Journal of Resources and Ecology ›› 2019, Vol. 10 ›› Issue (2): 202-212.DOI: 10.5814/j.issn.1674-764X.2019.02.011
• Ecosystem Monitoring and Service • Previous Articles Next Articles
CAO Yingqiu1, ZHANG Zhen1,*(), XU Li2, CHEN Zhi2, HE Nianpeng2,3,4,*(
)
Received:
2018-12-10
Accepted:
2019-01-30
Online:
2019-03-30
Published:
2019-03-30
Contact:
ZHANG Zhen,HE Nianpeng
Supported by:
CAO Yingqiu,ZHANG Zhen,XU Li,CHEN Zhi,HE Nianpeng. Temperature Affects New Carbon Input Utilization by Soil Microbes: Evidence based on a Rapid δ13C Measurement Technology[J]. Journal of Resources and Ecology, 2019, 10(2): 202-212.
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Fig. 1 Changes in the respiration rate using glucose (Rg, (a)) and soil organic matter (Rs, (b)), and the total respiration rate (Rt, (c)) in a glucose addition treatment conducted at a minute scale.Note: Here, Rt = Rg + Rs; triangular symbols represent the data points of the initial respiration rate without glucose addition.
Fig. 2 The Rg-max, Rs-max, Rt-max, TRg-max, TRs-max, and TRt-max at different temperatures.Note: Rg-max, Rs-max, Rt-max represent the maximum value of glucose soil respiration rate within the 48 h test period, soil organic matter respiration rate, and total soil respiration rate, respectively; TRg-max, TRs-max, and TRt-max represent the time required to reach the Rg-max, Rs-max, and Rt-max, respectively, after glucose addition. Columns with the same lowercase letters are not significantly different at the P < 0.05.
Fig. 3 The changing trend for the ratio of Rg/Rs at different incubation temperaturesNote: Rg, the respiration rate while using glucose as the respiratory substrate; Rs, the respiration rate while using soil organic matter as the respiratory substrate.
Fig. 4 Changes in the ratio of Rg/Rt and Rs/Rt at different incubation temperaturesNote: Rg, the respiration rate while using glucose as the respiratory substrate; Rs, the respiration rate while using soil organic matter as the respiratory substrate; Rt = Rg + Rs.
Fig. 5 The accumulation of C emission from Rg, Rs, and Rt within 48 h at different temperatures.Note: Rt, total soil respiration rate; Rg, the respiration rate while using glucose as the respiratory substrate; Rs, the respiration rate while using soil organic matter as the respiratory substrate. Columns with the same lowercase letters are not significantly different at the P < 0.05 level.
Fig. 6 The relationship of the absolute changes in Rt (ΔRt), Rg (ΔRg), Rg/Rt (ΔRg/Rt), Rs/Rt (ΔRs/Rt), and Rg/Rs (ΔRg/Rs) with temperature under adequate substrate supply.Note: Rt, total soil respiration rate; Rg, the respiration rate while using glucose as the respiratory substrate; Rs, the respiration rate while using soil organic matter as the respiratory substrate; Rg/Rs, the ratio of Rg and Rs; Rg/Rt, the ratio of Rg and Rt; Rs/Rt, the ratio of Rs and Rt.
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