Carbon Pools and Indices Under Activated Trash Treatments in Sugarcane Plant–Ratoon System Grown in Calcareous Soil of Subtropics

A field investigation was conducted at Sugarcane Research Institute, RPCAU, Pusa, Bihar, India during 2020–2022 on sugarcane plant–ratoon system to investigate the effect of trash mulching treatments applied either alone or activated with urea (25 kg N ha −1 )/farmyard manure (5 t ha −1 )/vermicompo...

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Veröffentlicht in:Sugar tech : an international journal of sugar crops & related industries 2023-12, Vol.25 (6), p.1433-1444
Hauptverfasser: Bairwa, Rajendra, Jha, C. K., Thakur, S. K., Mamta, Roy, D. K., Brajendra
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container_title Sugar tech : an international journal of sugar crops & related industries
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creator Bairwa, Rajendra
Jha, C. K.
Thakur, S. K.
Mamta
Roy, D. K.
Brajendra
description A field investigation was conducted at Sugarcane Research Institute, RPCAU, Pusa, Bihar, India during 2020–2022 on sugarcane plant–ratoon system to investigate the effect of trash mulching treatments applied either alone or activated with urea (25 kg N ha −1 )/farmyard manure (5 t ha −1 )/vermicompost (2.5 t ha −1 )/ Trichoderma viride/Azotobacter  + PSB inoculated trash and direct incorporation of trash in soil with no trash control. The dose of chemical fertilizer for plant and ratoon was applied as per recommendation in all the treatments. The results revealed that the CO 2 evolution decreased continuously with the advancement of crop growth. The very labile (1.62–2.76 g kg −1 ), labile (1.09–2.17 g kg −1 ), less labile (1.55–2.21 g kg −1 ) and non-labile carbon (2.18–2.95 g kg −1 ) varied significantly after two crop cycles. The carbon fractions were in order of non-labile-C > very labile-C > less labile-C > labile-C. The mean soil TOC (6.26–9.79 g kg −1 ), organic carbon stock (14.70–20.76 Mg ha −1 ), SMBC (110.73–265.16 mg kg −1 ) and microbial quotient (1.77–2.71%) differed significantly due to trash mulching treatments after harvest of ratoon. The CPI (1.00–1.57) and CMI (138.36–238.30) varied significantly in trash-treated plots than no trash. The results revealed that mean cane yield of plant (65.96–83.31 t ha −1 ) and ratoon crop (54.20–71.99 t ha −1 ) differed significantly among the treatments. The mean sugar yield varied significantly in plant (7.22–9.97 t ha −1 ) and ratoon crop (5.78–8.58 t ha −1 ) due to various trash mulching treatments. The positive relationship was found among cane and sugar yield with TOC and CMI. Our findings suggest that trash mulching (10 t/ha) treatments either activated with urea/vermicompost/FYM or inoculated with Trichoderma viride significantly improved soil carbon pool parameters, fractions of carbon and carbon stock over the two crop cycles with improvement in the carbon indices, viz. carbon pool index and carbon management index. It brings significant enhancement in quality of soil and productivity of sugarcane plant–ratoon system in subtropics.
