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Nanomaterials.
- Format:
- Book
- Author/Creator:
- Sharma, Prianka.
- Language:
- English
- Physical Description:
- 1 online resource (320 pages)
- Edition:
- 1st ed.
- Place of Publication:
- Sharjah : Bentham Science Publishers, 2024.
- Summary:
- This book explains various methods needed to overcome the challenges faced during environmental remediation with a focus on nanotechnology. The book comprises ten edited chapters that aim to inform and educate readers about recent technologies that are beneficial for pollution control. Starting with an introduction to environmental remediation, the book covers innovative nanomaterials including spinel nanoferrites, carbonaceous quantum dots, carbon nanotubes and nanobioadsorbents. In addition to highlighting the environmental benefits of these materials, the book includes chapters on the potential of nanotechnology for harnessing the environment to generate energy through nanogenerators and piezoelectric energy harvesting devices. Key features of the book include notes on fundamental issues and challenges regarding environmental remediation, easy to read content with pictorial illustrations and scholarly references for each chapter. The book is an informative resource for students and academicians in science, technology and environmental science discipline. Readership Students and academicians in science, technology and environmental science discipline.
- Contents:
- Title
- Copyright
- End User License Agreement
- Contents
- Preface
- About the Editors
- List of Contributors
- Nanomaterials for Environmental Remediation
- Sarabjeet Kaur1,2, Madan Lal1,3 and Prianka Sharma1,*
- INTRODUCTION
- TYPES AND CAUSES OF ENVIRONMENTAL POLLUTION
- NANOTECHNOLOGY AND ENVIRONMENTAL REMEDIATION
- NANOREMEDIATION TECHNIQUES
- Adsorption
- Metal- and Metal Oxide Based Nano Adsorbent
- Magnetic Nano-adsorbent
- Carbon-based Nano-adsorbent
- Polymer-based Nano-adsorbent
- Photocatalysis
- Semiconductor Photocatalyst
- Magnetic Nanoparticles as Photocatalyst
- Two Dimensional Materials as Photocatalyst
- Nano-Membranes
- Carbon Nanotube Membrane
- Electrospun Nano-fiber Membrane
- Hybrid Nano-membranes
- Nanosensors
- Quantum Dots Nanosensors
- Metal- and Metal Oxide-Based Nano Sensor
- Carbon-based Nanosensors
- ENERGY HARVESTING AND STORAGE
- Carbon-based Nanomaterials for Energy Harvesting
- Metal and Metal Oxide-based Nanomaterials for Energy Harvesting
- Two-dimensional Nanomaterials for Energy Harvesting
- CONCLUSION
- REFERENCES
- Spinel Nanoferrites: Adsorption and Photocatalysis of Emerging Pollutants
- Jyoti Prakash1, Rohit Jasrotia1,*, Suman2, Pinki Kotwal1, Himanshi1, Ankit Verma3, Abhishek Kandwal1, Pawan Kumar1 and Sachin Kumar Godara4
- SPINEL FERRITE
- SYNTHESIS OF SPINEL FERRITE
- Sol-gel
- Co-precipitation
- Hydrothermal Method
- Solid State
- WASTEWATER TREATMENT
- Adsorption by Spinel Ferrites
- Adsorption of Organic Toxins
- Adsorption of Inorganic Toxins
- Photocatalysis by Spinel Ferrites
- REFERENCE
- Carbonaceous Quantum Dots and Their Application in Environmental Remediation
- Ekta Sharma1, Vaishali Thakur1 and Kulvinder Singh2,*
- CARBONACEOUS QUANTUM DOTS AS OPTICAL SENSORS FOR HEAVY METAL IONS.
