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- •Contents
- •Preface
- •About the Editors
- •Contributors
- •1.1 Metals as a Bioactive Material
- •1.2 Bioactive Glasses
- •1.4 Closing Remarks
- •References
- •2.1.1 Bioactive Glasses for Bone Tissue Engineering Applications
- •2.1.1.1 Silicate‑Based Bioactive Glasses
- •2.1.1.2 Phosphate‑Based Bioactive Glasses
- •2.1.1.3 Borate‑Based Bioactive Glasses
- •2.1.1.4 Bioactive Glass‑Ceramics
- •2.1.1.5 Composite Bioactive Materials
- •2.1.2 Bioactive Glasses Sustained Drug Release Applications
- •2.1.2.1 Mechanisms of Drug Release
- •2.1.2.3 Applications in Biomedical Therapeutics
- •2.1.2.4 Advantages over Conventional Drug Delivery Systems
- •2.1.2.5 Encapsulation of Drugs
- •2.1.3 Bioactive Glasses for Therapeutic Applications
- •2.1.3.1 Silicate‑Based Bioactive Glasses
- •2.1.3.2 Phosphate‑Based Bioactive Glasses
- •2.1.3.3 Borate‑Based Bioactive Glasses
- •2.1.3.4 Composite‑Based Bioactive Glasses
- •2.1.3.5 Silver‑Based Bioactive Glasses
- •2.1.3.6 Copper‑Based Bioactive Glasses
- •2.1.3.7 Zinc‑Based Bioactive Glasses
- •2.2 Biocompatibility of the Bioactive Glasses
- •2.3 Cytotoxicity of Bioactive Glasses
- •2.1 Bioactive Glasses
- •2.3.1 Standardized in Vitro Assays
- •2.3.2 Effects on Cell Viability
- •2.3.3 Influence of Glass Composition
- •2.3.4 Surface Modification and Cytocompatibility
- •2.3.5 Influence of Degradation Products
- •2.3.6 Long‑Term Cytotoxicity Assessment
- •2.4 Luminescence Characteristics
- •2.4.1 Origins of Luminescence
- •2.4.1.1 Effects of Glass Composition
- •2.4.2 Structural Features and Luminescence
- •2.4.3 Biomedical Applications
- •2.4.4 Characterization Techniques
- •2.5 Functional Characteristics of the Bioactive Glasses
- •2.5.1 Bioactivity and Biomineralization
- •2.5.2 Osteoconductivity and Bone Regeneration
- •2.5.3 Antibacterial Activity
- •2.5.4 Controlled Drug Delivery
- •2.5.5 Angiogenic Potential
- •2.6 Outlook
- •References
- •3.1 Nanomaterials for Biological Applications
- •3.2 Nanomaterials Doped to Bioactive Glasses
- •3.2.1 Alkali Metal‑Based Bioactive Glasses
- •3.3 Alkaline Earth Metals
- •3.4 Transition Metals
- •3.6 Outlook on Stability of NPs
- •References
- •4.1 Introduction
- •4.2.1 Composition and Structure
- •4.2.2 Role of Specific Oxides
- •4.3 Processing Methods
- •4.3.1 Conventional Melting‑Quenching
- •4.3.1.1 Impact on Microstructure and Properties
- •4.3.1.2 Biomedical Relevance
- •4.3.2 Sol‑Gel Process
- •4.3.2.1 Impact on Microstructure and Properties
- •4.3.2.2 Biomedical Relevance
- •4.3.3 Sintering Methods
- •4.3.3.1 Impact on Microstructure and Properties
- •4.3.3.2 Biomedical Relevance
- •4.4 Tailoring Properties for Biological Applications
- •4.4.1 Tissue Engineering
- •4.4.1.1 Scaffold Design
- •4.4.1.2 Bioactivity and Degradation
- •4.4.2 Drug Delivery
- •4.4.2.1 Encapsulation Methods
- •4.4.2.2 Controlled Release
- •4.4.2.3 Therapeutic Applications
- •4.4.3 Biosensing
- •4.4.3.1 Sensor Design
- •4.4.3.2 Detection Mechanisms
- •4.4.3.3 Applications in Diagnostics
- •4.5 Characterization Techniques
- •4.5.1 X‑Ray Diffraction
- •4.5.1.2 Crystallinity
- •4.6.2 Versatility in Processing Techniques
- •4.6.3 Tailoring for Specific Applications
- •4.6.4 Advanced Characterization Techniques
- •4.6.5 Future Directions
- •References
- •5.1 Introduction
- •5.2 In Vitro Behaviours of Bioactive Glasses
