000 | 03029aab a2200325 4500 | ||
---|---|---|---|
008 | 240819b20242024|||gr||| |||| 00| 0 eng d | ||
022 | _a2304-716x | ||
100 |
_aMehmod Ali _9882940 |
||
100 |
_aMunir Ayhmed _9882941 |
||
100 |
_aMuhammad Imran _9882942 |
||
100 |
_aMuhammad Shaikaig _9882943 |
||
100 |
_aBestami Ozkaya _9882944 |
||
100 |
_aDogukam Tunay _9882945 |
||
245 | _aComparative Analysis between Production of Bioethanol from Sugarcane Bagasse, Halophytes and Non-Edible Biomass | ||
300 | _a1-17 p. | ||
520 | _aThe destructive effects of burning conventional fossil fuels on the environment have created the realization of the significance of using alternative fuels as a mitigating measure to reduce greenhouse gas emissions. One of the most promising and environmentally friendly substitutes for petroleum-based gasoline fuel is bioethanol. This study uses agricultural residue (bagasse), halophytes and non-edible biomass as feedstocks to produce bioethanol, through lignin content extraction from panicum antidotale, phragmites karka, sugarcane bagasse, Jatropha curcas husk and Conocarpus erectus leaves and then cellulose reduced by acid pretreatment followed by hydrolysis. The cellulose content was found higher in Panicum antidotale (43.39 percent) and lowest in Jatropha curcas husk (35.10 percent), while moderate values of (42.81 percent) in Sugarcane bagasse, Phragmites karka (37.48 percent), and Conocarpus erectus (38.53 percent). At the beginning and end of the fermentation process, the total carbohydrate contents of the hydrolysed biomass were analysed, and their bioethanol yields were measured. Maximum reducing sugar was found 19 gm/L (1.86 lb/ft3) in Panicum antidotale followed by Phragmites karka, sugarcane bagasse, Jatropha curcas husk, and Conocarpus erectus leaves as 15.89 gm/L (0.991 lb/ft3) and 12.09 gm/L (0.754 lb/ft3), 10.52 gm/L (0.65 lb/ft3), 4.51 gm/L (0.281 lb/ft3), respectively. Bioethanol percentage yield by volume were found as 4.36 percent (Panicum antidotale), 3.93 percent (Phragmites karka), 2.87 percent (Jatropha curcas husk), 2.52 percent (sugarcane bagasse) and 1.64 percent (Conocarpus erectus leaves), respectively. The results showed the potential of producing eco-friendly bioethanol as biofuels from halophytes that will help ease the strain on food crops by providing inexpensive and abundant feedstock. | ||
650 |
_aBioethanol _9680507 |
||
650 |
_aHalophytes _9550298 |
||
650 |
_aSugarcane Bagasse _9712406 |
||
650 |
_aPhragmitis _9882946 |
||
650 |
_aPanicum _9882947 |
||
650 |
_aReducing Sugar _9882948 |
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650 |
_aConocarpus _9882949 |
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650 |
_aJatropha _9730134 |
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650 |
_aFerementation _9882950 |
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650 |
_aHydrolysis _9713257 |
||
773 | 0 |
_tNED University Journal of Research Formerly NED University Journal of Engineering Research _dKarachi, Pakistan : NED University of Engineering and Technology _x10233873 |
|
856 | _uhttps://dio.org/10.35453/NEDJR-ASCN-2023-0034 | ||
942 |
_2ddc _n0 _cART _o14993 _pMr. Muhammad Rafique Al Haj Rajab Ali (Late) |
||
999 |
_c815349 _d815349 |