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Lignocellulosic Biomass to Value-Added Products
Fundamental Strategies and Technological Advancements
- 1st Edition - June 17, 2021
- Authors: Mihir Kumar Purkait, Dibyajyoti Haldar
- Language: English
- Paperback ISBN:9 7 8 - 0 - 1 2 - 8 2 3 5 3 4 - 8
- eBook ISBN:9 7 8 - 0 - 1 2 - 8 2 3 5 9 1 - 1
Lignocellulosic Biomass to Value-Added Products: Fundamental Strategies and Technological Advancements focuses on fundamental and advanced topics surrounding technologies for the c… Read more
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Request a sales quoteLignocellulosic Biomass to Value-Added Products: Fundamental Strategies and Technological Advancements focuses on fundamental and advanced topics surrounding technologies for the conversion process of lignocellulosic biomass. Each and every concept related to the utilization of biomass in the process of conversion is elaborately explained, with importance given to minute details. Advanced level technologies involved in the conversion of biomass into biofuels, like bioethanol and biobutanol, are addressed, along with the process of pyrolysis. Readers of this book will become fully acquainted with the field of lignocellulosic conversion, from its basics to current research accomplishments.
The uniqueness of the book lies in the fact that it covers each and every topic related to biomass and its conversion into value-added products. Technologies involved in the major areas of pretreatment, hydrolysis and fermentation are explained precisely. Additional emphasis is given to the analytical part, especially the established protocols for rapid and accurate quantification of total sugars obtained from lignocellulosic biomass.
- Includes chapters arranged in a flow-through manner
- Discusses mechanistic insights in different phenomena using colorful figures for quick understanding
- Provides the most up-to-date information on all aspects of the conversion of individual components of lignocellulosic biomass
Undergraduate students, senior undergraduate students, academicians, industry professionals, researchers, and scientists from biotechnology, chemical engineering, and biochemical engineering backgrounds
1. Introduction
1.1. Overview on lignocellulosic biomass
1.1.1. Cellulose
1.1.2. Hemicellulose
1.1.3. Lignin
1.2. Literature review
1.3. Brief history on lignocellulosic biomass and its conversion process
1.4. Scope of the book
References
2. Compositional aspects of lignocellulosic biomass
2.1. Introduction
2.2. Literature review
2.3. Crystallinity and amorphicity of cellulose
2.4. Hemicellulose solubilization
2.5. Lignin barrier
2.6. Particle size of biomass
2.7. Compositional aspect of other common biomasses
2.7.1. Solid waste
2.7.2. Microalgae
2.8. Summary
References
3. Conventional pretreatment methods of lignocellulosic biomass
3.1. Overview on pretreatment process
3.2. Literature review
3.3. Strategies to conduct pretreatment with aid of physical methods
3.3.1. Pretreatment using ball milling
3.3.2. Pretreatment using extrusion
3.3.3. Pretreatment with aid of irradiation
3.4. Strategies of pretreatment with aid of chemicals
3.4.1. Acid pretreatment
3.4.2. Alkali pretreatment
3.4.3. Ionic liquid pretreatment
3.4.4. Organosolv pretreatment
3.5. Strategies of physico-chemical pretreatment methods
3.5.1. Steam explosion pretreatment
3.5.2. Liquid hot water pretreatment
3.5.3. Wet oxidation pretreatment
3.5.4. Carbon-di-oxide pretreatment
3.6. Pretreatment using biological agents
3.7. Integrated pretreatment processes
3.8. Summary
References
4. Emerging and advanced techniques in the pretreatment of lignocellulosic biomass
4.1. Literature review
4.2. Pretreatment using microwave and ultrasound
4.3. Pretreatment using gamma ray and irradiation of electron beam
4.4. Application of pulsed electric field in the pretreatment
4.5. Application of high hydrostatic pressure
4.6. High pressure homogenization in the pretreatment of biomass