- •5.2.1 Simulated Body Fluid Immersion Tests
- •5.2.2 Surface Reactions and Ion Release Kinetics
- •5.2.2.1 Surface Reactions and Ion Release
- •5.2.3 Assessment of Bioactivity
- •5.3 In Vivo Behaviours of Bioactive Glasses
- •5.3.1 Animal Models
- •4.5.2 Scanning Electron Microscopy
- •4.5.2.1 Surface Morphology
- •4.5.2.2 Microstructure
- •4.5.3 Transmission Electron Microscopy
- •4.5.3.1 High‑Resolution Imaging
- •4.5.3.2 Diffraction Studies
- •4.5.4 Atomic Force Microscopy
- •4.5.4.1 Surface Topography
- •4.5.4.2 Mechanical Properties
- •4.5.5 Integration of Characterization Techniques
- •4.5.5.1 Correlation of Data
- •4.5.5.2 Advanced Analytical Technique
- •4.6 Conclusion
- •4.6.1 Integration of Bioactive Components
- •5.3.1.1 Biocompatibility
- •5.3.1.2 Tissue Integration
- •5.3.1.3 Osteoconductivity
- •5.3.2 Clinical Trials
- •5.3.2.1 Safety and Biocompatibility
- •5.3.2.1.1 Multifaceted Safety Net: Monitoring for Adverse Events
- •5.3.2.1.2 A Data‑Driven Approach to Safety
- •5.3.2.2.1 Bone Regeneration
- •5.3.2.2.2 Dental Restoration
- •5.3.2.2.3 Drug Delivery
- •5.3.2.3 Long‑Term Performance
- •5.3.3 Hydroxyapatite Layer Formation
- •5.3.3.1 Hydroxyapatite Formation kinetics
- •5.3.3.2 Quality of the Hydroxyapatite Layer
- •5.3.3.2.1 Translating In Vitro to In Vivo Success
- •5.4.1 Biocompatibility and Tissue Integration
- •5.4.1.1 In Vitro Biocompatibility
- •5.4.1.2 In Vivo Biocompatibility
- •5.4.1.3 Correlating In Vitro and In Vivo Data
- •5.4.1.3.1 Comparative Analysis
- •5.4.1.3.2 Identifying Discrepancies
- •5.4.2 Hydroxyapatite Layer Formation
- •5.4.2.1 In Vitro Hydroxyapatite Formation
- •5.4.2.1.1 Simulated Body Fluid Immersion Tests
- •5.4.2.1.2 Key Indicators of Osteoconductivity
- •5.4.2.2 In Vivo Hydroxyapatite Formation
- •5.4.2.2.1 Assessment Techniques
- •5.4.2.2.2 Indicators of Successful HA Formation
- •5.4.3 Ion Release Kinetics
- •5.4.3.1 In Vitro Ion Release
- •5.4.3.1.1 Experimental Procedure
- •5.4.3.1.2 Analytical Techniques
- •5.4.3.1.3 Kinetics of Ion Release
- •5.4.3.2 In Vivo Ion Release
- •5.4.3.2.1 Monitoring Ion Release In Vivo
- •5.4.3.2.2 Biological Impact of Ion Release
- •5.4.3.2.3 Analysis of Biological Fluids and Tissues
- •5.4.3.2.4 Assessing Implant Performance
- •5.4.3.3 Correlating In Vitro and In Vivo Ion Release Data
- •5.4.3.3.1 Comparative Analysis of Ion Release Data
- •5.4.3.3.2 Interpretation of Correlation Data
- •5.4.3.3.3 Applications of Correlated Data
- •5.4.3.3.4 Methodological Considerations
- •5.5.1 Bone Regeneration
- •5.5.2 Applications in Orthopaedics and Dentistry
- •5.5.2.1 Orthopaedic Implants
- •5.5.2.1.1 Applications in Orthopaedic Implants
- •5.5.2.2 Bone Grafts
- •5.5.2.2.1 Scaffolding for Bone Growth
- •5.5.2.2.2 Gradual Degradation and Replacement
- •5.5.2.2.3 Optimizing Bone Regeneration
- •5.5.2.2.4 Applications in Bone Grafting
- •5.5.2.3 Spinal Fusion
- •5.5.2.3.1 Advantages over Traditional Methods
- •5.5.3 Dental Restoration
- •5.6 Benefits of Bioactive Glasses in Dental Restoration
- •5.6.1 Beyond Basic Restorations
- •5.6.2 Optimizing Bioactive Glasses for Dentistry
- •5.6.2.1 Fillings and Crowns
- •5.6.2.1.2 Beyond Basic Fillings
- •5.6.2.1.3 Optimizing Bioactive Glasses for Dentistry
- •5.6.2.2 Root Canal Therapy
- •5.6.2.2.2 Beyond Basic Sealing
- •5.6.2.2.3 Optimizing Bioactive Glasses for Root Canal Therapy
- •5.6.2.3 Bone Augmentation
