production cost assessment of palm empty fruit bunch conversion to bio-oil via fast pyrolysis

production cost assessment of palm empty fruit bunch conversion to bio-oil via fast pyrolysis

production cost assessment of palm empty fruit bunch conversion to bio-oil via fast pyrolysis
production cost assessment of palm empty fruit bunch conversion to bio-oil via fast pyrolysis
production cost assessment of palm empty fruit bunch conversion to bio-oil via fast pyrolysis
production cost assessment of palm empty fruit bunch conversion to bio-oil via fast pyrolysis
production cost assessment of palm empty fruit bunch conversion to bio-oil via fast pyrolysis
utilization of empty fruit bunch fiber of palm oil

Utilization of Empty Fruit Bunch Fiber of Palm Oil

Production Cost Assessment of Palm Empty Fruit Bunch Coversion to Bio-Oil via Fast Pyrolysis. Ijaseit, 4(6) (2014)443 Isroi, Peningkatan Digestibilitas Dan Perubahan Struktur tandan kosong kelapa sawit Oleh Pretreatment pleurotus Floridanus Dan Asam Fosfat. 2013

Get Price
research article thermodynamic analysis of methanation of

Research Article Thermodynamic analysis of methanation of

2.1. Description of palm empty fruit bunch (PEFB) bio-oil In this research, bio-oil from the fast pyrolysis of palm empty fruit bunch (PEFB) was modelled as the feedstock for CH 4 production. PEFB bio-oil contains a great range of carboxylic acids,

Get Price
autothermal reforming of palm empty fruit bunch bio-oil

Autothermal reforming of palm empty fruit bunch bio-oil

aldehydes and benzenoids [8-10]. Palm empty fruit bunch (PEFB) is obtained after oil extraction at palm oil mills. It is estimated that for every tonne (t) of palm oil produced from a fresh fruit bunch, approximately 1 t of PEFB is produced [11]. Bio-oil can be produced by fast/flash pyrolysis, slow pyrolysis and solvolysis of solid biomass

Get Price
characterization of bio-oil from fast pyrolysis of palm

Characterization of Bio-Oil from Fast Pyrolysis of Palm

Fast pyrolysis processes were conducted at a temperature of 350˚C using thermal oil heater as a heat carrier. The gas phase from pyrolysis was condensed and produced a dark color and water soluble liquid called bio-oil. As GC-MS data shows, the bio-oil from both feed stocks was dominated by acetic acid, furans, phenols, aldehydes, and ketones.

Get Price
life cycle assessment (lca) utilization of oil palm empty

Life Cycle Assessment (LCA) utilization of oil palm empty

The results showed that the utilization of empty fruit bunches by fast pyrolysis has the potential environmental impacts of 0.02149 kg SO2eq as the causes of acidification; 0.00399 kg PO4eq causes of Eutrophication; 586 kg CO2eq causes of global warming (GWP100a), and 595 kg C2H4eq causes photochemical oxidation.

Get Price
supply chain analysis, delivered cost, and life cycle

Supply chain analysis, delivered cost, and life cycle

"Supply chain analysis, delivered cost, and life cycle assessment of oil palm empty fruit bunch biomass for green chemical production in Malaysia," BioRes. 9(3), 5385-5416. Abstract Financial, environmental, and supply chain analyses of empty fruit bunch (EFB) biomass are needed for the development of a sustainable green chemicals industry in

Get Price
comparative life cycle assessment (lca) of bio-oil

Comparative life cycle assessment (LCA) of bio-oil

This paper presents a life cycle assessment of two alternative processes for the production of bio-oil from Malaysian oil palm empty fruit bunch (EFB), namely, fast pyrolysis and hydrothermal liquefaction, in which limited studies have been reported in the literature. In this study, both processes were evaluated and compared in terms of their impacts to the environment, specifically based on

Get Price
bio-oil derived from empty fruit bunches nurhayati

Bio-oil derived from empty fruit bunches Nurhayati

Available online at sciencedirect Fuel 87 (2008) 2606–2613 fuelfirst Bio-oil derived from empty fruit bunches N. Abdullah a,*, H. Gerhauser b a School of Physics, Universiti Sains Malaysia, 11800 Minden, Penang, Malaysia b Biomass, Coal and the Environment Unit, Energy Research Centre of the Netherlands (ECN), 1755 ZG Petten, The Netherlands Received 19 July 2007; received

Get Price
production cost assessment of palm empty fruit bunch

Production Cost Assessment of Palm Empty Fruit Bunch

The production cost is influenced by the amount of bio-oil production, material cost, operational cost including labor and utility cost. The sensitivity analysis shows that feedstock price drives the production cost. The result concludes that for the current condition, the bio-oil production cost from palm empty fruit bunch seems promising to

