Ghulam Abbas Shah, Mughees Mustafa, Hani Z. Asfour, Khubra Shoukat, Ahsan Yasin, Nadeem Ali, Muhammad Bilal Khan Niazi, Gabrijel Ondrasek, Muhammad Imtiaz Rashid
{"title":"纳米生物炭包衣可调节土壤中磷酸二铵肥料的氮和磷释放并提高玉米产量","authors":"Ghulam Abbas Shah, Mughees Mustafa, Hani Z. Asfour, Khubra Shoukat, Ahsan Yasin, Nadeem Ali, Muhammad Bilal Khan Niazi, Gabrijel Ondrasek, Muhammad Imtiaz Rashid","doi":"10.1007/s42729-024-02004-4","DOIUrl":null,"url":null,"abstract":"<p>The crop phosphorus (P) utilization efficiency of commercial fertilizers is only 10–15%, leaving much P fixed in the soil. Coating fertilizer can lessen this problem, but most of the current available options are potentially toxic and expensive. This study-investigated nanobiochar as a coating material for engineering “smart” di-ammonium phosphate (DAP) fertilizer that controls P and nitrogen (N) release in soil, ultimately enhancing nutrient utilization by maize. Biochar was produced from farmyard manure and ball-milled to obtain nanobiochar. Different nanobiochar concentrations (2.5%, 5%, and 10% w/w) were used to coat the DAP granules in a fluidized-bed coater. The release of N and P was studied after immersing both coated and uncoated DAP fertilizers in water. In a pot experiment, five treatments, i.e.i) control (C), ii) uncoated DAP (UF), iii) 2.5% nanobiochar-coated DAP (CUNB1), iv) 5% nanobiochar-coated DAP (CUNB2), and v) 10% nanobiochar-coated DAP (CUNB3) were introduced, after which maize was sown. The presence of a uniform nanobiochar coating on DAP was confirmed by the discrete carbon peaks observed through X-ray diffraction and FTIR spectroscopic analyses. In a laboratory study, the slowest release of N and P was observed for CUNB3. Remarkably, the application of CUNB1 substantially increased the microbial biomass carbon and N by 104% and 147%, respectively, while enhancing the plant-available P, N, and potassium (K) by 40%, 70%, and 46%, respectively, compared with those of C. This treatment increased maize shoot dry matter yield by 88%, accompanied by marked increases of 229%, 205%, and 67% in maize P, N, and K uptakes compared to C, respectively. However, other coating treatments failed to increase these parameters compared with those of UF, confirming that these coatings had the slowest nutrient availability for short-duration crops. The 2.5% nanobiochar concentration can be recommended for coating DAP fertilizer to reduce problems of P fixation and enhance P availability, crop growth and nutrients uptake, hence contributing to sustainable fertilizer management practices in agroecosystem.</p>","PeriodicalId":17042,"journal":{"name":"Journal of Soil Science and Plant Nutrition","volume":null,"pages":null},"PeriodicalIF":3.4000,"publicationDate":"2024-09-12","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Nanobiochar-Coating Regulates N and P Release from DAP Fertilizer in Soil and Improves Maize Crop Productivity\",\"authors\":\"Ghulam Abbas Shah, Mughees Mustafa, Hani Z. Asfour, Khubra Shoukat, Ahsan Yasin, Nadeem Ali, Muhammad Bilal Khan Niazi, Gabrijel Ondrasek, Muhammad Imtiaz Rashid\",\"doi\":\"10.1007/s42729-024-02004-4\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<p>The crop phosphorus (P) utilization efficiency of commercial fertilizers is only 10–15%, leaving much P fixed in the soil. Coating fertilizer can lessen this problem, but most of the current available options are potentially toxic and expensive. This study-investigated nanobiochar as a coating material for engineering “smart” di-ammonium phosphate (DAP) fertilizer that controls P and nitrogen (N) release in soil, ultimately enhancing nutrient utilization by maize. Biochar was produced from farmyard manure and ball-milled to obtain nanobiochar. Different nanobiochar concentrations (2.5%, 5%, and 10% w/w) were used to coat the DAP granules in a fluidized-bed coater. The release of N and P was studied after immersing both coated and uncoated DAP fertilizers in water. In a pot experiment, five treatments, i.e.i) control (C), ii) uncoated DAP (UF), iii) 2.5% nanobiochar-coated DAP (CUNB1), iv) 5% nanobiochar-coated DAP (CUNB2), and v) 10% nanobiochar-coated DAP (CUNB3) were introduced, after