Meet the Spinner Fellows (Early Stage Researchers, ESRs) who are working on the PhDs in Biomaterials, Biomechanics and in silico modeling for spine surgery.
Spinner Fellow ESR1:
Osteoinductive injectable/ mouldable bone graft substitute for spine repair
Denata Syla graduated with a Master’s degree in Tissue Engineering and Regenerative Medicine at the University of Applied Sciences Technikum Wien (Vienna, Austria) in which she specialised on biomaterial-based musculoskeletal tissue engineering. During her studies at the university, she conducted research on the development of a muscle-tendon interface via fibrin scaffolds. Further, Denata worked as an international research fellow on a research project focused on the fabrication of bone-muscle tissue grafts with the utilisation of a 3D printer. The in vitro and in vivo results showed a promising outcome and were conducted at the Biomaterials Innovation Research Center, Brigham and Women’s Hospital, Harvard Medical School.
As an early stage researcher in the SPINNER project Denata focuses on the development of osteoinductive bone graft substitutes for spinal repair. The grafts are hydroxyapatite-based and replace autologous bone transfer in spinal cages to enhance bone regeneration resulting in spinal fusion. The project is conducted in collaboration between The University of Sheffield (Sheffield, United Kingdom) and the industrial secondment Finceramica (Faenza, Italy).
Spinner Fellow ESR2:
José Rui Rodrigues
Development of osteoinductive coatings for spinal implants (fusion cages)
Jose Rodrigues graduated in Biomedical Engineering in 2016 at University of Minho (Braga, Portugal), with a Master’s degree in Biomaterials, Rehabilitation and Biomechanics. During this time, he conducted research on bioactive composites at the Institute for Biomaterials at Friedrich-Alexander University of Erlangen-Nuremberg (Erlangen, Germany) as an International Student, and at 3B’s Research Group (Caldas das Taipas, Portugal) as an MSc Student. His research on biomimetic strategies for the treatment of periodontal diseases resulted in two published scientific papers.
Having also gained experience in printable sensing devices for biotechnology (which contributed for a patent currently under consideration) and the automobile industry, he now joins the SPINNER network as a researcher focused once again in the development of new biomedical solutions. Jose’s project will be focused on the development of hydroxyapatite-based osteoinductive coatings for spinal fusion cages, in a collaboration between The University of Sheffield (Sheffield, United Kingdom) and Finceramica (Faenza, Italy).
Spinner Fellow ESR3:
Integration of clinical experience and in vitro biomechanical testing to improve spinal augmentation
Chloé graduated in Mechanics of Materials and Processes from the French engineering school Centrale Nantes, Chloé oriented her knowledge towards medical applications with a MSc in Medical Engineering at KTH in Sweden. She specialised in Biomechanics, her research field covers the design and validation of orthopaedic devices as well as the multi-scale mechanical characterisation of biological tissues. Familiar with in-vitro experimentation and the clinical environment, she firstly studied the TrapezoMetacarpal joint.
As part of the SPINNER programme, she focuses on in vitro biomechanical testing of the surgically augmented spine to explain failure mechanisms after vertebroplasty or discoplasty. The assessment of the clinical problems related to those surgeries will be also conducted at the National Center for Spinal Disorders in Hungary based on medical records and image analysis. The research will focus on both the improved vertebral segment and the adjacent ones.
Techens, C., Palanca, M., Ruspi, M. L., Cristofolini, L. (2019), “Evaluation of stabilization following treatment of degenerated intervertebral discs with discoplasty”, 25th Congress of the European Society of Biomechanics , Vienna, AT, 7-10 July 2019
Techens, C., Palanca, M., Ruspi, M. L., Cristofolini, L. (2019), “In vitro evaluation of degenerated intervertebral disc stability following treatment with discoplasty”, ESB-ITA Meeting 2019, Bologna, IT, 30 September – 1 October 2019
Techens, C., Palanca, M., Éltes, P. E., Lazáry, Á., Cristofolini, L. (2020), “Testing the impact of discoplasty on the biomechanics of the intervertebral disc with simulated degeneration: An in vitro study”, Medical Engineering & Physics, 8, pp 51-59
Eltes, P. E., Kiss, L, Bereczki, F., Szoverfi, Z., Techens, C., Jakab, G., Hajnal, B., Varga, P. P., Lazary, A. (2021) “A novel three-dimensional volumetric method to measure indirect decompression after percutaneous cement discoplasty”, Journal of Orthopaedic Translation, 28, pp131-139
Spinner Fellow ESR4:
Sagittal stability: movement analysis before and patient motion after spinal treatments
Jennifer graduated with a bachelor’s degree in Biology and a minor in Chemistry from the Lebanese American university and later pursued an MSc in Biomedical Engineering at the University of Surrey, UK. Her main research focus was on motion analysis using optoelectronics techniques and the biomechanics of the spine. In particular, the analysis of changes in spinal posture between younger and older adults.
