B. J. Priatmadi, M. Septiana, Ronny Mulyawan, Hairil Ifansyah, Abdul Haris, A. Hayati, Muhammad Mahbub, A. R. Saidy
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Carbon mineralization was measured on a 5-day basis, while several chemical characteristics of treated peatlands, including pH, hot water-soluble C, exchangeable-Ca, -Mg, -Fe, and -Al were measured at the conclusion of the incubation period. This study identified that N fertilizer application increased the CO 2 production of tropical peatlands from 29.25 g·kg −1 to 37.12 g·kg −1 . Furthermore, the application of CFA on tropical peatlands reduced CO 2 production of tropical peatlands with and without N fertilizer. Decreasing the amount of hot water-soluble carbon from peatlands may account for the reduced CO 2 production of peatlands with CFA. The study also showed that exchangeable-Ca, -Mg, -Fe, and -Al increased in peatlands with CFA application, and these multivalent cations were also attributed to a reduction of CO 2 production. 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Furthermore, the application of CFA on tropical peatlands reduced CO 2 production of tropical peatlands with and without N fertilizer. Decreasing the amount of hot water-soluble carbon from peatlands may account for the reduced CO 2 production of peatlands with CFA. The study also showed that exchangeable-Ca, -Mg, -Fe, and -Al increased in peatlands with CFA application, and these multivalent cations were also attributed to a reduction of CO 2 production. 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引用次数: 0
摘要
据报道,在泥炭地使用氮(N)肥料以提高作物生长和产量,也会增加二氧化碳(CO 2)的排放。在土壤中施用粉煤灰(CFA)可能会改变土壤的物理化学特征,从而影响碳矿化,但其对二氧化碳产生的影响尚不明确。因此,本研究旨在量化施用氮肥和粉煤灰的热带泥炭地的二氧化碳产生量。在实验室实验中,向施用或未施用氮肥的泥炭地中添加了相当于在田间施用 150 兆克-公顷-1 的 CFA。然后将这些混合物在室温下以 70% 的充水孔隙度(WFPS)培养 30 天。每 5 天测量一次碳矿化度,同时在培养期结束时测量经处理泥炭地的一些化学特征,包括 pH 值、热水溶性碳、可交换钙、镁、铁和铝。这项研究发现,施用氮肥后,热带泥炭地的二氧化碳产生量从 29.25 g-kg -1 增加到 37.12 g-kg -1 。此外,在热带泥炭地施用 CFA 可减少施用或未施用氮肥的热带泥炭地的二氧化碳产生量。减少泥炭地的热水溶性碳量可能是施用 CFA 的泥炭地二氧化碳产生量减少的原因。研究还表明,施用 CFA 的泥炭地中可交换性钙、镁、铁和铝增加,这些多价阳离子也是二氧化碳产生量减少的原因。总之,施用 CFA 可减少施用氮肥对泥炭地增加二氧化碳排放量的负面影响。
Reduction in Carbon Dioxide Production of Tropical Peatlands Under Nitrogen Fertilizer with Coal Fly Ash Application
The utilization of nitrogen (N) fertilizer in peatlands, with the aim of increasing crop growth and production, is also reported to increase carbon dioxide (CO 2 ) emissions. The application of coal fly ash (CFA) to soil may change soil physico-chemical characteristics, thereby influence carbon mineralization, but its effect on CO 2 production is not yet clear. Consequently, the purpose of this study was to quantify the CO 2 production of tropical peatlands that received N fertilizer and CFA. In the laboratory experiment, CFA equivalent to the application of 150 Mg·ha −1 in the field was added to peatlands with and without N fertilizer. These mixtures were then incubated at 70% water-filled pore space (WFPS) for 30 days at room temperature. Carbon mineralization was measured on a 5-day basis, while several chemical characteristics of treated peatlands, including pH, hot water-soluble C, exchangeable-Ca, -Mg, -Fe, and -Al were measured at the conclusion of the incubation period. This study identified that N fertilizer application increased the CO 2 production of tropical peatlands from 29.25 g·kg −1 to 37.12 g·kg −1 . Furthermore, the application of CFA on tropical peatlands reduced CO 2 production of tropical peatlands with and without N fertilizer. Decreasing the amount of hot water-soluble carbon from peatlands may account for the reduced CO 2 production of peatlands with CFA. The study also showed that exchangeable-Ca, -Mg, -Fe, and -Al increased in peatlands with CFA application, and these multivalent cations were also attributed to a reduction of CO 2 production. In conclusion, the negative effects of N fertilizer application on peatlands in increasing CO 2 emission may be reduced by the application of CFA.
期刊介绍:
- Industrial and municipal waste management - Pro-ecological technologies and products - Energy-saving technologies - Environmental landscaping - Environmental monitoring - Climate change in the environment - Sustainable development - Processing and usage of mineral resources - Recovery of valuable materials and fuels - Surface water and groundwater management - Water and wastewater treatment - Smog and air pollution prevention - Protection and reclamation of soils - Reclamation and revitalization of degraded areas - Heavy metals in the environment - Renewable energy technologies - Environmental protection of rural areas - Restoration and protection of urban environment - Prevention of noise in the environment - Environmental life-cycle assessment (LCA) - Simulations and computer modeling for the environment