- •5.6.2.3.2 Optimizing Bioactive Glasses for Bone Augmentation
- •5.6.3 Drug Delivery Systems
- •5.6.3.1 Controlled Release
- •5.6.3.1.1 Mechanism of Controlled Release
- •5.6.3.1.2 Advantages of Controlled Drug Release
- •5.6.3.1.3 Applications
- •5.6.3.2 Localized Delivery
- •5.6.3.2.1 Mechanism of Localized Drug Delivery
- •5.6.3.2.2 Advantages of Localized Drug Delivery
- •5.6.3.3 Multi‑Functional Carriers
- •5.6.3.3.1 Mechanism of Multi‑Functional Drug Delivery Systems
- •5.6.3.3.2 Advantages of Multi‑Functional Carriers
- •5.6.3.3.3 Applications of Multi‑Functional Bioactive Glass Carriers
- •5.6.3.3.4 Summary
- •5.7 Conclusion
- •References
- •6.1 Introduction
- •6.1.1 Overview of Bioactive Glasses
- •6.1.1.1 Biomineralization Process
- •6.1.1.3 Interfacial Bonding and Tissue Integration
- •6.1.1.4 Applications of BGs
- •6.1.2 MechanosensinG in Biomedical Applications
- •6.2 Cell Proliferation of BGs
- •6.2.1 Cellular Response to BGs
- •6.2.2 Mechanisms of Proliferation
- •6.3 Mechanotransduction of BGs
- •6.3.1 Understanding Mechanotransduction
- •6.3.2 Role of BGs in Mechanotransduction
- •6.3.2.1 Stiffness and Elasticity
- •6.3.2.2 Surface Topography
- •6.3.2.3 Ionic Dissolution Products
- •6.3.2.4 Mechanotransduction Pathways
- •6.3.2.4.1 Integrative Role of Bioactive Glasses
- •6.4 Immune Response: Triggering T and B Antigens
- •6.4.1 BGs and the Immune System
- •6.4.1.1 Initial Immune Response
- •6.4.1.2 Role of Adaptive Immune Cells
- •6.4.1.3 Modulation of Immune Responses
- •6.4.2 Mechanisms of Immune Activation
- •6.4.2.1 Release of Therapeutic Ions
- •6.4.2.1.1 Surface Interactions
- •6.4.2.1.2 Activation of Immune Cells
- •6.4.2.1.3 Activation of Signalling Pathways
- •6.5 Optimization of Bioactive Glass Design
- •6.5.1 Ionic Dissolution Products
- •6.5.1.2 Phosphorus Ions (P)
- •6.5.2 Surface Interactions
- •6.5.2.1 Macrophage Activation and Cytokine Release
- •6.5.2.3 Modulation of Immune Responses for Regenerative Environment
- •6.5.3 Activation of T and B Cells
- •6.5.3.1 T Cell Activation and Proliferation
- •6.5.3.2 B Cell Activation and Antibody Production
- •6.5.4 Influence on Long‑Term Biocompatibility
- •6.6 Cytokine Production and Immune Modulation
- •6.6.1 Pro‑Inflammatory Cytokines
- •6.6.2 Anti‑Inflammatory Cytokines
- •6.6.3 Modulation of Cytokine Profile
- •6.7 Mechanostimulus and BGs
- •6.7.1 Concept of Mechanostimulus
- •6.7.1.2 Cellular Response to Mechanostimuli
- •6.7.1.3 Implications for Biomaterial Design and Tissue Engineering
- •6.7.2 Role of BGs in Providing Mechanostimulus
- •6.7.2.1 Mechanisms of Cellular Response to Stiffness
- •6.7.2.2 Impact of Stiffness on Cellular Functions
- •6.7.2.3 Engineering BGs with Tunable Stiffness
- •6.7.2.4 Mechanisms of Cellular Response to Surface Topography
- •6.7.2.5 Impact of Surface Topography on Tissue Engineering
- •6.7.2.6 Importance of Dynamic Mechanical Loading
- •6.7.3 Role of BGs in Dynamic Loading
- •6.7.3.1 Mimicking the Natural Bone Environment
- •6.8 Mechanotransduction Pathways
- •6.8.1 Integrin‑Mediated Signalling
- •6.8.2 Mapk Signalling Pathway
- •6.8.3 Rho/Rock Signalling Pathway
- •6.9 Synergy with Biochemical Signals
- •6.9.1 Mechanotransduction and Biochemical Signalling
- •6.9.2 Promotion of Cellular Activities
- •6.10.1 Bone Tissue Engineering
- •6.10.1.1 Scaffold Design
- •6.10.1.2 Tailored Mechanical Properties
- •6.10.1.3 Controlled Porosity
