examined as responses of root respiration to a respiratory uncoupling agent. Partial acclimation of fine‐root respiration occurred in response to soil warming, causing specific root respiration to increase to a much lesser d...
The research described in this paper represents a part of a much broader research project with the g...
This DOE funded research concentrated on the investigation of the role of respiration and oxidative ...
Adjustment of ecosystem root respiration to warmer climatic conditions can alter the autotrophic por...
We investigated the occurrence of and mechanisms responsible for acclimation of fine‐root respiratio...
Aims: Respiration of sugar maple (Acer saccharum) surface fine roots has been shown to partially acc...
The response of root respiration to warmer soil can affect ecosystem carbon (C) allocation and the s...
Increasing global temperatures could potentially cause large increases in root respiration and assoc...
A changing global climate may impact the respiration of fine roots. While many models adjust fine ro...
It is well known that microbial-mediated soil respiration, the major source of CO2 from terrestrial ...
Sugar maple (Acer saccharum), an economically important timber and syrup species, is not expected to...
Root activities in terms of respiration and non-structural carbohydrates (NSC) storage and mobilizat...
Control of respiration has largely been studied with growing and/or photosynthetic tissues or organs...
The aim of this research was to identify the mechanisms that underpin changes in respiratory capacit...
Soil moisture deficits can reduce root respiration, but the effects have yet to be quantified at the...
Respiration represents a large flux of carbon from terrestrial vegetation to the atmosphere. Of the ...
The research described in this paper represents a part of a much broader research project with the g...
This DOE funded research concentrated on the investigation of the role of respiration and oxidative ...
Adjustment of ecosystem root respiration to warmer climatic conditions can alter the autotrophic por...
We investigated the occurrence of and mechanisms responsible for acclimation of fine‐root respiratio...
Aims: Respiration of sugar maple (Acer saccharum) surface fine roots has been shown to partially acc...
The response of root respiration to warmer soil can affect ecosystem carbon (C) allocation and the s...
Increasing global temperatures could potentially cause large increases in root respiration and assoc...
A changing global climate may impact the respiration of fine roots. While many models adjust fine ro...
It is well known that microbial-mediated soil respiration, the major source of CO2 from terrestrial ...
Sugar maple (Acer saccharum), an economically important timber and syrup species, is not expected to...
Root activities in terms of respiration and non-structural carbohydrates (NSC) storage and mobilizat...
Control of respiration has largely been studied with growing and/or photosynthetic tissues or organs...
The aim of this research was to identify the mechanisms that underpin changes in respiratory capacit...
Soil moisture deficits can reduce root respiration, but the effects have yet to be quantified at the...
Respiration represents a large flux of carbon from terrestrial vegetation to the atmosphere. Of the ...
The research described in this paper represents a part of a much broader research project with the g...
This DOE funded research concentrated on the investigation of the role of respiration and oxidative ...
Adjustment of ecosystem root respiration to warmer climatic conditions can alter the autotrophic por...