4.7. Natural deep eutectic solvents for biomass pretreatment process
4.8. Summary
References
5. Formation and detoxification of inhibitors
5.1. Overview on inhibitors
5.2. Literature review
5.3. Mechanistic formation of various inhibitors
5.3.1. Formation of furfural
5.3.2. Formation of hydroxymethyl furfural
5.3.3. Formation of acetic acid
5.3.4. Formation of formic acid
5.3.5. Formation of levulinic acid
5.4. Strategies to detoxify the formation of inhibitors
5.4.1. Microbial ability to detoxify inhibitors
5.4.2. Application of enzymes for the detoxification of hydrolysates
5.4.3. Chemical aided detoxification processes
5.5. Summary
References
6. Enzymatic hydrolysis: Mechanistic insight and advancement
6.1. Overview on enzymatic hydrolysis
6.2. Literature review
6.3. Enzymatic system
6.3.1. Active site of enzyme
6.3.2. Substrate binding site
6.3.3. Biochemistry involved in cellulase enzyme from T. reesei
6.4. Mechanism of enzymatic reactions
6.4.1. Enzymatic hydrolysis with cellulase enzyme
6.4.2. Enzymatic hydrolysis with hemicellulase enzyme
6.4.3. Enzymatic hydrolysis with combination of enzymes
6.5. Product inhibition during enzymatic hydrolysis of biomass
6.5.1. Competitive inhibition
6.5.2. Non-competitive inhibition
6.5.3. Un-competitive inhibition
6.6. Summary
References
7. Strategies towards an improvement in enzymatic production
7.1. Overview
7.2. Literature review
7.3. Optimum reaction conditions
7.3.1. Effect of pH, temperature, solid loading and enzyme concentration
7.4. Impact of additives on enzymatic hydrolysis
7.4.1. Addition of surfactants
7.4.2. Chemical addition
7.4.3. Presence of metal ions
7.4.4. Effect of polymer addition
7.5. Strategies to improve enzymatic yield of biomass
7.6. Summary
References
8. Analytical methods for quantification of sugars and characterization of biomass
8.1. Overview
8.2. Literature review
8.3. DNS method for analysis of total reducing sugars
8.3.1. Preparation of DNS reagent
8.3.2. Preparation of sodium potassium tartrate (Rochelle salt) solution
8.3.3. DNS method with standardization of glucose
8.4. Phenol sulphuric acid method for quantification of total sugars
8.4.1. Reagents of phenol sulphuric acid method
8.4.2. Phenol sulphuric acid method with standardization of glucose
8.5. Anthrone method for the determination of total carbohydrates
8.5.1. Preparation of anthrone reagent with thiourea in 75% sulphuric acid
8.5.2. Quantification of total carbohydrates using conventional anthrone method
8.5.3. Criticalities involved with conventional anthrone method
8.5.3.1. Comparative analysis for total sugars using conventional anthrone method
8.5.3.2. Concentration of individual sugars observed through uv-visible spectrophotometer at 620 nm using conventional anthrone method
8.5.3.3. Scanning observations of individual sugars at 620 nm using uv-visible spectrophotometer
8.5.3.4. Reaction mechanism of conventional anthrone method
8.5.3.5. Reaction mechanism of galactose and mannose with anthrone
8.5.3.6. Reaction mechanism of xylose and arabinose with anthrone
8.5.4 Modifications in conventional anthrone method
8.5.4.1. OD variation at 620 nm for different sugars in 98% sulphuric acid at different reaction times
8.5.4.2. Effect of thiourea in anthrone reagent prepared in 98% sulphuric acid
8.5.4.3. Modified protocol based on conventional anthrone method
8.5.4.4. Comparative assessment on the validation of the proposed model
8.6. HPLC analysis for identification and quantification of individual sugars
8.6.1. Inability of H column in separating galactose and mannose from sugar mixture
8.7. SEM analysis of biomass
8.8. FTIR analysis of biomass
8.9. XRD analysis of biomass
8.10. Summary
References
9. Value-added products derived from lignocellulosic biomass
9.1. Overview
9.2. Literature review
9.3. Derivatives from cellulose
9.3.1. Pulp and paper
9.3.2. Fibers and textiles
9.3.3. Nanocellulose
9.4. Lignocellulosic enzymes
9.4.1. Cellulase produced from lignocellulosic biomass
