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Bioinspired and Biomimetic Materials

Versatile Applications

Edited by Divya Bajpai Tripathy, Anjali Gupta and Arvind Kumar Jain
Series: Transformative Innovations in Materials Science
Copyright: 2026   |   Expected Pub Date:2026/01/30
ISBN: 9781394303618  |  Hardcover  |  
556 pages

One Line Description
Unlock millions of years of nature’s perfected blueprints and discover how bioinspired materials are revolutionizing medicine, aerospace, and robotics with this expansive, cross-industry guide.

Audience
Research scholars, scientists, academicians and industrialists working in the fields of material chemistry, applied chemistry, nanotechnology, chemical technology, polymer science and engineering.

Description
Nature, through millions of years of evolution, has perfected systems, structures, and developments that offer matchless keys to modern scientific and engineering challenges. In the fields of medical science and pharmacy, biomimetic materials are revolutionizing drug delivery, tissue engineering, and medical devices, while energy technologies inspired by biological procedures are driving advances in energy harvesting, storage, and sustainability. This book offers a comprehensive understanding of bioinspired materials, from foundational concepts to cutting-edge applications, encouraging readers to assess the natural world as a vast source of sustainable and effective solutions. It outlines the field, traces its historical development, and highlights its increasing impact on contemporary science and technology. Through investigations of real-world applications, it demonstrates nature’s influence on structural engineering and explores self-healing materials, nanotechnology, smart surfaces, and adaptive designs. This expansive resource explores biomimicry’s role in aerospace, robotics, communication systems, and architecture, making it an essential resource for researchers across industries.
Readers will find the book:
• Covers state-of-the-art fabrication techniques for bioinspired and biomimetic materials, including self-assembly, hierarchical structuring, and bio-fabrication;
• Explores materials with enhanced mechanical, optical, and self-healing capabilities inspired by natural systems like nacre, spider silk, and lotus leaves;
• Merges principles from biology, nanotechnology, and materials science to develop high-performance, adaptive materials;
• Discusses biomimetic solutions for aerospace, biomedical implants, soft robotics, and energy storage systems.

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Author / Editor Details
Divya Bajpai Tripathy, PhD is a Professor in the Department of Chemistry, in the School of Basic and Applied Sciences at Galgotias University, Greater Noida, India, with more than 14 years of experience. She has more than 137 research publications in reputed journals, books, and conference proceedings, as well as one patent. Her research specializes in biochemistry.

Anjali Gupta, PhD is a Professor in the Department of Chemistry in the School of Basic and Applied Sciences at Galgotias University, Greater Noida, India, with more than 12 years of research and teaching experience. She has more than 50 publications to her credit, as well as nine patents. Her research focuses on in-silico screening and the synthesis of naturally occurring bioactive analogs.

Arvind Kumar Jain, PhD is a Professor of Basic and Applied Sciences and Dean of Student Welfare at IILM University, Greater Noida, India. He has published nine patents and many research papers in national and international journals and conference proceedings. His areas of expertise are nanotechnology, analytical chemistry, and organic synthetic chemistry.

