3D Printing Technology for Water Treatment Applications

Höfundar: Jitendra Kumar Pandey; Suvendu Manna; Ravi Patel (Útgáfa: 1)
3D Printing Technology for Water Treatment Applications

Kaup valmöguleikar

3D Printing Technology for Water Treatment Applications provides a state-of-the-art presentation on the application of 3D printing technology in water treatment. The book discusses numerous processes and their scope for improvement through the use of 3D-printing technology, including pollutant separation from water and an overview of the advantages and disadvantages of different 3D printed technology over current technologies.

In addition, the future outlook for device development using 3D printing water purification is explored. Finally, sustainability issues relating to 3D printing-based water purification processes are discussed, describing specific technologies such as 3D printed membranes. This book will serve as a vital resource for scientists, engineers and environmental professionals working in water treatment technologies.

Nánar um bókina

Útgefandi
Elsevier S & T
ISBN
9780323914192
Print ISBN
9780323998611
Format
ePub
Útgáfa
1
Höfundar
Jitendra Kumar Pandey; Suvendu Manna; Ravi Patel
Tungumál
English
Útgefið
2022-10-30
Prent takmörkun á líftíma
10

Kaflar

  • 3D Printing Technology for Water Treatment Applications
  • Cover
  • Title Page
  • Copyright Page
  • Table of Contents
  • Contributors
  • Chapter 1 An overview of the advances in the 3D printing technology
  • 1.1: Introduction
  • 1.1.1: Chronicle of 3D printing
  • 1.1.2: Computer-aided design (CAD)
  • 1.2: Technology classification for 3D printing
  • 1.2.1: Based on material extrusion
  • 1.2.2: Based on vat polymerization
  • 1.2.3: Based on powder bed fusion
  • 1.2.4: Based on material jetting
  • 1.2.5: Based on binder jetting
  • 1.2.6: Based on sheet lamination
  • 1.2.7: Based on direct energy deposition
  • 1.2.8: Other types
  • 1.3: Materials for 3D printing
  • 1.3.1: Metals
  • 1.3.2: Polymers
  • 1.3.3: Ceramics
  • 1.3.4: Composites
  • 1.3.5: Smart materials
  • 1.3.6: Earth-based materials
  • 1.3.7: Novel materials
  • 1.3.8: 3D printing pen materials
  • 1.4: Applications of 3D printing technology
  • 1.4.1: Health and dental industry
  • 1.4.2: Pharmaceutical industry
  • 1.4.3: Engineering
  • 1.4.4: Architecture
  • 1.4.5: Irrigation
  • 1.4.6: Education
  • 1.4.7: Food industry
  • 1.4.8: Aerospace and defense
  • 1.5: Limitations of 3D printing
  • 1.6: Future and conclusions
  • Chapter 2 Fabrication of microchannel for water treatment using 3D printing
  • 2.1: General
  • 2.2: 3D printing of microchannel
  • 2.3: Solid modeling
  • 2.4: Device design
  • 2.4.1: Cuboid structure
  • 2.4.2: Cylindrical structure
  • 2.5: TMA analyzer
  • 2.6: Conclusion
  • Chapter 3 Recent advances on 3D printing for wastewater treatment and process optimization using artificial intelligence and machine learning
  • 3.1: Introduction
  • 3.2: Overview and scope
  • 3.2.1: Bibliometric and review methods
  • 3.2.2: Research trends in wastewater treatment
  • 3.3: Principles
  • 3.3.1: Membrane separation technology
  • 3.3.2: Membrane modules
  • 3.4: Current applications
  • 3.4.1: 3D printing technologies in wastewater treatment
  • 3.5: Application of 3D printing for water treatment using membrane technology
  • 3.5.1: Membrane module design
  • 3.5.2: Design and fabrication of module spacers
  • 3.5.3: Design and fabrication of membranes
  • 3.6: Membrane materials and their fabrication methods
  • 3.7: Advanced applications of 3D printing for wastewater treatment
  • 3.7.1: Ion-exchange membranes
  • 3.7.2: Composite membranes
  • 3.7.3: Photocatalysis material
  • 3.7.4: Capsule/bio-carriers
  • 3.7.5: Moving bed biofilm reactors
  • 3.7.6: Oil–water separation substrate
  • 3.7.7: Solar absorbers
  • 3.7.8: Substrates for dye degradation
  • 3.7.9: Heavy metal adsorption
  • 3.7.10: Micro devices
  • 3.8: Optimization and sustainability of 3D printing technology in wastewater treatment
  • 3.8.1: Challenges for manufacturing of membranes
  • 3.9: Computational intelligent techniques for control and cost optimization of wastewater treatment
  • 3.9.1: Artificial intelligence
  • 3.9.2: Commonly used artificial intelligence methods
  • 3.9.3: Application of intelligent technologies for wastewater treatment
  • 3.10: Future prospects and next generation applications of machine learning for wastewater treatment
  • 3.11: Summary
  • Chapter 4 An overview of water pollutants in present scenario
  • 4.1: Introduction
  • 4.2: Source of pollutants
  • 4.2.1: Point source of pollution
  • 4.2.2: Nonpoint source of pollution
  • 4.3: Emerging pollutants
  • 4.4: Water purification technologies
  • 4.5: Conclusion
  • Chapter 5 A brief overview on advances in water treatment process
  • 5.1: Introduction
  • 5.2: Suspended solid removal
  • 5.2.1: Sedimentation
  • 5.2.2: Centrifugation
  • 5.2.3: Coagulation/flocculation
  • 5.3: Adsorption
  • 5.4: Moving bed biofilm reactor (MBBR)
  • 5.5: Solar desalination
  • 5.5.1: Direct solar desalination—solar still
