Tracks and Sessions
Biomaterials for Advanced Drug Delivery Systems
This session focuses on innovative biomaterial platforms for therapeutic delivery, including controlled, sustained, targeted, and localized drug delivery systems. It covers polymeric carriers, nanoparticles, hydrogels, implants, and stimuli-responsive materials designed to improve therapeutic efficacy and reduce adverse effects. Researchers are encouraged to present emerging biomaterial-based drug delivery technologies and precision medicine approaches with potential clinical applications.
3D Bioprinting and Advanced Biofabrication
This session explores advanced 3D bioprinting and biofabrication technologies for biomedical applications, including bioinks, printable polymers, hydrogels, and composite biomaterials. It covers tissue constructs, organ fabrication, extrusion and photopolymerization techniques, and patient-specific biofabrication. Emerging developments in automated, high-resolution, and personalized bioprinting are particularly encouraged.
Nanobiomaterials and Nanoengineered Medical Materials
This session focuses on biomaterials engineered at the nanoscale, including nanocomposites, nanofibers, nanoparticles, and nanostructured surfaces. It explores their applications in therapy, diagnostics, tissue engineering, and medical devices, with emphasis on nano–bio interfaces and cellular interactions. Advanced fabrication, characterization, and emerging nano-enabled healthcare technologies are also highlighted.
Dental Biomaterials and Oral Tissue Engineering
This session covers innovative biomaterials for dental and oral healthcare, including dental composites, adhesives, ceramics, implants, and restorative materials. It explores materials for enamel, dentin, and periodontal regeneration, along with bioactive and antimicrobial dental systems. Advances in digital dentistry and biomaterial-assisted oral reconstruction are also welcomed.
Hydrogels and Injectable Biomaterial Platforms
This session focuses on injectable, self-assembling, biodegradable, and multifunctional hydrogels for biomedical applications. It explores hydrogel-based tissue regeneration, drug delivery, stimuli-responsive systems, and extracellular-matrix-inspired materials. Researchers can discuss mechanical properties, degradation behavior, cell compatibility, and novel hydrogel platforms with translational potential.
Scaffold Engineering for Tissue Regeneration
This session explores advanced scaffold technologies for regenerative medicine, including porous, fibrous, composite, and biomimetic scaffold architectures. It focuses on scaffold design, cell attachment, proliferation, vascularization, tissue integration, and functionalization strategies. Innovative approaches for developing next-generation scaffolds for different tissue environments are encouraged.
Biomaterials for Soft Tissue Regeneration
This session focuses on biomaterials designed for the regeneration and repair of soft tissues such as skin, muscle, adipose, vascular, and connective tissues. It covers flexible, elastic, injectable, and bioactive materials with appropriate mechanical compatibility. Researchers can also explore cell–material interactions, regenerative signaling, and emerging approaches for complex soft tissue reconstruction.
Biomaterials for Organ and Tissue Replacement
This session addresses biomaterial technologies for replacing damaged tissues and organs through artificial tissue constructs, implantable materials, and engineered substitutes. It explores material design for biological integration, functional performance, durability, and host responses. Novel approaches to artificial organ development and advanced biomaterial-based replacement technologies are particularly encouraged.
Biomaterial–Cell Interface Engineering
This session examines interactions between biomaterials and living cells, including cell adhesion, migration, differentiation, proliferation, and signaling. It explores how surface chemistry, stiffness, topography, and biochemical cues influence cellular behavior. Advanced strategies for engineering cell–material interfaces and developing materials that guide biological responses are welcomed.
Bioinspired and Biomimetic Material Design
This session focuses on materials inspired by biological structures, natural systems, and biological functions. Topics include biomimetic surfaces, hierarchical architectures, nature-inspired composites, and designs inspired by bone, cartilage, shells, and other tissues. Researchers can explore bioinspired mechanical, chemical, and functional properties for innovative healthcare applications.
Bioactive Glasses and Advanced Bioceramics
This session focuses on ceramic-based biomaterials, including bioactive glasses, calcium phosphates, hydroxyapatite, and ceramic composites. It explores their applications in bone regeneration, implant integration, and other biomedical fields. Material composition, surface properties, degradation, bioactivity, advanced processing, and functionalization of bioceramics are key areas of interest.
Metallic Biomaterials and Next-Generation Implants
This session explores metallic biomaterials used in biomedical implants and devices, including titanium alloys, magnesium alloys, stainless steels, and advanced metallic systems. It covers mechanical strength, corrosion resistance, fatigue behavior, biological performance, and surface modification. Researchers are encouraged to present innovative metallic and biodegradable implant materials.
