Fast Pyrolysis of Tectonagrandis Wood for Bio-Oil: Characterization and Bactericidal Potentials

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Ololade, Z.S.
Ololade, Z.S.
σ
Oyebanji
Oyebanji
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J.A.
J.A.
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Ololade
Ololade
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Z.S.
Z.S.
α Bells University of Technology

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Fast Pyrolysis of Tectonagrandis Wood for Bio-Oil: Characterization and Bactericidal Potentials

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Abstract

In this study, Tectona grandis was pyrolysed in a fixed-bed cylindrical-typed pyrolysis reactor for bio-oil production at a reaction temperature between 410 o C and 530 o C. The product yields were collected at an interval of 30 o C. The highest product yield occurred at 500 o C. Proximate and ultimate analyses were carried out using isoconversional methods and GC-MS respectively. The proximate analysis of the raw sample showed that the moisture content, volatile matter, fixed carbon and ash content were 6.4%, 77.94%, 14.4%, 1.26% respectively while ultimate analysis of the raw materials showed that the content of carbon, hydrogen, nitrogen, sulphur and oxygen were 49.85%, 4.47%, 0.65%, 0.52%, and 44.51% respectively. The ultimate analysis of bio-oil showed that the content of carbon, hydrogen, nitrogen, oxygen and sulphur were 43.56%, 6.25%, 0.62%, 48.89%, 0.68% respectively. The HHV and LHV of the bio-oil obtained were 35.65 MJkg -1 and 17.35 MJkg -1 respectively. The GC-MS analysis of the bio-oil of T. grandis showed the presence of 21 compounds amounted to 98.9%. The most abundant component was palmitic acid (15.0%). The other major compounds present in the bio-oil were oleic acid (12.3%), cis-1, 9hexadecadiene (12.0%), cis-10-pentadecen-1-ol (12.0%), 9-octadecenal (12.0%), trans-2-octadecadecen-1-ol (12.0%), myristic acid (5.0%) and stearic acid (5.0%). The bio-oil was active against all the tested bacteria with high zones of inhibition (14.0-30.0 mm). This study established that bio-oil should not only be used as a fuel but can also be purified and served as inhibitor of biofilm and bio-corrosion.