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Table of Contents
Preface
1. Introduction to Bioinspired and Biomimetic Materials
Manvi Karayat, Ritam Mondal, Deepika Paliwal, Aman Thakur and Saurabh Srivasatva
1.1 Introduction
1.1.1 Definitions and Concepts
1.1.2 Biomimetic Materials
1.1.3 Bioinspiration
1.1.4 Bioinspired and Biomimetic Approaches
1.1.5 Biologically Inspired Design
1.1.6 Problem-Oriented, Bioinspired Approach to Design
1.1.7 Biomimetic Approach
1.1.8 History
1.1.9 The Bottom-Up and Top-Down Approaches
1.2 Historical Overview
1.2.1 Biomimetic Approach in Inorganic Material Chemistry
1.2.2 Synthesis at the Nanoscale
1.2.3 Synthesis of Biomaterials
1.2.4 Resource Optimization
1.2.5 Crystal Engineering
1.3 Properties and Mechanism
1.3.1 Construction of Microstructures
1.3.2 Facilitating Collaboration Between Biology and Civil
Engineering
1.3.3 Biologically Inspired Engineering
1.3.4 Economic Impact of Biomimetic Materials
1.3.5 Biomimetic Nanostructures as a DDS
1.3.6 Biomimetic Polymeric Drug Carriers
1.3.7 Bioinspired and Biomimetic Self-Repairing Materials
1.3.8 Biomimetic Materials in Genome Technology
1.3.9 Biomimetic Materials in Ultrasound Imaging
1.3.10 Biomimic Hydrogels
1.4 Conclusion
References
2. Biomimicry: Learning from Nature to Innovate a Sustainable Future
Diptee Mitra, Nishant Shekhar, Ashlesha P. Kawale, Ramesh Chandra, Arti Srivastava, M.K. Bharty and Mamata Singh
2.1 Introduction to Biomimicry
2.2 Principle of Biomimicry
2.2.1 Principles of Biomimicry in Circular Economy
2.3 Biological Inspiration
2.3.1 Biological Inspiration in Explosives Detection
2.3.2 Insights for Bio-Inspired Biomimicry
2.3.3 Biological Inspiration in Computing
2.3.4 Biological Inspiration in Robotics
2.4 Exploring Biomimicry in Self-Healing
2.5 Insights on Biomimicry for Sustainable Business Practices
2.5.1 Integrating Biomimicry into Sustainable Design
2.5.2 Exploring Biomimicry in Building Skin Design
2.5.3 Incorporating Nano-Biomimicry into Architectural Practices Offers a Transformative Approach to Sustainability
2.6 Exploring the Role of Biomimicry in STEM Education
2.6.1 Sustainable and Eco-Friendly Materials
2.7 Mimicking Natural Processes
2.7.1 Visual Effects and Natural Phenomena
2.8 Bio-Inspired Design Strategies
2.8.1 Case Studies in Biomimicry
2.8.2 Applications in Architecture
2.9 The Future of Biomimicry
2.10 Conclusion
Bibliography
3. Innovative Biomaterials: Bridging Nature and Technology
for Enhanced Performance
Ashlesha P. Kawale, Nishant Shekhar, Arti Srivastava, S.Y. Bodkhe and Dinesh Kumar Mishra
3.1 Introduction
3.2 Definition and History
3.3 Biomimetic Materials in Structural Engineering
3.3.1 Lightweight and High-Strength Materials
3.3.1.1 Cellular Structure Materials
3.3.1.2 Closed-Cellular Structures
3.3.1.3 Fibrous Structure Materials
3.3.1.4 Fibrous Bundles Structures
3.3.1.5 Fibrous Lamellae Structures
3.3.1.6 Sandwich Structure Materials
3.4 Nature-Inspired Lightweight Designs
3.5 Composite Materials Inspired by Nacre
3.6 Self-Healing Materials
3.6.1 Polymers and Self-Healing Mechanisms
3.6.2 Polymeric Ionic Liquids (PILs)
3.6.3 Hydrogels
