Literature search results

42 articles were found.

The following terms were included: Schrittmacher-Sonde, Schrittmacher-Elektrode, "pacemaker electrode", "pacemaker lead", ペースメーカ・リード, ペースメーカ電極

• 2024, Dong X, Qian Y, Lu M
  Electromagnetic Exposure Levels of Electric Vehicle Drive Motors to Passenger Wearing Cardiac Pacemakers [dev./impl.]
  Sensors 24 (13): 4395
• 2024, Tian R, Li WX, Lu M, Yu L, Zhang JQ
  Research on the influence of power frequency magnetic field of pantograph on pacemaker wearers' health in high-speed EMU [dev./impl.]
  Radiat Prot Dosimetry 200 (6): 588-597
• 2024, Martinez DE, Nieves-Vazquez HA, Yaras YS, Khotimsky A, Skowronski B, Bradley L, Oshinski J, Degertekin FL, Ueda J
  MRI Compatible Robotic Dosimeter System for Safety Assessment of Medical Implants [tech./dosim.]
  2024 IEEE/SICE International Symposium on System Integration (SII), Ha Long, Vietnam. IEEE: pp. 25-29; ISBN 9798350312089
• 2021, Yao A, Yang P, Ma M, Pei Y
  Exposure Optimization Trial for Patients with Medical Implants during MRI Exposure: Balance Between the Completeness and Efficiency [dev./impl.]
  Front Public Health 9: 793418
• 2021, Mattei E, Censi F, Calcagnini G, Lucano E, Angelone LM
  A combined computational and experimental approach to assess the transfer function of real pacemaker leads for MR radiofrequency-induced heating [dev./impl.]
  Magn Reson Mater Phy 34 (4): 619-630
• 2020, Bireley M, Kovach JR, Morton C, Cava JR, Pan AY, Nugent M, Samyn MM
  Cardiac Magnetic Resonance Imaging (MRI) in Children is Safe with Most Pacemaker Systems, Including Those with Epicardial Leads [dev./impl.]
  Pediatr Cardiol 41 (4): 801-808
• 2020, Kabil J, Felblinger J, Vuissoz PA, Missoffe A
  Coupled transfer function model for the evaluation of implanted cables safety in MRI [dev./impl.]
  Magn Reson Med 84 (2): 991-999
• 2019, Smondrk M, Benova M, Psenakova Z
  Computational Analysis of Induced Voltage on Implanted Cardiac Pacemaker's Lead by Mobile Phones [dev./impl.]
  Pietka E, Badura P, Kawa J, Wieclawek W (eds.): Information Technology in Biomedicine. ITIB 2018. Advances in Intelligent Systems and Computing, volume 762; Springer, Cham; pp. 325-336; ISBN 978-3-319-91210-3
• 2019, Balmer C, Gass M, Dave H, Duru F, Luechinger R
  Magnetic resonance imaging of patients with epicardial leads: in vitro evaluation of temperature changes at the lead tip [dev./impl.]
  J Interv Card Electrophysiol 56 (3): 321-326
• 2019, Campi T, Cruciani S, Maradei F, Feliziani M
  Pacemaker Lead Coupling With an Automotive Wireless Power Transfer System [dev./impl.]
  IEEE Trans Electromagn Compat 61 (6): 1935 - 1943
• 2018, Kozlov M, Kainz W
  Lead Electromagnetic Model to Evaluate RF-Induced Heating of a Coax Lead: A Numerical Case Study at 128 MHz [dev./impl.]
  IEEE J Electromagn RF Microw Med Biol 2 (4): 286 - 293
• 2018, Missoffe A, Aissani S
  Experimental setup for transfer function measurement to assess RF heating of medical leads in MRI: Validation in the case of a single wire [tech./dosim.]
  Magn Reson Med 79 (3): 1766-1772
• 2017, Yu Z, Xin X, Collins CM
  Potential for high-permittivity materials to reduce local SAR at a pacemaker lead tip during MRI of the head with a body transmit coil at 3 T [dev./impl.]
