.@favier_clement's latest journal paper on "Maintaining Bone Health in the Lumbar Spine: Routine Activities Alone Are Not Enough" is out now 🥳 #Spine#Biomechanics@MSkLab1 https://t.co/JCPDvATPZf
Delighted our latest paper on structural modelling of bone adaptation is out now. Keep taking the stairs! | Influence of a change in activity regime on femoral bone architecture and failure behaviour #orthopaedic#biomechanics#structures#bone#adaptation https://t.co/8kfXlw06jz
What an exciting programme we have planned for #BORS2023@Cambridge_Uni. Make sure to take advantage of Early bird registration available until midnight of Friday 1st September ⏳⏰
Full programme for #BORS2023 (British Orthopaedic Research Society) is now available: https://t.co/P3CI54FMcE It will be a great meeting! Early bird registration available until Friday 1 September @BritishORS
Delighted that collaborative work with @TRBL_CBIS and the ADVANCE study is now published, showing that loss of bone mineral density in lower limb amputees is localized rather than systemic and correlates with altered mechanical loading #biomechanics https://t.co/KwBym2UbLQ
This paper represents the outcome of a fantastic work done by @ArnaultCaillet and a fruitful collaboration with @atmphillips@icStructBiomech and Dario Farina! 🍾🎉 ..and more publications from Arnault's doctoral work are on their way!!
We tested both the experimental and the simulated spike trains as input to a MN-driven muscle model consisting of a collection of motor unis. Both the neural drive and the whole muscle force were better predicted with the reconstructed MN pool than with the HDEMG data alone!🤯5/6
Step 3⃣ provides a realistic distribution of the MN electrophysiological properties in the MN pool, which is applied 4⃣ to a cohort of MN models that predict the firing behaviour of the complete MN pool. 4/6
1⃣ The MNs identified from HDEMGs are located into the MN pool. 2⃣ The common MN membrane current is estimated from the experimental data. 3⃣ It controls models of discharging MNs, calibrated to match the recorded discharge frequencies. 3/6
Spike trains from HDEMGs alone do not accurately predict the real neural drive to muscle and are not reliable inputs to muscle models. We developed a 4⃣-step method to predict the discharge behaviour of the complete population of MNs even from limited experimental data. 2/6
How can we use high-density EMG (HDEMG) signals to control motoneuron (MN)-driven muscle models? We offer some answers and a validated and open-source 🤩computational method in our new published paper:
📜 https://t.co/0A5PaSWTTH
💾 https://t.co/KjM2AlVjvN
1/6
Distilling decades of research on #motoneurons into a set of empirical relationships between anatomical and physiological properties – find out more in this #RefereedPreprint from the Modense lab (@Modenaxe).
#Neuroscience
https://t.co/iwFCAK4dUw
BORS & @BoneJointRes 2022 Travelling Fellowships applications are now open. The fellowship will be a three-week travel programme, starting at the ORS 2023 and touring round centres of excellence in North America. Follow the link for more information https://t.co/ls5D3wHGoE!
The #REF2021 results are in…and confirm our status as a world-class research powerhouse!
We have a greater proportion of 4* “world-leading” research than any other UK university – a testament to #OurImperial community 👉 https://t.co/QZxtDSjEs1
Congratulations to @bicermetinn on the first published work from his PhD: Altering the strength of the muscles crossing the lower limb joints only affects knee joint reaction forces https://t.co/3gFsvQyVGv @Modenaxe@atmphillips