10th World Congress of Biomechanics 2026 in Vancouver

Two Postdoctoral Positions in Biofabrication at the MERLN Institute

Postdoc Position 1: Computational Biofabrication
Research Focus:
You will contribute to the design and optimization of 3D-printed biomaterial scaffolds using advanced computational approaches. Your role will be central in building mathematical models of scaffold architecture and function, and applying machine learning and evolutionary algorithms to guide the automated generation of novel scaffold designs. This project will include both in silico work (modeling, software development) and experimental validation (fabrication and mechanical/structural characterization of scaffolds).

Postdoc Position 2: Stem Cell Bioengineering
Research Focus:
This position centers around developing and optimizing 3D culture systems for human iPSCs and organoids in combination with engineered scaffolds. You will be responsible for setting up cell culture protocols, performing biological assays, and working closely with materials scientists to integrate cells into biofabricated environments for organoid development and disease modeling.

Two Postdoctoral Positions in Biofabrication at the MERLN Institute – CTR Department Job Details | Maastricht University

Two Postdoctoral Positions in Biofabrication at the MERLN Institute – CTR Department — Maastricht University (UM) — AcademicTransfer

https://www.linkedin.com/jobs/view/4267183154

PostDoc Position at Division Biomechanics of Karl Landsteiner University of Health Sciences, Austria, 30h/week

YOUR TASKS:

  • Independent research activities in the Division of Biomechanics
  • Submission of third-party funding applications
  • Intensifying clinical research and expanding the scientific network
  • Supervision of Bachelor’s, Master’s and PhD students
  • Teaching and assistance with administrative tasks
  • Support for the head of division
  • Participation in scientific conferences

YOUR PROFILE:

  • Completion of an appropriate doctorate (e.g. mechanical engineering, physics, biomedical engineering, etc.) 
  • In-depth knowledge of biomechanical measurement technology (material and/or implant testing) 
  • Adequate track record of publications in scientific journals and conference contributions 
  • Experience with clinical research, medical imaging (CT or MRI), additive manufacturing and/or programming 
  • Good written and spoken German and very good written and spoken English 
  • Structured way of working with a professional attitude

YOUR PERSPECTIVE:

You can expect a challenging job in an internationally visible and highly motivated team -we offer flexible working hours, home office options, a paid lunch break, health care and many other benefits . The Karl Landsteiner University of Health Sciences is dedicated to achieving a balanced mix of male and female academic and non-academic staff. Consequently, applications from female candidates are particularly encouraged. People with disabilities who meet the required qualification criteria are expressly invited to apply and are given special consideration.

Further details: https://www.kl.ac.at/de/wissenschaftlicher-mitarbeiterin-postdoc-fachbereich-biomechanik-30-stunden

APPLICATION:

Applications should include a motivation letter, curriculum vitae and credentials. Please apply online at www.kl.ac.at/karriere with reference to the number “2518” by August 24, 2025 at the latest.

Postdoc position at Solid Mechanics Laboratory of Ecole Polytechnique

Objectives
Myopia is a growing public health threat. By 2050, approx. 4.7 billion people, i.e. more than 50% of the world’s population is expected to suffer from myopia, up from 2.8 billion today. It affects vision quality, increases the risk of eye diseases such as glaucoma or retina delamination, and reduces quality of life. Up to one billion people will be high myopes (superior to -5 Diopters) by 2050, risking blindness.
As a partner of the PREMYOM project, the MΞDISIM team at École Polytechnique and Inria, in close collaboration with clinicians from Rotschild AP-HP Hospital and Essilor company, will develop biomechanical models of the full eye to understand the difference between normal and myopic eyes. We have already started, in an on-going PhD project, to implement models of the different sub-parts of the eyes needed to predict its motion (cornea, sclera, muscle, optic nerve, and so on) on an existing geometry of a normal adult eye. Through the PREMYOM project, we aim now at using patient-specific geometries, from normal and myopic children’s eyes.
More precisely, the project concerns the processing of MRI and OCT images of volunteers of a cohort at Rotschild AP-HP hospital. These volunteers will do high resolution MRI images at rest, and lower resolution images of turned eyes (looking to the left and the right). These images will be completed by OCT images, which give higher resolutions on some regions of the sclera or of the retina. We would like to have a pipeline to extract the different regions of the eyes (muscle, sclera…), and obtain meshes which can be assembled to be used in our model of biomechanical motions. To do so, developments are required to create an automatized pipe-line of feature extractions and meshing, and to couple them with the biomechanical model.
This work will be done in close collaboration with a PhD student and a Post-doc working on the biomechanical model of the eye.