3.7 Biomimetic Applications in Concrete and Coatings
3.8 Architectural Applications
3.9 Conclusion
References
4. Biomimicry in Material Science
Mansi Sharma, Ashutosh Kumar and Usha Chahal
4.1 Introduction
4.1.1 Bioinspired Materials
4.1.2 Background
4.1.3 Properties of Bioinspired Materials
4.1.3.1 Biocompatible and Bioactive
4.1.3.2 High Strength
4.1.3.3 Superhydrophobicity
4.1.3.4 Self-Healing Ability
4.1.3.5 Multi-Functional and Smart Materials
4.1.3.6 Stimuli Responsiveness
4.2 Material Synthesis and Fabrication
4.2.1 3D Printing
4.2.2 Sol-Gel Process
4.2.3 Molecular Self-Assembly
4.2.4 Chemical Vapor Deposition
4.3 Nanotechnology and Biomimicry
4.3.1 Nanomedicine
4.3.2 Nanosensors
4.3.3 Nano-Energy Technology
4.3.3.1 Solar Energy
4.3.3.2 Nanotrees and Nanoleaves
4.4 Smart Materials and Responsive Surfaces
4.5 Conclusion and Future Perceptive
References
5. Bioinspired Materials in Medicine
Manvi Karayat, Deepika Paliwal, Niranjan Kaushik, Aman Thakur and Sathvik Belagodu Sridhar
5.1 Introduction
5.2 Application of Bioinspired Materials
5.2.1 Application of Bioinspired Materials in Medicine
5.2.2 Biomimetic Drug Delivery Systems
5.2.2.1 Biomimetic Hydrogels
5.2.2.2 Biomimetic Micelles
5.2.2.3 Biomimetic Liposomes
5.2.2.4 Biometric Dendrimers
5.2.2.5 Biometric Nanostructures
5.2.2.6 Biometric Nanotubes
5.2.2.7 Biometric Nanoparticles
5.2.2.8 Biometric Hydrogels
5.3 Tissue Engineering and Regenerative Medicine
5.3.1 Tissue Engineering
5.3.1.1 Skin
5.3.1.2 Cartilage
5.3.1.3 Liver Tissue Engineering
5.3.1.4 New Technology
5.4 Bioinspired Medical Devices
5.4.1 Biomimetic Prosthetics
5.4.2 Artificial Organs
5.4.3 Biomimetic Sensors
Conclusion
References
6. Bioinspired Energy Technologies
Ashutosh Kumar, Mansi Sharma and Satya Prakash Singh
6.1 Introduction
6.1.1 Background
6.2 Energy-Harvesting Technologies
6.2.1 Nanogenerator
6.2.1.1 Piezoelectric Nanogenerator
6.2.1.2 Triboelectric Nanogenerators
6.2.2 Solar Cells
6.2.3 Biofuel Cells
6.2.4 Enzymatic Fuel Cells (EFCs)
6.2.5 Microbial Fuel Cells (MFCs)
6.3 Bioinspired Energy Conversion
6.3.1 Energy Production
6.3.2 Photosynthesis (Energy Storage)
6.3.3 Battery Electrode Materials
6.3.4 Bio-Generators
6.3.5 Thermoelectricity by the Oriental Wasp
6.4 Energy-Storage Technology
6.4.1 Bio-Batteries
6.5 Sustainability and Environmental Impact
6.6 Conclusions
References
7. Bioinspired Materials in Energy Technologies
Nidhi Puri and Shikha Kumari
7.1 Introduction
7.2 Energy Harvesting from Nature
7.2.1 Nanogenerators
7.2.2 Bioinspired Computing–Based Techniques
7.3 Bioinspired Solar Cells
7.3.1 Chlorophyll Derivative–Based Solar Cells
7.3.2 Perovskite Solar Cells
7.3.3 Dye-Synthesized Solar Cells
7.4 Energy Storage and Batteries
7.4.1 Bioinspired Materials in Energy Storage Applications
7.4.2 Advantages
7.4.3 Challenges and Future Directions
7.5 Conclusion
References
8. Biomimicry for Environmental Sustainability and Climate
Resilience: A Nature-Inspired Innovation for a Greener Future
Sayantika Chanda
8.1 Introduction
8.2 Role of Biomimicry in Developing Eco-Friendly Materials
8.2.1 Lotus Leaf for Self-Cleaning Surfaces
8.2.2 Spider Silk for Strong and Lightweight Materials
