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104 Artikel wurden gefunden.

Die folgenden Begriffe wurden einbezogen: Phosphen, phosphene, 眼内閃光

• 2024, Bjekić J, Živanović M, Stanković M, Paunović D, Konstantinović U, Filipović SR
  The subjective experience of transcranial electrical stimulation: a within-subject comparison of tolerability and side effects between tDCS, tACS, and otDCS [med. Anw.]
  Front Hum Neurosci 18: 1468538
• 2024, Aghamirzayeva K, Temuçin ÇM, Yıldız FG
  Excitability Changes in Occipital Cortex After Continuous Theta-Burst Stimulation [med. Anw.]
  Arch Neuropsychiatry 67 (3): 228-234
• 2024, König AM, Pöschke A, Mahnken AH
  Health risks for medical personnel due to magnetic fields in magnetic resonance imaging [Review]
  Rofo [im Druck]
• 2024, Legros A, Nissi J, Laakso I, Duprez J, Kavet R, Modolo J
  Thresholds and Mechanisms of Human Magnetophosphene Perception Induced by Low Frequency Sinusoidal Magnetic Fields [med./bio.]
  Brain Stimul 17 (3): 668-675
• 2024, Phylactou P, Pham TNM, Narskhani N, Diya N, Seminowicz DA, Schabrun SM
  Phosphene and motor transcranial magnetic stimulation thresholds are correlated: A meta-analytic investigation [Review]
  Prog Neuropsychopharmacol Biol Psychiatry 133: 111020
• 2024, Bonfanti D, Mazzi C, Savazzi S
  Mapping the routes of perception: Hemispheric asymmetries in signal propagation dynamics [med./bio.]
  Psychophysiology 61 (6): e14529
• 2023, Iszak K, Gronemann SM, Meyer S, Hunold A, Zschüntzsch J, Bähr M, Paulus W, Antal A
  Why Temporal Inference Stimulation May Fail in the Human Brain: A Pilot Research Study [med./bio.]
  Biomedicines 11 (7): 1813
• 2023, Syrov N, Mustafina A, Berkmush-Antipova A, Yakovlev L, Demchinsky A, Petrova D, Kaplan A
  Single-Subject TMS Pulse Visualization on MRI-Based Brain Model: A precise method for mapping TMS pulses on cortical surface [tech./dosim.]
  MethodsX 10: 102213
• 2023, Cohan R, Rafique SA, Stoby KS, Gorbet DJ, Steeves JKE
  Continuous and intermittent theta burst stimulation of primary visual cortex do not modulate resting state functional connectivity: A sham-controlled multi-echo fMRI study [med. Anw.]
  Brain Behav 13 (5): e2989
• 2023, Lin SN, Lien YR, Shibata K, Sasaki Y, Watanabe T, Lin CP, Chang LH
  The phase of plasticity-induced neurochemical changes of high-frequency repetitive transcranial magnetic stimulation are different from visual perceptual learning [med. Anw.]
  Sci Rep 13: 5720
• 2023, Phylactou P, Traikapi A, Konstantinou N
  One in four people fail to perceive phosphenes during early visual cortex transcranial magnetic stimulation [med. Anw.]
  Brain Stimul 16 (1): 23-24
• 2022, Bosking WH, Oswalt DN, Foster BL, Sun P, Beauchamp MS, Yoshor D
  Percepts evoked by multi-electrode stimulation of human visual cortex [med./bio.]
  Brain Stimul 15 (5): 1163-1177
• 2022, Rafiei F, Rahnev D
  TMS Does Not Increase BOLD Activity at the Site of Stimulation: A Review of All Concurrent TMS-fMRI Studies [Review]
  eNeuro 9 (4): ENEURO.0163-22.2022
• 2022, Evans I, Palmisano S, Croft RJ
  Effect of ambient lighting on frequency dependence in transcranial electrical stimulation-induced phosphenes [med./bio.]
  Sci Rep 12: 7775
• 2022, Stoby KS, Rafique SA, Oeltzschner G, Steeves JKE
  Continuous and intermittent theta burst stimulation to the visual cortex do not alter GABA and glutamate concentrations measured by magnetic resonance spectroscopy [med. Anw.]
  Brain Behav 12 (2): e2478
• 2022, Nissi J, Laakso I
  Magneto- and electrophosphene thresholds in the retina: a dosimetry modeling study [tech./dosim.]
