Palm Oil Press Cake Gasification in Namibia
- Use: Palm Oil
- Type:Palm Oil Press Machine
- Production Capacity: 40kg/h~600kg/h
- Power (W): 1350W
- Dimension(L*W*H): 10m*8m*6m
- Weight: 65 KG, 4kg
- Certificate: ISO 9001 Certificate
- Market: Namibia
Optimization of syngas production from co-gasification of
The study explores co-gasification of palm oil decanter cake and alum sludge, investigating the correlation between input variables and syngas production. Operating variables, including temperature (700–900 °C), air flow rate (10–30 mL/min), and particle size (0.25–2 mm), were optimized to maximize syngas production using air as the
This study investigated the behavior and syngas characteristics of oil palm biomass fluidized bed gasification (FBG) with alternative inlet air configurations. The air was supplied to the combustion zone of the FBG with tangential and updraft air inlet (TI and UI) modes. A mixed oil palm decanter cake was used as feedstock at 3 kg/h feed rate. The experiments were done at the equivalence
Optimization of hydrogen and syngas production from PKS
The study explores co-gasification of palm oil decanter cake and alum sludge, investigating the correlation between input variables and syngas production. Operating variables, including temperature (700–900 °C), air flow rate (10–30 mL/min), and particle size (0.25–2 mm), were optimized to maximize syngas production using air as the
The study explores co-gasification of palm oil decanter cake and alum sludge, investigating the correlation between input variables and syngas production. Operating variables, including
Influence of Fuel Moisture Content and Reactor
Oil palm trunk waste yielded more syngas, energy and hydrogen than that from other types of biomass such as mangrove wood, paper and food waste. Initial high values of syngas flow rate are attributed to rapid devolatilization. Over 50% of syngas generated was obtained during the first five minutes of the process. Increase in steam flow rate
Angin D (2013) Effect of pyrolysis temperature and heating rate on biochar obtained from pyrolysis of safflower seed press cake. Bioresour Technol 128:593–597. Google Scholar Sukiran M, Abu Bakar N, Chin C (2008) Optimization of pyrolysis of oil palm empty fruit bunches. J Oil Palm Res 2:653–658. Google Scholar
Optimization of syngas production from Co-gasification of
@article{Abioye2023OptimizationOS, title={Optimization of syngas production from Co-gasification of palm oil decanter cake and alum sludge: An RSM approach with char characterization.}, author={Kunmi Joshua Abioye and Noorfidza Yub Harun and Suriati Sufian and Mohammad Yusuf and Ahmad Hussaini Jagaba and Sharjeel Waqas and Bamidele Victor
Disruption in feedstock supply due to seasonal availability, and logistics problem poses a threat to smooth biomass gasification. To mitigate this problem, co‐gasification of different biomass feedstocks may be a reliable and efficient means of syngas production. Furthermore, the oil palm trunk (OPT) has been neglected in conducting thermochemical studies due to its high moisture and nature
Catalytic co-gasification of coconut shells and oil palm
@article{Inayat2019CatalyticCO, title={Catalytic co-gasification of coconut shells and oil palm fronds blends in the presence of cement, dolomite, and limestone: Parametric optimization via Box Behnken Design}, author={Muddasser Inayat and Shaharin Anwar Sulaiman and Jundika Candra Kurnia}, journal={Journal of the Energy Institute}, year={2019
The palm oil industries have been claimed to be a significant contributor to global warming through GHG emissions from the land-use change of palm oil expansion and the milling residual biomass. Lee et al. ( 2018 ) reported that palm oil was included among the agriculture activities that contributed to the second-highest GHG emissions by the