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The very labile (1.62–2.76 g kg −1 ), labile (1.09–2.17 g kg −1 ), less labile (1.55–2.21 g kg −1 ) and non-labile carbon (2.18–2.95 g kg −1 ) varied significantly after two crop cycles. The carbon fractions were in order of non-labile-C &gt; very labile-C &gt; less labile-C &gt; labile-C. The mean soil TOC (6.26–9.79 g kg −1 ), organic carbon stock (14.70–20.76 Mg ha −1 ), SMBC (110.73–265.16 mg kg −1 ) and microbial quotient (1.77–2.71%) differed significantly due to trash mulching treatments after harvest of ratoon. The CPI (1.00–1.57) and CMI (138.36–238.30) varied significantly in trash-treated plots than no trash. The results revealed that mean cane yield of plant (65.96–83.31 t ha −1 ) and ratoon crop (54.20–71.99 t ha −1 ) differed significantly among the treatments. The mean sugar yield varied significantly in plant (7.22–9.97 t ha −1 ) and ratoon crop (5.78–8.58 t ha −1 ) due to various trash mulching treatments. The positive relationship was found among cane and sugar yield with TOC and CMI. Our findings suggest that trash mulching (10 t/ha) treatments either activated with urea/vermicompost/FYM or inoculated with Trichoderma viride significantly improved soil carbon pool parameters, fractions of carbon and carbon stock over the two crop cycles with improvement in the carbon indices, viz. carbon pool index and carbon management index. 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K.</creatorcontrib><creatorcontrib>Thakur, S. K.</creatorcontrib><creatorcontrib>Mamta</creatorcontrib><creatorcontrib>Roy, D. K.</creatorcontrib><creatorcontrib>Brajendra</creatorcontrib><title>Carbon Pools and Indices Under Activated Trash Treatments in Sugarcane Plant–Ratoon System Grown in Calcareous Soil of Subtropics</title><title>Sugar tech : an international journal of sugar crops &amp; related industries</title><addtitle>Sugar Tech</addtitle><description>A field investigation was conducted at Sugarcane Research Institute, RPCAU, Pusa, Bihar, India during 2020–2022 on sugarcane plant–ratoon system to investigate the effect of trash mulching treatments applied either alone or activated with urea (25 kg N ha −1 )/farmyard manure (5 t ha −1 )/vermicompost (2.5 t ha −1 )/ Trichoderma viride/Azotobacter  + PSB inoculated trash and direct incorporation of trash in soil with no trash control. The dose of chemical fertilizer for plant and ratoon was applied as per recommendation in all the treatments. The results revealed that the CO 2 evolution decreased continuously with the advancement of crop growth. The very labile (1.62–2.76 g kg −1 ), labile (1.09–2.17 g kg −1 ), less labile (1.55–2.21 g kg −1 ) and non-labile carbon (2.18–2.95 g kg −1 ) varied significantly after two crop cycles. The carbon fractions were in order of non-labile-C &gt; very labile-C &gt; less labile-C &gt; labile-C. The mean soil TOC (6.26–9.79 g kg −1 ), organic carbon stock (14.70–20.76 Mg ha −1 ), SMBC (110.73–265.16 mg kg −1 ) and microbial quotient (1.77–2.71%) differed significantly due to trash mulching treatments after harvest of ratoon. The CPI (1.00–1.57) and CMI (138.36–238.30) varied significantly in trash-treated plots than no trash. The results revealed that mean cane yield of plant (65.96–83.31 t ha −1 ) and ratoon crop (54.20–71.99 t ha −1 ) differed significantly among the treatments. The mean sugar yield varied significantly in plant (7.22–9.97 t ha −1 ) and ratoon crop (5.78–8.58 t ha −1 ) due to various trash mulching treatments. The positive relationship was found among cane and sugar yield with TOC and CMI. Our findings suggest that trash mulching (10 t/ha) treatments either activated with urea/vermicompost/FYM or inoculated with Trichoderma viride significantly improved soil carbon pool parameters, fractions of carbon and carbon stock over the two crop cycles with improvement in the carbon indices, viz. carbon pool index and carbon management index. 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K.</creatorcontrib><creatorcontrib>Thakur, S. K.</creatorcontrib><creatorcontrib>Mamta</creatorcontrib><creatorcontrib>Roy, D. K.