8.3 Biomimicry-Based Materials
8.3.1 Bioinspired Nanomaterials
8.3.2 Bioinspired Photocatalysts
8.3.3 Hydrophobic Materials
8.3.4 Self-Healing Materials
8.3.5 Biomineralized and Natural Materials
8.3.6 Composite and Smart Materials
8.4 Biomimicry in Pollution Remediation
8.5 Solutions Using Biomimicry to Address Global Environmental Issues
8.5.1 Biomimicry-Based Remedies for Energy-Related Issues
8.5.2 Using Biomimicry to Address Water-Related Issues
8.6 Case Studies in Biomimicry for Sustainable Design
8.6.1 Bionic Car Inspired by Boxfish
8.6.2 The Perpetually Self-Cleaning Lotus
8.7 Discussion
8.8 Conclusion
References
9. Bioinspired Materials in Aerospace and Transportation
Mansi Sharma, Parminder Singh and Vishal Sharma
9.1 Introduction
9.1.1 Concept of Bioinspiration
9.1.2 Aerospace Materials and Coatings
9.1.2.1 Self-Healing Coatings
9.1.2.2 Hydrophobic Surface
9.1.2.3 Light-Weight Materials
9.1.2.4 Adhesive Coatings
9.1.2.5 Light Manipulative Material
9.2 Aerodynamics and Wing Design
9.2.1 Design Architect
9.2.2 Bioinspiration in Wing Design
9.2.2.1 Bird Wings
9.2.2.2 Insect Wings
9.2.2.3 Bat Wings
9.2.3 Bioinspired Materials for Wings
9.3 Light Weight Material in Vehicles
9.3.1 Nacre-Inspired Composites
9.3.2 Honeycomb Structure–Inspired Materials
9.3.3 Bone–Inspired Material
9.4 Bioinspired Materials in Space Exploration
9.4.1 Aerial-Robot Design
9.4.2 Bionic Structures
9.4.3 Aerospace Sensors
9.5 Conclusions and Future Aspects
References
10. Biomaterials in Communication System
Irfan Ansari, Shikha Yadav and Sarad Pawar Naik Bukke
10.1 Introduction
10.1.1 Introduction of Biomaterials in Communication System
10.1.2 Definition of Biomaterials
10.2 Fundamentals of Communication System
10.2.1 Ligand
10.2.2 Cell Surface Receptors
10.2.2.1 Ligand-Gated Ion Channels
10.2.2.2 Second Messengers
10.2.2.3 Phosphorylation and Regulation of Signal Transduction
10.2.3 The Nervous System
10.2.4 Neurotransmitter Signaling
10.3 Biomimicry and Bioinspired Design in Communication
10.3.1 System Design and Description
10.3.2 Communication Channel Characteristics
10.3.3 Coding and Modulation
10.3.4 Bioinspired Design Overview
10.3.5 Applications of Bioinspired Design
10.3.6 Key Organisms Influencing Communication System Design
10.3.7 Advantages of Bioinspired Communication Systems
10.3.8 Biomimicry
10.3.8.1 Biomimicry in Team Communication
10.4 Biological Inspiration for Antenna
10.4.1 Antenna Design Procedure
10.4.2 Bioinspired Antennas
10.4.2.1 Single-Band Bioinspired Antennas
10.4.2.2 Wideband and Multiband Bioinspired Antennas
10.4.2.3 Compact Bioinspired Antennas
10.5 Biomaterials for Signal Transmission
10.5.1 Applications of Biomaterials in Signal Transmission
10.5.2 Transmission Characteristics and Electric Field Distributions
10.5.3 Influence of Displacement between Devices
10.5.4 Medical Electromagnetic Compatibility and Human Safety Evaluation
10.5.5 Signal Transmission
10.6 Energy-Harvesting Biomaterials
10.6.1 Energy-Harvesting Biomaterials Overview
10.6.2 Types of Energy-Harvesting Mechanisms
10.6.3 Recent Advances in Biomaterials
10.6.4 Applications in Wearable Technology
