window discriminator software spike histogram for macintosh v2.2 (ADInstruments)
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window discriminator software spike histogram for macintosh v2.2
Window Discriminator Software Spike Histogram For Macintosh V2.2, supplied by ADInstruments, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/window+discriminator+software+spike+histogram+for+macintosh+v2%2E2/window+discriminator+software+spike+histogram+for+macintosh+v2+2/pmc09086585-51-33-41
Average 90 stars, based on 1 article reviews
Window Discriminator Software Spike Histogram For Macintosh V2.2, supplied by ADInstruments, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/window+discriminator+software+spike+histogram+for+macintosh+v2%2E2/window+discriminator+software+spike+histogram+for+macintosh+v2+2/pmc09086585-51-33-41
Average 90 stars, based on 1 article reviews
window discriminator software spike histogram for macintosh v2.2 - by Bioz Stars,
2026-09
90/100 stars
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Software:Article Title: Vestibular modulation of muscle sympathetic nerve activity during sinusoidal linear acceleration in supine humans Article Snippet: .. Negative-going spikes in the neurogram (with a half-width of 0.2–0.5 ms), positive-going spikes in the ECG and the positive peaks of the accelerometer signals were detected using Article Title: Stimulation of the dorsolateral prefrontal cortex modulates muscle sympathetic nerve activity and blood pressure in humans Article Snippet: .. As described previously , negative-going spikes in the nerve recording (with a half-width of 0.2–0.5 ms) and the positive peaks of the sinusoidal stimulus or the R-waves of the ECG were detected using Article Title: Random-amplitude sinusoidal linear acceleration causes greater vestibular modulation of skin sympathetic nerve activity than constant-amplitude acceleration. Article Snippet: We tested the hypothesis that random variations in the magnitude of sinusoidal linear acceleration cause greater modulation of skin sympathetic nerve activity (SSNA), but not muscle sympathetic nerve activity (MSNA), than sinusoidal stimuli of the same frequency but constant amplitude.. Subjects (n = 22) were seated in a sealed room mounted on a linear motor that could deliver peak sinusoidal accelerations of 30 mG in the antero-posterior direction.. Subjects sat on a padded chair with their neck and head supported vertically, thereby minimizing somatosensory cues, facing the direction of motion in the anterior direction. Article Title: Superentrainment of muscle sympathetic nerve activity during sinusoidal galvanic vestibular stimulation Article Snippet: .. Negative-going spikes in the neurogram (with a half-width of 0.2–0.5 ms), positive-going spikes in the ECG, and the positive peaks of the sinusoidal stimulus were detected with Article Title: Skin Sympathetic Nerve Activity is Modulated during Slow Sinusoidal Linear Displacements in Supine Humans Article Snippet: .. Negative-going spikes in the neurogram (with a half-width of 0.2–0.5 ms), positive-going spikes (R waves) in the ECG and the positive peaks of the accelerometer signals were detected using Article Title: Modulation of muscle sympathetic nerve activity by low-frequency physiological activation of the vestibular utricle in awake humans. Article Snippet: the vestibular system, made up of the otolithic organs (the utricle and saccule) and the semicircular canals, is primarily responsible for providing sensory information on the position of the head in the gravitational field. the otoliths play an important role in the perception of linear acceleration (Paige and tomko 1991), while the canals are concerned with angular acceleration.. Over the last decade, our laboratory has been using galvanic vestibular stimulation (GVs)—a means of selectively activating the vestibular apparatus (Goldberg et al. 1984; Minor and Goldberg 1991; Fitzpatrick and Day 2004)—to examine the effects of vestibular stimulation on sympathetic outflow to both muscle and skin.. GVs, when applied bilaterally to the mastoid processes at 0.5–0.8 hz, induces a potent modulation of muscle sympathetic nerve activity (MsNa), with the occasional generation of two bursts per cardiac cycle—one time locked to the EcG and the other to the vestibular input (Bent et al. 2006; El sayed et al. 2012). subsequent studies