Using this recording system and artifact reduction method, we have demonstrated that simultaneous EEG/fMRI studies are for the first time possible, extending the scope of EEG/fMRI studies considerably.
We use this record to place additional constraints on depositional environments and the tectonic and paleogeomorphic history of the region.
We used this record combined with the record from Suganuma et al. (2015) to establish a new age model for the Chiba composite section.
We used this recording approach during vocalization-playback experiments to test the hypothesis that vocalization-associated changes in speech sound processing occur mainly within localized areas of human auditory cortex and the overall nature of these changes would be attenuation.
Using this device, we recorded 17,930 lung sounds from 1630 subjects.
Using this system, we recorded auditory responses by simultaneously detecting changes in the fluorescence intensity of a Ca2+ indicator dye, multi-unit activities (MUA), and local field potentials (LFP) in the mouse's inferior colliculus (IC).
Using this method, we recorded for an average of 51.3±11.4 SD minutes per night.
Using this method, we recorded a knockout efficiency of ∼1/5000 of the F2 progeny were bonafide eater knockouts.
Using this technique, we recorded MPP changes in single cells from 2 min after stressor exposure (early) to 15 16 min (late), then analyzing these data by variance analysis.
Using this approach, we were able to record a part of the spinal cord under in vivo conditions which largely carries out efferent, i. e. motor functions.