9.4.2. Xylanase produced from lignocellulosic biomass
9.5. Organic acid from fermentable sugars
9.5.1. Citric acid
9.5.2. Succinic acid
9.6. Formation of polysaccharides from biomass
9.6.1. Xanthan
9.6.2. Chitosan
9.7. Summary
References
10. Valorization of lignin into high value products
10.1. Overview
10.2. Literature review
10.3. Structure and characterization of different types of lignin
10.4. Strategies to extract lignin from biomass
10.4.1. Lignin obtained from kraft process
10.4.2. Lignin obtained from sulphite process
10.4.3. Soda process for lignin extraction
10.4.4. Organosolv process for lignin extraction
10.5. Synthesis of functionally modified lignin
10.6. Industrial applications of lignin
10.7. Strategies to synthesize lignin based nanoparticles (LNPs) for various applications
10.7.1. LNPs as composite materials
10.7.2. LNPs as carrier in drug delivery system
10.7.3. LNPs in tissue engineering and other application
10.8. Summary
References
11. Bioenergy from biomass
11.1. Overview on bioenergy from biomass
11.2. Literature review
11.3. Bioethanol from biomass
11.3.1. Potential lignocellulosic wastes towards bioethanol production
11.3.2. strategies undertaken in sustainable technologies towards the production of bioethanol
11.3.3. Challenges persisting with the production process of bioethanol
11.4. Biobutanol from biomass
11.4.1. Superior features of biobutanol over bioethanol as biofuel
11.4.2. Strategies involved in the production of biobutanol
11.4.3. Future aspects towards industrial installation of biobutanol
11.5. Biogas from biomass
11.5.1. Advancement in technologies with the production of biohydrogen
11.5.2. Advancement in technologies with the production of biomethane
11.6. Summary
References
12. Pyrolysis of biomass for value-added products
12.1. Overview on pyrolysis and gasification process
12.2. Literature review
12.3. Mechanism of pyrolysis
12.4. Selection of feedstock for pyrolysis process
12.4.1. Woody biomass
12.4.2. Agricultural biomass
12.4.3. Energy crops
12.5. Process conditions towards an effective pyrolysis process
12.5.1. Reaction ambience
12.5.2. Temperature
12.5.3. Heating rate
12.6. Classifications of pyrolysis process
12.6.1. Fast pyrolysis
12.6.2. Intermediate pyrolysis
12.6.3. Slow pyrolysis
12.7. Summary
References
13. Waste to bioenergy in the developed and developing world
13.1. Overview on bioenergy in the developed and developing world
13.2. Literature review
13.3. Strategies undertaken by the developed countries for the conversion of lignocellulosic waste to bioenergy
13.4. Present scenario of bioenergy in the developing countries using lignocellulosic wastes
13.5. Summary
References
14. Advanced and emerging technologies for the conversion of biomass to bioenergy
14.1. Overview on advanced technologies for biomass to bioenergy conversion
14.2. Literature review
14.3. Strategies to mitigate the limitations of the existing technologies
14.4. Strategies adopted as advanced technologies in the conversion of biomass to bioenergy
14.5. Summary
References
15. Challenges and future perspectives involved with various unit operations in the production of bioenergy from biomass
15.1. Bottlenecks in the process of pretreatment of biomass
15.2. Critical factors to overcome high cost of enzyme during hydrolysis of biomass
15.3. Present challenges with the commercial adaptation of biofuel production
15.3.1. Selection of efficient microbes for fermentation
15.3.2. Proper utilization of sugars as feedstock materials
15.3.3. Separation of biofuel to improve the performance of fermentation
15.3.4. Influence on co-formation of other products
15.3.5. Water requirement in biorefinery and recycling
15.4 Recommendations on futuristic approach
15.5. Conclusions
References
1.1. Overview on lignocellulosic biomass
1.1.1. Cellulose
1.1.2. Hemicellulose
1.1.3. Lignin
1.2. Literature review
1.3. Brief history on lignocellulosic biomass and its conversion process
