FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2121419639> ?p ?o ?g. }

• W2121419639 endingPage "1514" @default.
• W2121419639 startingPage "1509" @default.
• W2121419639 abstract "<h3></h3> Chris Butler studied medicine at Gonville and Caius College, Cambridge (1991–1994) and then at the University of Edinburgh (1994–1997). He conducted his PhD on the syndrome of transient epileptic amnesia under the supervision of Professor Adam Zeman. He worked as a post-doctoral fellow at the Memory and Aging Center, University of California at San Francisco and moved to Oxford in 2009. He was awarded a Clinician Scientist fellowship from the Medical Research Council in 2013. Transcranial ultrasound stimulation (TUS) is emerging as a potentially powerful, non-invasive technique for focal brain stimulation. TUS uses low intensity focused ultrasound delivered through the skull to cause direct modulation of neuronal function. In animal studies, TUS has been shown to modulate activity in several brain areas, including sensorimotor regions, visual cortex, frontal eye fields, anterior cingulate cortex and thalamic targets, resulting in behavioural as well as electrophysiological changes. Several studies have shown that TUS can be applied safely to healthy human participants to modulate behaviour and neural activity in brain regions including somatosensory, visual, and motor cortex as well as to deeper thalamic nuclei. These data have resulted in TUS emerging as a safe, potent, non-invasive brain stimulation tool, with better spatial accuracy and greater depth than established techniques such as transcranial magnetic or electrical stimulation. I will review these studies and discuss recent work of our own in which we studied, for the first time, TUS effects on higher-order human cortex. We investigated whether TUS can modulate higher-order visual processing both in superficial (middle temporal area (MT)) and deep (fusiform face area (FFA)) regions. Magnetic resonance imaging was used to map skull anatomy and functional regions of interest (MT and FFA) for each participant (n=16). To control for non-specific effects, auditory masking was applied during the tasks. EEG data were collected throughout. Auditory masking reduced subjective stimulation detection to chance level and abolished auditory evoked potentials. Ultrasonic stimulation of MT led to facilitation of visual motion detection in the contralateral hemifield, with no effect upon face identity detection. Stimulation of FFA did not affect visual motion detection performance. We show that TUS can be used in humans to modify behaviour and electrophysiological activity in higher-order visual pathways in a task- specific and anatomically precise manner." @default.
• W2121419639 created "2016-06-24" @default.
• W2121419639 creator A5018445266 @default.
• W2121419639 date "2005-11-01" @default.
• W2121419639 modified "2023-09-27" @default.
• W2121419639 title "COX-2 chronology" @default.
• W2121419639 cites W1485442945 @default.
• W2121419639 cites W1922681024 @default.
• W2121419639 cites W1971546821 @default.
• W2121419639 cites W1978734258 @default.
• W2121419639 cites W1980182536 @default.
• W2121419639 cites W1994783449 @default.
• W2121419639 cites W1995790735 @default.
• W2121419639 cites W1997977670 @default.
• W2121419639 cites W1999839198 @default.
• W2121419639 cites W2001162433 @default.
• W2121419639 cites W2002178040 @default.
• W2121419639 cites W2004062705 @default.
• W2121419639 cites W2004656169 @default.
• W2121419639 cites W2007295560 @default.
• W2121419639 cites W2008574207 @default.
• W2121419639 cites W2019253219 @default.
• W2121419639 cites W2023200971 @default.
• W2121419639 cites W2035159045 @default.
• W2121419639 cites W2038932922 @default.
• W2121419639 cites W2044267165 @default.
• W2121419639 cites W2053230224 @default.
• W2121419639 cites W2057685090 @default.
• W2121419639 cites W2067621583 @default.
• W2121419639 cites W2104379105 @default.
• W2121419639 cites W2113745276 @default.
• W2121419639 cites W2115350007 @default.
• W2121419639 cites W2115679325 @default.
• W2121419639 cites W2117227343 @default.
• W2121419639 cites W2117459641 @default.
• W2121419639 cites W2117694083 @default.
• W2121419639 cites W2134236228 @default.
• W2121419639 cites W2134732424 @default.
• W2121419639 cites W2135393211 @default.
• W2121419639 cites W2139776244 @default.
• W2121419639 cites W2148359829 @default.
• W2121419639 cites W2158131645 @default.
• W2121419639 cites W2158968701 @default.
• W2121419639 cites W2163756514 @default.
• W2121419639 cites W2186004090 @default.
• W2121419639 cites W2313437711 @default.
• W2121419639 cites W2321390295 @default.
• W2121419639 cites W2330496155 @default.
• W2121419639 cites W2333044470 @default.
• W2121419639 cites W2336169581 @default.
• W2121419639 cites W2431944649 @default.
• W2121419639 cites W59633004 @default.
• W2121419639 cites W2245755860 @default.
• W2121419639 doi "https://doi.org/10.1136/gut.2005.065003" @default.
• W2121419639 hasPubMedCentralId "https://www.ncbi.nlm.nih.gov/pmc/articles/1774747" @default.
• W2121419639 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/16227351" @default.
• W2121419639 hasPublicationYear "2005" @default.
• W2121419639 type Work @default.
• W2121419639 sameAs 2121419639 @default.
• W2121419639 citedByCount "40" @default.
• W2121419639 countsByYear W21214196392012 @default.
• W2121419639 countsByYear W21214196392013 @default.
• W2121419639 countsByYear W21214196392014 @default.
• W2121419639 countsByYear W21214196392015 @default.
• W2121419639 countsByYear W21214196392016 @default.
• W2121419639 countsByYear W21214196392017 @default.
• W2121419639 countsByYear W21214196392018 @default.
• W2121419639 countsByYear W21214196392019 @default.
• W2121419639 countsByYear W21214196392020 @default.
• W2121419639 countsByYear W21214196392021 @default.
• W2121419639 countsByYear W21214196392022 @default.
• W2121419639 countsByYear W21214196392023 @default.
• W2121419639 crossrefType "journal-article" @default.
• W2121419639 hasAuthorship W2121419639A5018445266 @default.
• W2121419639 hasBestOaLocation W21214196391 @default.
• W2121419639 hasConcept C120843803 @default.
• W2121419639 hasConcept C15744967 @default.
• W2121419639 hasConcept C169760540 @default.
• W2121419639 hasConcept C169900460 @default.
• W2121419639 hasConcept C172497186 @default.
• W2121419639 hasConcept C24998067 @default.
• W2121419639 hasConcept C2777348757 @default.
• W2121419639 hasConcept C2777670902 @default.
• W2121419639 hasConcept C2778402161 @default.
• W2121419639 hasConcept C2778581513 @default.
• W2121419639 hasConcept C2779345533 @default.
• W2121419639 hasConcept C2985799443 @default.
• W2121419639 hasConcept C522805319 @default.
• W2121419639 hasConcept C71924100 @default.
• W2121419639 hasConceptScore W2121419639C120843803 @default.
• W2121419639 hasConceptScore W2121419639C15744967 @default.
• W2121419639 hasConceptScore W2121419639C169760540 @default.
• W2121419639 hasConceptScore W2121419639C169900460 @default.
• W2121419639 hasConceptScore W2121419639C172497186 @default.
• W2121419639 hasConceptScore W2121419639C24998067 @default.
• W2121419639 hasConceptScore W2121419639C2777348757 @default.
• W2121419639 hasConceptScore W2121419639C2777670902 @default.
• W2121419639 hasConceptScore W2121419639C2778402161 @default.

• next