applying sinusoidal GVs at 0.2–2.0 hz demonstrated partial phase locking of sympathetic outflow to both muscle (Grewal et al. 2009) and skin (James et al. 2010). Article Title: Cardiorespiratory coupling of sympathetic outflow in humans: a comparison of respiratory and cardiac modulation of sympathetic nerve activity to skin and muscle. Article Snippet: New Findings What is the central question of this study?. Muscle sympathetic nerve activity (MSNA) is well known to be modulated by the arterial baroreceptors and respiration, but what are the magnitudes of cardiac and respiratory modulation of skin sympathetic nerve activity (SSNA), which primarily subserves thermoregulation?. What is the main finding and what is its importance? Construct:Article Title: Vestibular modulation of muscle sympathetic nerve activity during sinusoidal linear acceleration in supine humans Article Snippet: .. Negative-going spikes in the neurogram (with a half-width of 0.2–0.5 ms), positive-going spikes in the ECG and the positive peaks of the accelerometer signals were detected using Article Title: Superentrainment of muscle sympathetic nerve activity during sinusoidal galvanic vestibular stimulation Article Snippet: .. Negative-going spikes in the neurogram (with a half-width of 0.2–0.5 ms), positive-going spikes in the ECG, and the positive peaks of the sinusoidal stimulus were detected with Article Title: Modulation of muscle sympathetic nerve activity by low-frequency physiological activation of the vestibular utricle in awake humans. Article Snippet: the vestibular system, made up of the otolithic organs (the utricle and saccule) and the semicircular canals, is primarily responsible for providing sensory information on the position of the head in the gravitational field. the otoliths play an important role in the perception of linear acceleration (Paige and tomko 1991), while the canals are concerned with angular acceleration.. Over the last decade, our laboratory has been using galvanic vestibular stimulation (GVs)—a means of selectively activating the vestibular apparatus (Goldberg et al. 1984; Minor and Goldberg 1991; Fitzpatrick and Day 2004)—to examine the effects of vestibular stimulation on sympathetic outflow to both muscle and skin.. GVs, when applied bilaterally to the mastoid processes at 0.5–0.8 hz, induces a potent modulation of muscle sympathetic nerve activity (MsNa), with the occasional generation of two bursts per cardiac cycle—one time locked to the EcG and the other to the vestibular input (Bent et al. 2006; El sayed et al. 2012). subsequent studies applying sinusoidal GVs at 0.2–2.0 hz demonstrated partial phase locking of sympathetic outflow to both muscle (Grewal et al. 2009) and skin (James et al. 2010). other:Article Title: Central command increases muscle sympathetic nerve activity more to contracting than noncontracting muscle during rhythmic isotonic leg exercise. Article Snippet: Then negative-going spikes of MSNA 181 (with a half-width of 0.2-0.5 ms) were detected using Activity Assay:Article Title: Modulation of muscle sympathetic nerve activity by low-frequency physiological activation of the vestibular utricle in awake humans. Article Snippet: the vestibular system, made up of the otolithic organs (the utricle and saccule) and the semicircular canals, is primarily responsible for providing sensory information on the position of the head in the gravitational field. the otoliths play an important role in the perception of linear acceleration (Paige and tomko 1991), while the canals are concerned with angular acceleration.. Over the last decade, our laboratory has been using galvanic vestibular stimulation (GVs)—a means of selectively activating the vestibular apparatus (Goldberg et al. 1984; Minor and Goldberg 1991; Fitzpatrick and Day 2004)—to examine the effects of vestibular stimulation on sympathetic outflow to both muscle and skin.. GVs, when applied bilaterally to the mastoid processes at 0.5–0.8 hz, induces a potent modulation of muscle sympathetic nerve activity (MsNa), with the occasional generation of two bursts per cardiac cycle—one time locked to the EcG and the other to the vestibular input (Bent et al. 2006; El sayed et al. 2012). subsequent studies applying sinusoidal GVs at 0.2–2.0 hz demonstrated partial phase locking of sympathetic outflow to both muscle (Grewal et al. 2009) and skin (James et al. 2010). |