Nitrogen Effects on Productivity and Soil Properties in Conventional and Zero Tilled Wheat with Different Residue Management

Changes in tillage regime from conventional tillage to zero tillage (ZT) call for efficient weed and N management. Nitrogen is subject to immobilization/mineralization under residue-laden ZT system and increasing N-use efficiency through scheduling/rationalization of N is a researchable issue. The a...

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Published inProceedings of the National Academy of Sciences, India. Section B: Biological sciences Vol. 89; no. 1; pp. 123 - 135
Main Authors Nath, Chaitanya Prasad, Das, Tapas Kumar, Bhattacharyya, Ranjan, Pathak, Himanshu, Paul, Sangeeta, Chakraborty, Debashis, Hazra, Kali Krishna
Format Journal Article Conference Proceeding
LanguageEnglish
Published New Delhi Springer India 04.03.2019
Springer Nature B.V
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ISSN0369-8211
2250-1746
DOI10.1007/s40011-017-0919-z

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Abstract Changes in tillage regime from conventional tillage to zero tillage (ZT) call for efficient weed and N management. Nitrogen is subject to immobilization/mineralization under residue-laden ZT system and increasing N-use efficiency through scheduling/rationalization of N is a researchable issue. The authors investigated the N and weed management options for wheat under ZT with or without residue. Results showed that ZT + residue retention (R) + 75% N + GreenSeeker™ (GS)-aided N management (ZT + R+75N + GS) recorded significantly higher wheat yield (5.11 t ha −1 ) over CT − R + 100N (4.48 t ha −1 ). The ZT + R+75N + GS improved macro-aggregates by 25.3% and decreased micro-aggregates by 6.8% in surface soil than CT − R + 100N. Treatment ZT + R+75N + GS had highest labile C (~ 3.63 g C kg −1 soil), which was 24.7% higher than CT − R + 100N (2.91 g C kg −1 soil). This treatment resulted in highest microbial biomass C (148.6 µg g −1 soil). It showed a significant increment in fluorescein diacetate (by 30.9%), total phosphatase (by 63.2%) and urease (by 31.6%) activities in surface soil over CT − R + 100N. Optical sensor-based N management saved N to the tune of 15–20 kg ha −1 over CT − R + 100 N. The ZT with residue retention and GS-aided N management has greater potential to secure sustainable yield, better soil aggregation, labile C and soil micro-flora than CT without/with residue incorporation.
AbstractList Changes in tillage regime from conventional tillage to zero tillage (ZT) call for efficient weed and N management. Nitrogen is subject to immobilization/mineralization under residue-laden ZT system and increasing N-use efficiency through scheduling/rationalization of N is a researchable issue. The authors investigated the N and weed management options for wheat under ZT with or without residue. Results showed that ZT + residue retention (R) + 75% N + GreenSeeker™ (GS)-aided N management (ZT + R+75N + GS) recorded significantly higher wheat yield (5.11 t ha−1) over CT − R + 100N (4.48 t ha−1). The ZT + R+75N + GS improved macro-aggregates by 25.3% and decreased micro-aggregates by 6.8% in surface soil than CT − R + 100N. Treatment ZT + R+75N + GS had highest labile C (~ 3.63 g C kg−1 soil), which was 24.7% higher than CT − R + 100N (2.91 g C kg−1 soil). This treatment resulted in highest microbial biomass C (148.6 µg g−1 soil). It showed a significant increment in fluorescein diacetate (by 30.9%), total phosphatase (by 63.2%) and urease (by 31.6%) activities in surface soil over CT − R + 100N. Optical sensor-based N management saved N to the tune of 15–20 kg ha−1 over CT − R + 100 N. The ZT with residue retention and GS-aided N management has greater potential to secure sustainable yield, better soil aggregation, labile C and soil micro-flora than CT without/with residue incorporation.
