Biochar-fertilizer interaction increases nitrogen retention, uptake and use efficiency of cinnamomum camphora: A 15N tracer study

The excessive application of nitrogen (N) fertilizers can have detrimental environmental and economic impacts. Enhancing N use efficiency (NUE) through biochar application may help mitigate these losses while promoting plant growth. However, different biochar types may influence NUE differently. To...

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Published inGeoderma Regional Vol. 40; p. e00936
Main Authors Guo, Yuxuan, Samson, Victor Manna, Zhi, Yetong, Chen, Yulin, Yang, Xi, Jia, Guanghao, Mao, Yanling
Format Journal Article
LanguageEnglish
Published Elsevier B.V 01.03.2025
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Abstract The excessive application of nitrogen (N) fertilizers can have detrimental environmental and economic impacts. Enhancing N use efficiency (NUE) through biochar application may help mitigate these losses while promoting plant growth. However, different biochar types may influence NUE differently. To investigate these effects, a greenhouse pot experiment was conducted to assess the impact of two biochar types on N dynamics. Four treatments were applied: control (CK), fertilizer (F), sawdust biochar + fertilizer (SBF), and rice straw biochar + fertilizer (RBF). A 15N tracer technique was used to evaluate N accumulation and NUE in C. camphora. Results indicated that biochar-fertilizer combinations significantly improved soil inorganic N (NH4+-N and NO3−-N) retention, this was attributed to biochar's high surface area and functional groups enhancing N ion sorption. Additionally, biochar-amended treatments (RBF and SBF) increased soil total N, 15N content and plant N uptake. Notably, by the final sampling period, plant total N content in the RBF treatment was 34.62 %, 16.67 %, and 9.38 % higher than in CK, F, and SBF treatments, respectively. Furthermore, 15N content in the RBF treatment was significantly greater than in SBF and F, showing increases of 26.51 % and 30.19 %, respectively. Biochar application also markedly improved NUE, with increases of 103.77 % and 27.86 % in RBF and SBF treatments, respectively, compared to the F. Similarly, soil fertilizer N recovery was 49.92 % and 43.94 % higher in RBF and SBF soils, respectively, than in F. The enhanced urease and protease activity in biochar-amended soils likely contributed to these improvements in fertilizer recovery and NUE. Overrall, our findings demonstrate that first the magnitude of N retention and NUE enhancement varies with biochar type. Second, combining biochar with fertilizer improves fertilizer N retention, NUE, and recovery, ultimately enhancing C. camphora productivity.
AbstractList The excessive application of nitrogen (N) fertilizers can have detrimental environmental and economic impacts. Enhancing N use efficiency (NUE) through biochar application may help mitigate these losses while promoting plant growth. However, different biochar types may influence NUE differently. To investigate these effects, a greenhouse pot experiment was conducted to assess the impact of two biochar types on N dynamics. Four treatments were applied: control (CK), fertilizer (F), sawdust biochar + fertilizer (SBF), and rice straw biochar + fertilizer (RBF). A ¹⁵N tracer technique was used to evaluate N accumulation and NUE in C. camphora. Results indicated that biochar-fertilizer combinations significantly improved soil inorganic N (NH₄⁺-N and NO₃⁻-N) retention, this was attributed to biochar's high surface area and functional groups enhancing N ion sorption. Additionally, biochar-amended treatments (RBF and SBF) increased soil total N, ¹⁵N content and plant N uptake. Notably, by the final sampling period, plant total N content in the RBF treatment was 34.62 %, 16.67 %, and 9.38 % higher than in CK, F, and SBF treatments, respectively. Furthermore, ¹⁵N content in the RBF treatment was significantly greater than in SBF and F, showing increases of 26.51 % and 30.19 %, respectively. Biochar application also markedly improved NUE, with increases of 103.77 % and 27.86 % in RBF and SBF treatments, respectively, compared to the F. Similarly, soil fertilizer N recovery was 49.92 % and 43.94 % higher in RBF and SBF soils, respectively, than in F. The enhanced urease and protease activity in biochar-amended soils likely contributed to these improvements in fertilizer recovery and NUE. Overrall, our findings demonstrate that first the magnitude of N retention and NUE enhancement varies with biochar type. Second, combining biochar with fertilizer improves fertilizer N retention, NUE, and recovery, ultimately enhancing C. camphora productivity.
The excessive application of nitrogen (N) fertilizers can have detrimental environmental and economic impacts. Enhancing N use efficiency (NUE) through biochar application may help mitigate these losses while promoting plant growth. However, different biochar types may influence NUE differently. To investigate these effects, a greenhouse pot experiment was conducted to assess the impact of two biochar types on N dynamics. Four treatments were applied: control (CK), fertilizer (F), sawdust biochar + fertilizer (SBF), and rice straw biochar + fertilizer (RBF). A 15N tracer technique was used to evaluate N accumulation and NUE in C. camphora. Results indicated that biochar-fertilizer combinations significantly improved soil inorganic N (NH4+-N and NO3−-N) retention, this was attributed to biochar's high surface area and functional groups enhancing N ion sorption. Additionally, biochar-amended treatments (RBF and SBF) increased soil total N, 15N content and plant N uptake. Notably, by the final sampling period, plant total N content in the RBF treatment was 34.62 %, 16.67 %, and 9.38 % higher than in CK, F, and SBF treatments, respectively. Furthermore, 15N content in the RBF treatment was significantly greater than in SBF and F, showing increases of 26.51 % and 30.19 %, respectively. Biochar application also markedly improved NUE, with increases of 103.77 % and 27.86 % in RBF and SBF treatments, respectively, compared to the F. Similarly, soil fertilizer N recovery was 49.92 % and 43.94 % higher in RBF and SBF soils, respectively, than in F. The enhanced urease and protease activity in biochar-amended soils likely contributed to these improvements in fertilizer recovery and NUE. Overrall, our findings demonstrate that first the magnitude of N retention and NUE enhancement varies with biochar type. Second, combining biochar with fertilizer improves fertilizer N retention, NUE, and recovery, ultimately enhancing C. camphora productivity.
ArticleNumber e00936
Author Zhi, Yetong
Jia, Guanghao
Mao, Yanling
Guo, Yuxuan
Samson, Victor Manna
Yang, Xi
Chen, Yulin
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  givenname: Victor Manna
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  givenname: Yanling
  surname: Mao
  fullname: Mao, Yanling
  email: fafum@126.com
  organization: College of Resources and Environment, Fujian Agriculture and Forestry University, Fuzhou 350002, Fujian Province, China
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Nitrogen use efficiency
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Nutrient uptake
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Snippet The excessive application of nitrogen (N) fertilizers can have detrimental environmental and economic impacts. Enhancing N use efficiency (NUE) through biochar...
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SubjectTerms Biochar
C. camphora
Cinnamomum camphora
enzyme activity
greenhouse experimentation
nitrogen
nitrogen fertilizers
nitrogen retention
Nitrogen use efficiency
Nutrient uptake
nutrient use efficiency
plant growth
rice straw
sawdust
soil
Sorption
surface area
total nitrogen
tracer techniques
urease
Title Biochar-fertilizer interaction increases nitrogen retention, uptake and use efficiency of cinnamomum camphora: A 15N tracer study
URI https://dx.doi.org/10.1016/j.geodrs.2025.e00936
https://www.proquest.com/docview/3200265758
Volume 40
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