  Magn Reson Med 78 (1): 383-386
• 2016, Kabil J, Belguerras L, Trattnig S, Pasquier C, Felblinger J, Missoffe A
  [details] A Review of Numerical Simulation and Analytical Modeling for Medical Devices Safety in MRI [review]
  Yearb Med Inform (1): 152-158
• 2016, Mattei E, Lucano E, Censi F, Angelone LM, Calcagnini G
  High dielectric material in MRI: numerical assessment of the reduction of the induced local power on implanted cardiac leads [dev./impl.]
  2016 38th Annual International Conference of the IEEE Engineering in Medicine and Biology Society (EMBC), Orlando, FL, USA. IEEE: pp. 2361-2364; ISBN 978-1-4577-0220-4
• 2015, Mattei E, Censi F, Triventi M, Napolitano A, Genovese E, Cannata V, Calcagnini G
  An optically coupled sensor for the measurement of currents induced by MRI gradient fields into endocardial leads [tech./dosim.]
  Magn Reson Mater Phy 28 (3): 291-303
• 2015, Shenthar J, Milasinovic G, Al Fagih A, Gotte M, Engel G, Wolff S, Tse HF, Herr J, Carrithers J, Cerkvenik J, Nahle CP
  MRI scanning in patients with new and existing CapSureFix Novus 5076 pacemaker leads: randomized trial results [dev./impl.]
  Heart Rhythm 12 (4): 759-765
• 2015, Sheldon SH, Bunch TJ, Cogert GA, Acker NG, Dalzell CM, Higgins JV, Espinosa RE, Asirvatham SJ, Cha YM, Felmlee JP, Watson Jr RE, Anderson JL, Brooks MH, Osborn JS, Friedman PA
  Multicenter study of the safety and effects of magnetic resonance imaging in patients with coronary sinus left ventricular pacing leads [dev./impl.]
  Heart Rhythm 12 (2): 345-349
• 2015, Seckler T, Jagielski K, Stunder D
  Assessment of Electromagnetic Interference with Active Cardiovascular Implantable Electronic Devices (CIEDs) Caused by the Qi A13 Design Wireless Charging Board [dev./impl.]
  Int J Environ Res Public Health 12 (6): 5886-5904
• 2015, Mattei E, Gentili G, Censi F, Triventi M, Calcagnini G
  Impact of capped and uncapped abandoned leads on the heating of an MR-conditional pacemaker implant [dev./impl.]
  Magn Reson Med 73 (1): 390-400
• 2012, Govekar HR, Robinson TN, Varosy PD, Girard G, Montero PN, Dunn CL, Jones EL, Stiegmann GV
  Effect of monopolar radiofrequency energy on pacemaker function [dev./impl.]
  Surg Endosc 26 (10): 2784-2788
• 2012, Langman DA, Goldberg IB, Judy J, Paul Finn J, Ennis DB
  The dependence of radiofrequency induced pacemaker lead tip heating on the electrical conductivity of the medium at the lead tip [tech./dosim.]
  Magn Reson Med 68 (2): 606-613
• 2011, Baikoussis NG, Apostolakis E, Papakonstantinou NA, Sarantitis I, Dougenis D
  [details] Safety of magnetic resonance imaging in patients with implanted cardiac prostheses and metallic cardiovascular electronic devices [review]
  Ann Thorac Surg 91 (6): 2006-2011
• 2011, Nordbeck P, Ritter O, Weiss I, Warmuth M, Gensler D, Burkard N, Herold V, Jakob PM, Ertl G, Ladd ME, Quick HH, Bauer WR
  Impact of imaging landmark on the risk of MRI-related heating near implanted medical devices like cardiac pacemaker leads [dev./impl.]
  Magn Reson Med 65 (1): 44-50
• 2011, Langman DA, Goldberg IB, Finn JP, Ennis DB
  Pacemaker lead tip heating in abandoned and pacemaker-attached leads at 1.5 Tesla MRI [dev./impl.]
  J Magn Reson Imaging 33 (2): 426-431
• 2009, Bassen HI, Mendoza GG
  In-vitro mapping of E-fields induced near pacemaker leads by simulated MR gradient fields [dev./impl.]
  Biomed Eng Online 8: 39
• 2009, Gjesdal G, Hansen AB, Brandes A
  Does bipolar pacemaker current activate blood platelets? [med./bio.]