1.4. Scope of the book
References
2. Compositional aspects of lignocellulosic biomass
2.1. Introduction
2.2. Literature review
2.3. Crystallinity and amorphicity of cellulose
2.4. Hemicellulose solubilization
2.5. Lignin barrier
2.6. Particle size of biomass
2.7. Compositional aspect of other common biomasses
2.7.1. Solid waste
2.7.2. Microalgae
2.8. Summary
References
3. Conventional pretreatment methods of lignocellulosic biomass
3.1. Overview on pretreatment process
3.2. Literature review
3.3. Strategies to conduct pretreatment with aid of physical methods
3.3.1. Pretreatment using ball milling
3.3.2. Pretreatment using extrusion
3.3.3. Pretreatment with aid of irradiation
3.4. Strategies of pretreatment with aid of chemicals
3.4.1. Acid pretreatment
3.4.2. Alkali pretreatment
3.4.3. Ionic liquid pretreatment
3.4.4. Organosolv pretreatment
3.5. Strategies of physico-chemical pretreatment methods
3.5.1. Steam explosion pretreatment
3.5.2. Liquid hot water pretreatment
3.5.3. Wet oxidation pretreatment
3.5.4. Carbon-di-oxide pretreatment
3.6. Pretreatment using biological agents
3.7. Integrated pretreatment processes
3.8. Summary
References
4. Emerging and advanced techniques in the pretreatment of lignocellulosic biomass
4.1. Literature review
4.2. Pretreatment using microwave and ultrasound
4.3. Pretreatment using gamma ray and irradiation of electron beam
4.4. Application of pulsed electric field in the pretreatment
4.5. Application of high hydrostatic pressure
4.6. High pressure homogenization in the pretreatment of biomass
4.7. Natural deep eutectic solvents for biomass pretreatment process
4.8. Summary
References
5. Formation and detoxification of inhibitors
5.1. Overview on inhibitors
5.2. Literature review
5.3. Mechanistic formation of various inhibitors
5.3.1. Formation of furfural
5.3.2. Formation of hydroxymethyl furfural
5.3.3. Formation of acetic acid
5.3.4. Formation of formic acid
5.3.5. Formation of levulinic acid
5.4. Strategies to detoxify the formation of inhibitors
5.4.1. Microbial ability to detoxify inhibitors
5.4.2. Application of enzymes for the detoxification of hydrolysates
5.4.3. Chemical aided detoxification processes
5.5. Summary
References
6. Enzymatic hydrolysis: Mechanistic insight and advancement
6.1. Overview on enzymatic hydrolysis
6.2. Literature review
6.3. Enzymatic system
6.3.1. Active site of enzyme
6.3.2. Substrate binding site
6.3.3. Biochemistry involved in cellulase enzyme from T. reesei
6.4. Mechanism of enzymatic reactions
6.4.1. Enzymatic hydrolysis with cellulase enzyme
6.4.2. Enzymatic hydrolysis with hemicellulase enzyme
6.4.3. Enzymatic hydrolysis with combination of enzymes
6.5. Product inhibition during enzymatic hydrolysis of biomass
6.5.1. Competitive inhibition
6.5.2. Non-competitive inhibition
6.5.3. Un-competitive inhibition
6.6. Summary
References
7. Strategies towards an improvement in enzymatic production
7.1. Overview
7.2. Literature review
7.3. Optimum reaction conditions
7.3.1. Effect of pH, temperature, solid loading and enzyme concentration
7.4. Impact of additives on enzymatic hydrolysis
7.4.1. Addition of surfactants
7.4.2. Chemical addition
7.4.3. Presence of metal ions
7.4.4. Effect of polymer addition
7.5. Strategies to improve enzymatic yield of biomass
7.6. Summary
References
8. Analytical methods for quantification of sugars and characterization of biomass
8.1. Overview
8.2. Literature review
8.3. DNS method for analysis of total reducing sugars
8.3.1. Preparation of DNS reagent
8.3.2. Preparation of sodium potassium tartrate (Rochelle salt) solution
8.3.3. DNS method with standardization of glucose
8.4. Phenol sulphuric acid method for quantification of total sugars
8.4.1. Reagents of phenol sulphuric acid method
8.4.2. Phenol sulphuric acid method with standardization of glucose
8.5. Anthrone method for the determination of total carbohydrates
8.5.1. Preparation of anthrone reagent with thiourea in 75% sulphuric acid