which maize was sown. The presence of a uniform nanobiochar coating on DAP was confirmed by the discrete carbon peaks observed through X-ray diffraction and FTIR spectroscopic analyses. In a laboratory study, the slowest release of N and P was observed for CUNB3. Remarkably, the application of CUNB1 substantially increased the microbial biomass carbon and N by 104% and 147%, respectively, while enhancing the plant-available P, N, and potassium (K) by 40%, 70%, and 46%, respectively, compared with those of C. This treatment increased maize shoot dry matter yield by 88%, accompanied by marked increases of 229%, 205%, and 67% in maize P, N, and K uptakes compared to C, respectively. However, other coating treatments failed to increase these parameters compared with those of UF, confirming that these coatings had the slowest nutrient availability for short-duration crops. 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Nanobiochar-Coating Regulates N and P Release from DAP Fertilizer in Soil and Improves Maize Crop Productivity
The crop phosphorus (P) utilization efficiency of commercial fertilizers is only 10–15%, leaving much P fixed in the soil. Coating fertilizer can lessen this problem, but most of the current available options are potentially toxic and expensive. This study-investigated nanobiochar as a coating material for engineering “smart” di-ammonium phosphate (DAP) fertilizer that controls P and nitrogen (N) release in soil, ultimately enhancing nutrient utilization by maize. Biochar was produced from farmyard manure and ball-milled to obtain nanobiochar. Different nanobiochar concentrations (2.5%, 5%, and 10% w/w) were used to coat the DAP granules in a fluidized-bed coater. The release of N and P was studied after immersing both coated and uncoated DAP fertilizers in water. In a pot experiment, five treatments, i.e.i) control (C), ii) uncoated DAP (UF), iii) 2.5% nanobiochar-coated DAP (CUNB1), iv) 5% nanobiochar-coated DAP (CUNB2), and v) 10% nanobiochar-coated DAP (CUNB3) were introduced, after which maize was sown. The presence of a uniform nanobiochar coating on DAP was confirmed by the discrete carbon peaks observed through X-ray diffraction and FTIR spectroscopic analyses. In a laboratory study, the slowest release of N and P was observed for CUNB3. Remarkably, the application of CUNB1 substantially increased the microbial biomass carbon and N by 104% and 147%, respectively, while enhancing the plant-available P, N, and potassium (K) by 40%, 70%, and 46%, respectively, compared with those of C. This treatment increased maize shoot dry matter yield by 88%, accompanied by marked increases of 229%, 205%, and 67% in maize P, N, and K uptakes compared to C, respectively. However, other coating treatments failed to increase these parameters compared with those of UF, confirming that these coatings had the slowest nutrient availability for short-duration crops. The 2.5% nanobiochar concentration can be recommended for coating DAP fertilizer to reduce problems of P fixation and enhance P availability, crop growth and nutrients uptake, hence contributing to sustainable fertilizer management practices in agroecosystem.
期刊介绍:
The Journal of Soil Science and Plant Nutrition is an international, peer reviewed journal devoted to publishing original research findings in the areas of soil science, plant nutrition, agriculture and environmental science.
Soil sciences submissions may cover physics, chemistry, biology, microbiology, mineralogy, ecology, pedology, soil classification and amelioration.
Plant nutrition and agriculture submissions may include plant production, physiology and metabolism of plants, plant ecology, diversity and sustainability of agricultural systems, organic and inorganic fertilization in relation to their impact on yields, quality of plants and ecological systems, and agroecosystems studies.
Submissions covering soil degradation, environmental pollution, nature conservation, and environmental protection are also welcome.
The journal considers for publication original research articles, technical notes, short communication, and reviews (both voluntary and by invitation), and letters to the editor.