研究状況の概観

• 2025, Shaykevich DA, Pareja-Mejía D, Golde C, Pašukonis A, O'Connell LA
  Neural and sensory basis of homing behaviour in the invasive cane toad, Rhinella marina [med./bio.]
  Proc R Soc B - Biol Sci 292 (2041): 20250045
• 2025, Le TT, Choi SH, Im GH, Lee C, Lee D, Schulman J, Cho H, Uludağ K, Kim SG
  Whole-brain BOLD responses to graded hypoxic challenges at 7 T, 9.4 T, and 15.2 T: Implications for ultrahigh-field functional MRI and BOLD-dynamic susceptibility contrast MRI [med./bio.]
  Magn Reson Med [in press]
• 2025, Kim YJ, Kent N, Vargas Paniagua E, Driscoll N, Tabet A, Koehler F, Malkin E, Frey E, Manthey M, Sahasrabudhe A, Cannon TM, Nagao K, Mankus D, Bisher M, de Nola G, Lytton-Jean A, Signorelli L, Gregurec D, Anikeeva P
  Magnetoelectric nanodiscs enable wireless transgene-free neuromodulation [med./bio.]
  Nat Nanotechnol 20 (1): 121-131
• 2024, Zhang E, Shotbolt M, Chang CY, Scott-Vandeusen A, Chen S, Liang P, Radu D, Khizroev S
  [磁気電気ナノ粒子による活動電位の制御] [med./bio.]
  Brain Stimul 17 (5): 1005-1017
• 2024, Grob R, Müller VL, Grübel K, Rössler W, Fleischmann PN
  [サバクアリにおけるニューロン可塑性における磁気情報の重要性] [med./bio.]
  Proc Natl Acad Sci USA 121 (8): e2320764121
• 2023, Cote JM, Hood A, Kwon B, Smith JC, Houpt TA
  [耳石変異マウスでは高強度磁界に対する行動および神経反応が低下する] [med./bio.]
  Am J Physiol Regul Integr Comp Physiol 325 (2): R181-R192
• 2022, Luo Y, Zhan A, Fan Y, Tian L
  [成体海馬の神経原性ニッチおよびマウスの神経新生に対する低磁界の影響] [med./bio.]
  Front Phys 10: 1075198
• 2022, Heyers D, Musielak I, Haase K, Herold C, Bolte P, Güntürkün O, Mouritsen H
  [渡り鳥におけるクラスターNと海馬形成の形態学、生化学および接続性] [med./bio.]
  Brain Struct Funct 227 (8): 2731-2749
• 2022, Wang T, Yasin N, Zubedat S, Loboda Y, Avital A, Schachter L, Finberg JPM
  [静磁界へのばく露はラットにおける選択的注意および神経可塑性を促進する] [med./bio.]
  Brain Res Bull 189: 111-120
• 2022, Ilić AŽ, De Luka SR, Popović TB, Debeljak-Martačić J, Kojadinović M, Ćirković S, Ristić-Djurović JL, Trbovich AM
  [静磁界ばく露時の脳組織における明確な脂肪酸の再分布とテクスチャーの変化] [med./bio.]
  Environ Toxicol Pharmacol 92: 103853