Turku Biomaterials Research
Turku Biomaterials Research covers the activities of the BioCity Turku Biomaterials and Medical Device Research Program in the city of Turku in collaboration with Turku University Hospital. It involves nine research groups that provide a unique collaboration, education and learning environment for researchers in different fields of science. These groups combine their efforts and expertise to develop reliable and safe implantable medical devices for the healing and regeneration of injured and diseased tissues.
Turku Biomaterials Research bridges generic and clinical research with clinical practice. It also provides a collaboration platform with companies for the fabrication of implantable medical devices. The research groups develop together innovative biomaterials and medical devices focusing on clinical solutions for tissue injuries and defects, on-line sensing of tissue healing, controlled drug release, adequate mechanical durability, and predetermined, desired resorption matched to neotissue growth rate. This consortium enables a new multidisciplinary approach in developing medical materials.
Mäkinen, E., 2021: Photoinitiated curing of orthodontic adhesive resin.
Khan, A., 2021: Fiber-reinforced composite with interpenetrating polymer network – Influence of shelf-life of the prepreg and the adhesive primer on interfacial adhesive strength of the composite to a resin luting material.
Areid, N., 2021: Hydrothermally induced nanostructured TiO2 coatings – with special reference to biologic events of peri-implant tissue integration.
Kilponen, L., 2020: Bonding of orthodontic brackets to enamel: Studies on the clinical outcome of bracket bonding and approaches to increase the bond strength of the adhesive interface.
Basavarajappa, S., 2020: Surface dissolution and degradation of dental resin-based materials with special emphasis by the effects of solvent ethanol, dimethacrylate monomer resin and catalyst solution of ethylene glycol.
Fteita, D., 2020: Impact of estradiol and quorum sensing on biofilm-related virulence of the Prevotella intermedia group: – in vitro studies on bacterial growth properties, proteolytic enzyme activity and cytokine production.
Altinci, P., 2020: Fluoride as a proteolytic enzyme inhibitor in dentin.
Lahdenperä M., 2019: Structural and interfacial adhesion elements of indirect fiber-reinforced composite fixed dental prostheses.
Bangalore Huchaiah, D., 2019: Behavior of resin composites at the interface between orthodontic bracket and tooth.
Shahramian, K., 2019: Gingival tissue attachment and blood responses to nanoporous bioactive coatings on zirconia.
Omran, T., 2019: Bi-layered restorative dental composite structures : stress and fracture behavior.
Salim Al-Ani, AA., 2019: Towards enhancing the durability and strength of dentin-resin bond: the role of dimethyl sulfoxide (DMSO) as an alternative solvent in dental adhesives.
Aro E., 2018: Stability of the femoral stem in cementless total hip arthroplasty and PET/CT imaging of adverse reaction to metal debris.
Ramakrisnaiah R.K., 2018: Micron and submicron scale parameters affecting the adhesion of resin composites to dental glass ceramics.
Sarin, J., 2017: Bioactive glass S53P4 and tissue adhesives in the surgical treatment of chronic middle ear and mastoidal infections.
Bijelic-Donova, J., 2016: Discontinuous fiber-reinforced composite for dental applications. Studies of the fracture resistance and the mechanical properties of the material used for extensive direct restorations.
Seseogullari-Dirihan, R., 2016: Effect of collagen crosslinkers on dentin protease activity.
Alm. JJ., 2016: Bone quality and mesenchymal stromal cell capacity in total hip replacement. Significance for stem osseointegration measured by radiostereometric analysis.
Piitulainen, J., 2015: Reconstrucion of cranial bone defects with fiber-reinforced composite-bioactive glass implants.
Sulaiman, T.A.., 2015: Monolithic zirconium dioxide as a full contour restorative material with special emphasis on the optical and mechanical properties.
Perea Mosquera, L., 2015: Fiber-reinforced composite fixed dental prostheses. Studies of the materials used as pontics.
Kulkova, Y., 2015: Experimental Studies on Composite Bone Implants with a Special Reference to Staphylococcal Biofilm Infections.
Kantola, R., 2014: Use of fiber-reinforced composite framework and thermochromic pigment in facial prosthesis.
Abdulmajeed, A., 2013: Unidirectional fiber-reinforced composites as an oral implant abutment material: Experimental studies of E-glass fiber/BisGMA-TEGDMA polymer in vitro.
Nganga, S., 2013: Development of porous glass-fiber reinforced composite for bone implants. Evaluation of antimicrobial effect and implant fixation.
Frantzén, J., 2012: Bioactive glass in lumbar spondylodesis: a pre-clinical and clinical study.