10.6.5 Challenges and Future Directions
10.7 Bioinspired Sensors and Receivers
10.7.1 Bionic Materials
10.7.2 Bionic Structures
10.7.3 Bioinspired Sensors with Different Working Mechanisms 3
10.7.4 Applications of Bioinspired Sensor System
10.7.5 Healthcare
10.7.6 Receivers
10.8 Biomaterials for Signal Processing
10.8.1 Biomaterials in Neural Interfaces
10.8.2 Signal Processing in Neural Prosthetics
10.8.3 Biomaterials in Biosensors
10.8.4 Applications and Future Directions
10.8.5 Biomedical Signal Processing
10.8.6 The Biomedical Signal Processing Workflow
10.8.6.1 Signal Acquisition
10.8.6.2 Signal Visualization and Annotation
10.8.6.3 Artifact Removal and Signal Filtering
10.8.6.4 Feature Extraction with Signal Processing
10.9 Real-World Applications
10.9.1 Healthcare Applications
10.9.2 Tissue Engineering
10.9.3 Drug Delivery Systems
10.9.4 Environmental Applications
10.9.5 Food Packaging
10.9.6 Biomaterial Use in These Field
10.10 Future Perspective of Biomaterials
10.10.1 Future of Biomaterials
10.10.2 Emulating Nature for New Materials with Unique Functionalities
10.10.3 Controlling the Organization of Matter
10.11 Sustainability and Environmental Impact
10.11.1 Different Classes of Sustainable Biomaterials
10.11.2 Biocompatible Nanocomposites
10.11.3 Materials of Silicate Type Derived From the Residues of Biomass
10.11.4 Advanced Nanocomposites and Nanomaterials by Using Natural Wastes
10.11.5 Biomaterials and Environmental Impact
10.11.6 Environmental Impacts of Biomaterials
10.11.7 Life Cycle Assessment (LCA)
10.11.8 Biodegradable and Bioresorbable Biomaterials
10.11.9 Recycling Strategies
10.11.10 Regulatory Considerations
10.12 Ethical and Societal Implication
10.12.1 Animal Testing
10.12.2 Conflicts of Interest
10.12.3 Safety
10.12.4 Human Rights and Dignity
10.12.5 Gene Editing and Stem Cells
10.12.6 Permanent Implants
10.12.7 Societal Implications of Biomaterials
10.12.8 Healthcare Transformation
10.12.9 Environmental Sustainability
10.12.10 Economic Development
10.12.11 Innovations and Challenges
10.12.12 Public Perception and Acceptance
Conclusion
References
11. Biomaterials in Architecture and Construction
Shatrudhan Prajapati, Shikha Yadav and Sarad Pawar Naik Bukke
11.1 Introduction to Biomaterials in Architecture and Construction
11.2 Natural Materials and Traditional Building Techniques
11.2.1 Historical Use of Biomaterials in Construction
11.2.1.1 Ancient Civilizations
11.2.1.2 Indigenous Architecture
11.2.1.3 Asian Contributions
11.2.1.4 European Innovations
11.2.1.5 The Americas
11.2.1.6 Modern Revival and Innovation
11.2.2 Traditional Building Techniques
11.2.3 Overview of Some Traditional Building Techniques
11.2.3.1 Mud Construction
11.2.3.2 Stone Construction
11.2.3.3 Timber Framing
11.2.3.4 Earthen Construction
11.2.3.5 Thatching
11.2.4 Modern Revival of Biomaterials
11.3 Mechanical and Thermal Characteristics of Buildings and Architecture
11.3.1 Mechanical Properties
11.3.2 Thermal Properties
11.4 Sustainability and Environmental Impact
11.4.1 Sustainable Development
11.5 Biomimicry and Architectural Inspiration
11.5.1 Structural Efficiency and Material Optimization
