Published today in Nature Communications: our work shows that ultrasound and electric fields can interact in tissue to generate low-frequency electrical stimulation at the ultrasound focus. A possible new mechanism for ultrasound neuromodulation. doi.org/10.1038/s414...
@jean-rintoul.bsky.social
Looking for: strong quantitative background, R, genuine interest in EEG and neuromodulation. MATLAB/MNE/NIBS experience a bonus, not essential. UK right to work needed. 8 posts across the dept, so other supervisors and topics on offer too.
The deadline for this opportunity has been extended! Can still apply up to the 22nd June. #phd #phdposition #sciencejobs #neuroskyence #neurojobs
Recruiting a #PhD researcher for my new lab at the University of Liverpool 🧠 The PINT Lab: temporal interference stimulation, real-time EEG, and closed-loop neuromodulation, clinical translation to Parkinson's, depression and stroke rehab. Details: tinyurl.com/3cn5knhp #neuroskyence #neurojobs 🧵
Q for scientists & researchers: what percentage of the most consequential research in your field is actually getting funded? Are funders identifying the areas where their support might do the most good? (Quick 🧵)
A step toward non-invasive electrophysiology: our @commseng.nature.com paper demonstrates acoustoelectric neural recording in mice using ultrasound-induced frequency mixing, with controls to rule out artefacts. rdcu.be/e4GSw #ultrasound #neurotech
New paper just out 🎉 In vivo acoustoelectric neural recording: focused ultrasound + frequency mixing lets us shift & demodulate neural signals from the ultrasound focus. rdcu.be/e4GSw
In vivo acoustoelectric neural recording in mice enabled by ultrasound-induced frequency mixing
Communications Engineering - Jean Rintoul and colleagues introduce in vivo acoustoelectric neural recording, using focused ultrasound to recover electrophysiological signals in the rodent brain....
rdcu.be