  Pacing Clin Electrophysiol 32 (5): 627-631
• 2009, Nordbeck P, Weiss I, Ehses P, Ritter O, Warmuth M, Fidler F, Herold V, Jakob PM, Ladd ME, Quick HH, Bauer WR
  Measuring RF-induced currents inside implants: Impact of device configuration on MRI safety of cardiac pacemaker leads [dev./impl.]
  Magn Reson Med 61 (3): 570-578
• 2008, Hille S, Eichhorn KF, Gonschorek KH
  Determination of the interference voltage in implantable medical devices with bipolar electrodes [dev./impl.]
  International Symposium on Electromagnetic Compatibility - EMC Europe, Hamburg, 2008. IEEE: pp. 1-5; ISBN 978-1-4244-4097-9
• 2008, Irnich W
  Re: Determinants of gradient fieldinduced current in a pacemaker lead system in a magnetic resonance imaging environment [comment]
  Heart Rhythm 5 (11): e2
• 2008, Calcagnini G, Triventi M, Censi F, Mattei E, Bartolini P, Kainz W, Bassen HI
  In vitro investigation of pacemaker lead heating induced by magnetic resonance imaging: Role of implant geometry [dev./impl.]
  J Magn Reson Imaging 28 (4): 879-886
• 2008, Tandri H, Zviman MM, Wedan SR, Lloyd T, Berger RD, Halperin H
  Determinants of gradient field-induced current in a pacemaker lead system in a magnetic resonance imaging environment [dev./impl.]
  Heart Rhythm 5 (3): 462-468
• 2007, Triventi M, Mattei E, Calcagnini G, Censi F, Bartolini P, Kainz W, Bassen H
  Magnetic Resonance Induced Heating of Implantable Leads [dev./impl.]
  Ann Ist Super Sanita 43 (3): 229-240
• 2006, Blomstedt P, Jabre M, Bejjani BP, Koskinen LO
  Electromagnetic environmental influences on implanted deep brain stimulators [dev./impl.]
  Neuromodulation 9 (4): 262-269
• 2006, Mattei E, Calcagnini G, Triventi M, Censi F, Bartolini P, Kainz W, Bassen H
  MRI induced heating of pacemaker leads: effect of temperature probe positioning and pacemaker placement on lead tip heating and local SAR [dev./impl.]
  2006 International Conference of the IEEE Engineering in Medicine and Biology Society, New York, NY, USA. IEEE: pp. 1889-1892; ISBN 978-1-4244-0032-4
• 2005, Tandogan I, Temizhan A, Yetkin E, Guray Y, Ileri M, Duru E, Sasmaz A
  The effects of mobile phones on pacemaker function [dev./impl.]
  Int J Cardiol 103 (1): 51-58
• 2005, Luechinger R, Zeijlemaker VA, Pedersen EM, Mortensen P, Falk E, Duru F, Candinas R, Boesiger P
  In vivo heating of pacemaker leads during magnetic resonance imaging [dev./impl.]
  Eur Heart J 26 (4): 376-383
• 2002, Garofalo RR, Ede EN, Dorn SO, Kuttler S
  Effect of electronic apex locators on cardiac pacemaker function [dev./impl.]
  J Endod 28 (12): 831-833
• 2002, Dawson TW, Caputa K, Stuchly MA, Kavet R
  Pacemaker interference by 60-Hz contact currents [dev./impl.]
  IEEE Trans Biomed Eng 49 (8): 878-886
• 2002, Dawson TW, Caputa K, Stuchly MA, Shepard RB, Kavet R, Sastre A
  Pacemaker interference by magnetic fields at power line frequencies [dev./impl.]
  IEEE Trans Biomed Eng 49 (3): 254-262
• 2000, Sommer T, Vahlhaus C, Lauck G, von Smekal A, Reinke M, Hofer U, Block W, Traber F, Schneider C, Gieseke J, Jung W, Schild H
  MR imaging and cardiac pacemakers: in-vitro evaluation and in-vivo studies in 51 patients at 0.5 T [dev./impl.]
  Radiology 215 (3): 869-879
• 1994, Wilm M, Kronholz HL, Schutz J, Koch T
  [The modification of programmable pacemakers by therapeutic irradiation] [dev./impl.]
  Strahlenther Onkol 170 (4): 225-231