11.5.2 Energy Efficiency and Climate Control
11.5.3 Material Innovation
11.5.4 Water Management
11.5.5 Aesthetics and Biophilic Design
11.6 Wood and Timber as Biomaterials
11.7 Plant-Based Biomaterials
11.7.1 Bamboo: A Versatile and Renewable Resource
11.7.2 Hemp: A Sustainable and Versatile Fiber
11.7.3 Mycelium: A Promising Bio-Based Material
11.7.4 Other Plant-Based Biomaterials
11.8 Biophilic Design and Aesthetic Appeal
11.8.1 Sustainability and Environmental Impact
11.8.2 Mycelium and Biocomposites
11.8.2.1 Mycelium: Nature’s Architectural Marvel
11.8.2.2 Biocomposites: Strength and Sustainability Combined
11.9 Applications in Architecture and Construction
11.10 Advances in Sustainable Concrete
11.10.1 Utilizing Additive Cementitious Materials
11.10.2 Recycled Concrete Aggregates (RCAs)
11.10.3 Geopolymer Concrete
11.10.4 Carbon Capture and Utilization
11.10.5 Self-Healing Concrete
11.11 Energy-Efficient Biomaterials
11.11.1 Biomaterials
11.11.2 Thermal Performance
11.11.3 Passive Design Strategies
11.11.4 Life Cycle Assessment (LCA)
11.11.5 Prefabrication and Modular Construction
11.11.6 End-of-Life Considerations
11.12 Challenges and Future Directions
11.12.1 Durability and Maintenance
11.12.2 Structural Performance
11.12.3 Fire Safety
11.12.4 Cost and Availability
11.12.5 Standards and Regulations
11.13 Future Directions
11.13.1 Advanced Material Development
11.13.2 Modular and Prefabricated Construction
11.13.3 Ecological Impact Assessment and Life Cycle Assessment
11.13.4 Renewable Energy System Integration
11.13.5 Education and Training
11.14 Sustainability and Environmental Impact
Conclusion
Acknowledgment
References
12. Ethical and Environmental Considerations in Biomimicry
Shikha Chaudhary, Aman Sisodia, Shaweta Sharma, Yashika Singh, S.K. Abdul, Rahaman and Awaneet Kaur
12.1 Introduction
12.2 Origins of Biomimicry
12.2.1 Ancient Practices
12.3 Development of Biomimicry
12.3.1 Biomimicry in Architecture
12.3.2 Biomimicry in Building Structures
12.3.3 Biomimicry in Civil Engineering
12.3.4 Biomimicry in Bridge Design
12.4 Interdisciplinary Collaborations
12.5 Case Studies
12.5.1 Lotus Effect and Self-Cleaning Surfaces
12.5.2 Termite Mounds and Sustainable Architecture
12.5.3 Camera Lenses
12.5.4 Sound Isolation
12.5.5 Velcro: The Hook-and-Loop Design Found in Nature
12.5.6 Gecko Feet: The Residue-Free Adhesive Blueprint
12.5.7 Spider Silk: An Example of Robust, Flexible Synthetic Fibers with Strength
12.5.8 Shinkansen Bullet Train: Kingfisher-Inspired Silent Efficiency
12.5.9 Institutionalization and Advancement
12.5.9.1 Janine Benyus and the Biomimicry Institute
12.6 Environmental Ethics
12.6.1 Sustainability and Conservation
12.6.2 Respect for Nature
12.7 Social Ethics
12.7.1 Equity and Access
12.8 Intellectual Property
12.9 Ethical Use of Technology
12.9.1 Transparency and Accountability
12.9.2 Potential Risks and Unintended Consequences
12.9.3 Ethical Research Practices
12.9.3.1 Responsible Research and Innovation (RRI)
12.9.3.2 Termite Mounds and Sustainable Architecture
12.9.4 Ethical Implications
12.9.4.1 Job Displacement
12.9.5 Ethical Use of AI