- METHODS FOR HEAVY METAL IONS AND POLLUTANTS REMOVAL FROM WASTEWATER
- Physical Methods
- Filtration Treatment
- Activated Carbon
- Zeolites
- Chitosan and Chitin
- Agricultural waste byproducts as low-cost adsorbent
- Chemical Methods
- Oxidation
- Flocculation-Coagulation Treatments
- Electrochemical Oxidation
- Photocatalytic Degradation
- Biological Methods
- Boosting Water Remediation Processes by Exploring the Role of Carbonaceous Material in Advance Oxidation and Adsorption Processes
- Suman Kumari1, Sushma Devi1 and Ajay Kumar1,*
- SYNTHESIS METHODS
- Synthesis of Activated Carbon
- Synthesis of Biochar
- Synthesis of Hydro Char
- Synthesis of Graphene
- MODIFICATIONS FOR SPECIFIC APPLICATION
- ROLE OF ADVANCED OXIDATION PROCESSES
- Photo-catalysis
- Adsorption led Photo-catalysis
- Generation of Reactive Oxygen Species at the Surface
- Emerging Role of Ferrite Nanostructures for the Remediation of Environmental Pollution
- Ankita Goyal1,* and Manisha Dhiman2
- Treatment of Industrial Waste Waters: Advance Oxidation Processes (AOPs)
- Homogeneous and Heterogeneous Systems
- NANOMATERIALS AS CATALYSTS
- Magnetically Recovered Nanocatalysts: A Path to Green AOPs
- Spinel Nanoferrites as MRNs
- Structure of Spinel Nanoferrites
- Magnetic Properties of Spinel Nanoferrites
- Spinel Nanoferrites Catalysis
- Catalysis Offered by Spinel Nanoferrites for Green AOPs
- Pure and Substituted Spinel Nanoferrites as Catalysts for AOP's
- Catalysis Presented by Composites of Ferrites with Support Materials
- Nanoferrites Composites with Carbonaceous Materials
- Catalysis Presented by Core-Shell Nanostructures
- CONCLUDING REMARKS AND FUTURE PERSPECTIVE
- ACKNOWLEDGEMENTS
- REFERENCES.
- Carbon Nanotubes: Measure for Environmental Remediation
- Pankaj Sharma1,*, Vidushi Karol2, Sarabjeet Kaur2,3 and Prianka Sharma3
- CNT Structure and Types
- CARBON NANOTUBES FOR ENVIRONMENTAL APPLICATIONS
- CNTs as Adsorbents
- Adsorption of Organic Dyes
- Adsorption of Pharmaceutical Waste
- Adsorption of Inorganic Contaminants
- Adsorption of Heavy Metals and Radionuclides
- Adsorption of Other Pollutants
- CNTs as Membranes for Water Desalination
- CNTs as Catalyst for Water Remediation
- Photocatalyst
- Electro-catalysis
- CNTs as Sensors
- FUNCTIONALIZATION OF CARBON NANOTUBES FOR ENVIRONMENTAL APPLICATIONS
- Surface Oxidation of CNT
- Alkali Activation of CNT
- Functionalization of CNT with Magnetic Particles
- Functionalization of CNT with Non-Magnetic Particles
- Functionalization of CNT with other Carbon-based Adsorbents
- CNT Functionalization with Polymers
- Functionalization of CNT with Specific Chemical Derivatives
- Functionalization of CNT for Environmental Bioremediation
- CNT IMMOBILIZATION FOR ENVIRONMENTAL APPLICATIONS
- CHALLENGES IN CNTS APPLICATIONS
- Environmental Concerns and Toxicity
- Manufacturing Costs
- Long-term Impact
- General Applicability
- Cellulose-Based Nanomaterials (Nanobioadsor- bents) for Recovery of Valuable Metals from Wastewater: A Review
- Sanmitra Barman1,*, Sambhunath Bera1 and Mehreen Javid1
- EXTRACTION OF METALS WITH CELLULOSE NANOMATERIALS
- Static Adsorption
- Continuous Filtration
- Chemical Reduction
- EXTRACTION OF BATTERY-RELATED METALS WITH CELLULOSE NANOMATERIALS
- Static Adsorption of Battery Related Nanomaterials
- Dynamic Filtration of Battery Related Metal Ions
- OTHER USES OF CELLULOSE-BASED NANOMATERIALS
- Cellulose Metal Oxide Nanoparticles.