Hautamäki, M., 2012: Repair of segmental bone defects with fiber-reinforced composite: a study of material development and an animal model in rabbits.
Fagerlund, S., 2012: Understanding the in vitro dissolution rate of glasses with respect to future clinical applications.
Heikkinen, T., 2011: Bonding of composite resin to alumina and zirconia ceramics with special emphasis on surface conditioning and use of coupling agents.
Madanat, R., 2011: The Use of Radiostereometric Analysis in Fractures of the Distal Radius: From Phantom Models to Clinical Application.
Wilson, T., 2011: Effects of Silica Based Biomaterials on Bone Marrow Derived Cells – Material Aspects of Bone Regeneration.
Rekola, J., 2011: Wood as a model material for medical biomaterials – In vivo and in vitro studies with bone and Betula pubescens Ehrh.
Hjerppe, J., 2010: The influence of certain processing factors on the durability of yttrium stabilized zirconia used as dental biomaterial.
Vuorinen, A.-M., 2010: Rigid rod polymer fillers in acrylic denture and dental adhesive resin systems.
Mattila, R., 2009: Non-resorbable glass fibre-reinforced composite with porous surface as bone substitute material: Experimental studies in vitro and in vivo focused on bone-implant interface.
Ääritalo, V., 2009: Silicon Releasing Sol-Gel TiO2-SiO2 Thin Films for Implant Coatings. Åbo Akademi.
Arstila, H., 2008: Crystallization characteristics of bioactive glasses. Åbo Akademi University.
Ballo, A., 2008: Fiber-reinforced composite as oral implant material. Experimental studies of glass fiber and bioactive glass in vitro and in vivo.
Dhang, D., 2008: In vitro characterization of bioactive glass. Åbo Akademi University.
Meretoja, V., 2008: Macroporous Scaffolds for Bone Engineering. Studies on Cell Culture and Ectopic Bone Formation.
Ranne, T., 2008: Thermoplastic Bioactive Composite – with Special Reference to Dissolution Behaviour and Tissue Response.
Rosenholm, J., 2008: Modular design of mesoporous silica materials : towards multifunctional drug delivery systems. Åbo Akademi.
Vedel, E., 2008: Predicting the properties of bioactive glasses. Åbo Akademi.
Tuusa, S., 2007: Development of craniofacial bone defect reconstruction implant based on fibre-reinforced composite with photopolymerisable resin systems. Experimental studies in vitro and in vivo.
Le Bell-Rönnlöf, A.-M., 2007: Fibre-reinforced composites as root canal posts.
Areva, S., 2006: Sol-Gel derived titania based ceramic thin films for implant coatings. Åbo Akademi.
Tezvergil-Mutluay, A., 2006: Dental fibre-reinforced composite resin in direct chair-side applications: studies on thermal expansion and bonding characteristics in relation to the fibre orientation.
Garoushi, S., 2006: Bilayered dental composite resin. Load bearing capacity of combinations of fibre-reinforced and particulate-filler composite.
Dyer, S., 2005: Fiber-reinforced composite fixed partial denture design: mechanical properties of the composite and load bearing capacity.
Moritz, N., 2005: Bioactive ceramic coatings on medical implants: with special reference to CO2-laser treatment.
Viitala, R., 2005: Characterisation of films, monoliths and microparticles prepared with sol-gel method and studies on in vitro bioactivity and controlled drug release. Åbo Akademi.
Viljanen, E., 2005: Photopolymerized dendritic copolymers. With emphasis on degree of conversion and residual monomer content in dental applications.
Väkiparta, M., 2005: Partially biodegradable fibre-reinforced composite. In vitro studies on material combinations for bone substitute applications.
Välimäki, V-V., 2005: Tissue engineering of bone: enhancement of new bone formation by bioactive glass microspheres combined with adenovirus-mediated BMP-2 gene transfer and bisphosphonate therapy.
Yli-Urpo, H., 2005: Glass polyalkenoate cements containing bioactive glass with special reference to mechanical, chemical and antimicrobial properties.
Matinlinna, J., 2004: Silane chemistry aspects in some conventional and novel dental biomaterials.
Narva, K., 2004: Fibre-reinforced denture base polymer. Clinical performance and mechanical properties.
Puska, M., 2004: Acrylic bone cement. A study on the modification of polymethylmethacrylate-based bone cement by porogen fillers, reinforced glass fibres and semi-interpenetrating network structure.
Heikkinen, V., 2003: Studies on polymer matrices of dental fibre-reinforced composites. Release of residual methyl methacrylate, water sorption and solubility.
