Investigating neural and kinematic signatures of movement using synchronous neural and kinematic recordings in freely moving human, Parkinson's Disease patients
[DBS study of Parkinson’s disease] Shreve et al.: “Parkinson’s neural oscillations and coupling were greater in the more affected subthalamic nucleus and were evident in 98% cases.”
https://t.co/ykGQv4KMg7
@Stanford_Neuro#DBS#STN#PD#ClinicalNeuroph
Hope vs. Hype: Will closed loop technology provide more meaningful improvement compared to directional leads in deep brain stimulation? New discussion piece from @HBSlab & Aristide Merola
https://t.co/usf7PR56es
Podcast: Helen Bronte-Stewart says new approaches, such as closed-loop deep-brain stimulation, & new digital health technologies are reshaping the field, leading to new understandings & new treatments for #Parkinsons. https://t.co/Np4tR2U8HC
We are hiring for a research assistant and 2 postdoc positions! If you're looking to join an exciting team of scientists working on novel, neural interventions, find out more here: https://t.co/T6wPoeQ2wt
This #WorldParkinsonsDay, we’re joining 80+ partners to introduce The Spark, the global symbol for Parkinson’s Awareness. Together, we're speaking out to end the world’s fastest-growing neurological disease. Learn more and share your Spark today: https://t.co/dPJz8oJAvQ #thespark
New paper from the lab! Higher interhemispheric STN beta coherence correlates with worsening bradykinesia and disease progression, unlike local STN beta dynamics. https://t.co/Vs0Pnvif1g @Stanford_Neuro
We are currently recruiting new Research Assistants to participate in cutting-edge research in #ParkinsonsDisease! Please apply here for more information: https://t.co/dMr4pQ2Qw5 @Stanford_Neuro
The Human Motor Control and Neuromodulation Lab under Dr. Bronte-Stewart @HBSlab is seeking a neural engineering postdoctoral scholar to investigate neural closed loop deep brain stimulation in Parkinson’s disease. Learn more and apply: https://t.co/sTFtm5KPVg
96 individuals with Parkinson's Disease performed a 30 second QDG-RAFT task to reliably track disease progression and cardinal motor symptoms, including rigidity. Learn more here! https://t.co/RindPMUCB9 @Stanford_Neuro
This analysis shows that raw IMU data can provide valuable information to help physicians track and manage patient disease progression. Big thanks to @mrlee543 @SeagersKirsten@johanping@kidzik and @StanfordNMBL for this great work!
Detecting #freezingofgait outside the clinic has become imperative for tracking disease progression in PD. Watch this great presentation on the minimal set of wearable IMUs needed to objectively detect FOG with high clinical utility! https://t.co/YTT4pumO9z
In fact, a single IMU on the ankle performed within 4% of the top performing 3 IMU set. Both the lumbar and ankle IMUs were rated highly wearable by patients. Check out the open source data and software at: https://t.co/TyGT8lf6w8
New publication from the lab! While the sequence effect worsens over time in repeat visits with disease progression, it improves in response to open and closed-loop STN stimulation. https://t.co/ig16Ex84Si
We are currently hiring for 3 new positions! Seeking a post-doc and 2 RAs interested in decoding the pathophysiology of #movementdisorders. Please see https://t.co/T6wPof75yt for details and to apply! @Stanford_Neuro
My favorite thing about science? The magic of working together. With 3 co-first authors and 2 co-last authors, this impactful work is elevated by many perspectives (patients, engineers, clinicians, statisticians). Science is human. https://t.co/yJlD8DFgRw
Grateful for our team.
We are currently hiring for 3 new positions! Seeking a post-doc and 2 RAs interested in decoding the pathophysiology of #movementdisorders. Please see https://t.co/T6wPof75yt for details and to apply! @Stanford_Neuro