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Sustainability principles and applications in engineering practice / Raj Gaurang Tiwari [and 4 others], editors.
- Format:
- Book
- Series:
- Engineering and sustainable development.
- Engineering and sustainable development
- Language:
- English
- Subjects (All):
- Sustainable engineering.
- Sustainable development.
- Physical Description:
- 1 online resource (500 pages) : illustrations.
- Edition:
- First edition.
- Place of Publication:
- New York : Nova Science Publishers, [2024]
- Summary:
- "Adopting a sustainable approach is more important than ever in the dynamic field of engineering. To help engineers navigate the complexity of sustainable design and execution, this book provides a roadmap and a handbook, and it is a breakthrough investigation. Written by an experienced professional working at the crossroads of sustainability and engineering, this book goes beyond the norm to provide a thorough manual that mixes theory with real-world examples. Exploring the core concepts of sustainability, readers will grasp its significance about contemporary engineering problems. This book equips engineers with the knowledge they need to implement sustainable practices, offering practical insights into reducing environmental impact, increasing resource efficiency, and improving society via the use of enlightening case studies and real-world examples. Each chapter reveals new methods and techniques, from renewable energy to waste reduction, giving engineers the information, they need to change the course of engineering in the future. "Sustainability Principles and Applications in Engineering Practice" takes readers on a life-changing adventure into a world where environmentally friendly methods are standard, not optional, in the pursuit of engineering greatness. The world will be a better, more robust, and more peaceful place if we accept the ideas, put the knowledge to use, and set off on a journey of sustainable engineering"-- Provided by publisher.
- Contents:
- Intro
- Contents
- Preface
- Acknowledgements
- Introduction
- Chapter 1
- Environmental Impacts of Industrial Processes in Industry 4.0 Ecosystem and Sustainability: An Artificial Intelligence Approach
- Abstract
- 1. Introduction
- 2. Industrial Revolutions
- 3. Industry 4.0 and Its Prerequisite
- 3.1. Benefits of Industry 4.0
- 4. Industry 4.0 and Its Technologies
- 5. What Technologies Are Driving Industry 4.0?
- 5.1. Internet of Things (IoT)
- 5.2. Cloud Computing
- 5.3. AI and Machine Learning
- 5.4. Edge Computing
- 5.5. Cyber Security
- 5.6. Digital Twin
- 6. Edge Computing as Key to Realizing Industry 4.0
- 7. Digital Twin Applications
- 8. CPS: The Heart of Industry 4.0
- 9. Environment Sustainability
- 9.1. Environmental Sustainability and Industry 4.0
- 10. Industry 4.0 for Long-Term Sustainability
- 10.1. Degree of Digitization
- 10.2. Reasons for the Observed Degree of Digitization
- 10.2.1. Technological Options Are Unknown
- 10.2.2. Financial Assets Are Considered a Restraining Factor
- 10.2.3. Workforce Lacks Necessary Skills
- 10.2.4. Industry 4.0 Is Not Focused on Developing and Emerging Countries
- 10.2.5. Legal Challenges Receive Little Attention
- 11. Impacts of Digitalization on the Environment
- 12. Sustainability Standards vs. Real Behaviour
- 13. Industry 4.0: "Think Value, Not Tech"
- 14. Industry 4.0 Technologies Are Transfiguring Manufacturing
- 15. Location-Based Industry 4.0 Roadmap
- 16. Features of the Smart Factory
- 16.1. Analysing Data for Better Decision Making
- 16.2. IT-OT Incorporation
- 16.3. Custom Manufacturing
- 16.4. Supply Chain
- 17. Industry 4.0 and AI: A Valuable Pairing
- 18. Hypotheses Development
- 18.1. Cleaner Production, Product Introduction, and Environmental Sustainability.
- 18.2. Environmental Management Systems, Product Innovation and Environmental Sustainability
- 18.3. Sustainable Environmental Practices and Product Innovation
- 18.4. Moderating Effect of Industry 4.0
- 19. Industry 4.0 Technologies: Are They All Important for Environmental Protection?