- •6.10.1.4 Surface Topography
- •6.10.1.5 Release of Therapeutic Ions
- •6.11 Design and Loading Characteristics
- •6.11.1 Dynamic Loading
- •References
- •7.1 Introduction
- •7.2.1 Bioactivity
- •7.2.2 Biocompatibility
- •7.2.3 Osteogenic Potential
- •7.2.4 Controlled Release of Bioactive Ions
- •7.2.5 Versatility in Formulation and Processing
- •7.2.6 Applications in Tissue Engineering
- •7.2.7 Drug Delivery Systems
- •7.2.8 Antibacterial Properties
- •7.3.1 Material Formulation and Optimization
- •7.3.2 Printability and Scaffold Design
- •7.3.3 Surface Modification and Functionalization
- •7.3.4 Incorporation of Bioactive Glass Nanoparticles
- •7.3.5 Post‑Processing and Surface Finishing
- •7.3.6 Multi‑Material Printing and Hybrid Constructs
- •7.3.7 In Vitro and In Vivo Evaluation
- •7.4 Challenges and Future Directions
- •7.5 Conclusion
- •References
- •8.1 Introduction
- •8.2 Bioactive Glasses: Properties and Considerations
- •8.7 Challenges and Outlook
- •8.7.1 Challenges
- •8.7.1.1 Processing Challenges
- •8.7.1.2 Degradation Control
- •8.7.1.3 Bioactivity and Mechanical Property Balance
- •8.7.1.4 Regulatory Challenges
- •8.7.1.5 Scale‑Up and Cost‑Effectiveness
- •8.7.2 Outlook
- •8.7.2.1 Novel Polymer and Bioactive Glass Combinations
- •8.7.2.2 Multifunctional Nanocomposites
- •8.7.2.3 Advanced Manufacturing Techniques
- •8.7.2.4 In Vivo Performance and Biocompatibility Studies
- •8.7.2.5 Clinical Translation and Commercialization
- •8.8 Conclusion
- •References
- •9.1 Introduction
- •9.2 Focus Materials: Natural and Synthetic
- •9.2.1 Natural Materials
- •9.2.1.1 Collagen
- •9.2.1.2 Chitosan
- •9.2.1.3 Alginate
- •9.2.2 Synthetic Materials
- •9.2.2.1 Poly(Lactic‑co‑Glycolic Acid)
- •9.2.2.2 Polycaprolactone
- •9.2.3 Composite Structures
- •9.2.3.1 Enhanced Mechanical Properties
- •9.2.3.2 Controlled Degradation
- •9.2.3.3 Improved Bioactivity
- •9.3 Surface Functionalization
- •9.3.1 Functionalization Techniques
- •9.3.1.1 Silanization
- •9.3.1.2 Peptide Grafting
- •9.3.1.3 Plasma Treatment
- •9.3.2 Applications of Surface Functionalization
- •9.3.2.1 Bone Regeneration
- •9.3.2.2 Wound Healing
- •9.3.2.3 Drug Delivery
- •9.3.3 Advanced Functionalization Techniques
- •9.3.3.1 Layer‑by‑Layer Assembly
- •9.3.3.2 Bioorthogonal Chemistry
- •9.4 Super Wettable Surfaces
- •9.4.1 Types of Super Wettable Surfaces
- •9.4.1.1 Superhydrophilic Surfaces
- •9.4.1.2 Superhydrophobic Surfaces
- •9.4.2 Fabrication Techniques
- •9.4.2.1 Chemical Etching
- •9.4.2.2 Sol‑Gel Coating
- •9.4.2.3 Plasma Treatment
- •9.4.2.4 Layer‑by‑Layer Assembly
- •9.4.3 Applications of Super Wettable Surfaces
- •9.4.3.1 Tissue Engineering
- •9.4.3.2 Antimicrobial Coatings
- •9.4.3.3 Drug Delivery Systems
- •9.4.4 Future Directions
- •9.4.4.1 Multifunctional Surfaces
- •9.4.4.2 Stimuli‑Responsive Surfaces
- •9.5 Supramolecular Chemistry
- •9.5.1 Principles of Supramolecular Chemistry
- •9.5.2 Applications in Bioactive Glasses
- •9.5.2.1 Self‑Healing Bioactive Glasses
- •9.5.2.2 Controlled Degradation
- •9.5.2.3 Enhanced Bioactivity
- •9.5.3 Fabrication Techniques
- •9.5.3.1 Sol‑Gel Process
- •9.5.3.2 Layer‑by‑Layer Assembly
- •9.5.3.3 3D Printing
- •9.6 Conclusion
- •9.6.1 Advances in Material Composition
- •9.6.2 Surface Functionalization
- •9.6.3 Super Wettable Surfaces
- •9.6.4 Supramolecular Chemistry
- •9.6.5 Future Directions
- •9.6.6 Clinical Implications