  • 5.5.2: Indirect solar desalination
  • 5.6: Advanced oxidation processes
  • 5.6.1: Sonolysis
  • 5.6.2: Ozone-based advanced oxidation processes
  • 5.6.3: Ozonation and UV radiation (O3/UV)
  • 5.7: Reverse osmosis
  • 5.8: Electrodialysis
  • 5.8.1: Basic principle of electrodialysis
  • Chapter 6 3D-Printed membrane for water treatment
  • 6.1: Introduction
  • 6.2: Water pollutants
  • 6.2.1: Pathogens
  • 6.2.2: Macroscopic pollutants
  • 6.2.3: Inorganic compounds
  • 6.2.4: Organic materials
  • 6.3: Membranes for wastewater treatment
  • 6.4: Wastewater treatment processes
  • 6.4.1: Pressure-driven processes
  • 6.4.2: Forward osmosis
  • 6.5: Membrane modules and selection
  • 6.6: 3D printing technology (additive manufacturing)
  • 6.7: 3D printed materials for desalination and membrane separation
  • 6.8: Membrane separation
  • 6.9: Membranes for filtration
  • 6.10: Capsules or biocarriers for wastewater
  • 6.11: Substrates for oil-water separation
  • 6.12: Dye degeneration in water treatment
  • 6.13: Use of graphene aerogels in water filtration
  • 6.14: Use of ceramics in water treatment
  • 6.15: Challenges of 3D printing
  • 6.15.1: Resolution/accuracy
  • 6.15.2: Limited materials
  • 6.15.3: Poor scalability/slow process
  • 6.15.4: Budget
  • 6.16: The outlook for future
  • 6.16.1: Combination of conventional methods with additive methods
  • 6.16.2: 3D printing + electrospinning/surface coatings
  • 6.16.3: 4D printing
  • 6.17: Conclusions
  • Chapter 7 Application of nanotechnology in water and wastewater treatment and the vast vision for the future
  • 7.1: Introduction
  • 7.2: The vision of this study
  • 7.3: The need and the rationale of this study
  • 7.4: The scientific doctrine in the field of nanomaterials and engineered nanomaterials and the need of sustainability
  • 7.5: What exactly do we mean when we say nanoparticles and designed nanomaterials?
  • 7.6: Environmental sustainability, scientific progress, and a broad vision for the future
  • 7.7: Recent scientific advances in environmental preservation, as well as a visionary road forward
  • 7.8: Recent scientific advances in the application of nanotechnology in water and wastewater treatment
  • 7.9: Recent scientific advancements in the application of environmental sustainability in human society and the road ahead
  • 7.10: 3D printing, device development, and water treatment applications
  • 7.11: Heavy metal and arsenic groundwater remediation, the application of nanotechnology and the visionary future
  • 7.12: Future scientific recommendations and future flow of scientific ideas
  • 7.13: Conclusion, summary, and environmental engineering perspectives
  • Chapter 8 3D printed membranes for oil/water separation
  • 8.1: Introduction
  • 8.1.1: Additive manufacturing or 3-dimensional printing technology
  • 8.1.2: 3D printed membrane for oil separation
  • 8.1.3: Conclusion and future perspectives
  • Chapter 9 Use of 3D printed techniques for organic pollutants removal
  • 9.1: Introduction
  • 9.2: Organic pollutants: classification and adverse effects
  • 9.2.1: Classification of organic pollutants
  • 9.3: Techniques to detect organic pollutants and their removal
  • 9.3.1: Separating components of a mixture by extraction or chemical method
  • 9.3.2: Test for the functional group
  • 9.3.3: Quantitative and qualitative analysis
  • 9.3.4: Spectroscopic techniques
  • 9.4: 3D printed techniques for organic pollutant detection and removal
  • 9.4.1: Detection
  • 9.4.2: Removal
  • 9.5: Advantages of 3D printed techniques
  • 9.6: Future perspectives of 3D printed techniques
  • 9.7: Conclusion
  • Chapter 10 Resource management using 3D printing technology
  • 10.1: Introduction
  • 10.1.1: History of 3D printing
  • 10.1.2: Salient features of 3D printing
  • 10.2: The significance of 3D printing
  • 10.2.1: 3D printing (or AM) versus traditional manufacturing methods
  • 10.2.2: Scopes and challenges of 3D printing
  • 10.2.3: Diverse applicability of 3D printing technology
  • 10.3: Current applications of 3D printing in water treatment
  • 10.3.1: 3D printed membranes
  • 10.3.2: Methods used for fabrication of 3D printed membranes
  • 10.3.3: Advances of 3D printing in water and waste water treatment
  • 10.4: Current trending fields where 3D printing is employed for water treatment and water quality analysis
  • 10.4.1: In aquaculture
  • 10.4.2: Desalination to create potable water
  • 10.4.3: Efficient water analysis devices
  • 10.4.4: Water filtration and purification systems
  • 10.4.5: Efficient wastewater treatment
  • 10.4.6: Metal recovery from wastewater
  • 10.4.7: Recovery and management of organics from waste streams
  • 10.5: Summary
  • Chapter 11 Sustainability of 3D printing in industry 4.0
  • 11.1: Industry 4.0—past, present, and future
  • 11.2: 3D printing
  • 11.2.1: Brief methodologies
  • 11.2.2: Materials for 3D printing
  • 11.2.3: Role in present industries
  • 11.2.4: Advantages and limitations
  • 11.2.5: Technological advancements
  • 11.3: 3D printing and Industry 4.0—potential and future scope
  • 11.4: Conclusions
  • Index