- 20. Circular Economy Practices and Environmental Performance
- 21. Artificial Intelligence and Industry 4.0
- 21.1. Impact of Industrial AI on Manufacturing
- 21.1.1. Predictive Quality and Yield
- 21.1.2. Predictive Maintenance
- 21.1.3. Human-Robotic Association
- 21.1.4. Generative Layout
- 21.1.5. Market Adaptation/Supply Chain
- 21.2. Applications of Deep Learning in Industry 4.0
- 22. Digitizing the Energy Industry for Sustainability through Green-IoT
- 23. How Does the IoT Help Build Digital Twins?
- 24. Can We Build a Digital Twin of Earth?
- 25. AIaaS for Modification Supervision in Industry 4.0 Manufacturing
- 25.1. 4IR Challenges Manufacturers Face
- 25.2. IIoT Technology Turns Data into Value-Solving Manufacturing Challenges
- 25.3. Human-Machine AIaaS Update Loop
- 26. Automated ML to Automate Process Industry
- 27. How Does Modern Technology Make Manufacturing More Sustainable?
- 27.1. AI and Automation
- 27.2. Solar Tech
- 27.3. 3D Printing
- 28. Quality Improvement Using Industry 4.0
- 28.1. Connecting the Lab to the Floor
- 28.1.1. Advanced Sensors and Full Connectivity
- 28.1.2. Views from Factual Globe
- 28.2. Sustainable Automation
- 28.2.1. Automation in Environmental
- 28.2.2. Automation in Social
- 28.2.3. Automation in Governance
- 29. Some Examples of Potential Industrial Applications for ML
- 30. Industry 4.0 is Essential for India's Green Revolution
- 31. Future Issues of Digital Twin Research in Smart Urban Transport
- 32. Use Cases of IIoT Accomplishment.
- 32.1. Stuck Pilot Purgatory Usage Scenario
- 33. How Is AI-Powered Automation Distinct from Legacy Automation?
- 34. Challenges and Obstacles in Implementing Industry 4.0 in India
- 34.1. India Faces a Variety of Challenges in Adoption
- 34.1.1. Remote Worker Cooperation
- 34.1.2. Online Performance Monitoring
- 34.1.3. Process Optimization That Occurs in Real-Time
- 34.1.4. Asset Optimization Powered by IIoT
- 34.1.5. Supply Chain Integration throughout the Value Chain
- 35. Key Traits through Industry 4.0 to Create a Sustainable Environment
- 35.1. Smart Production Adopting Industry 4.0 Technology
- 35.2. For the Water Industry, Industry 4.0
- 35.3. Industry 4.0 to Reduce Energy Consumption
- 35.4. Information Transparency Thanks to Industry 4.0
- 35.5. Industry 4.0 to Enhance Air Quality
- 35.6. Industry 4.0 for Operational Control
- 35.7. Connecting Inventory Chains Using Industry 4.0
- 36. Key Applications of Industry 4.0 for Sustainable Environmental Development
- 36.1. Sustainable Agile Factory
- 36.2. Reducing Carbon Emissions and Controlling Pollution
- 36.3. Sustainable Buildings
- 36.4. Positive Environmental Impact of Digital Information
- 36.5. Enhancing the Environmental Innovation
- 36.6. Environment-Friendly Skill and Flexible Automation Development
- 36.7. Responding to Climate Change
- 36.8. Minimise Wastage
- 36.9. Reduce the Weight of Automobile Parts to Improve Fuel Efficiency
- 36.10. Electronic Device Control
- 36.11. Recycling of Waste Materials
- 37. Pollution Prevention and Environmental Management System
- Conclusion
- Future Possibility
- References
- Chapter 2
- Smart System for Wastewater Treatment (SSWWT): Internet of Things (IoT)-Based Intelligent Framework for Society
- 2. Literature Survey
- 2.1. Research Gap
- 3. Materials and Methods.