- •References
- •10.1 Introduction
- •10.2 Discovery of Bioactive Glasses
- •10.2.1 Historical Background
- •10.2.2 Mechanism of Bioactivity
- •10.2.3 Impact on Biomaterials Science
- •10.3 Clinical Applications
- •10.3.1 Early Clinical Use
- •10.3.2 Expansion and Widespread Adoption
- •10.3.3 Specific Case Studies and Clinical Outcomes
- •10.3.4 Regulatory Approvals and Market Adoption
- •10.3.4.1 Incorporation of Therapeutic Agents
- •10.3.4.2 Applications in Clinical Settings
- •10.4 Tissue Regeneration
- •10.4.1 Mechanisms of Tissue Regeneration
- •10.4.1.1 Mechanisms of Osteogenic Stimulation
- •10.4.1.1.1 Ionic Dissolution and Release
- •10.4.1.1.2 Activation of Signalling Pathways
- •10.4.1.1.3 Hydroxyapatite Formation
- •10.4.2 Applications in Tissue Regeneration
- •10.4.3 Clinical Applications and Success Stories
- •10.5 Innovation in Bioactive Glasses
- •10.5.1 Development of Advanced Compositions
- •10.5.1.1 Incorporation of Additional Elements
- •10.5.2 Future Research Directions
- •10.5.3 Potential Non‑Skeletal Applications of Bioactive Glasses
- •10.5.3.1 Cardiovascular Implants
- •10.5.3.2 Wound Healing Dressings
- •10.5.3.3 Neural Tissue Regeneration
- •10.5.3.4 Key Biomimetic Design Approaches
- •10.5.3.4.1 Hierarchical Structure
- •10.5.3.4.2 Functionalization with Biologics
- •10.5.3.4.3 Dynamic Response to Environmental Stimuli
- •10.5.4.1 Bone Regeneration
- •10.5.4.2 Dental Applications
- •10.5.4.3 Soft Tissue Engineering
- •10.5.4.4 Collaborative Efforts for Standardization
- •10.5.4.5 Implementation of Quality Management Systems
- •10.6 Industrial Compliance
- •10.6.1.1.1 Medical Devices
- •10.6.1.2 Cytotoxicity Testing
- •10.6.1.2.1 Cell Viability Assays
- •10.6.1.2.2 Genotoxicity Testing
- •10.6.1.2.3 Immunogenicity Testing
- •10.6.1.2.4 Hemocompatibility Testing
- •10.6.2 Quality Control and Standardization
- •10.6.3 International Harmonization and Collaboration
- •10.7 Life Cycle Analysis
- •10.7.1 Methodology of Life Cycle Analysis
- •10.7.2 Environmental Impact and Sustainability
- •10.7.2.1 Challenges and Opportunities
- •10.7.3 Sustainable Practices and Continuous Improvement
- •10.8 Challenges and Solutions
- •10.8.1 Overcoming Regulatory Hurdles
- •10.8.2 Enhancing Industrial Processes
- •10.8.3 Addressing Environmental Concerns
- •10.9 Future Outlook and Innovation
- •10.9.1 Advancements in Material Science
- •10.9.2 Sustainable Manufacturing Practices
- •10.9.3 Digitalization and Industry 4.0 Integration
- •10.9.4 Collaboration and Interdisciplinary Research
- •10.10 Conclusion and Recommendations
- •10.10.1 Key Takeaways
- •10.10.2 Recommendations for Future Action
- •References
- •Index


Bioactive Glass Materials for
Biological Applications
Bioactive Glass Materials for Biological Applications envelopes the complexities,
challenges, and advancement in developing a new class of bioactive materials for
versatile applications. It outlines the materials involved, bioactivity against bioin-
ert materials, phase change materials, biomolecular nature, synthetic biodegradable
polymers, and bioactive glasses. The processing techniques of the bioactive glasses
for versatile applications are also covered. A comprehensive focus is on the review of
additive manufacturing routes suitable for biological applications with the ability to
print various bioactive materials whilst carrying living cells.