12.10 Environmental Implications
12.10.1 E-Waste Generation
12.10.2 Energy Consumption
12.11 Sustainability
12.12 Principles of Sustainability
12.12.1 Environmental Sustainability
12.12.2 Economic Sustainability
12.13 Social Sustainability
12.14 Principles of Responsible Innovation
12.14.1 Inclusivity and Stakeholder Engagement
12.14.1.1 Meta-Synthesis Method
12.14.2 Anticipation and Reflection
12.15 Importance of Responsible Innovation
12.15.1 Ethical Considerations
12.15.2 Societal Impact
12.16 Environmental Sustainability
12.17 Practical Applications of Responsible Innovation
12.17.1 Case Study: Renewable Energy
12.17.2 Case Study: Biotechnology
12.17.3 Case Study: Flood-Resilient Infrastructure Designed with Inspiration from Nature
12.18 Future Directions and Challenges in Biomimicry
12.18.1 Future Directions in Biomimicry
12.19 Challenges in Biomimicry
12.20 Future Trends in Bioinspired Material Research
12.21 Cross-Disciplinary Collaboration
12.22 Cross-Disciplinary Approaches
12.23 Cross-Disciplinary Collaboration in Biomimicry
12.24 Role of Artificial Intelligence in Biomimicry
Conclusion
References
13. Bioinspired Future Batteries
Vinamrita Singh and Rahul Singhal
13.1 Introduction to Bioinspired Future Batteries
13.2 Biological Systems as Inspiration
13.3 Principles of Bioinspired Battery Design
13.3.1 Electrode Properties
13.3.2 Interface Properties
13.3.3 Electrolyte Properties
13.4 Biomimetic Materials for Batteries
13.4.1 Design and Synthesis of Electrode Materials
13.4.2 Design of Electrode/Electrolyte Interfaces
13.4.3 Electrolyte Materials
13.5 Bioinspired Energy Storage and Performance Evaluation
13.6 Challenges and Future Directions
References
14. Biomimicry in Robotics and Automation
Anushka Sharma, Awaneet Kaur, Pranav Gupta, Himani Pandey, Debashish Paramanick, Shikha Chaudhary, Parakh Basist and Abdulsalam Alhalmi
14.1 Introduction
14.2 Design of Biomimetic Robots
14.2.1 Jump-Inspired Robot Design
14.2.2 Fish-Inspired Robot Design
14.2.3 Multi-Legged Inspired Robot
14.3 Bioinspired Sensing and Actuation
14.3.1 Bioinspired Actuation
14.3.1.1 Variable Stiffness
14.3.1.2 Elastic Instability
14.3.1.3 Thermoresponsive Actuators
14.3.2 Photo-Induced Shape-Morphing Actuating Materials
14.4 Application in Industrial Automation
14.4.1 Robotic Fish
14.4.2 Soil Removal Device for Root-Soil Complex of Gentian
14.4.3 Tactile Wearable Sensors
14.4.4 Infrared (IR) Sensing
14.4.5 Marine Anti-Fouling Coatings
14.4.6 Biomimetic Drilling Fluid
References
15. Biomimetic Robotics: A New Paradigm for Industrial Automation
Jyoti Bhatt, Lovlish Gupta and Divya Bajpai Tripathy
15.1 Introduction
15.1.1 Biomimicry and History
15.1.2 Importance of Biomimicry in Robotics and Automation
15.2 Biomimetic Robot Design
15.3 Bioinspired Sensing and Actuation
15.3.1 Sensing Methodologies
15.3.1.1 Vision-Based Methods
15.3.1.2 Hearing/Auditory Methods
15.3.1.3 Tactile Models
15.4 Actuation Methodologies
15.4.1 Movement
15.4.2 Grasping and Manipulation
15.4.3 Magnetic Actuation Systems
15.5 Applications and Future Outlook
15.6 Conclusion
References
Index

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