文献検索結果

14595件の論文が見つかりました。

キーワード: "electric current", "elektrische Stromstärke", "Elektrischer Strom", Strom, current, 電流

• 2025, Tadres D, Riedl J, Eden A, Bontempo AE, Lin J, Reid SF, Roehrich B, Williams K, Sepunaru L, Louis M
  [ショウジョウバエの幼虫における電界の感知] [med./bio.]
  Curr Biol 35 (8): 1848-1860.e4
• 2025, Xi P, Zeng D, Chen M, Jiang L, Zhang Y, Qin D, Yao Z, He C
  [膵臓がん治療の強化：不可逆的電気穿孔法におけるH101腫瘍溶解性ウイルスの役割] [med./bio.]
  Front Immunol 16: 1546242
• 2025, Li X, Zhao S, Liu Y, Gu Y, Qiu L, Chen X, Sloan AJ, Song B
  [電界は細胞骨格を再構築することで歯根乳頭からの幹細胞の歯原性分化を促進する] [med./bio.]
  Int Endod J [in press]
• 2025, Moran H, Koh E, Concannon E, Wagstaff M
  [高電圧趣味：フラクタル木材燃焼後の電気熱傷：症例報告] [elec. inj.]
  JPRAS Open 44: 129-132
• 2025, de Souza DF, Martins WA, Martinho E, da Silva EAS, Tatizawa H
  [ブラジルにおける感電による死亡と人間開発指数（HDI）との相関関係の分析] [elec. inj.]
  IEEE Trans Ind Appl [in press]
• 2025, Matta R, Reato D, Lombardini A, Moreau D, O'Connor RP
  [インクジェット印刷した透明電極：脳刺激のための設計、特性評価、および初期イン・ビボ評価] [tech./dosim.]
  PLoS One 20 (4): e0320376
• 2025, Mahadeo CO, Shahin-Shamsabadi A, Khodamoradi M, Fahnestock M, Selvaganapathy PR
  [3D骨芽細胞モデルにおける電気刺激の効果] [med./bio.]
  Cells 14 (6): 396
• 2025, Yang X, Zhang H, Wang T, Zhao J, Zhang X, Xu G
  [時間的干渉低周波包絡線電気刺激に基づくワイヤレス駆動リス用ケージシステムの研究] [tech./dosim.]
  ELEX [in press]
• 2025, Abd El-Kaream SA, Ahmed YAMEM, Mohamed HM, Soliman ASM, Hussein NGA, El Kholey SM
  [ブロッコリー、キャベツ、ケールを結合させた活性炭ナノ粒子の高周波支援送達による大腸がんの放射線光力学的イン・ビボおよびイン・ビトロ治療] [med./bio.]
  Beni Suef Univ J Basic Appl Sci 14: 27
• 2025, Huang X, Zheng Y, Ming J, Geng A, Liu L, Zheng J, Yan X, Bai S
  [創傷治癒を促進するワイヤレス電気刺激と即時自己接着を備えた生物に着想を得たポリ乳酸／シルクフィブロインベースのドレッシング] [med./bio.]
  Ind Crops Prod 223: 120179
• 2025, Shelly AA, Nebiolo KP, Kent JJ, Dean JC
  [ウィスコンシン州メナシャロックにおけるハゼの電気的障壁の設計に関する生物学的考慮] [med./bio.]
  N Am J Fish Manag [in press]
• 2025, Rayyan MIR, Rahma AS, Athoillah N, Husniatama MD, Nurwahyudi N
  [雷が心臓を直撃する時：非ST上昇型心筋梗塞の特徴を示す稀な傷害 - 症例報告] [elec. inj.]
  Egypt Heart J 77: 36
• 2025, Kok HP, Crezee J
  [位相振幅ステアリングによって誘発される予測SAR／温度変化は組織特性の不確実性の影響を最小限に受ける：堅牢なオンライン適応型ハイパーサーミア治療計画の基礎] [tech./dosim.]