Keywords:
Eye Biomechanics; Image-based Modeling; Finite Element Method; Data assimilation; Machine learning/AI

Candidate profile 
We are looking for a postdoc. The funding is for 2 years, but could be further extended for 3 years. The candidate will have a fair understanding of image processing, and of numerical methods. He/She will be at ease with computational pipelines, and also will have an interest for interacting with clinical and industrial collaborators.

Work environment
The work will take place within the Solid Mechanics Laboratory, on the Ecole Polytechnique campus. It will be supervised by Jean-Marc Allain. It can start as soon as possible.

Contact 
jean-marc.allain@polytechnique.edu

2 PostDoc Positions available at the University of Sheffield

1) Postdoc on Experimental Bone Biomechanics 
-> project: “ChildBone: A novel digital twin to assess bone strength in children”
-> line manager: Prof Enrico Dall’Ara
-> start: September 2025 (or until November 2025)
-> Duration:  34 months
-> Position open to international researchers
-> Application deadline: 30/06/2025
-> link with details and application: https://www.jobs.ac.uk/job/DNI385/research-associate-in-experimental-bone-biomechanics-dallara

2) Postdoc on Computational Bone Biomechanics
-> project: “ChildBone: A novel digital twin to assess bone strength in children”
-> line manager: Dr Xinshan Li
-> start: September 2025 (or until November 2025)
-> Duration:  34 months
-> Position open to international researchers
-> Application deadline: 30/06/2025
-> link with details and application: https://www.jobs.ac.uk/job/DNI384/research-associate-in-computational-bone-biomechanics

PostDoc and PhD position at Insigneo Institute – University of Sheffield

At the Insigneo institute of the University of Sheffield we have two open positions for a PostDoc and a PhD student to contribute to the Virtual Human and Mouse Twins for Osteoporosis (VMHTs-OP) project.

All the details are reported in the links below.

For any information please do not hesitate to contact Prof Enrico Dall’Ara.

1) Postdoc on Computational Bone Biomechanics and Validation (Virtual Mouse Twin)
-> start: September 2025
-> Duration: 3 years
-> Deadline application: March 23, 2025
-> link with details and application:
https://jobsite.sheffield.ac.uk/job/Research-Associate/859-en_GB
Job Nr 859

2) PhD scholarship on Virtual Human Twin for predicting bone adaptation due to pharmacological and biomechanical treatments
-> start: October 2025
-> Duration: 3.5 years
-> Deadline application: March 31, 2025
-> Requirement: UK Home Student (also EU students with settled status, more details here)

-> link with details and application:

https://www.findaphd.com/phds/project/virtual-human-twin-for-predicting-bone-adaptation-due-to-pharmacological-and-biomechanical-treatments/?p155816

 Postdoctoral researcher @  Arts et Métiers 

  • Localisation: ENSAM – Paris Campus 

  • Practical information: 

    • Position available from: 01/01/2025

    • Lab : Institut de Biomécanique Humaine Georges Charpak 

    • Emploi de catégorie: A 

    • Fixed term contract: 12 months, full-time 

    • Remote working: non-teleworking position 

    • Contract type: Post-doc 

    • Salary range (depending on experience and profile): 27k to 34k 

    • ENSAM has an active policy to support and promote equality, diversity and inclusion within its communities. 

    • We encourage applications from a wide range of backgrounds and all our positions are open to people with disabilities. 

  • Candidature : 

Who are we ? 