Features:
• Introduces bioactive glass materials and their nature aimed towards biologi-
cal applications.
• Covers how biological materials behave in vivo and in vitro for tailoring
materials and sensitivity to the biological environment.
• Explores relevant additive manufacturing platforms.
• Reviews new chemistry and molecules for therapeutic and drug delivery
applications alongside bone tissue and regenerative medicine.
• Spotlights the future scope of bioactive glass nanoparticles, their limita-
tions, and research focus areas.
This book is aimed at graduate students and researchers in glasses and ceramics and
biomaterials.

Bioactive Glass Materials
for Biological Applications
Edited by Gujjala Raghavendra,
P. Syam Prasad and Dheeraj Kumar Gara

First edition published 2026
by CRC Press
2385 NW Executive Center Drive, Suite 320, Boca Raton FL 33431
and by CRC Press
4 Park Square, Milton Park, Abingdon, Oxon, OX14 4RN
CRC Press is an imprint of Taylor & Francis Group, LLC
© 2026 selection and editorial matter, Gujjala Raghavendra, P. Syam Prasad and Dheeraj Kumar
Gara; individual chapters, the contributors
Reasonable eorts have been made to publish reliable data and information, but the author and pub‑
lisher cannot assume responsibility for the validity of all materials or the consequences of their use.
e authors and publishers have attempted to trace the copyright holders of all material reproduced
in this publication and apologize to copyright holders if permission to publish in this form has not
been obtained. If any copyright material has not been acknowledged please write and let us know so
we may rectify in any future reprint.
Except as permitted under U.S. Copyright Law, no part of this book may be reprinted, reproduced,
transmitted, or utilized in any form by any electronic, mechanical, or other means, now known
or hereafter invented, including photocopying, microlming, and recording, or in any information
storage or retrieval system, without written permission from the publishers.
For permission to photocopy or use material electronically from this work, access www.copyright.
com or contact the Copyright Clearance Center, Inc. (CCC), 222 Rosewood Drive, Danvers, MA
01923, 978‑750‑84 00. For works th at are not avail able on CCC please contac t mpkbooksperm issions@
tandf.co.uk
Trademark notice: Product or corporate names may be trademarks or registered trademarks and are
used only for identication and explanation without intent to infringe.