  Int J Hyperthermia 42 (1): 2483433
• 2025, Mao K, Yue M, Ma H, Li Z, Liu Y
  Electro- and Magneto-Active Biomaterials for Diabetic Tissue Repair: Advantages and Applications [basics]
  Adv Mater: 2501817 [in press]
• 2025, Reining M, Winkler D, Kirchhof K, Boettcher J, Kretzschmar M
  [植込み型脊髄刺激装置のMRI承認期間の延長が製造業者の推奨事項の遵守に与える影響] [dev./impl.]
  Pain Pract 25 (4): e70022
• 2025, Ringselle B, Stankovic M, Andersson L, Ninkovic V
  Sub-second low-energy electrical application effectively controls small but not established plants of scentless mayweed (Tripleurospermum inodorum), wild oat (Avena fatua) and couch grass (Elymus repens) [med./bio.]
  Weed Res 65 (2): e70010
• 2025, Vivarelli C, Calcagnini G, Censi F, Pavoncello S, Franci D, Burriesci G, Mattei E
  Protection of population and workers with cardiac implantable stimulators from 5G exposure. Part II: base station antennas exposure [dev./impl.]
  Eur Phys J Plus 140 (3): 235
• 2025, Gupta D, Brangaccio J, Mojtabavi H, Carp JS, Wolpaw JR, Hill NJ
  Frequency dependence of cortical somatosensory evoked response to peripheral nerve stimulation with controlled afferent excitation [med./bio.]
  J Neural Eng 22 (2): 026035
• 2025, Regnacq L, Thota AK, Ortega Sanabria A, McPherson L, Renaud S, Romain O, Bornat Y, Abbas JJ, Jung R, Kölbl F
  Fascicle-selective kilohertz-frequency neural conduction block with longitudinal intrafascicular electrodes [med./bio.]
  J Neural Eng 22 (2): 026045
• 2025, Fang Y, Shi J, Zuo Z, Wang Y, Yin Z, Wang Z, Yang Z, Jia B, Zhao Q, Sun Y
  Direct current electric field exposure changes the conformational dynamics of IL-1β in RAW 264.7 macrophages [temp.]
  J Biomol Struct Dyn: 1-14 [in press]
• 2025, Grassi A, Rocca MS, Noventa M, Pozzato G, Pozzato A, Scioscia M, Andrisani A, Pontrelli G, Foresta C, De Toni L
  In Vitro Gene Expression Profiling of Quantum Molecular Resonance Effects on Human Endometrium Models: A Preliminary Study [med./bio.]
  Genes 16 (3): 290
• 2025, Hlutkin AV, Patel GR, Liyanage LRSD, Hnedava AV
  The management and clinical outcomes of electrothermal burn injury patients over a ten-year period [elec. inj.]
  European Journal of Clinical and Experimental Medicine 23 (1): 91-99
• 2025, Tesarik J
  Lifestyle and Environmental Factors Affecting Male Fertility, Individual Predisposition, Prevention, and Intervention [basics]
  Int J Mol Sci 26 (6): 2797
• 2025, Yadav SS, Chauhan M
  Injury pattern(s) in electric iron-related fatal electrocutions in the home [temp.]
  Med Leg J [in press]
• 2025, Ivanov YD, Shumov ID, Kozlov AF, Ableev AN, Vinogradova AV, Nevedrova ED, Afonin ON, Zhdanov DD, Tatur VY, Lukyanitsa AA, Ivanova ND, Yushkov ES, Enikeev DV, Konev VA, Ziborov VS
  Incubation of Horseradish Peroxidase near 50 Hz AC Equipment Promotes Its Disaggregation and Enzymatic Activity [med./bio.]
  Micromachines 16 (3): 344
• 2025, Gao X, Zhao Z, Zeng Z, Chen YY, Li W, Qi F, He P, Shuai C
  In situ synthesis of iron oxide on graphene oxide: Assisting bone scaffold to achieve magnetoelectrical stimulation [tech./dosim.]