</creatorcontrib><creatorcontrib>Brajendra</creatorcontrib><collection>CrossRef</collection><collection>AGRICOLA</collection><collection>AGRICOLA - Academic</collection><jtitle>Sugar tech : an international journal of sugar crops &amp; related industries</jtitle></facets><delivery><delcategory>Remote Search Resource</delcategory><fulltext>fulltext</fulltext></delivery><addata><au>Bairwa, Rajendra</au><au>Jha, C. K.</au><au>Thakur, S. K.</au><au>Mamta</au><au>Roy, D. K.</au><au>Brajendra</au><format>journal</format><genre>article</genre><ristype>JOUR</ristype><atitle>Carbon Pools and Indices Under Activated Trash Treatments in Sugarcane Plant–Ratoon System Grown in Calcareous Soil of Subtropics</atitle><jtitle>Sugar tech : an international journal of sugar crops &amp; related industries</jtitle><stitle>Sugar Tech</stitle><date>2023-12-01</date><risdate>2023</risdate><volume>25</volume><issue>6</issue><spage>1433</spage><epage>1444</epage><pages>1433-1444</pages><issn>0972-1525</issn><eissn>0974-0740</eissn><eissn>0972-1525</eissn><abstract>A field investigation was conducted at Sugarcane Research Institute, RPCAU, Pusa, Bihar, India during 2020–2022 on sugarcane plant–ratoon system to investigate the effect of trash mulching treatments applied either alone or activated with urea (25 kg N ha −1 )/farmyard manure (5 t ha −1 )/vermicompost (2.5 t ha −1 )/ Trichoderma viride/Azotobacter  + PSB inoculated trash and direct incorporation of trash in soil with no trash control. The dose of chemical fertilizer for plant and ratoon was applied as per recommendation in all the treatments. The results revealed that the CO 2 evolution decreased continuously with the advancement of crop growth. The very labile (1.62–2.76 g kg −1 ), labile (1.09–2.17 g kg −1 ), less labile (1.55–2.21 g kg −1 ) and non-labile carbon (2.18–2.95 g kg −1 ) varied significantly after two crop cycles. The carbon fractions were in order of non-labile-C &gt; very labile-C &gt; less labile-C &gt; labile-C. The mean soil TOC (6.26–9.79 g kg −1 ), organic carbon stock (14.70–20.76 Mg ha −1 ), SMBC (110.73–265.16 mg kg −1 ) and microbial quotient (1.77–2.71%) differed significantly due to trash mulching treatments after harvest of ratoon. The CPI (1.00–1.57) and CMI (138.36–238.30) varied significantly in trash-treated plots than no trash. The results revealed that mean cane yield of plant (65.96–83.31 t ha −1 ) and ratoon crop (54.20–71.99 t ha −1 ) differed significantly among the treatments. The mean sugar yield varied significantly in plant (7.22–9.97 t ha −1 ) and ratoon crop (5.78–8.58 t ha −1 ) due to various trash mulching treatments. The positive relationship was found among cane and sugar yield with TOC and CMI. Our findings suggest that trash mulching (10 t/ha) treatments either activated with urea/vermicompost/FYM or inoculated with Trichoderma viride significantly improved soil carbon pool parameters, fractions of carbon and carbon stock over the two crop cycles with improvement in the carbon indices, viz. carbon pool index and carbon management index. It brings significant enhancement in quality of soil and productivity of sugarcane plant–ratoon system in subtropics.</abstract><cop>New Delhi</cop><pub>Springer India</pub><doi>10.1007/s12355-023-01280-1</doi><tpages>12</tpages></addata></record>
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subjects Activated carbon
Agricultural chemicals
Agricultural production
Agriculture
Agrochemicals
Animal manures
Azotobacter
Biomedical and Life Sciences
Calcareous soils
Carbon
Carbon content
Carbon cycle
Carbon dioxide
carbon sinks
Composting
Crop growth
Crops
Field investigations
Fungi
Growth
India
Life Sciences
Microorganisms
mineral fertilizers
Mulching
Organic carbon
ratooning
Refuse and refuse disposal
Research Article
research institutions
soil carbon
Soil improvement
Soil quality
Soils
Sugar
Sugarcane
sugars
Trichoderma viride
Urea
Vermicomposting
vermicomposts
Worms
title Carbon Pools and Indices Under Activated Trash Treatments in Sugarcane Plant–Ratoon System Grown in Calcareous Soil of Subtropics
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