91̽»¨

Inter-disciplinary training between academia and industry

Your training will consist of two parts: 

1. Common training - covering soft skills and the interdisciplinary aspects related to biomedical devices development and validation.
2. ESR-specific training programmes - focused on technical needs, research career and individual background.

You will spend the first two to three months at your recruiting organisation to settle in and get a basic technical training in methodologies, as well as specific theoretical and practical training to cover the gaps in your knowledge.

For example, if you have a degree in chemistry, you would be well qualified for Biomaterials projects but need to be trained in basic cell biology in order to understand the biological tests to be performed later.

A mechanical engineer would be well qualified for Spinal balance: movement and alignment analysis before and patient motion after spinal treatments and the In-silico Biomechanics programmes, but would need specific anatomy training to understand the structure of the spine, clinical conditions and the unique properties of biological tissues.

If you have not been recruited through a university, for two months within the first six months of your training you will visit the institution allocated as your home university. This is for registration, library access, and planning of mandatory progress meetings.

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Projects

Biomaterials

Development of multi-substituted hydroxyapatite (SrMgHA) for orthopaedic cements and putties to enhance bone regeneration in spinal fusion

Based at the University of 91̽»¨ (UK), with major secondment to Università di Bologna (Italy), the National Centre for Spinal Disorders (Budapest, Hungary) and Fin-Ceramica Faenza (Italy).

Development of osteoinductive coatings for spinal implants

Based at the University of 91̽»¨ (UK), with major secondment to Fin-Ceramica Faenza (Italy) and Aesculap AG (Tuttlingen, Germany).

Clinical biomechanics

Integration of clinical experience and in vitro biomechanical testing to improve spinal repair

Based at the Università di Bologna (Italy), with major secondment to the National Centre for Spinal Disorders (Budapest, Hungary).

Spinal balance: movement and alignment analysis before and patient motion after spinal treatments

Based at the Università di Bologna (Italy), with major secondment to the National Centre for Spinal Disorders (Budapest, Hungary) and the University of 91̽»¨ (UK).

In vitro testing

Mechanical characterisation of tissues and biomaterials

Università di Bologna (Italy) will provide training on the methods for the mechanical characterisation of biological tissue (eg hard and soft spine tissues) and biomaterials developed by Fin-Ceramica (Faenza, Italy) and Aesculap AG (Tuttlingen, Germany).

Multiscale biomechanical testing

Testing of natural and treated spine specimens at different dimensional levels (from single vertebra to multi-vertebrae segments) will be subjected to biomechanical at Università di Bologna (Italy) to assess the performance of biomaterials and devices.

These have been developed by Fin-Ceramica (Faenza, Italy) and Aesculap AG (Tuttlingen, Germany), including surgical techniques and boundary conditions from National Centre for Spinal Disorders (Budapest, Hungary).

In silico biomechanics

Patient specific FE modelling of spinal surgical procedures

Based at Ansys SAS (Villeurbanne, France), with major secondment to the University of 91̽»¨ (UK), which will be the degree awarding partner.

Statistical shape modelling and reduced order modelling techniques for patient-specific spine models

Based at Adagos (Ramonville, France), with major secondment to the National Centre for Spinal Disorders (Budapest, Hungary) and the University of 91̽»¨ (UK), which will be the degree awarding partner.