Since it was founded in 1780, the Ecole Nationale Supérieure Arts et Métiers (YouTubeLink) has been committed to meeting the ever-changing challenges facing industry and society. 

A public scientific, cultural and professional establishment (EPSCP) under the sole supervision of the Ministry of Higher Education and Research, it comprises eight campuses and three institutes spread across the country. 

Its primary mission is to train engineers capable of designing environmentally-friendly products and systems, as well as controlling industrial organisation while keeping risks and costs under control. 

Work environment 

The Institut de Biomécanique Humaine Georges Charpak (IBHGC, Arts et Métiers, Université Sorbonne Paris Nord), which was set up in 1979 and now has over 50 permanent staff, has made the strategic choice to focus on the osteoarticular and musculoskeletal systems, and to explore this system in a variety of ways towards subject-specific modeling of the human body. 

The IBHGC is developing research into the geometric and mechanical modelling of the neuromusculoskeletal system, the experimental in vitro characterisation of this system and the development of quantitative methods for exploring living organisms, with the motto ‘Better understanding for better innovation, at the service of patients and society’. 

The project behind this grant is the result of collaboration with UMRS 1158 ‘Experimental and clinical respiratory neurophysiology’ at Sorbonne University and the R3S department (‘respiration, réanimation, réhabilitation, sommeil’) at the Pitié-Salpêtrière Charles Foix Hospital Group. 

The team is composed by : 

Valérie Attali (MD-PhD), pulmonologist, UMRS1158 Experimental and Clinical Respiratory Neurophysiology, Inserm – Sorbonne University. 

Baptiste Sandoz (PhD, HDR), Associate professor, Institut de Biomécanique Humaine Georges Charpak, Arts et Métiers Sciences et Technologies. 

Damien Bachasson (PhD, HDR), INSERM research fellow, UMRS1158 Experimental and Clinical Respiratory Neurophysiology, Inserm – Sorbonne University. 

Claudio Vergari (PhD, HDR), professor, Institut de Biomécanique Humaine Georges Charpak, Arts et Métiers Sciences et Technologies. 

Laurent Gajny (PhD), Associate professor, Institut de Biomécanique Humaine Georges Charpak, Arts et Métiers Sciences et Technologies. 

Missions 

Working at the Institut de Biomécanique Humaine Georges Charpak and reporting to the Director, you will take part in the ANR BIO-DIAPHRAGME project: “Imaging the diaphragm and biomechanical biomarkers of postural dysfunction in chronic respiratory diseases”. The aim of this research project is to explore the neuro-mechanical coupling between the postural and respiratory systems, focusing on the essential role of the diaphragm. It focuses particularly on patients suffering from chronic obstructive pulmonary disease (COPD), a respiratory disease that progressively alters lung function and posture. 

As part of this interdisciplinary project, your mission will be to develop and evaluate a three-dimensional method for reconstructing the shape of the diaphragm using two X-rays of the face and profile in the standing position, in consultation with the project’s multidisciplinary scientific team. 

Activities 

Your activities will include: 

– Automatic or semi-automatic segmentation of the diaphragm on 3D imaging data (scanner, MRI). 

– Definition and parameterisation of an average 3D model of the diaphragm. 

– Development of a method for automatic analysis of face and profile X-rays: segmentation and annotation of anatomical landmarks. 

– Development of a method for deforming the average model on data obtained from face and profile X-rays. 

– Assessment of the accuracy of the proposed method. 

Aim 

The aim of this post is to provide an operational method for personalised three-dimensional reconstruction of the diaphragm in order to investigate potential biomechanical biomarkers of postural dysfunction in chronic respiratory diseases. 

Desired profile / Skills required 

– Solid programming skills, particularly in image analysis and deep learning are expected. 

– Solid mathematical skills, particularly in geometry and numerical analysis, are also expected. 

– A good level in mechanics, or even biomechanics, would be a plus. 

– Operational know-how 

– Adopt a quality approach to programming 

Personal skills 

– Curious, particularly about health issues, sociable. 

– You also have good listening and adaptation skills. 

