Densification of biomass through pelletizing offers a promising approach to producing clean biofuels from renewable resources. This study, which investigates the impact of additive blends on wheat straw pellet making and upgrading the physiochemical properties, has revealed exciting possibilities. Five additives, including sawdust (SD), bentonite clay (BC), corn starch (S), crude glycerol (CG), and biochar (BioC), were chosen for this study. Pellets were made from seven different combinations using a laboratory-scale pellet mill. The resulting pellets' physical and elemental properties were assessed against ISO 17,225-8 standards. Compared to control pellets, additive blends (T-T) exhibited significant improvements in mechanical durability (80% to 99%), tensile strength (0.36 MPa to 2.09 MPa), and bulk density (244 kg/m to 665.21 kg/m), all meeting ISO standards. AdditionaUF000llylly, these blends maintained low fines content (<2%) and water absorption capacity (<2%, except T and T). Furthermore, fixed carbon content increased from 11.1% to 30.90%, and energy content rose from 17.02 MJ/kg to 20.36 MJ/kg, which showed a significant synergistic effect of blending additives. These findings underscore the potential of wheat straw as a viable biomass source for bioenergy production through pelletization, offering a hopeful outlook for the future of renewable energy. However, further research is necessary to optimize additive mixing ratios for even greater pellet quality.Implications: The study successfully demonstrated that addingspecific materials during wheat straw pelletizing significantly improves thequality of the pellets as a biofuel. Here are the key implications of the statement.Wheat straw is a promising biofuel source: Densification through pelletizing makes wheat straw a viable option for renewable energy production.Additives enhance pellet quality: Sawdust, bentonite clay, corn starch, crude glycerol, and biochar improve the pellets' durability, strength, density, and energy content.Improved pellet properties meet industry standards: The resulting pellets meet ISO standards for mechanical strength, bulk density, and fines content.Synergistic effect of blending: Combining different additives leads to a greater improvement than using them individually.Need for further research: Optimizing the ratios of these additives can potentially create even better biofuel pellets.Overall, the study highlights the potential ofwheat straw pelletizing with specific additives as a sustainable and efficientbiofuel option. There's room for further improvement, but the initial findingsare promising.
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http://dx.doi.org/10.1080/10962247.2024.2447480 | DOI Listing |
Trop Anim Health Prod
January 2025
Sub Campus T.T Singh, University of Agriculture Faisalabad, Faisalabad, 38040, Pakistan.
The current study was designed to evaluate the effect of particle size (PS) and inclusion level of wheat straw (WS) obtained from genetically improved wheat on the performance and feeding behavior of Sahiwal cows. Twelve multiparous, mid-lactating Sahiwal cows (DIM 135 ± 25, mean ± SD; 12.8 ± 1.
View Article and Find Full Text PDFEnviron Sci Pollut Res Int
January 2025
Biofuel Laboratory, Department of Energy, Tezpur University, Assam, 784028, India.
Agro-processing industries generate a substantial quantity of biomass wastes. Conversion of these wastes into valuable material could be profitable considering both environmental and economic aspects. Among various biomass conversion methods, hydrothermal conversion can be used for co-production of biofuel and other valuable materials like carbon quantum dots (CQDs) and activated carbons.
View Article and Find Full Text PDFJ Air Waste Manag Assoc
January 2025
Center for Applied Climate Sciences, University of Southern Queensland, Toowoomba, Australia.
Densification of biomass through pelletizing offers a promising approach to producing clean biofuels from renewable resources. This study, which investigates the impact of additive blends on wheat straw pellet making and upgrading the physiochemical properties, has revealed exciting possibilities. Five additives, including sawdust (SD), bentonite clay (BC), corn starch (S), crude glycerol (CG), and biochar (BioC), were chosen for this study.
View Article and Find Full Text PDFFront Plant Sci
December 2024
Jilin Province Vegetable and Flower Research Institute, Changchun, China.
Introduction: China is rich in straw resources. The utilization of straw in the cultivation of edible fungi partially resolves the resource conflicts between mushroom cultivation and forest industry and also contributes to environmental protection.
Methods: In this study, based on the technology of replacing wood by grass, the straw formula for mycelial culture of was optimized with Simplex-lattice method commonly used in mixture design.
Sci Rep
December 2024
Faculty of Chemical Engineering, Urmia University of Technology, Urmia, 17165‑57166, Iran.
In this research, 3-(trimethoxysilyl)propyl methacrylate (MPS) silane agent was applied to modify the extracted wheat straw (WS) cellulose as a natural biopolymer. Polyacrylonitrile (PAN) was attached to the MPS-modified WS (MPS-WS) via in-situ polymerization to form PAN-WS biocomposite. AO-WS amidoximated biocomposite adsorbent was synthesized through amidoxime reaction and the effects of different parameters including agitation speed, metal ion concentration, and adsorbent dosage on its efficiency of Pb(II) removal were investigated using the Taguchi experimental design method.
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