8.5.2. Quantification of total carbohydrates using conventional anthrone method
8.5.3. Criticalities involved with conventional anthrone method
8.5.3.1. Comparative analysis for total sugars using conventional anthrone method
8.5.3.2. Concentration of individual sugars observed through uv-visible spectrophotometer at 620 nm using conventional anthrone method
8.5.3.3. Scanning observations of individual sugars at 620 nm using uv-visible spectrophotometer
8.5.3.4. Reaction mechanism of conventional anthrone method
8.5.3.5. Reaction mechanism of galactose and mannose with anthrone
8.5.3.6. Reaction mechanism of xylose and arabinose with anthrone
8.5.4 Modifications in conventional anthrone method
8.5.4.1. OD variation at 620 nm for different sugars in 98% sulphuric acid at different reaction times
8.5.4.2. Effect of thiourea in anthrone reagent prepared in 98% sulphuric acid
8.5.4.3. Modified protocol based on conventional anthrone method
8.5.4.4. Comparative assessment on the validation of the proposed model
8.6. HPLC analysis for identification and quantification of individual sugars
8.6.1. Inability of H column in separating galactose and mannose from sugar mixture
8.7. SEM analysis of biomass
8.8. FTIR analysis of biomass
8.9. XRD analysis of biomass
8.10. Summary
References
9. Value-added products derived from lignocellulosic biomass
9.1. Overview
9.2. Literature review
9.3. Derivatives from cellulose
9.3.1. Pulp and paper
9.3.2. Fibers and textiles
9.3.3. Nanocellulose
9.4. Lignocellulosic enzymes
9.4.1. Cellulase produced from lignocellulosic biomass
9.4.2. Xylanase produced from lignocellulosic biomass
9.5. Organic acid from fermentable sugars
9.5.1. Citric acid
9.5.2. Succinic acid
9.6. Formation of polysaccharides from biomass
9.6.1. Xanthan
9.6.2. Chitosan
9.7. Summary
References
10. Valorization of lignin into high value products
10.1. Overview
10.2. Literature review
10.3. Structure and characterization of different types of lignin
10.4. Strategies to extract lignin from biomass
10.4.1. Lignin obtained from kraft process
10.4.2. Lignin obtained from sulphite process
10.4.3. Soda process for lignin extraction
10.4.4. Organosolv process for lignin extraction
10.5. Synthesis of functionally modified lignin
10.6. Industrial applications of lignin
10.7. Strategies to synthesize lignin based nanoparticles (LNPs) for various applications
10.7.1. LNPs as composite materials
10.7.2. LNPs as carrier in drug delivery system
10.7.3. LNPs in tissue engineering and other application
10.8. Summary
References
11. Bioenergy from biomass
11.1. Overview on bioenergy from biomass
11.2. Literature review
11.3. Bioethanol from biomass
11.3.1. Potential lignocellulosic wastes towards bioethanol production
11.3.2. strategies undertaken in sustainable technologies towards the production of bioethanol
11.3.3. Challenges persisting with the production process of bioethanol
11.4. Biobutanol from biomass
11.4.1. Superior features of biobutanol over bioethanol as biofuel
11.4.2. Strategies involved in the production of biobutanol
11.4.3. Future aspects towards industrial installation of biobutanol
11.5. Biogas from biomass
11.5.1. Advancement in technologies with the production of biohydrogen
11.5.2. Advancement in technologies with the production of biomethane
11.6. Summary
References
12. Pyrolysis of biomass for value-added products
12.1. Overview on pyrolysis and gasification process
12.2. Literature review
12.3. Mechanism of pyrolysis
12.4. Selection of feedstock for pyrolysis process
12.4.1. Woody biomass
12.4.2. Agricultural biomass
12.4.3. Energy crops
12.5. Process conditions towards an effective pyrolysis process
12.5.1. Reaction ambience
12.5.2. Temperature
12.5.3. Heating rate
12.6. Classifications of pyrolysis process
12.6.1. Fast pyrolysis
12.6.2. Intermediate pyrolysis
12.6.3. Slow pyrolysis
12.7. Summary
References
13. Waste to bioenergy in the developed and developing world
13.1. Overview on bioenergy in the developed and developing world