Practical information 

Experience: Young researcher (PhD) 

Languages: French/English 

Academic level: Bac + 8 (PhD in computer science/computer vision, biomedical engineering or biomechanics) 

Keywords 

  • Biomedical engineering 
  • Medical imaging 
  • Artificial intelligence 

Advantages 

Joining Ensam means benefiting from a socially committed working environment: 

– Up to 50 days’ leave in your first year, depending on your work pattern 

– Mutual insurance contribution of €15/month 

– 75% contribution to public transport costs 

– Sustainable mobility package 

– Canteen, leisure, sport and culture offers 

Your personal data 

ENSAM processes your personal data in accordance with the RGPD and the French Data Protection Act. 

This processing is carried out for the purposes of managing your application and assessing your skills in relation to the post/internship for which you are applying. 

If you wish to exercise your rights regarding your personal data, you may contact ENSAM’s Data Protection Officer at dpo@ensam.eu 

For full details of the data collected by ENSAM and how your data is processed, you can consult ENSAM’s personal data protection policy HERE

New 4-year PDRA position @ University of Glasgow

deadline 11th July 2024

The University of Glasgow is offering a unique opportunity for a Research Associate to make a leading contribution to the Centre for Future Percutaneous Coronary Intervention Planning.  The vision of the Centre is to develop novel and robust mathematical and statistical methodologies, supported by large clinical data sets, to create computational tools for optimisation of cardiovascular procedures. Based within the James Watt School of Engineering, you will work closely with colleagues from Mathematics & Statistics, Cardiovascular & Metabolic Health and Politecnico di Torino, as well as several leading international clinical centres and medical devices/imaging companies. 

You will work on the development of a range of mathematical models and their numerical solution, covering areas including patient geometry reconstruction, fluid-structure interaction, soft tissue mechanics, growth and remodelling and multiphysics modelling. You should have a PhD, or have equivalent experience, in Applied Mathematics, Physics, Computational Engineering, or a related discipline. You should have theoretical and practical knowledge of building multiphysics mathematical models and numerically solving them. Experience in patient geometry reconstruction from medical imaging, soft tissue mechanics and fluid-structure interaction modelling would be desirable.

You will also be expected to contribute to the formulation and submission of research publications and research proposals as well as help manage and direct this complex and challenging project, as opportunities allow.

For more details on the vacancy (147648) and to apply,  please visit the university webpage here: https://my.corehr.com/pls/uogrecruit/erq_jobspec_version_4.jobspec?p_id=147648

Informal enquiries about the role are welcomed, and should be addressed to Dr Sean McGinty, sean.mcginty@glasgow.ac.uk

Join the VMHTsOP project!

Four Research positions available at Insigneo (University of Sheffield) to join the “Virtual Mouse and Human Twins for optimising Treatments for Osteoporosis (VMHTsOP)” project!
The VMHTsOP project aims at developing the first inter-species Virtual Mouse-Human Twin for predicting bone adaptation over time and optimise biomechanical and/or pharmacological treatments for Osteoporosis. It is a 5 years project that will start in September 2024, led by Prof Enrico Dall’Ara at the University of Sheffield, Division of Clinical Medicine and Insigneo institute. The project has been selected by ERC-consolidator grant and funded by the EPSRC through the EU Guarantee fund.
Don’t miss the opportunity to join the team for this exciting research project!


Current Available Positions:
Research Associate (PostDoc) in “Preclinical musculoskeletal imaging and biomechanics”; 3yrs; start in Sep 2024; closing date applications 4th June 2024
Research Associate (PostDoc) in “Computational musculoskeletal biomechanics”; 3yrs; start in Sep 2024; closing date applications 4th June 2024
Research Technician with expertise in imaging and histology; 3yrs; start in Sep 2024; closing date applications 4th June 2024
PhD student in “A biochemo-mechano multi-scale computational model to predict bone adaptation over space and time”; salary and fees (for UK students) for 3.5yrs; start in Oct 2024; closing date applications 10th June 2024
For any enquiries, please contact Prof Enrico Dall’Ara at e.dallara@sheffield.ac.uk