- Anionic Functionalization of Nanocellulose for Adsorption (Recovery) of Rare Earth Metals
- Nanogenerators for Energy Harvesting
- Sachin Kumar Singh1, Sridharbabu Yarramaneni2, Vedraj Nagar3 and Abhimanyu Singh Rana2,*
- Piezoelectric Nanogenerator (PENG)
- Triboelectric Nanogenerators (TENG)
- Pyroelectric and Thermoelectric Generators
- BASIC ISSUES RELATED TO NANOGENERATORS CIRCUIT DESIGN
- CONCLUSION AND FUTURE PERSPECTIVE
- Development of Piezoelectric Energy Harvesting Devices from Lead-Free Piezoelectric Materials
- Priyanka Thakur1, Navdeep Sharma2, Prashant Thakur3,4, Madan Lal1,5,*, Pankaj Sharma6 and Dinesh Pathak7
- Significance of Piezoelectric Energy Harvesting Techniques
- Renewable Energy Source
- Ubiquitous Vibrations Utilization
- Self-Powered Electronics
- Remote and Harsh Environments
- Wireless Sensor Networks
- Energy Harvesting from Human Activities
- Reducing Environmental Impact
- Low Maintenance Requirements
- Harvesting Energy from Structural Vibrations
- Integration with the Internet of Things (IoT)
- Advancements in Material Science
- Research and Innovation Opportunities
- Piezoelectricity
- Fundamentals of Piezoelectric Effect in Solids
- Piezoelectric Properties
- Piezoelectric Coefficients
- Electromechanical Coupling Factor (k)
- Energy Transmission Coefficient (λmax)
- Efficiency (η)
- Mechanical Quality Factor (Qm)
- Dielectric Properties
- Dielectric Permittivity (εij)
- Dielectric Dissipation Factor (tan δ)
- Curie Temperature (Tc)
- Elastic Constant
- Acoustic Impedance (Z)
- PIEZOELECTRIC MATERIALS
- Single Crystals
- Polycrystalline Materials
- Pb-based Piezoelectric Materials
- Pb-free Piezoelectric Materials
- Potassium Sodium Niobate (KNN) Based Ceramics.
- Barium Titanate (BT) Based Ceramics
- Bismuth Sodium Titanate (BNT) Based Ceramics
- Piezoelectric Materials for Energy-Harvesting Applications
- ENERGY HARVESTING APPLICATIONS
- Piezoelectric Sensors
- How a Piezoelectric Sensor Works
- How a Piezoelectric Material Helps in Sensing Applications
- Applications of Piezoelectric Sensors
- Piezoelectric Transducer
- Piezoelectric Actuators
- LIMITATIONS OF PB-FREE PIEZOELECTRIC MATERIALS
- Temperature Stability
- Large Hysteresis and Low Curie Temperature
- Phase Boundaries' Inherent Properties
- Origin of High Piezoelectricity
- CONCLUSION AND FUTURE PERSPECTIVES
- Role of Thermal Spray Additive Manufacturing in Combating Climate Changes
- Santosh Kumar1,*
- Improved Resource Efficiency
- Product Life Extended
- Re-configuring the Value Chains
- Role of Thermal Spray in Climate Change
- Share of Various Processes and Industries to Greenhouse Gas Emission
- Methods for Emissions Reduction from Electric Power Generation
- INTRODUCTION TO COLD SPRAY (CS)
- Cold Spray Bonding and Impact Mechanism
- Comparison of Traditional Thermal Spray and Cold Spray Processes
- ADDITIVE MANUFACTURING (AM)
- COLD SPRAY ADDITIVE MANUFACTURING (CSAM)
- Features of Cold Spray as Additive Manufacturing
- Advantages and Disadvantages of CSAM
- Sustainability Implications of CSAM
- Environmental Issue
- Part Restoration vs. Replacement
- Enhanced Service Life by Advanced Sustainable Coatings
- CHALLENGES
- CONCLUSIONS
- Nanomaterials in Environmental Remediation: An Ecotoxicity and Risk Analysis
- Abhinay Thakur1, Ashish Kumar2,*, Harpreet Kaur1 and Kulvinder Singh3,*
- History and Development of Nanomaterials
- Types of Nanomaterials
- ENVIRONMENTAL TOXICITY RESEARCH AND NANOMATERIAL RISK EVALUATION.
- Carcinogenic and Genotoxic Impacts of Nanomaterials.
- Notes:
- Description based on publisher supplied metadata and other sources.
- ISBN:
- 9789815223613
- 9815223615
- OCLC:
- 1458756529
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