ISBN: 9781032689852 (hbk)
ISBN: 978104111606 6 (pbk)
ISBN: 97810 0366 0781 (ebk)
DOI: 10.1201/9781003660781
Typeset in Times
by codeMantra

v
Contents
Preface......................................................................................................................vii
About the Editors ...................................................................................................... ix
List of Contributors ................................................................................................... xi
Chapter 1 Introduction to Bioactive Materials: Metals to non-metals .................. 1
Dheeraj K. Gara, Raghavendra Gujjala, P. Syam Prasad,
Madaboosi. Srinivasan. Narayanan and Mutlu Özcan
Chapter 2 Bioactive Glasses for Biological Applications ....................................21
Ramu Inala, Raghavendra Gujjala, Shanmukha Raju,
Rakesh Kanakam, and Marcin Środa
Chapter 3 Role of Nanomaterials in Bioactive Glasses .......................................37
Manuela Reben, S. Indran, Somaiah Chowdary,
Shakuntala Ojha, and Nadeem Siddiqui
Chapter 4 Nature, Processing, and Characterization of Glass-Ceramics for
Biological Applications ...................................................................... 48
Ishika Singh Solanki, Dheeraj Kumar Gara,
V. N. Radha Manohar Aepuru, Aswani Kumar Bandaru, and
Akanksha Mohanty
Chapter 5 In Vivo and In Vitro Behaviours of Bioactive Glass Materials ......... 64
Che Azurahanim Binti Che Abdullah, H. Jeevan Rao,
Krina Goda, Kondaiah Gudimetla, Shakuntala Ojha
and Teegala Divya
Chapter 6 Mechanosensing Interactions of Bioactive Glasses...........................103
Y. B. Sudhir Sastry, Gebru Kiros Berhe, Riessom Weldegiorgis,
Satish Jain, K. G. Prashanth, and Parthiban Ramaswamy

vi Contents
Chapter 7 Recent Advances in Additive Manufacturing for Printing
Biological Tissues ������������������������������������������������������������������������������136
Vishnu Vijay Kumar, S. Shiva, R. G. Asuwin Prabu,
P. Navaneetha krishnan, Shrishail B. Sollappur,
M. Sharan Chandran and Muhammad Akhsin Muikhun
Chapter 8 Biodegradable Polymers‑Based Bioactive Glasses
Nanocomposite ����������������������������������������������������������������������������������153
Yugesh A. Kharche and Santosh R. Shekokar
Chapter 9 Bioinspired Synthesis‑Based Bioactive Glasses ��������������������������������166
Laxmikanth Cherupally, Dheeraj Kumar Gara,
Shakuntala Ojha, Satish Jain, Locherla Daloji,
and P. Phani Prasanthi
Chapter 10 Challenges for Industrial Compliance and Life Cycle Analysis
of Bioactive Glasses ��������������������������������������������������������������������������181
P. Venkateswara Rao, P. Abdul Azeem,
Shakuntala Ojha, Rakesh Kanakam,
P. Gopinath Chowdary and Tan Fırat Eyüboğlu
Index ���������������������������������������������������������������������������������������������������������������������� 215

vii
Preface
Drug delivery, regenerative medicine, and other niche areas such as bone tissue engi‑
neering have received signicant attention in the scientic community, and more
than ve decades of work have been dedicated to the global research. Despite being,
still there are challenges appraising these new areas due to the nature of the biologi‑
cal environment that makes them sophisticated to accept a new foreign material. To
realize this, materials scientists have come up with practical solutions that display
some possibilities towards meeting the golden standards of human environment. In
lieu of this, materials referred to as bioactive glass materials have been found to
be potential materials since they show up an intriguing characteristic of interacting
with the host environment and thus enabling the growth factors to perform various
growth‑induced activities in the physiological environment.
However, they are backed by a few complexities to use them in a more poten‑
tial way due to their nature and characteristics that are required to tailor or mimic
the bioactivity at various scales. This book envelopes the various complexities and
challenges, advancement in developing new class of bioactive materials for versatile
applications that developed over a phase of last ve decades, and a potential for
the future towards developing these materials. This book technically outlines the
materials involved with human environment and discussion on bioactivity against
bioinert materials, phase change materials, biomolecules nature and synthetic biode‑
gradable polymers, and bioactive glasses. The processing techniques of the bioactive
glasses for versatile applications will be covered, and novel approaches that can actu‑
ally allow integration of live cells for clinical in vivo will be discussed. This book
also discusses the recent post‑processing techniques such as additive manufacturing
routes.
A comprehensive focus on the review of additive manufacturing routes that are
suitable for biological applications will be put forth. At the same time, an emphasis
will be made on 3D and 4D bioprinting that has the ability to print various bioactive
materials whilst carrying living cells. Finally, a foresee on the outlook of the poten‑
tial for developing these materials will be included that give readers to understand,
identify, and investigate towards contribution to the development of bioactive glass
materials for regenerative, bone tissue, drug delivery, and orthodontic applications.