Summary of the project
Eighty per cent of pharmaceutical interventions fail in patients even after being successful in animal studies. Musculoskeletal (MSK) diseases such as osteoporosis (OP) reduce dramatically the quality of life of millions of affected patients. Mice are the most common animal model to test new treatments. Nevertheless, the extrapolation of their effect onto patients and the identification of which new treatments should be tested in clinical studies is based on simple scaling approaches.
In this project we will develop a new mechanistic computational framework that bridges between mouse and human, informed by in vivo experiments in mice, to discover optimal treatments in patients. We will create two parallel virtual mouse and human twins (VMHTs-OP), based on similar inputs (biomedical images, cell data, gait data) that will predict bone adaptation in function of biomechanical and/or biochemical stimuli. Each virtual twin will be based on advanced multi-scale computational models (multi-body dynamics, finite element and cell-population models) to predict bone adaptation over time and space due to OP and to new biomechanical and pharmacological treatments, identifying in silico the new combined treatments that are likely to be effective in patients, to be tested in future clinical trials.
The models will be going through a comprehensive verification, validation and uncertainties quantification process in order to provide the required credibility for future preclinical applications. The model predictions will be validated against longitudinal mouse experiments and available longitudinal clinical data from known biomechanical or pharmacological interventions. Finally, the validated framework will be used to test in silico several combinations of treatments regimens (overlap, intermitted, drug holidays) and different interventions (microgravity, high strain exercises) that would not be ethically nor economically testable in animal and clinical trials.

Postdoc-Position in Biofabrication @Clausthal University of Technology

The Institute for Materials Science and Engineering at Clausthal University of Technology is pleased to announce a postdoctoral position available for one + three years (1+3 years) which we wish to fill as soon as possible. We welcome applications from individuals who are motivated, enthusiastic, and collaborative, demonstrating a commitment to developing solutions for pressing global challenges. The salary scale for this position is EG 13 TV-L aligning with the German collective labour agreement (indicative gross monthly salary range is €4,188.00 – €6,037.00 depending on experience). This opportunity is suitable for part-time work and is crafted as a qualification position for early career postdocs. However, we encourage outstanding candidates, including those without a PhD, to explore the opportunity to pursue a doctorate at Clausthal University of Technology.

The Institute for Materials Science and Engineering at Clausthal University of Technology has a strong application focus in Research and Teaching. The working group Digitalisation in Materials Science and Engineering has a focus on biologic, architectured materials and engineered living materials. The prospective candidate should strengthen this area so that we seek a candidate with a background or interest in biological tissues.

In year one, the successful candidate will support development of an EU consortium application. This includes the opportunity to start up their own research along an existing project which will commence in full from year two onwards with research in microfluidic devices, biofabrication, and bioprinting. You will find key duties, a description of your profile, what we offer, contact details, and how you can apply under https://s.gwdg.de/ECbRA8. We review applications on an ongoing basis and close this advert as soon as we have found a suitable candidate. Please do not hesitate to contact us if you have any questions. We look forward to hearing from you!

More information:

Post-doctoral position on “Bone behavior around a self-tapping dental implant during its insertion, analysed through synchrotron radiation-based fast computed tomography” @INSA Lyon

INSA Lyon is inviting applications for a postoctoral position on the analyses of dental implant insertion into bone based on microcomputed tomography.

The candidate mission will be to analyze this data set of Sr-μCT scans in order to better
understand the influence of the implant geometry on bone biomechanical behavior during
insertion. Bone morphological characterizations will be held to follow the formation of debris
and the bone volume fraction around the implant. Digital Volume Correlation will also be
applied to follow peri-implant bone strain development during the insertion.


Requested skills:
The post-doctorate candidate must have a strong experience in the manipulation and
processing of volumetric data. Skills in computer languages such as Python or Matlab will be
needed for the further treatment of the data. Some knowledge in biomechanics are preferable
as a digital volume correlation algorithm will be use to investigate bone strain/stress behavior
during implant insertion.

More information:


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