  Surf Interfaces 62: 106202
• 2025, Zhang J, Yan Z, Kang A, Ouyang J, Ma L, Wang X, Wu J, Suo D, Funahashi S, Meng W, Wang L, Zhang J
  Amplitude of Intracranial Induced Electric Fields Does Not Linearly Decrease with Age: A Computational Study of Anatomical Effects in Adults [tech./dosim.]
  Biosensors 15 (3): 185
• 2025, Gao Q, Zhang M, Chen R, Teng P, Dai X, Wu B, Hong L, Ma L, Liu L, Wu S, Li M
  Microsecond pulsed electric fields induce myocardial ablation by secondary mitochondrial damage and cell death mechanisms [med./bio.]
  Sci Rep 15: 10132
• 2025, Vu-Hoai N, Dang-Vu T, Lam-Quoc D, Duong-Minh N, Tran-Ngoc TH, Tran-Ngoc N, Nguyen-Dang K
  Isolated pulmonary injury following electric shock: a case report and literature review [elec. inj.]
  Ann Med Surg 87 (3): 1670-1677
• 2025, Liu Y, Jimeno ZKL, Sulaiman WAW
  Similarities and differences between lightning and electrical injuries: a case report [elec. inj.]
  J Trauma Inj [in press]
• 2025, Haji AI, Ejaz H, Omar MO, Takriti MB, Narayanan SN
  Analysis of the Association of Mobile Phone Usage and Hearing Function in Young Adults [epidem.]
  Cureus 17 (2): e79403
• 2025
  IEEE/IEC Draft International Standard for Determining the Peak Spatial-Average Specific Absorption Rate (SAR) in the Human Body from Wireless Communications Devices, 30 MHz to 6 GHz -- Part 2: Specific Requirements for Finite Difference Time Domain (FDTD) Modelling of Exposure from Vehicle Mounted Antennas Amendment 1 [temp.]
  Institute of Electrical and Electronics Engineers (IEEE), International Electrotechnical Commission (IEC), IEC/IEEE 62704-2a: 1-7, ISBN 9798855719895
• 2025, Godlevsky LS, Pervak MP, Yehorenko OS, Marchenko SV
  Effects of electrical stimulation of the lateral cerebellar nucleus on PTZ-kindled seizures [med./bio.]
  Epilepsy Behav 167: 110377
• 2025, Wang L, Qin S, Wei O, Liang X, Fu D, Yu J, Huang S, Xie L
  Molecular dynamics insights into pulsed electric field-induced structural and functional changes in polygalacturonase [tech./dosim.]
  Int J Biol Macromol 307 Pt 4: 142398
• 2025, Heo J, Jo Y, Yoon M
  Enhanced anti-tumor effects of combined electric fields, cabozantinib, and radiation therapy in metastatic renal cell carcinoma [med./bio.]
  Clin Transl Oncol [in press]
• 2025, Singh P, Duraisamy K, Raitmayr C, Sharma KS, Korzun T, Singh K, Moses AS, Yamada K, Grigoriev V, Demessie AA, Park Y, Goo YT, Mamnoon B, Souza APM, Michimoto K, Farsad K, Jaiswal A, Taratula OR, Taratula O
  [精密に設計されたコバルト添加酸化鉄ナノ粒子：強化磁気ハイパーサーミアのための八面体シードから立方体両錐体まで] [med./bio.]
  Adv Funct Mater: 2414719 [in press]
• 2025, Subramanian M, Chiang CC, Levi C, Durand DM
  [局所的な細胞外電界を制御することで海馬における発作やスパイクの発生と伝播を抑制できる] [med./bio.]
  Brain Stimul 18 (2): 225-234
• 2025, Wang F, Ye Z, Yin X, Zhou C, Zhong M, Zhao G
  [5/100 Hzの電気鍼療法は脊髄のCCL3/CCR5軸を阻害することでラットの神経障害性疼痛を軽減する] [med./bio.]
  Acupunct Med 43 (2): 95-103
• 2025, Kaneda E, Kawai T, Okamura Y, Miyagawa S
  [中程度の静磁界が交感神経様PC12細胞の電位依存性カリウムイオンチャネルに及ぼす影響] [med./bio.]
