The goal of the FOLLOWKNEE project is to propose a totally innovative workflow for total knee arthroplasty (TKA) as an answer to the changes in the demographic population for the next 20 years: Younger, more active but overweighed patients. TKA is one of the most common surgical procedure in orthopedics. By 2030, the demand is expected to grow up to 700% .
Marie Curie ITN PREDICT
PREDICT A new era in personalised medicine: Radiomics as decision support tool for diagnostics and theragnostics in oncology is a European Innovative Training Network funded within the Marie-Curie H2020 program. Its goal is to train 15 highly promising researchers in the emerging field of Radiomics and Big data, 2 of them being hosted in LaTIM. These ESRs will be trained to implement the automatic exploitation of large amounts of imaging data to drive decision-making algorithms that will guide diagnosis and treatment of different types of cancer and to develop ‘tumour-specific’ signatures integrated in multifactorial decision systems. The ESRs will become experts and innovators in Radiomics, Big Data and decision systems, which will allow them to bring unique solutions towards the clinic. PREDICT builds upon a strong consortium with 8 academic and 10 non-academic partners that are all pioneers in their respective field. Its budget is 3.9 M€.
Prostate cancer is by far the most common cancer for men. The search for improved solutions for the treatment of prostate cancer remains a major societal challenge. However, the current brachytherapy procedures are not fully exploiting the latest state of the art in dosimetry calculation, guidance and imaging capabilities, and thus do not yet meet the requirements for a robust treatment. The ambition of this project is to provide an innovative focal brachytherapy system, less invasive, with fewer side effects, in rupture with current brachytherapy procedures, capable of accurately irradiating very localized areas, while significantly decreasing the time of the intervention.
LaTIM is the main investigator for this project.
The use of X-rays for medical purposes is associated with an inherent risk of exposing patient, interventional radiologists/surgeons and supporting medical staff members to harmful ionizing radiation. Studies have reported a considerable amount of unnecessary exposures resulting from a lack of awareness, a reduced concern of long-term exposure risks and a poor knowledge of the behavior of ionizing radiation. The overarching goal of OptimiX project is to improve the overall radiation safety of patient and clinical staff by (i). developing novel approaches for fast and accurate radiation simulation, (ii). propose methods for optimizing an X-ray imaging device configuration to minimize the delivered dose (iii). developing radiation awareness systems using Augmented/Virtual Reality visualization to facilitate teaching, in an engaging and intuitive manner, on the behavior of ionizing radiation and the best use of protective measures.
LaTIM is the main investigator for this project.
Website: coming soon
Functional, neuroplastic and biomechanical changes induced by early Hand and Arm Bimanual Intensive Therapy Including Lower Extremities (HABIT-ILE) in pre-school children with uni-and-bilateral cerebral palsy: a European project.
The primary objectives of this study are to evaluate the effect of two weeks of early HABIT-ILE on bimanual performance in pre-school children with unilateral CP (Randomized Controlled Trial 1=RCT1, N=50 children) and on gross motor function of children with bilateral CP (RCT 2, N= 50 children), in comparison with two weeks of usual motor activity including usual rehabilitation (control group). The primary outcome measures will be the difference in Assistive Hand Assessment (AHA) and Gross Motor Function Measure (GMFM) between base line and at three months.
The methodological purpose of this project is to develop innovative and robust solutions to analyze preterm brain signal / image data, with the applicative purpose of designing efficient tools for improving our understanding of neurodevelopment.
This project aims at providing new major insights into early brain development mechanism exploiting the joint use of physics-based growth models and medical image analysis. Our primary objective is to develop new tools and methods for the understanding of brain maturation and the a posteriori detection of abnormal critical events such as neonatal stroke that can lead to cerebral palsy or epilepsy.
In children population with obstetrical brachial plexus palsy (OBPP), shoulder musculoskeletal deformity is the main cause of morbidity, with a loss of range of shoulder motion, pain and a reduction in social participation. Some uncontrolled studies shows that early injections of botulinum toxin (BTI) in the internal shoulder rotator muscles (which cause the deformity) are one of the most promising treatment for the prevention of bony deformity.
The main objective of this study is the evaluation of the effectiveness of BTI in the internal shoulder rotator muscles at the age of 12 months in preventing an increase in posterior subluxation of the glenohumeral joint in babies with OBPP (evaluated at the ages of 11 months and 18 months), compared to the Sham group.
The main goal of this project is to determine the biomechanical factors (muscular atrophy, muscular strength, muscular shrinkage) and morphological (greasy infiltration, contractile portion, muscular geometry) predictive of the loss of the walk ability of the children with DMD.