Search

Your search keyword '"Shelyakova, Tatiana"' showing total 10 results
Start Over Author "Shelyakova, Tatiana"
10 results on '"Shelyakova, Tatiana"'

2. Bone Regeneration Guided by a Magnetized Scaffold in an Ovine Defect Model

Author

Maglio, Melania, primary, Sartori, Maria, additional, Gambardella, Alessandro, additional, Shelyakova, Tatiana, additional, Dediu, Valentin Alek, additional, Santin, Matteo, additional, Piñeiro, Yolanda, additional, López, Manuel Bañobre, additional, Rivas, Josè, additional, Tampieri, Anna, additional, Sprio, Simone, additional, Martini, Lucia, additional, Gatti, Alessandro, additional, Russo, Alessandro, additional, Giavaresi, Gianluca, additional, and Fini, Milena, additional

Published
2023
Full Text
View/download PDF

5. Multifunctional 3D-Printed Magnetic Polycaprolactone/Hydroxyapatite Scaffolds for Bone Tissue Engineering

Author

Petretta, Mauro, primary, Gambardella, Alessandro, additional, Desando, Giovanna, additional, Cavallo, Carola, additional, Bartolotti, Isabella, additional, Shelyakova, Tatiana, additional, Goranov, Vitaly, additional, Brucale, Marco, additional, Dediu, Valentin Alek, additional, Fini, Milena, additional, and Grigolo, Brunella, additional

Published
2021
Full Text
View/download PDF

6. Multilayered Magnetic Gelatin Membrane Scaffolds

Author

Samal, Sangram K., primary, Goranov, Vitaly, additional, Dash, Mamoni, additional, Russo, Alessandro, additional, Shelyakova, Tatiana, additional, Graziosi, Patrizio, additional, Lungaro, Lisa, additional, Riminucci, Alberto, additional, Uhlarz, Marc, additional, Bañobre-López, Manuel, additional, Rivas, Jose, additional, Herrmannsdörfer, Thomas, additional, Rajadas, Jayakumar, additional, De Smedt, Stefaan, additional, Braeckmans, Kevin, additional, Kaplan, David L., additional, and Dediu, V. Alek, additional

Published
2015
Full Text
View/download PDF

7. Biomimetic Magnetic Silk Scaffolds

Author

Samal, Sangram K., primary, Dash, Mamoni, additional, Shelyakova, Tatiana, additional, Declercq, Heidi A., additional, Uhlarz, Marc, additional, Bañobre-López, Manuel, additional, Dubruel, Peter, additional, Cornelissen, Maria, additional, Herrmannsdörfer, Thomas, additional, Rivas, Jose, additional, Padeletti, Giuseppina, additional, De Smedt, Stefaan, additional, Braeckmans, Kevin, additional, Kaplan, David L., additional, and Dediu, V. Alek, additional

Published
2015
Full Text
View/download PDF

9. A NEW DYNAMIC RSA SET-UP FOR 3D JOINT MOTION ANALYSIS

Author

Trozzi, Claudia, primary, Shelyakova, Tatiana, additional, Russo, Alessandro, additional, Bragonzoni, Laura, additional, Martelli, Sandra, additional, Garling, Eric H., additional, Kaptein, Bart L., additional, and Marcacci, Maurilio, additional

Published
2008
Full Text
View/download PDF

10. Application of magnetic rods for fixation in orthopedic treatments

Author

Alessandro Russo, Tatiana Shelyakova, Maurilio Marcacci, Andrea Visani, Valentin Dediu, Shelyakova, Tatiana, Russo, Alessandro, Visani, Andrea, Dediu, Valentin Alek, and Marcacci, Maurilio

Subjects
Magnetic force, Bone fixation, Scaffold, medicine.medical_specialty, Materials science, Long bone, Finite Element Analysis, Health Informatics, Rod, law.invention, Intramedullary rod, Fixation (surgical), Magnetics, law, medicine, Humans, Computer Simulation, Orthopedic Procedures, Magnetic application, Fracture treatment, Computer Science Applications1707 Computer Vision and Pattern Recognition, equipment and supplies, Stainless Steel, Finite element method, Internal Fixators, Computer Science Applications, Surgery, medicine.anatomical_structure, Magnet, Orthopedic surgery, Stress, Mechanical, Scaffold fixation, human activities, Biomedical engineering
Abstract

Achieving an efficient fixation for complicated fractures and scaffold application treatments is a challenging surgery problem. Although many fixation approaches have been advanced and actively pursued, the optimal solution for long bone defects has not yet been defined. This paper promotes an innovative fixation method based on application of magnetic forces.The efficiency of this approach was investigated on the basis of finite element modeling for scaffold application and analytical calculations for diaphyseal fractures. Three different configurations have been analyzed including combinations of small cylindrical permanent magnets or stainless steel rods, inserted rigidly in the bone intramedullary canals and in the scaffold. It was shown that attractive forces as high as 75N can be achieved. While these forces do not reach the strength of mechanical forces in traditional fixators, the employment of magnetic rods is expected to be beneficial by reducing considerably the interface micromotions. It can additionally support magneto-mechanical stimulations as well as enabling a magnetically assisted targeted delivery of drugs and other bio-agents. Display Omitted An innovative magnetic fixation method is proposed for orthopedics.Magnetic rods can be used for long bone and scaffold fixation.Magnetic configurations, compatible with real patient cases, were analyzed.Magnetic fixation forces can achieve values as high as 75N.Magnetic fixation can reduce the interface micromotions and provide bone stimulation.

Published
2014

Catalog

Books, media, physical & digital resources
See catalog results