As part of the SPINNER training network, her project focuses on the in vivo and in vitro methods to assess spinal stability. The in vivo clinical characterizations of the spine would be assessed by motion analysis and imaging techniques at the National Centre for Spinal Disorders in Budapest. While the in vivo assessment would allow for the mechanical characterisation of spine repair treatments to explain proximal joint kyphosis.
Fayad, J., Stagni, R., Eltes, P., Varga, P. P., Cristofolini, L., Lazary, A. (2019), “Clinical Gait Analysis after Sacrectomy Using the Closed Loop Reconstruction Technique: a case report”, ESB-ITA Meeting 2019, Bologna, IT, 30 September – 1 October 2019
Fayad, J., Turbucz, M., Hajnal, B., Bereczki, F., Bartos, M., Bank, A., Lazary, A., Eltes, P. E. (2021), “Complicated Postoperative Flat Back Deformity Correction With the Aid of Virtual and 3D Printed Anatomical Models: Case Report”, Frontiers in Surgery, 8, pp 157
Spinner Fellow ESR5:
Modelling spinal surgical procedures
Marco comes from Italy and is 25 years old. His aim is to deliver highly efficient computational models of spinal surgeries to challenge the current clinical practice.
Marco graduated in Biomedical Engineering with a major in Biomechanics at the Politecnico di Torino, Turin (Italy). His dissertation thesis focused on an interdisciplinary project about uncertainty quantification of the biomechanics of soft tissues as keloid/skin composite. For this project he worked mainly at the University of Luxembourg. Before, he participated in an Erasmus+ period in France, where he also did an R&D internship at FEMTO-ST, Besançon (France).
Marco is now back in France working at ANSYS Lyon and pursuing his studies as a Postgraduate at the University of Sheffield (UK). He applied for a position in SPINNER because he wanted to develop research skills in a company-related environment. He is led by the conviction that a synergy between universities and companies could exploit current advancements and future achievements of biomedical research to make a breakthrough in surgical tools for the third millennium operating room.
Sensale, M., Vendeuvre, T., Schilling, C., Grupp, T., Rochette, M., Dall’Ara, E. (2020), “Sensitivity analyses for subject-specific Finite Element models of spine fixation”, VPH2020 Conference, Paris 26-28 August 2020
Biancolini, M., Sensale, M. (2020), “Mesh Morphing Explained: Learn the advantages of mesh-morphing. Proper mesh morphing can lead to faster runtimes and predictions.”, Design News, Web, 24 January 2020
Sensale, M., Vendeuvre, T., Schilling, C., Grupp, T., Rochette, M., Dall’Ara, E. (2021), “Patient-specific finite element models of posterior pedicle screw fixation: effect of screw’s size and geometry”, Frontiers in Bioengineering and Biotechnology
Spinner Fellow ESR6:
Statistical shape modelling and reduced order modelling techniques for patient-specific models
Cameron graduated from the University of Sheffield in 2018 with an MEng in Bioengineering, specialising in medical devices and systems. His main research interests include the medical applications of deep learning and control systems. During his time in Sheffield, Cameron was extremely enthusiastic about his subject and could often be found applying his bioengineering knowledge outside of the classroom, both as volunteer at ReMap and as a project leader in Sheffield Bionics Society.
As a SPINNER fellow, Cameron is based at ADAGOS, France. His research focusses on the development of reduced-order, patient-specific modelling techniques for real-time surgical simulation. Alongside his work at ADAGOS, Cameron is continuing his studies at the University of Sheffield as a PhD student in the ACSE department.