- 3.1. Removal of Emerging Contaminants
- 3.2. Energy Efficiency
- 3.3. Sustainable Treatment Methods
- 4. Results and Discussion
- Chapter 3
- Sustainable Agriculture Boost: Neem Coated Urea - Nurturing Crops, Preserving Soil, and Reducing Environmental Impact
- 2. Concept of Slow/Controlled Release Fertilizers
- 3. NCU/NOCU Production
- 4. Uptake and Release of Nitrogen in Plants due to NCU
- 5. Field Experiments
- 5.1. Field Experiment II: Real-Time Application of Neem-Coated Urea
- 6. Best Sowing Methods for NCU
- 7. National Impact on Yield on Usage of NCU and Socioeconomic Factors
- 8. National Opinions and Involvement of Farmers in NCU
- Chapter 4
- IoT-Based Monitoring of Solar Power Generation and Analysis Using Machine Learning
- 1.1. Solar Energy
- 1.2. Wind Energy
- 1.3. Geothermal Energy
- 1.4. Hydropower
- 1.5. Tidal Energy
- 1.6. Bioenergy
- 2. Internet of Things (IoT)
- 2.1. Technologies Used in IoT
- 2.2. IoT Data Collection and Computing
- 2.3. IoT Technology Used for Solar Power Monitoring
- 3. Machine Learning and Deep Learning
- 3.1. Linear Regression
- 3.2. Gaussian Process Regression
- 3.3. Support Vector Regression
- 3.4. Elastic Net Regression
- 3.5. Convolutional Neural Networks (CNN)
- 3.6. Recurrent Neural Networks (RNN)
- 4. Implementation
- 4.1. IoT Security Using Machine and Deep Learning
- 4.2. Data Privacy
- 4.3. Vulnerability in IoT
- Future Scope of Work
- Chapter 5
- Hydroponic Farming for Sustainable Agricultural Practices in Urban Environments
- 2. Organizing Plant Health and Productivity
- 2.1. Plant Selection
- 2.2. Nutrient Management
- 2.3. Environmental Control.
- 2.4. Pest and Disease Management
- 3. Economic and Social Aspects of Hydroponics Farming
- 4. Future Directions and Challenges
- Chapter 6
- E-Waste Management and Sustainability in Asian Countries: A Systematic Study
- 3. Objective of Sustainability
- 3.1. Conserve Energy
- 3.2. Saving Energy
- 3.3. Green Networking
- 4. Objective of Sustainability
- 4.1. Electronic Waste
- 4.2. Constituents Present in E-Waste Materials
- 4.3. E-Waste Production in Several Asian Locations
- 5. Implementation and Management of E-Waste
- 6. Impacts of Green Communication
- 6.1. Impacts on the Environment
- 6.2. Mobiles Devices
- 7. Carbon Footprint
- 8. Result
- 8.1. Systematic Study of E-Waste Management in Asia Pacific Regions
- 8.1.1. Western Asia
- 8.1.2. Central Asia
- 8.1.3. Eastern Asia
- 8.2. E-Waste Management in Top 5 Asia Pacific Country
- 8.2.1. Australia
- 8.2.2. China
- 8.2.3. India
- 8.3. Recycling Method of E-Waste
- 8.4. New Technologies Adopted to Treat E-Waste
- 8.5. Energy Harvesting Techniques
- 8.5.1. Mechanical Energy Harvesting
- 8.5.2. Thermal Energy Harvesting
- 8.5.3. Wireless Energy Harvesting
- 8.5.4. Acoustic and Hybrid Energy Harvesting
- 8.6. Sleep Modes
- 9. Application in the Field of Engineering
- 9.1. Sustainability in Engineering
- 9.2. E-Waste Management in Engineering
- 9.2.1. IoT Industry
- 9.2.2. Renewable Energy Engineers
- 9.2.3. Multifunctional Materials
- 9.2.4. Ceramic Composites
- Chapter 7
- Green Cloud Computing: Promoting Environmental Sustainability in the Cloud Age
- 2. Literature Review
- 2.1. Cloud Computing and Green Cloud Computing?
- 2.2. Environmental Impact of Cloud Computing
- 2.3. Need for Green Cloud Computing.
- 2.4. Features of Green Cloud Computing.
- Notes:
- Includes bibliographical references and index.
- Description based on publisher supplied metadata and other sources.
- Description based on print version record.
- Other Format:
- Print version: Tiwari, Raj Gaurang Sustainability Principles and Applications in Engineering Practice
- ISBN:
- 9798891137639
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