Papers
7
Total Citations
368
H-Index
6
About
Dawn M. Taylor is a pioneering neuroscientist and biomedical engineer whose work sits at the intersection of neural signal processing, brain-computer interfaces (BCIs), and neuroprosthetics. Her research has fundamentally advanced our understanding of how cortical activity can be harnessed to restore movement in individuals with paralysis. Taylor's most influential contributions center on decoding motor intentions directly from neural populations in the brain's motor and premotor cortices. Her landmark 2003 study, which accumulated 150 citations, demonstrated that activity recorded from implanted microwire electrode arrays in rhesus macaques could drive both virtual cursors and robotic arms in real time across three-dimensional space. Building on this foundation, her 2011 work explored functional electrical stimulation as a means of restoring coordinated arm and hand movement in humans with tetraplegia, garnering over 100 citations and representing a critical step toward clinically viable neuroprosthetics. Her broader 2008 overview of brain-computer interfaces, with 82 citations, has served as an important educational resource for researchers entering the field. Across her career, Taylor has championed the development of adaptive signal processing methods and online error correction strategies, pushing BCIs from laboratory demonstrations toward practical tools that could meaningfully restore independence to people with severe motor disabilities.
Research Focus
Key Achievements
Top Papers
- 1Information conveyed through brain-control: cursor versus robot150 citations · 2003
- 2
- 3Brain-Computer Interfaces82 citations · 2008
- 4
- 5Cortical control of natural arm movement7 citations · 2003
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