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Research Article

Experimental study on effect of temperature and equivalence ratio on biomass syngas generation for fluidized bed gasifier techniques

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Pages 5848-5863 | Received 07 Jun 2022, Accepted 15 Dec 2022, Published online: 14 May 2023
 

ABSTRACT

This paper presents a comparative study of selected woody biomass for the potential of fuel gas generation that can be used for heat and power generation using a Fluidized Bed Gasifier (FBG). The characteristics of produced energy gas using the thermochemical Bubbling Fluidized Gasification Technique for selected woody biomass feedstock materials were studied for selected temperatures. Initially, the CFD analysis has been implemented to determine the feasible equivalence ratio (ER) for the selected biomasses. Using CFD ANSYS solver studied gas-solid interaction and gasification process inside a fluidized bed biomass gasifier. Experimental investigations were conducted on the FBG reactor for a feeding rate of 10 kg/hr of biomass materials. Experimental investigations were conducted on the FBG reactor for a feeding rate of 10 kg/hr of biomass materials. The work characteristics of produced gas were investigated by the experimental process for bagasse, groundnut shell, and wooden shavings as feedstock biomass materials for the gasification bed temperature at 500ºC, 550ºC, and 600ºC and Equivalence Ratio (ER) ratio of 0.30. Air was employed as a gasifying agent, and sand with limestone was used as the fluidized bed material. The results show that the fluidized bed has higher temperatures of 600ºC and above, generating higher Calorific Value (CV) syngas. Among all three feedstocks, groundnut shells produced gas HHV of 4.21 MJ/m3. The lowest HHV for bagasse at 500ºC of 3.01 MJ/m3. The effect of bed temperature on Carbon Conversion Efficiency (CCE) shows maximum CCE for bagasse is 60.86%, noted at 550ºC, and the minimum for wooden shaving at 550ºC is 57.69%.

Nomenclature

CO2=

Carbon Dioxide

H2=

Hydrogen

CO=

Carbon Monoxide

C=

Carbon

O2=

Oxygen

CH4=

Methane

NOx=

Nitrogen Oxide

ηc=

Carbon Conversion Efficiency

Abbreviation:=

 

BFBG=

Bubbling Fluidized Bed Gasifier

CFD=

Computational Fluid Dynamics

FBG=

Fluidized Bed Gasifier

Fig.=

Figure

Vol.=

Volume

G=

Dry gas yield

FB=

Fluidized Bed

SPM=

Suspected Particle Matter

CAD=

Computer Adied Design

ER=

Equivalence ratio

CCE=

Carbon Conversion Efficiency

CV=

Calorific Value

LHV=

Lower Heating Value

HHV=

Higher Heating Value

GC=

Gas Chromatography

Acknowledgements

The authors acknowledge for the financial support received from Indus Centre for Start-up Innovation and Incubation (ICSII), Indus University, and SSIP, Government of Gujarat, India.

Disclosure statement

No potential conflict of interest was reported by the author(s).

Additional information

Notes on contributors

Dharmendra Sapariya

Mr. Dharmendra Sapariya, is a researcher and Assistant Professor in the Mechanical Engineering Department, Indus University, Ahmedabad, Gujarat, India. He received his master degree in Energy Engineering from Gujarat Technological University, Gujarat, India. His main research direction are the clean renewable energy, high-value utilization of low value natural resources, Energy conservation and Energy Management.

Umang Patdiwala

Dr. Umang Patdiwala, is Assistant professor, Mechanical Engineering Department, Indus University, Ahmedabad, Gujarat, India. He received his M.tech degree in thermal science from IIT-Madras, India and Ph D in the Mechanical from KSV Sarvavishwavidhyalay, Gandhinagar, Gujarat, India. His main research interest in the field of thermal engineering, solar energy and turbo machines.

Jay Makwana

Mr. Jay Makwana, is researcher in the Mechanical Engineering Department, Indus University, Ahmedabad, Gujarat, India. He has completed his master degree from Indus University, Ahmedabad. His area of research interned in the field of clean energy development mechanism.

Hitesh Panchal

Dr. Hitesh Panchal obtained his Ph.D. in Solar Thermal Engineering in 2015 from KSV University Gandhinagar. He is currently working as Assistant Professor in Mechanical Engineering Department in Government Engineering College Patan, Gujarat. Dr. Panchal has published 150 plus Research papers in reputed International Journal publications like Taylor and Francis, Springer, Elsevier, ASME, etc., and received 7800 plus Google scholar citations with H index 54 and I10 index 167. Dr. Panchal obtained 28 prestigious awards includes Tech GURU Award, Pedagogical Innovation Award, SSIP Prashansha Award, Preeminent Researcher Award, Best Ph.D. Thesis Award, Young Scientist Award, Bright Researchers Award, and many more. Dr. Panchal has completed 2 Research projects from GUJCOST and SYST, DST, and currently working on a Research project under STEM grant, Education Department, Government of Gujarat. He filed 34 Full patents and 12 Industrial designs, and among them, two full patents and eleven industrial designs had granted. Currently, he is Associate editor of Multidisciplinary International Research Journal of Gujarat Technological University, Academic editor of Advances in Agriculture, Hindawi Publications, Editorial board member of Energy Nexus journal, Elsevier Publication, Guest editor of International Journal of Renewable Energy Technology, Inderscience publication & Regional editor of Journal of Thermal engineering, Yilditz University, Turkey. His areas of interest include “Solar Desalination, I C Engine emission analysis & Control, Automobile engineering, etc. currently Dr. Panchal was selected in the Top 2 % Indian scientist in Energy Category published by Stanford University & Elsevier and top 100 indian scientist in the Engineering and technology category by research.com.

P V Ramana

Prof. Dr. P V Ramana, is Dean (R&D), Professor (ME) and Head, Aeronautical Engineering Department of Sardar Vallabhbhai Patel Institute of Technology (SVIT) Vasad, Gujarat India. He has done Ph D and M. Tech in Mechanical Engineering with Thermal Engineering specialization from Indian Institute of Technology Madras, Chennai. His areas of research and interests are Thermal Engineering, Renewable Energy, Heat transfer, computational Fluid Dynamics, Porous Media, Energy conservation, Energy Management.

Ali Jawad Alrubaie

Ali Jawad Alrubaie, Medical instrumentation techniques engineering, Al-Mustaqbal University College, Hillah, Babil, Iraq. His areas of research and interests are Soft Computing, Artificial Intelligence, Power System and Power Electronic.

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