13.2. Literature review
13.3. Strategies undertaken by the developed countries for the conversion of lignocellulosic waste to bioenergy
13.4. Present scenario of bioenergy in the developing countries using lignocellulosic wastes
13.5. Summary
References
14. Advanced and emerging technologies for the conversion of biomass to bioenergy
14.1. Overview on advanced technologies for biomass to bioenergy conversion
14.2. Literature review
14.3. Strategies to mitigate the limitations of the existing technologies
14.4. Strategies adopted as advanced technologies in the conversion of biomass to bioenergy
14.5. Summary
References
15. Challenges and future perspectives involved with various unit operations in the production of bioenergy from biomass
15.1. Bottlenecks in the process of pretreatment of biomass
15.2. Critical factors to overcome high cost of enzyme during hydrolysis of biomass
15.3. Present challenges with the commercial adaptation of biofuel production
15.3.1. Selection of efficient microbes for fermentation
15.3.2. Proper utilization of sugars as feedstock materials
15.3.3. Separation of biofuel to improve the performance of fermentation
15.3.4. Influence on co-formation of other products
15.3.5. Water requirement in biorefinery and recycling
15.4 Recommendations on futuristic approach
15.5. Conclusions
References
- No. of pages: 240
- Language: English
- Edition: 1
- Published: June 17, 2021
- Imprint: Elsevier
- Paperback ISBN: 9780128235348
- eBook ISBN: 9780128235911
MP
Mihir Kumar Purkait
Dr. Mihir Kumar Purkait is a Professor in the Department of Chemical Engineering at the Indian Institute of Technology Guwahati, Assam, India. His current research activities are focused in four distinct areas viz. i) advanced separation technologies, ii) waste to energy, iii) smart materials for various applications, and iv) process intensification. In each of the area, his goal is to synthesis stimuli responsive materials and to develop a more fundamental understanding of the factors governing the performance of the chemical and biochemical processes. He has more than 20 years of experience in academics and research and published more than 300 papers in different reputed journals (Citation: >16,500, h-index = 75, i-10 index = 193). He has 12 patents and completed 43 sponsored and consultancy projects from various funding agencies.
Affiliations and expertise
Professor, Department of Chemical Engineering, Indian Institute of Technology Guwahati, Assam, IndiaDH
Dibyajyoti Haldar
Dr. Dibyajyoti Haldar is an Assistant Professor in the Division of Biotechnology at Karunya Institute of Technology and Sciences (Deemed to-be University), Coimbatore, India. Prior to joining as an Assistant Professor, Dr. Haldar completed his Post-Doc as an Institute Post-doctoral Fellow at Centre for the Environment of Indian Institute of Technology, Guwahati. He obtained his Ph.D. degree in Biochemical Engineering from National Institute of Technology Agartala, India and M. Tech in Environmental Science and Technology from National Institute of Technology Durgapur, India. of Technology Durgapur (NITDGP), India. His research work includes conversion of lignocellulosic biomass into fermentable sugars, enzymatic hydrolysis and kinetics, biofuels, and formation of value-added products derived from agricultural wastes and processes intensification.
Dr. Haldar has published more than 50 research and review articles in various SCI-Indexed reputed international journals of high impact factors. Apart from that, Dr. Haldar is the co-author of 4 books published by Elsevier. Moreover, he has also contributed few book chapters published by international publishers.
In 2023, Dr. Haldar was enlisted on the World’s Top 2% Scientist list ranked by Stanford University, USA.
Affiliations and expertise
Division of Biotechnology, Karunya Institute of Technology and Sciences, Coimbatore, IndiaRead Lignocellulosic Biomass to Value-Added Products on ScienceDirect