  Phys Med Biol 67 (1): 015001
• 2021, Sabel BA, Kresinsky A, Cardenas-Morales L, Haueisen J, Hunold A, Dannhauer M, Antal A
  Evaluating Current Density Modeling of Non-Invasive Eye and Brain Electrical Stimulation Using Phosphene Thresholds [med./bio.]
  IEEE Trans Neural Syst Rehabil Eng 29: 2133-2141
• 2021, Evans ID, Palmisano S, Croft RJ
  Retinal and Cortical Contributions to Phosphenes During Transcranial Electrical Current Stimulation [med./bio.]
  Bioelectromagnetics 42 (2): 146-158
• 2021, Silvanto J, Cattaneo Z
  Nonlinear interaction between stimulation intensity and initial brain state: Evidence for the facilitatory/suppressive range model of online TMS effects [med. Anw.]
  Neurosci Lett 742: 135538
• 2020, Cornacchia S, La Tegola L, Maldera A, Pierpaoli E, Tupputi U, Ricatti G, Eusebi L, Salerno S, Guglielmi G
  Radiation protection in non-ionizing and ionizing body composition assessment procedures [Grundlagen]
  Quant Imaging Med Surg 10 (8): 1723-1738
• 2019, Tanaka Y, Nomoto T, Shiki T, Sakata Y, Shimada Y, Hayashida Y, Yagi T
  Focal activation of neuronal circuits induced by microstimulation in the visual cortex [med./bio.]
  J Neural Eng 16 (3): 036007
• 2019, Lorenz R, Simmons LE, Monti RP, Arthur JL, Limal S, Laakso I, Leech R, Violante IR
  Efficiently searching through large tACS parameter spaces using closed-loop Bayesian optimization [tech./dosim.]
  Brain Stimul 12 (6): 1484-1489
• 2019, Khammash D, Simmonite M, Polk TA, Taylor SF, Meehan SK
  Temporal Dynamics of Corticocortical Inhibition in Human Visual Cortex: A TMS Study [med. Anw.]
  Neuroscience 421: 31-38
• 2019, Evans ID, Palmisano S, Loughran SP, Legros A, Croft RJ
  Frequency-dependent and montage-based differences in phosphene perception thresholds via transcranial alternating current stimulation [med./bio.]
  Bioelectromagnetics 40 (6): 365-374
• 2019, Yeo JM, Carson A, Stone J
  Seeing again: treatment of functional visual loss [med. Anw.]
  Pract Neurol 19 (2): 168-172
• 2019, Khammash D, Simmonite M, Polk TA, Taylor SF, Meehan SK
  Probing short-latency cortical inhibition in the visual cortex with transcranial magnetic stimulation: A reliability study [med. Anw.]
  Brain Stimul 12 (3): 702-704
• 2019, Bodewein L, Schmiedchen K, Dechent D, Stunder D, Graefrath D, Winter L, Kraus T, Driessen S
  [Details] Systematic review on the biological effects of electric, magnetic and electromagnetic fields in the intermediate frequency range (300 Hz to 1 MHz) [Review]
  Environ Res 171: 247-259
• 2018, Herpich F, Contò F, van Koningsbruggen M, Battelli L
  Modulating the excitability of the visual cortex using a stimulation priming paradigm [med./bio.]
  Neuropsychologia 119: 165-171
• 2018, Negahbani E, Kasten FH, Herrmann CS, Fröhlich F
  Targeting alpha-band oscillations in a cortical model with amplitude-modulated high-frequency transcranial electric stimulation [tech./dosim.]
  NeuroImage 173: 3-12
• 2018, Saito A, Takahashi M, Makino K, Suzuki Y, Jimbo Y, Nakasono S
  [Details] Response of Cultured Neuronal Network Activity After High-Intensity Power Frequency Magnetic Field Exposure [med./bio.]
  Front Physiol 9: 189
• 2018, Ota Y, Ozeki N, Yuki K, Shiba D, Kimura I, Tsunoda K, Shinoda K, Ohde H, Tsubota K
  The Efficacy of Transcorneal Electrical Stimulation for the Treatment of Primary Open-angle Glaucoma: A Pilot Study [med. Anw.]
  Keio J Med 67 (3): 45-53
• 2017, Nakagawa H, Ueno S
  Sub/Supraliminal Stimulus With Pseudo-“Blindsight” Under Exposure to Extremely Low-Frequency Fields [med./bio.]