Tanner, J., 2003: Adhesion of oral microbes to dental reinforced composites. With emphasis on Streptococcus mutans and Candidi albicans.
- Biomaterials Spring Seminar at TPS — Targeted bone modulation during tooth movement
25th of May 2021
Professor Håvard Jostein Haugen, University of Oslo
Detailed program and registration link TBA
- Dental Biomaterial Summer School at Seili Island
Detailed program and registration link TBA
- Turku Biomaterials Days
28th-29th of October 2021
Detailed program and registration link TBA
- Turku Biomaterials Days — Cutting hard/soft Tissues and Biomaterials
22-23 of October 2020
Registration by October 14th 2020
- 3rd TCBC Midwinter Meeting
- Turku Biomaterials Days — Biomaterials in Cellular and Tissue Microenvironments
- Turku Biomaterials Days 2018 — From an Innovation to Company Creation
- Turku Dental Biomaterial Summer School — From the Tooth-Biomaterial interface to load transfer
- 2nd TCBC Midwinter Meeting
- Turku Biomaterials Days — Interfaces and Interphases
- Turku Dental Biomaterial Summer School — Should we focus on biomineralization rather than resin based bonding?
- Turku Biomaterials Days — SanBalt Forum 2016
- Turku Biomaterials Days — Composite – A Material for Biomaterial Devices of Today and Tomorrow
- Turku Biomaterials Days — From Interfaces to Biomechanics of Biomaterial Devices and Tissues
- Summer school of dental biomaterials — Dental Resin Composites, Polymerization and Related Properties
- Turku Biomaterials Days — Release of active Substances from Biomaterials
- Professor Pekka Vallittu received the 2021 George Winter Award by the European Society for Biomaterials. The George Winter award is established to recognize, encourage and stimulate outstanding research contributions to the field of biomaterials. It is one of the most important science awards in Europe in the field of biomaterials.
- Leila Perea-Lowery was granted a Notable Colombian Science and Culture Award
- Kristiina Heikinheimo Awarded the IADR Distinguished Scientist Award in Oral Medicine & Pathology Research 2020
- University of Eastern Finland Confers an Honorary Doctorate upon Professor Pekka Vallittu
- Tarek Omran is the winner of the 3MT Final at the University of Turku
- President & CEO of GC International, Mr. Makoto Nakao has been conferred by Doctor of Odontology honoris causa (Doctor hc) in the Conferment Ceremony of the University of Turku, 26 May 2017
- Professor Aldo Boccaccini from the University of Erlangen-Nurenberg, Germany has been nominated to the Scientific Advisory Board of the BioCity Turku. Professor Boccaccini is a leding scientist in the fields of bioceramics, bioactive glasses and tissue engineering scaffolds.
- Acta Odontologica Scandinavica Big Prize 2017 has been awarded to Professor Pekka Vallittu
- Bensow – Äyräpää Prize 2016 by the Skandinaviska Tandläkarföreningen has been awarded to Professor Pekka Vallittu
- A Biomaterial Invented in Turku Receives an International Quality Innovation Award
- “Critical Thoughts for Biomaterial Scientists” by Professor B.W. Darvell. A special TCBC seminar was arranged on Tuesday, 25th March 2014 given by Professor Brian W. Darvell. Professor Darvell is one of the most eminent scientists in the field dental biomaterials and he has contributed to highly respected books and scientific articles.
- Collaboration with scientists from Shanghai starts. Shanghai Stomatology Disease Center arranged the Second Scientific Seminar with the BioCity Turku Biomaterials Reserach Program in Shanghai, PRC, on April 8-9, 2013. The seminar started active research and educational collaboration between the Shanghai Stomatology Disease Center and the University of Turku.
- German Minister-President Erwin Sellering visited TCBC
Minister-President Erwin Sellering from Mecklenburg-Vorpommern, Germany and his delegation visited Turku Clinical Biomaterials Centre – TCBC on the 15th of October, 2012. There are similar interests and needs of finding more cost-effective alternative treatments for various fields of medicine and dentistry both in Germany and in Finland.
- Professor Pekka Vallittu was awarded by the Distinguished Scientist Award in Prosthodontic and Implant Research by the International Association for Dental Research (IADR) at the General Session of the IADR in Brazil, June 18th 2012.
- Professor William Bonfield from the University of Cambridge was awarded by the Honorary Doctor Degree of the University of Turku in May 2011. Professor Bonfield is the one of the most eminent biomaterials scientist in the world and he is member of the Royal Society. He has made significant contributions to the field of science as founder and editor-in-chief of scientific journals, lecturer and in promoting commercialization of biomaterials.