scholarly journals Erratum: Riverbed methanotrophy sustained by high carbon conversion efficiency

2017 ◽  
Vol 11 (4) ◽  
pp. 1058-1058
Author(s):  
Mark Trimmer ◽  
Felicity C Shelley ◽  
Kevin J Purdy ◽  
Susanna T Maanoja ◽  
Panagiota-Myrsini Chronopoulou ◽  
...  
2015 ◽  
Vol 9 (10) ◽  
pp. 2328-2328
Author(s):  
Mark Trimmer ◽  
Felicity C Shelley ◽  
Kevin J Purdy ◽  
Susanna T Maanoja ◽  
Panagiota-Myrsini Chronopoulou ◽  
...  

2021 ◽  
pp. 126431
Author(s):  
Wenyan Zhao ◽  
Veeriah Jegatheesan ◽  
Qiaochu Liang ◽  
Khantong Soontarapa ◽  
Heqing Jiang ◽  
...  

Fuel ◽  
2021 ◽  
Vol 287 ◽  
pp. 119534
Author(s):  
M. Zamani ◽  
E. Abbasi-Atibeh ◽  
S. Mobaseri ◽  
H. Ahsan ◽  
A. Ahsan ◽  
...  

2018 ◽  
Vol 225 ◽  
pp. 06009 ◽  
Author(s):  
Muddasser Inayat ◽  
Shaharin A. Sulaiman ◽  
Tham W. Hung ◽  
Fiseha M. Guangul ◽  
Firdaus Basrawi

Biomass energy via gasification is an attractive substitute of fossil fuels. The distribution of biomass on the earth is scattered, so transportation and collection of biomass complicates the supply of biomass especially when the gasification rely on one type of biomass. Therefore, cogasification of different biomass is proposed as a potential solution for interruption-free gasification. Beside, unwanted by-products such as tar that cause blockage in downstream equipment can be minimized through the use of catalyst in gasification to accelerate tar reforming process. In this study, catalytic co-gasification of blended feedstock of 70% wood chips and 30% coconut fronds was carried out in a downdraft gasifier using limestone as primary catalyst. The effects of catalyst loading (0%, 30%, 50%, and 70% w/w) on syngas composition, gas yield, carbon conversion efficiency and heating value of syngas were investigated. The results showed that at 50% biomass to catalyst ratio, maximum H2 content of 11.39%, CO of 17.88%, carbon conversion efficiency of 69.49%, gas yield of 1.68 Nm3/kg and higher heating value of syngas 5.11 MJ/Nm3 were achieved. Higher catalyst loading (70%) blocked the air passage, which caused poor gasification. No more than 50% catalyst suggested for stable co-gasification operation.


2007 ◽  
Vol 52 (2) ◽  
pp. 296-308 ◽  
Author(s):  
Ana P. Alonso ◽  
Fernando D. Goffman ◽  
John B. Ohlrogge ◽  
Yair Shachar-Hill

2014 ◽  
Vol 695 ◽  
pp. 247-250 ◽  
Author(s):  
Norasyikin Ismail ◽  
Farid Nasir Ani

Gasification is a reaction process between solid or liquid carbonaceous materials with some gasifying agent to produce gaseous fuel. In this study, a microwave gasification test rig is designed to produce syngas from oil palm biochars. Carbon dioxide is used as the gasifying agent. Oil palm empty fruit bunch (EFB) and oil palm shell (OPS) biochars are used as the carbonaceous materials. The effects of CO2 flow rates on the type of biochars to the syngas produced are investigated. The optimum CO2 flow rate for EFB biochar gasification is 3 lpm where the gas compositions are 0.52% CH4, 50.52% CO2, 26.1% CO, and 22.86% H2. For OPS biochar, the optimum CO2 flowrate is 2 lpm that produce 6.92% CH4, 57.19% CO2, 10.98% CO, and 24.92% H2. For EFB biochar gasification, the specific volume of gas yield is from 1.22 to 1.51 m3/kg while for OPS biochar yields higher specific gas volume, ranging from 2.62 to 7.88 m3/kg. The highest carbon conversion efficiency and gas heating value for EFB biochar is 75.07% and 12.84 MJ/kg at 3 lpm respectively and 66.83%, 13.03 MJ/kg at 2 lpm for OPS biochar respectively . This concludes that EFB biochar produced higher quality syngas than OPS biochar because of the higher volume of CO and H2 content in the syngas produced at the higher carbon conversion efficiency with specific gas volume of 1.22 m3/kg.


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