Polymer-Based Biomaterials and Functional Polymers
This session examines polymers developed for biomedical and therapeutic applications, including biodegradable polymers, functional polymers, copolymers, and polymer blends. It explores polymer processing, structure–property relationships, and applications in implants, tissue engineering, drug delivery, and medical devices. Smart and stimuli-responsive polymer systems are also included.
Composite and Hybrid Biomaterial Systems
This session focuses on multifunctional biomaterials created by combining different material classes, including polymer–ceramic, polymer–metal, organic–inorganic, and nanocomposite systems. It explores improvements in mechanical, biological, and functional properties through hybridization and interface engineering. Applications in implants, tissue engineering, and therapeutic systems are welcomed.
Bioadhesive and Tissue Adhesive Technologies
This session explores biomaterials capable of bonding biological tissues and surfaces, including surgical adhesives, sealants, wound adhesives, and injectable adhesive systems. It covers wet adhesion, biodegradability, biocompatibility, mechanical performance, and physiological stability. Researchers can present emerging adhesive technologies for surgery, wound closure, and tissue repair.
Antifouling and Anti-Biofilm Biomaterial Surfaces
This session focuses on biomaterial surfaces designed to minimize protein fouling, bacterial adhesion, and biofilm formation. It explores advanced coatings, hydrophilic and zwitterionic materials, polymeric surfaces, and nanostructured architectures. Applications in implants, catheters, and medical devices, along with innovative strategies for maintaining biologically compatible surfaces, are encouraged.
Biomaterials for Biosensors and Bioelectronics
This session explores the integration of biomaterials with sensing and electronic technologies, including biosensors, flexible devices, implantable electronics, and wearable systems. It covers conductive polymers, biointerfaces, and biomaterial-based sensors for monitoring physiological signals and disease biomarkers. Emerging platforms for biocompatible electronics and personalized health monitoring are particularly welcomed.
Conductive Biomaterials and Neural Interfaces
This session focuses on electrically active biomaterials for neural and biomedical applications, including conductive polymers, graphene-based materials, and electroactive composites. It explores neural stimulation, recording, tissue regeneration, and bioelectronic interfaces. Researchers can discuss conductivity, flexibility, stability, neural compatibility, and emerging materials for next-generation neurotechnology.
Biomaterials for Ophthalmic Applications
This session addresses biomaterials developed for ophthalmic applications, including contact lenses, intraocular lenses, corneal substitutes, and ocular implants. It explores optical properties, transparency, surface chemistry, biocompatibility, drug-releasing materials, and regenerative approaches. Innovative biomaterials for corneal, retinal, and broader ophthalmic applications are encouraged.
Biomaterials for Respiratory and Pulmonary Applications
This session explores biomaterials designed for respiratory and pulmonary healthcare, including airway implants, pulmonary delivery systems, and respiratory tissue engineering platforms. It focuses on material compatibility with delicate lung environments, controlled drug delivery, and tissue regeneration. Bioengineered respiratory tissues and novel biomaterial approaches for pulmonary applications are also included.
Biomaterials for Gastrointestinal and Digestive Health
This session focuses on biomaterials for gastrointestinal healthcare, including digestive tract implants, tissue repair systems, drug delivery platforms, and therapeutic materials. It explores mucoadhesive and biodegradable biomaterials capable of functioning in complex gastrointestinal environments. Innovative approaches for intestinal repair and localized therapy are particularly welcomed.
Biomaterials for Personalized and Patient-Specific Medicine
This session explores customized biomaterial technologies designed according to individual patient requirements, including patient-specific implants, personalized scaffolds, and customized therapeutic systems. It covers imaging-assisted design, digital fabrication, and consideration of anatomical, mechanical, and biological requirements. AI-assisted biomaterial design and personalized healthcare platforms are also highlighted.
Computational Design and AI-Driven Biomaterials
This session focuses on computational approaches for discovering, designing, and optimizing biomaterials using artificial intelligence, machine learning, molecular modeling, and simulations. It explores prediction of material properties, data-driven biomaterial discovery, and optimization of biomedical applications. Digital workflows for personalized implants and AI-enabled biomaterials research are also encouraged.
Biomaterials Degradation, Longevity and Performance
This session examines the long-term behavior and performance of biomaterials under biomedical conditions. Topics include degradation, wear, corrosion, fatigue, aging, stability, and controlled biodegradation. Researchers can explore long-term implant reliability, material durability, environmental effects, and advanced methods for predicting and improving biomaterial lifetime.
Sustainable and Circular Biomaterials Innovation
This session focuses on environmentally responsible approaches to biomaterial development, including renewable feedstocks, bio-derived materials, biodegradable systems, and sustainable manufacturing. It explores life-cycle assessment, resource-efficient processing, waste reduction, and recyclable biomaterial platforms. Researchers are encouraged to present innovative sustainable strategies for the future of biomaterials research and healthcare.