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Material Flow Analysis and Carbon Footprint Assessment of Rice Husk Biochar Production Using Slow and Fast Pyrolysis Methods
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The utilization of rice husk in Indonesia concentrate to low economic value products, while this biomass waste has significant potential for various higher-value applications. This study aims to analyze material flow (Material Flow Analysis) and calculate the carbon footprint of the rice husk biochar production process using pyrolysis methods. The pyrolysis techniques employed were slow pyrolysis and fast pyrolysis at the Renewable Energy Laboratory of Tribhuwana Tunggadewi University. This study shows that the slow pyrolysis method with 30.05 kg of rice husk input and 0.6 kg of water produces 38.2% biochar yield, while fast pyrolysis with 0.5 kg of rice husk input without water produces a yield of 40.6%. Carbon trail analysis revealed that in slow pyrolysis, of the total carbon input 0.971 kg only 0.674 kg identified in the final product (BioChar 0.410 kg, Bio-Oil 0.250 kg, gas 0.014 kg), while fast pyrolysis of the total carbon input of 3.003 kg produces 1,1532 kg carbon in the final product (biochar 0.415 kg, bio-il 0.5656 kg, gas 0.1726 kg), with electrical energy consumption that produces emissions of 1,983 kgCO2e. Pyrolysis technology has proven to convert rice husks into high -value BioChar, with fast pyrolysis shows a higher yield and better process efficiency without the addition of water. Although fast pyrolysis produces higher emissions, slow pyrolysis with the use of residual gas is more recommended for regions with limited electricity networks.
Title: Material Flow Analysis and Carbon Footprint Assessment of Rice Husk Biochar Production Using Slow and Fast Pyrolysis Methods
Description:
The utilization of rice husk in Indonesia concentrate to low economic value products, while this biomass waste has significant potential for various higher-value applications.
This study aims to analyze material flow (Material Flow Analysis) and calculate the carbon footprint of the rice husk biochar production process using pyrolysis methods.
The pyrolysis techniques employed were slow pyrolysis and fast pyrolysis at the Renewable Energy Laboratory of Tribhuwana Tunggadewi University.
This study shows that the slow pyrolysis method with 30.
05 kg of rice husk input and 0.
6 kg of water produces 38.
2% biochar yield, while fast pyrolysis with 0.
5 kg of rice husk input without water produces a yield of 40.
6%.
Carbon trail analysis revealed that in slow pyrolysis, of the total carbon input 0.
971 kg only 0.
674 kg identified in the final product (BioChar 0.
410 kg, Bio-Oil 0.
250 kg, gas 0.
014 kg), while fast pyrolysis of the total carbon input of 3.
003 kg produces 1,1532 kg carbon in the final product (biochar 0.
415 kg, bio-il 0.
5656 kg, gas 0.
1726 kg), with electrical energy consumption that produces emissions of 1,983 kgCO2e.
Pyrolysis technology has proven to convert rice husks into high -value BioChar, with fast pyrolysis shows a higher yield and better process efficiency without the addition of water.
Although fast pyrolysis produces higher emissions, slow pyrolysis with the use of residual gas is more recommended for regions with limited electricity networks.
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