Get Price
research article thermodynamic analysis of methanation of

Research Article Thermodynamic analysis of methanation of

2.1. Description of palm empty fruit bunch (PEFB) bio-oil In this research, bio-oil from the fast pyrolysis of palm empty fruit bunch (PEFB) was modelled as the feedstock for CH 4 production. PEFB bio-oil contains a great range of carboxylic acids,

Get Price
autothermal reforming of palm empty fruit bunch bio-oil

Autothermal reforming of palm empty fruit bunch bio-oil

aldehydes and benzenoids [8-10]. Palm empty fruit bunch (PEFB) is obtained after oil extraction at palm oil mills. It is estimated that for every tonne (t) of palm oil produced from a fresh fruit bunch, approximately 1 t of PEFB is produced [11]. Bio-oil can be produced by fast/flash pyrolysis, slow pyrolysis and solvolysis of solid biomass

Get Price
utilization of empty fruit bunch fiber of palm oil

Utilization of Empty Fruit Bunch Fiber of Palm Oil

Production Cost Assessment of Palm Empty Fruit Bunch Coversion to Bio-Oil via Fast Pyrolysis. Ijaseit, 4(6) (2014)443 Isroi, Peningkatan Digestibilitas Dan Perubahan Struktur tandan kosong kelapa sawit Oleh Pretreatment pleurotus Floridanus Dan Asam Fosfat. 2013

Get Price
life cycle assessment (lca) utilization of oil palm empty

Life Cycle Assessment (LCA) utilization of oil palm empty

The results showed that the utilization of empty fruit bunches by fast pyrolysis has the potential environmental impacts of 0.02149 kg SO2eq as the causes of acidification; 0.00399 kg PO4eq causes of Eutrophication; 586 kg CO2eq causes of global warming (GWP100a), and 595 kg C2H4eq causes photochemical oxidation.

Get Price
publication balai teknologi bahan bakar dan rekayasa desain

Publication Balai Teknologi Bahan Bakar dan Rekayasa Desain

2014, Yoga Peryoga, Maharani Dewi Solikhah, Alfonsus Agus Raksodewanto, "Production Cost Assessment of Palm Empty Fruit Bunch Conversion to Bio-Oil via Fast Pyrolysis," Sustainable Agriculture, Food, and Energy (SAFE) Conference 2014.

Get Price
bio-oil derived from empty fruit bunches nurhayati

Bio-oil derived from empty fruit bunches Nurhayati

Available online at sciencedirect Fuel 87 (2008) 2606–2613 fuelfirst Bio-oil derived from empty fruit bunches N. Abdullah a,*, H. Gerhauser b a School of Physics, Universiti Sains Malaysia, 11800 Minden, Penang, Malaysia b Biomass, Coal and the Environment Unit, Energy Research Centre of the Netherlands (ECN), 1755 ZG Petten, The Netherlands Received 19 July 2007; received

Get Price
yield and calorific value of bio oil pyrolysed from oil

Yield and Calorific Value of Bio Oil Pyrolysed from Oil

As shown in Fig. 3, the calorific value of bio oil obtained from different pyrolysis treatments range from 25 to nearly 32 MJ kg-1.The highest calorific value of 31.15 MJ kg-1 for EFB pyrolysis at process temperature 500°C and solid residence time of 30 min. The effects of process temperature and solid residence time on the bio oil were presented using the ANOVA and presented in Table 3-4.

Get Price
multi-products productions from malaysian oil palm empty

Multi-products productions from Malaysian oil palm empty

from Malaysian oil palm empty fruit bunch (EFB): Analyzing economic potentials from the optimal biomass supply chain, Journal of Cleaner Production (2024), doi: 10.1016/j.jclepro.2024.08.088. This is a PDF file of an unedited manuscript that has been accepted for publication.

Get Price
simulation and parametric study for the hydrothermal

Simulation and Parametric Study for the Hydrothermal

Empty fruit bunch (EFB) constitutes 23 % of the amount of palm waste. Among the thermo-chemical processes that can convert biomass into hydrogen are pyrolysis and gasification. Between the two, gasification offers lower production cost. Pyrolysis converts biomass to bio-oil prior to hydrogen. Meanwhile, gasification directly

Get Price
techno-economic comparison of three energy conversion

Techno-economic comparison of three energy conversion

Empty fruit bunches (EFB) of oil-palm are one of the most recent renewable energy resources. The objective of this study is to find the most economically-feasible pathway among three energy conversions from 400 t/d wet EFB, which are bioethanol and jet fuel by bioconversion, combined heat and power via gasification, and hydrocarbons through fast pyrolysis and biooil upgrading.

Get Price
production cost assessment of palm empty fruit bunch

Production Cost Assessment of Palm Empty Fruit Bunch

The production cost is influenced by the amount of bio-oil production, material cost, operational cost including labor and utility cost. The sensitivity analysis shows that feedstock price drives the production cost. The result concludes that for the current condition, the bio-oil production cost from palm empty fruit bunch seems promising to

Get Price