  Physiol Rep 13 (6): e70236
• 2025, Zhang J, Ma D, Zhang Z, Wang Z, Pang Y, Li J, Li Z
  [双極同心リングマイクロニードルアレイ（BCRMA）：正確な動作制御のための電気刺激電極] [tech./dosim.]
  2025 IEEE 38th International Conference on Micro Electro Mechanical Systems (MEMS), Kaohsiung, Taiwan. IEEE: pp. 457-460; ISBN 9798331508906
• 2025, Miyata D, Masuda A, Kagawa G, Tani H, Takahashi H, Tohyama S, Onoe H
  [リング状の人工心臓組織の収縮力を正確に評価するためのアレイ電気刺激プラットフォーム] [tech./dosim.]
  2025 IEEE 38th International Conference on Micro Electro Mechanical Systems (MEMS), Kaohsiung, Taiwan. IEEE: pp. 83-86; ISBN 9798331508906
• 2025, Sun Y, Zhao M
  [細菌の電気走性：無視されている生物学的プロセス] [basics]
  Trends Microbiol [in press]
• 2025, Chen XM, Huang YT, Ke YC, Pang LN, Huang QL, Lan YY, Yu XM, Wang ZF
  [海馬ミクログリアのα7ニコチン性アセチルコリン受容体経路に基づく全身性炎症マウスの認知障害改善における「足三里」（ST36）電気鍼療法のメカニズム] [foreign-language]
  Zhen Ci Yan Jiu 50 (3): 251-259
• 2025, Wang XH, Liu JD, Qu Y, Dong JZ, Wang JB, Xue YN, Li Y, Zhang JH, Jin L, Wang TL, Wang XN
  [電気鍼療法は潰瘍性大腸炎マウスにおけるNLRP3/カスパーゼ-1/GSDMDシグナル伝達経路を調節し、ピロプトーシスを阻害することで大腸粘膜バリアの損傷を改善する] [foreign-language]
  Zhen Ci Yan Jiu 50 (3): 277-286
• 2025, Wang M, Zou J, Liu ZH, Yang A, Huang GF
  [腰椎椎間板変性症ウサギの背根神経節における酸化ストレスに対するBDNF/NRF2シグナル伝達経路を制御する電気鍼療法の効果] [foreign-language]
  Zhen Ci Yan Jiu 50 (3): 302-309
• 2025, Li YN, Sun XY, Zhang ZY, Wang XY, Yuan M, Su YS, Jing XH, Li L
  [異なる強度の電気鍼療法によるラットの内臓痛に対する鎮痛効果] [foreign-language]
  Zhen Ci Yan Jiu 50 (3): 243-250
• 2025, Zhang Y, Wu S, Guo Q, Yu Y, Wang S, Wei Y, Wan X, Lu Z, He X
  [心筋虚血再灌流障害ラットにおける心筋細胞ミトコンドリア分裂を制御するための電気鍼療法による前処理のメカニズム] [foreign-language]
  Zhongguo Zhen Jiu 45 (3): 335-344
• 2025, Lv H, Tian M, She S, Liu Y, Sun L, Song W, Tang Y
  [アレルギー性鼻炎ラットにおける翼口蓋骨領域への電気鍼療法によるNLRP3媒介ピロプトーシスおよび炎症因子への影響] [foreign-language]
  Zhongguo Zhen Jiu 45 (3): 345-350
• 2025, Saha R, Goyal A, Yuen J, Oh Y, Bloom RP, Benally OJ, Wu K, Netoff TI, Low WC, Bennet KE, Lee KH, Shin H, Wang JP
  [マイクロ磁気刺激（μMS）はドーパミン放出を制御する：WINCS Harmoniを用いたイン・ビボ研究] [med./bio.]
  Biomed Phys Eng Express 11 (2): 025058
• 2025, Yan W, Lin Y, Chen YF, Wang Y, Wang J, Zhang M
  [脳卒中後の運動回復のための神経可塑性の強化：メカニズム、モデル、神経技術] [basics]
  IEEE Trans Neural Syst Rehabil Eng 33: 1156-1168