ix
About the Editors
Gujjala Raghavendra is currently working
as an Assistant Professor in the Department of
Mechanical Engineering at the National Institute
of Technology, Warangal, Telangana, India. He
obtained his M.Tech and Ph.D. degrees from NIT
Rourkela. His research interests include composite
materials, functionally graded materials (FGMs),
nanomaterials, and bioglasses. Under his supervi‑
sion, seven Ph.D. degrees have been awarded, and
twelve more are currently in progress. He has pub‑
lished over 130 articles in international and national
journals and conferences, along with more than
12 book chapters. He has also edited books in the
Lecture Notes in Mechanical Engineering series
(Springer) and with CRC Press. Dr. Raghavendra serves as a reviewer for several
national and international journals and currently manages three sponsored research
projects. He has taught courses on composites, tribology, and material characteriza‑
tion at both undergraduate and postgraduate levels.
P. Syam Prasad is working as a Professor in
the Department of Physics, National Institute of
Technology, Warangal, Telangana, INDIA. He has
received his MSc (Physics), MPhil (Glass Science),
and PhD (Material Sciences and Engineering),
respectively. He possesses more than 18 years of
combined teaching and research experience in
the eld of physical sciences and glass science, in
particular. His current research theme focuses on
the development and characterization of glasses
and glass ceramics for photonic, electronic, and
biomedical applications. He has published nearly
50 articles in various reputed international and
national journals and conferences. He has com‑
pleted six and two ongoing R&D projects sanctioned by the Government of India.
Currently, six PhD students are working under his supervision, and three students
have completed their PhDs under his guidance. He has reviewed many papers in
reputed research journals like Scientic Reports, Spectroscopy Letters, Physics B:
Condensed Matter Physics, the Journal of Alloys and Compounds, the Journal of
American Ceramic Society, the Journal of Molecular Liquids, Ceramic International,
Optical Materials, and Bioactive Materials. He has presented his research in the
USA, Portugal, Hungary, Egypt, Slovakia, Switzerland, Austria, and other countries

x About the Editors
in the world. His research interests include glasses and glass‑ceramics for electronic,
optical, and biomedical applications, nanostructured magnetic and semiconductor
materials, magnetic and semiconductor thin lms and devices.
Dheeraj Kumar Gara is an Assistant Professor
in the Department of Aerospace Engineering at
Jain University and PhD scholar in Mechanical
Engineering, National Institute of Technology,
Warangal. His areas of interest lie in composite
materials for aerospace and biomedical applica‑
tions, energy storage devices, bioactive materi‑
als, functionally graded materials, shape memory
alloys, and nanoparticles. He has published a decent
number of journals in aerospace and biomedical
domains and currently heads his lab on Biostimulus
Materials Laboratory at Jain University, Bengaluru,
India, dedicated for the development of 3D and 4D
bioprinting platforms for printing tissues.

xi
Contributors
Che Azurahanim Binti Che Abdullah
Faculty of Science, Department of
Physics
Universiti Putra Malaysia
Seri Kembangan, Malaysia
V.N. Radha Manohar Aepuru
Department of Mechanical Engineering
Advanced Materials Laboratory
Universidad de Chile
Santiago, Chile
P. Abdul Azeem
Department of Physics
NIT Warangal
Telangana, India
Aswani Kumar Bandaru
Department of Mechanical/Biomedical
Engineering
Munster Technological University
Cork, Ireland
Gebru Kiros Berhe
Professor, Department of Aerospace
Engineering
College of Engineering
Ethiopian Defence University
Bishoftu, Ethiopia
M. Sharan Chandran
School of Mechanical Engineering
Vellore Institute of Technology
Vellore, India
Laxmikanth Cherupally
Energy and Materials Research Lab,
Department of Physics
College of Natural and Mathematical
Sciences
The University of Dodoma, Tanzania
P. Gopinath Chowdary
Department of Mechanical Engineering
NIT Warangal
Telangana, India
Somaiah Chowdary
Department of Mechanical Engineering
IIT Guwahati, Guwahati
Assam, India
Locherla Daloji
Department of Mechanical Engineering
NIT Warangal
Telangana, India
Teegala Divya
Faculty of Science and Technology
(IcfaiTech), Department of
Mathematics
ICFAI Foundation for Higher Education
Hyderabad, Telangana, India
Tan Fırat Eyüboğlu
Faculty of Dentistry, Department of
Endodontics
Istanbul Medipol University
Istanbul, Türkiye
Dheeraj Kumar Gara
Department of Aerospace Engineering
Jain University
Bangalore, Karnataka, India
Department of Mechanical Engineering
NITWarangal
Telangana, India
Krina Goda
Scholar, Department of Aerospace
Engineering
Jain University
Bangalore, Karnataka, India
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