Changes in tillage regime from conventional tillage to zero tillage (ZT) call for efficient weed and N management. Nitrogen is subject to immobilization/mineralization under residue-laden ZT system and increasing N-use efficiency through scheduling/rationalization of N is a researchable issue. The authors investigated the N and weed management options for wheat under ZT with or without residue. Results showed that ZT + residue retention (R) + 75% N + GreenSeeker™ (GS)-aided N management (ZT + R+75N + GS) recorded significantly higher wheat yield (5.11 t ha −1 ) over CT − R + 100N (4.48 t ha −1 ). The ZT + R+75N + GS improved macro-aggregates by 25.3% and decreased micro-aggregates by 6.8% in surface soil than CT − R + 100N. Treatment ZT + R+75N + GS had highest labile C (~ 3.63 g C kg −1 soil), which was 24.7% higher than CT − R + 100N (2.91 g C kg −1 soil). This treatment resulted in highest microbial biomass C (148.6 µg g −1 soil). It showed a significant increment in fluorescein diacetate (by 30.9%), total phosphatase (by 63.2%) and urease (by 31.6%) activities in surface soil over CT − R + 100N. Optical sensor-based N management saved N to the tune of 15–20 kg ha −1 over CT − R + 100 N. The ZT with residue retention and GS-aided N management has greater potential to secure sustainable yield, better soil aggregation, labile C and soil micro-flora than CT without/with residue incorporation.
Changes in tillage regime from conventional tillage to zero tillage (ZT) call for efficient weed and N management. Nitrogen is subject to immobilization/mineralization under residue-laden ZT system and increasing N-use efficiency through scheduling/rationalization of N is a researchable issue. The authors investigated the N and weed management options for wheat under ZT with or without residue. Results showed that ZT + residue retention (R) + 75% N + GreenSeeker™ (GS)-aided N management (ZT + R+75N + GS) recorded significantly higher wheat yield (5.11 t ha⁻¹) over CT − R + 100N (4.48 t ha⁻¹). The ZT + R+75N + GS improved macro-aggregates by 25.3% and decreased micro-aggregates by 6.8% in surface soil than CT − R + 100N. Treatment ZT + R+75N + GS had highest labile C (~ 3.63 g C kg⁻¹ soil), which was 24.7% higher than CT − R + 100N (2.91 g C kg⁻¹ soil). This treatment resulted in highest microbial biomass C (148.6 µg g⁻¹ soil). It showed a significant increment in fluorescein diacetate (by 30.9%), total phosphatase (by 63.2%) and urease (by 31.6%) activities in surface soil over CT − R + 100N. Optical sensor-based N management saved N to the tune of 15–20 kg ha⁻¹ over CT − R + 100 N. The ZT with residue retention and GS-aided N management has greater potential to secure sustainable yield, better soil aggregation, labile C and soil micro-flora than CT without/with residue incorporation.
Author Das, Tapas Kumar
Chakraborty, Debashis
Nath, Chaitanya Prasad
Bhattacharyya, Ranjan
Paul, Sangeeta
Hazra, Kali Krishna
Pathak, Himanshu
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  surname: Hazra
  fullname: Hazra, Kali Krishna
  organization: Division of Crop Production, ICAR-Indian Institute of Pulses Research
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Issue 1
Keywords Herbicides
Carbon pools
Crop residue
Soil enzymes
Tillage
Soil aggregation
Nitrogen
Wheat
Language English
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Snippet Changes in tillage regime from conventional tillage to zero tillage (ZT) call for efficient weed and N management. Nitrogen is subject to...
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SubjectTerms Behavioral Sciences
Biomedical and Life Sciences
conventional tillage
Fluorescein diacetate
grain yield
Immobilization
Life Sciences
Management
microbial biomass
Mineralization
nitrogen
no-tillage
Nucleic Acid Chemistry
nutrient use efficiency
Plant Biochemistry
Research Article
soil aggregation
soil microorganisms
Soil properties
Sustainable yield
Tillage
Urease
Weed control
weeds
wheat
Title Nitrogen Effects on Productivity and Soil Properties in Conventional and Zero Tilled Wheat with Different Residue Management
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