  IEEE Trans Magn 53 (11): 5000604
• 2017, Röck T, Naycheva L, Willmann G, Wilhelm B, Peters T, Zrenner E, Bartz-Schmidt KU, Gekeler F, Schatz A
  Transkorneale Elektrostimulation bei primärem Offenwinkelglaukom [med. Anw.]
  Ophthalmologe 114 (10): 922-929
• 2017, Barriga-Rivera A, Guo T, Yang CY, Abed AA, Dokos S, Lovell NH, Morley JW, Suaning GJ
  High-amplitude electrical stimulation can reduce elicited neuronal activity in visual prosthesis [med./bio.]
  Sci Rep 7: 42682
• 2016, Schutter DJ
  Cutaneous retinal activation and neural entrainment in transcranial alternating current stimulation: A systematic review [Grundlagen]
  NeuroImage 140: 83-88
• 2015, Friebe B, Wollrab A, Thormann M, Fischbach K, Ricke J, Grueschow M, Kropf S, Fischbach F, Speck O
  Sensory perceptions of individuals exposed to the static field of a 7T MRI: A controlled blinded study [med./bio.]
  J Magn Reson Imaging 41 (6): 1675-1681
• 2014, Raco V, Bauer R, Olenik M, Brkic D, Gharabaghi A
  Neurosensory effects of transcranial alternating current stimulation [med. Anw.]
  Brain Stimul 7 (6): 823-831
• 2014, Nakagawa H, Masamune K, Kotani M, Ueno S
  Pseudo-"blindsight" under exposure to extremely low frequency electromagnetic fields [med./bio.]
  J Appl Phys 115: 17E311
• 2013, Heinrich A, Szostek A, Meyer P, Nees F, Rauschenberg J, Grobner J, Gilles M, Paslakis G, Deuschle M, Semmler W, Flor H
  Cognition and sensation in very high static magnetic fields: a randomized case-crossover study with different field strengths [med./bio.]
  Radiology 266 (1): 236-245
• 2013, Laakso I, Hirata A
  Computational estimation of threshold currents for electrophosphenes [tech./dosim.]
  2013 International Symposium on Electromagnetic Theory, Hiroshima, Hiroshima, Japan. IEEE: S. 350-353; ISBN 978-1-4673-4939-0
• 2013, Stokes MG, Barker AT, Dervinis M, Verbruggen F, Maizey L, Adams RC, Chambers CD
  Biophysical Determinants of Transcranial Magnetic Stimulation: Effects of Excitability and Depth of Targeted Area [med. Anw.]
  J Neurophysiol 109 (2): 437-444
• 2012, Kar K, Krekelberg B
  Transcranial electrical stimulation over visual cortex evokes phosphenes with a retinal origin [med./bio.]
  J Neurophysiol 108 (8): 2173-2178
• 2012, Pophof B
  [Details] Gesundheitliche Auswirkungen starker statischer Magnetfelder der Magnet-Resonanz-Tomographie [Review]
  UMID 3: 11-15
• 2012, Laakso I, Hirata A
  Computational analysis of thresholds for magnetophosphenes [tech./dosim.]
  Phys Med Biol 57 (19): 6147-6165
• 2012, Bakker JF, Paulides MM, Neufeld E, Christ A, Chen XL, Kuster N, van Rhoon GC
  Children and adults exposed to low-frequency magnetic fields at the ICNIRP reference levels: theoretical assessment of the induced electric fields [tech./dosim.]
  Phys Med Biol 57 (7): 1815-1829
• 2011, Hirata A, Takano Y, Fujiwara O, Dovan T, Kavet R
  An electric field induced in the retina and brain at threshold magnetic flux density causing magnetophosphenes [tech./dosim.]
  Phys Med Biol 56 (13): 4091-4101
• 2011, Jokela K, Saunders RD
  Physiologic and dosimetric considerations for limiting electric fields induced in the body by movement in a static magnetic field [tech./dosim.]
  Health Phys 100 (6): 641-653
• 2010, Schutter DJ, Hortensius R
  Retinal origin of phosphenes to transcranial alternating current stimulation [med. Anw.]
  Clin Neurophysiol 121 (7): 1080-1084
• 2010, Kammer T, Baumann LW
  Phosphene thresholds evoked with single and double TMS pulses [med. Anw.]
  Clin Neurophysiol 121 (3): 376-379
• 2009, Schwiedrzik CM
  Retina or visual cortex? The site of phosphene induction by transcranial alternating current stimulation [Kommentar]
  Front Integr Neurosci 3: 6