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Dive into the research topics where Theodore J. Reisker is active.

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Featured researches published by Theodore J. Reisker.


Magnetic Resonance Imaging | 1994

Temperature sensing and control system for cardiac monitoring electrodes

G. Neil Holland; Douglas M. Blakeley; Theodore J. Reisker; David A. Molyneaux

A cardiac electrode (40) has a plug (48) which is frictionally received in a socket (50) of an electrical lead (56). An impedance (54) is connected in series between the electrical lead and the socket to pass ECG signals substantially unattenuated and for blocking radio frequency signals induced in the lead from reaching the socket and the electrode and heating the electrode to a sufficient temperature to burn the patient. The impedance includes an LC circuit (66, 68) which freely passes low frequency signals, such as cardiac signals, but which is tuned to resonance at radio frequencies, particularly at the frequency of resonance excitation and manipulation pulses of a magnetic resonance imager (A). Alternately, the impedance may include a resistive element for blocking the induced currents. A temperature sensor (60) is mounted in intimate contact with an electrically and thermally conductive socket portion (52) to sense the temperature of the electrode, indirectly. A temperature sensor lead (62), the cardiac lead (56), and a respiratory or other anatomical condition sensor are connected with a multiplexing means (140) which cyclically connects the output signals thereof with an analog to digital converter (142). The digital signals are converted to digital optical signals (102) to be conveyed along a light path (104) out of the examination region. The bits of the received digital signal are sorted (144) between an R-wave detector (120), a temperature limit check (122) which checks whether the temperature of the electrode exceeds preselected limits, and a respiratory detector (132).


Archive | 1991

Apparatus and methods for non-invasive examination

Neil G. Holland; Douglas M. Blakeley; Theodore J. Reisker; David A. Molyneaux


Archive | 1997

MRI endocavitary coils and decontamination

Theodore J. Reisker; David A. Molyneaux; John T. Carlon; Benjamin R. Stern; William O. Braum


Archive | 2012

Integrated mr imaging and interventional coil device, method and system

Ashok Menon; Liang Liu; Dean Kenneth Walters; Richard John Kurlinski; Faiz Abul Ikramulla; Theodore J. Reisker; Adam Chandler Morris


Archive | 1998

MRI endocavitary RF coils

William O. Braum; John T. Carlon; David A. Molyneaux; Theodore J. Reisker; Benjamin R. Stern


Archive | 2017

sistema integrado intervencionista e de imagens de rm, equipamento integrado, e, método para a imobilização de uma paciente durante imagens de rm e intervenção combinadas

Adam Chandler Morris; Ashok Menon; Dean Kenneth Walters; Faiz Abul Ikramulla; Liang Liu; Richard John Kurlinski; Theodore J. Reisker


Archive | 1992

Non-invasion inspection apparatus and method

Douglas M. Blakeley; G. Neil Holland; David A. Molyneaux; Theodore J. Reisker; ジェイ.レイスカー シアドー; ホーランド ジー.ネイル; エム.ブレイクリイ ダグラス; エイ.モウリノウ デイヴィッド


Archive | 1991

Gerät und Verfahren zur nicht-invasiven Untersuchung Apparatus and method for non-invasive examination

Neil G. Holland; Douglas M. Blakeley; Theodore J. Reisker; David A. Molyneaux


Archive | 1991

Gerät und Verfahren zur nicht-invasiven Untersuchung

Neil G. Holland; Douglas M. Blakeley; Theodore J. Reisker; David A. Molyneaux


Archive | 1991

Appareil et procédé destinés à l'examen non-invasif

Neil G. Holland; Douglas M. Blakeley; Theodore J. Reisker; David A. Molyneaux

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