27 Sep 2023
Job InformationOrganisation/Company
Politecnico di Milano
Department
Mechanical Engineering
Research Field
Engineering » Biomaterial engineering
Engineering » Materials engineering
Engineering » Computer engineering
Researcher Profile
First Stage Researcher (R1)
Country
Italy
Application Deadline
30 Nov 2023 - 23:59 (Europe/Rome)
Type of Contract
Temporary
Job Status
Full-time
Hours Per Week
40
Offer Starting Date
1 Feb 2024
Is the job funded through the EU Research Framework Programme?
HE / MSCA
Reference Number
GAP-DC5
Marie Curie Grant Agreement Number
101120290
Is the Job related to staff position within a Research Infrastructure?
No
Offer DescriptionOffer description
We are looking for higly motivated candidates to apply for a PhD position (DC1) within EU Marie Skłodowska-Curie Doctoral Network (MSCA DN) GAP ("image-Guided computational and experimental Analysis of fractured Patients").
General information
Politecnico di Milano is seeking a PhD candidate to be offered scholarship for a position within the framework EU Marie Skłodowska-Curie Doctoral Network (MSCA DN) GAP . The candidate will be enrolled within the Doctoral Programme in Mechanical Engineering - Department of Mechanical Engineering.
The mission of the Department of Mechanical Engineering is to promote and develop culture, research and innovation in its sectors of reference, but also in new fields deemed to become more and more important in society and in our present background. For example, it deals with sustainability, clean energy and power technologies, bio and smart materials. Please look at www. mecc.polimi.it for more details on the type of activities we undertake.
General overview of GAP MSCA project
Age-related bone fractures are a major health concern, resulting worldwide in high economic and psycho-social burden, morbidity and increasing mortality. With aging and in presence of bone pathologies, human bone becomes more brittle and prone to damage.
A disruptive clinical hypothesis considers Covid-19 virus as an additional contributing factor in bone deterioration. At the macro-scale, the identification of fragility is assured by the clinical practice: common clinical tools, however, are able to predict only 70% of fractures. For this reason, a deep investigation of the bone micro-architecture would be a fundamental hint for the comprehension of damage mechanisms, improving the reliability of fracture risk indicators and performing more accurate diagnosis of bone pathologies. This knowledge level goes beyond the current state of the art and this is where GAP comes into play, providing attractive, multi- disciplinary and versatile training strategies for multi-scale comprehension, detection and patient-specific treatments of bone fractures. The over-arching aim of GAP proposal is to educate young and talented scientists towards a combined high-level experimental and numerical approach for the early-stage accurate, precise detection and mini-invasive treatments of bone fractures, shedding some light on bone micro-scale alterations due to pathologies. The inter-disciplinary findings, that exploit cutting-edge multi-scale imaging facilities and advanced artificial intelligent-based strategies, will be a crucial aspect in the training of skilled researchers and will enable Europe to overcome the silent paralysis of its healthcare system.
Specific project for Doctoral Candidate 5 (DC5): “From the synchrotron images to multi-scale numerical models ”
The primary goal of this research involves analyzing morphological and structural features at the meso-scale to understand their contribution to bone fractures. This entails categorization and comprehension of elements such as trabecular orientation, thickness, and porosity in relation to fractures. Following that, an in-depth exploration of multi-scale mechanisms of bone damage is underway using advanced numerical models. This involves simulating and understanding damage progression from micro-level microcracks to meso- level fractures. The third objective centers on the development of reliable numerical models at both the meso and micro scales, accurately representing how bones accumulate and propagate damage under varied conditions. Lastly, validation of these numerical models is planned through comparison with experimental results, ensuring accuracy and effectiveness in mimicking real- world bone behavior. This validation will guide future studies in bone fracture analysis and treatment.
Expected results
We expect a comprehensive classification of morphological and structural features that significantly contribute to fractures at the meso-scale. This classification will likely reveal specific patterns and correlations between bone features and fracture tendencies, providing valuable insights for future research and clinical applications.The development of numerical models with optimal mesh progressive refinement is expected to yield precise simulations of bone damage mechanisms at varying scales. These models will likely provide a detailed depiction of how damage propagates within bone structures, aiding in the prediction and understanding of fracture patterns and the conditions under which fractures occur. The calculation of fracture mechanics parameters using the numerical models should offer quantitative metrics that capture the bone mechanical response to stress. These parameters are vital for predicting fracture initiation and progression, enabling a more accurate assessment of bone strength and vulnerability to fractures. The comparison of numerical parameters with experimental multi-scale results will validate the numerical models. The alignment of these results would affirm the accuracy and reliability of the numerical simulations in mimicking real-world fracture behavior. Any disparities identified through this comparison will guide refinements and enhancements to the numerical models, ensuring their effectiveness in simulating bone fractures. Overall, these expected results hold promise for significantly advancing our understanding of bone fractures and providing a foundation for improved diagnostics, treatments, and preventive measures in orthopedics and related fields.
Planned secondment(s):
1) Prof. D. Taylor, TCD (Trinity College Dublin): development of different numerical models and comparison with the corresponding modelling approaches; obtainment of optimal models for predicting damage evolution.
2) Prof. G. Banfi, IOG (IRCCS Ospedale Galeazzi-Sant'Ambrogio): study and classification of the different structural and morphological fracture that lead fracture in bones.
RequirementsResearch Field
Engineering » Biomedical engineering
Education Level
Master Degree or equivalent
Research Field
Engineering » Materials engineering
Education Level
Master Degree or equivalent
Research Field
Engineering » Computer engineering
Education Level
Master Degree or equivalent
Specific Requirements
We welcome applications from Doctoral Researcher candidates fulfilling the following criteria:
Candidates should have documented background in biomedical, material, computer engineering or related fields.
Languages
ENGLISH
Level
Good
Additional Information
Benefits
Selection process
The application should be performed through an online application platform (https: // forms.gle/qfd9qMYNrryP1UPQ6) to be found on the GAP website (https: // www. gapmscaproject.com/):
Applications must be in English. Each applicant may apply to a maximum of three individual research projects.
Candidates must apply through the network website in which they will be able to upload the following documents:
Optional documents:
The documents must be uploaded as indicated in the online form. This is a compulsory procedure, any other means/format for applying will not be accepted.
Eligible applications will be ranked on the basis of academic merit, research skills, motivation letter, and recommendation by referees.
The optimal candidates for each position will be invited to interviews (taking place mid of December) where the final candidate will be selected (Communication of the final results: end of December). The enrolment on our Doctoral school will take place from February 2024.
Applicants with a positive evaluation but not selected will be included on a reserve list to cover possible future positions and might be contacted at a later stage.
Additional comments
The selected candidate will be appointed a temporary contract for 36 months; the gross salary will be in line with the funding schemes of MSCA action. In detail, the annual gross contribution corresponds to € 46939.20 (before employee's and employer's taxes and contributions).
In case of eligibility, an additional annual gross contribution of € 5940 for family allowance is considered.
Work Location(s)Number of offers available
1
Company/Institute
Politecnico di Milano
Country
Italy
City
Milano
Postal Code
20156
Street
via La Masa 1
Geofield
Where to applyWebsite
https: // www. gapmscaproject.com/
ContactCity
Milan
Website
https:// www. mecc.polimi.it
Street
Via La Masa 1
Postal Code
20156
STATUS: EXPIRED