References

38 Cites in Article
  1. I Adamu,H Dibal,B Duhu (2014). Disposal and Management of Solid Waste in Damaturu, Yobe State, Nigeria: Challenges and Implications.
  2. A Akinola (2016). Evaluation of the Efficiency of a Thermochemical Reactor for Wood Pyrolysis.
  3. Nelson Christopher,Shagi Abdu,Usman Batiyak (2014). IMPACT OF GOVERNMENT SPENDING ON AGRICULTURAL OUTPUT IN NIGERIA: (1990-2022).
  4. Havva Balat,Elif Kırtay (2010). Hydrogen from biomass – Present scenario and future prospects.
  5. Ayokunle Balogun,Olumuyiwa Lasode,Armando Mcdonald (2014). Thermo-Analytical and Physico-Chemical Characterization of Woody and Non-Woody Biomass from an Agro-ecological Zone in Nigeria.
  6. B Balogun,A Salami (2016). Effects of biofuel production on selected local Communities in Nigeria.
  7. R Bhuyan,C Saikia,K Das (2004). Commercially adoptable process for manufacturing natural dyes for cotton.
  8. R Bhuyan,C Saikia (2005). Isolation of colour components from native dye-bearing plants in northeastern India.
  9. A Hossain,R Hasan,R Islam (2014). Design, Fabrication and Performance Study of a Biomass Solid Waste Pyrolysis System for Alternative Liquid Fuel Production.
  10. S Hou,W Huang,F Rizal,T Lin (2016). Co-Firing of Fast Pyrolysis Bio-Oil and Heavy Fuel Oil in a 300-kWth Furnace.
  11. Anna Ilnicka,Katarzyna Roszek,Andrzej Olejniczak,Michal Komoszynski,Jerzy Lukaszewicz (2014). Biologically Active Constituents from Salix viminalis Bio-Oil and Their Protective Activity Against Hydrogen Peroxide-Induced Oxidative Stress in Chinese Hamster Ovary Cells.
  12. A Khajuria,Y Yamamoto,T Morioka (2008). Solid waste management in Asian countries: problems and issues.
  13. L Fagbemi,L Khezami,R Capart (2001). Pyrolysis products from different biomasses.
  14. C Gheorghe,C Marculescu,A Badea,T Apostol,M Jahirul,M Rasul,A Chowdhury,Ashwath (2010). Pyrolysis Parameters Influencing 14.
  15. Y Kato,R Enomoto,M Akazawa,Y Kojima (2016). Characterization of Japanese cedar bio-oil produced using a bench-scale auger pyrolyzer.
  16. E Kjaer,S Kajornsrichon,E Lauridsen (1999). Fast Pyrolysis of Tectona grandis Wood for Bio-Oil: Characterization and Bactericidal Potentials 17.
  17. C Lohri,H Rajabu,D Sweeney,C Zurbrugg (2016). Char fuel production in developing countries-A review of urban biowaste carbonization.
  18. D Louppe (2005). Tectona grandis L.f. In.
  19. Renzo Akkerman,Rene Haijema,Marvin Kunz,Sander De Leeuw,Viet Nguyen,Harmke Schellekens,Gideon Van Der Stelt (2024). Supply chain resilience capabilities in European food supply chains: the impact of COVID-19 in the Netherlands.
  20. Francesca Montevecchi (2016). Policy Mixes to Achieve Absolute Decoupling: A Case Study of Municipal Waste Management.
  21. M Moura,E Pontual,P Paiva,L Coelho (2013). An Outline to Corrosive Bacteria, Microbial pathogens and strategies for combating them: science, technology and education.
  22. K Neha,B Sangeeta (2013). Phytochemical and Pharmacological Evaluation of Tectona grandis.Linn, Grandis.
  23. R Nidavani,M Am (2014). Teak (Tectona grandis Linn.): A Renowned Timber Plant with Potential Medicinal Values.
  24. E Okoroigwe,Z Li,T Struecken,C Saffron,Onyegegbu (2012). Pyrolysis of Gmelina arborea Wood for Bio-oil/Bio-char Production: Physical and Chemical Characterisation of Products.
  25. Edmund Okoroigwe,Zhenglong Li,Godwin Unachukwu,Thomas Stuecken,Christopher Saffron (2012). Thermochemical Conversion of Palm Kernel Shell (PKS) to Bio-Energy.
  26. N Panwar,S Kaushik,Surendra Kothari (2011). Role of renewable energy sources in environmental protection: A review.
  27. J Patra,S Kim,H Hwang,J Choi,K Baek (2015). Volatile Compounds and Antioxidant Capacity of the Bio-Oil Obtained by Pyrolysis of Japanese Red Pine (Pinus Densiflora Siebold and Zucc.
  28. Jayanta Patra,Hyewon Hwang,Joon Choi,Kwang-Hyun Baek (2015). Bactericidal Mechanism of Bio-oil Obtained from Fast Pyrolysis of <i>Pinus densiflora</i> Against Two Foodborne Pathogens, <i>Bacillus cereus</i> and <i>Listeria monocytogenes</i>.
  29. Lekan Popoola,Babagana Gutti,Jamiu Adeniran,Babatunde Adeoye (2013). The Potentials of Waste-To-Energy System in Nigeria: A Study of Pyrolytic Conversion of Wood Residue to Bio-Oil in Major Cities of South-Western Nigeria.
  30. M Rahim,T Babu,S Rana (2013). Thermal Reactivity of Bio-Oil Produced from Catalytic Fast Pyrolysis of Biomass.
  31. B Ramesh,A Mahalakshmi (2014). Teak (Tectona grandis Linn.): A renowned timber plant with potential medicinal values.
  32. S Sanwo (1990). The relationship between rate of growth and strength in plantation grown Teak (Tectona grandis L.f).
  33. B Sukhbaatar,P Steele,L Ingram,M Kim (2009). An Exploratory Study on the Removal of Acetic and Formic Acids from Bio-Oil.
  34. R Swenson (2016). The Solarevolution: Much More with Way Less, Right Now-The Disruptive Shift to Renewables.
  35. D Vamvuka (2011). Bio-oil, solid and gaseous biofuels from biomass pyrolysis processes-An overview.
  36. M Verma,S Godbout,S Brar,O Solomatnikova,S Lemay,J Larouche (2012). Biofuels Production from Biomass by Thermochemical Conversion Technologies.
  37. Huamin Wang,Douglas Elliott,Richard French,Steve Deutch,Kristiina Iisa (2016). Biomass Conversion to Produce Hydrocarbon Liquid Fuel Via Hot-vapor Filtered Fast Pyrolysis and Catalytic Hydrotreating.
  38. W Wijayanti,M Sasongko,Purnami (2016). The Calorific Values of Solid and Liquid Yields Consequenced by Temperatures of Mahogany Pyrolysis.

Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

Not applicable for this article.

How to Cite This Article

Ololade, Z.S.. 2017. \u201cFast Pyrolysis of Tectonagrandis Wood for Bio-Oil: Characterization and Bactericidal Potentials\u201d. Global Journal of Research in Engineering - A : Mechanical & Mechanics GJRE-A Volume 17 (GJRE Volume 17 Issue A1): .

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Journal Specifications

Crossref Journal DOI 10.17406/gjre

Print ISSN 0975-5861

e-ISSN 2249-4596

Keywords
Classification
GJRE-A Classification: FOR Code: 091399
Version of record

v1.2

Issue date

July 11, 2017

Language
en
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Published Article

In this study, Tectona grandis was pyrolysed in a fixed-bed cylindrical-typed pyrolysis reactor for bio-oil production at a reaction temperature between 410 o C and 530 o C. The product yields were collected at an interval of 30 o C. The highest product yield occurred at 500 o C. Proximate and ultimate analyses were carried out using isoconversional methods and GC-MS respectively. The proximate analysis of the raw sample showed that the moisture content, volatile matter, fixed carbon and ash content were 6.4%, 77.94%, 14.4%, 1.26% respectively while ultimate analysis of the raw materials showed that the content of carbon, hydrogen, nitrogen, sulphur and oxygen were 49.85%, 4.47%, 0.65%, 0.52%, and 44.51% respectively. The ultimate analysis of bio-oil showed that the content of carbon, hydrogen, nitrogen, oxygen and sulphur were 43.56%, 6.25%, 0.62%, 48.89%, 0.68% respectively. The HHV and LHV of the bio-oil obtained were 35.65 MJkg -1 and 17.35 MJkg -1 respectively. The GC-MS analysis of the bio-oil of T. grandis showed the presence of 21 compounds amounted to 98.9%. The most abundant component was palmitic acid (15.0%). The other major compounds present in the bio-oil were oleic acid (12.3%), cis-1, 9hexadecadiene (12.0%), cis-10-pentadecen-1-ol (12.0%), 9-octadecenal (12.0%), trans-2-octadecadecen-1-ol (12.0%), myristic acid (5.0%) and stearic acid (5.0%). The bio-oil was active against all the tested bacteria with high zones of inhibition (14.0-30.0 mm). This study established that bio-oil should not only be used as a fuel but can also be purified and served as inhibitor of biofilm and bio-corrosion.

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Fast Pyrolysis of Tectonagrandis Wood for Bio-Oil: Characterization and Bactericidal Potentials

Oyebanji
Oyebanji
J.A.
J.A.
Ololade
Ololade
Z.S.
Z.S.

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