Abstract:
PROBLEM TO BE SOLVED: To provide an array of electrodes allowing a user to easily adjust to the correct size of the patient's head. SOLUTION: The electrode array 10 includes only three electrodes 12a, 12b, 12c for monitoring an electrophysiological signal, and includes a body 14, a satellite body 15, and a flexible body with a flexible connector for connecting the body 14 and the satellite body 15. Two electrodes 12a, 12b out of the three electrodes are disposed on the body and the electrode 12c of the rest is disposed on the satellite body 15. A conductor 16 is wired on the flexible body to carry signals from the electrodes. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide an array of electrodes allowing a user to easily adjust to the correct size of the patient's head. SOLUTION: This array is self-adhesive, pre-gelled and disposable. The array fits easily over the temple and forehead areas where EEG signals can be acquired by specially designed monitors for purposes of monitoring a number of bodily phenomena, including but not limited to, depth of anesthesia, ischemia, and burst suppression. The array is connected to the monitor via a tab connector that is integral to the device. The tab connector is insertable into a reusable connector that is part of a monitoring system. COPYRIGHT: (C)2008,JPO&INPIT
Abstract:
A sensor system which includes a biopotential signal monitor, a smart sensor and the accompanying hardware and software interface which authenticates the source and validity of the smart sensor and also verifies that the smart sensor meets various criteria for use.
Abstract:
An array of electrodes is constructed to allow the user to easily adjust to the correct size of the patient's head. The array is self-adhesive, pre-gelled and disposable. The array fits easily over the temple and forehead areas where EEG signals can be acquired by specially designed monitors for purposes of monitoring a number of bodily phenomena, including but not limited to, depth of anesthesia, and/or ischemia, and burst suppression. The array is connected to the monitor via a tab connector that is integral to the disposable device. The tab connector is insertible into a reusable connector that is part of a monitoring system.
Abstract:
A method for measuring bioelectric impedance in real time, in the presence o f interference and noise is disclosed. A small electric current is injected in to a biopotential electrode system, and then the measurement is tested for contamination by electrical interference or other noise sources.
Abstract:
A sensor system which includes a biopotential signal monitor, a smart sensor and the accompanying hardware and software interface which authenticates the source and validity of the smart sensor and also verifies that the smart sensor meets various criteria for use.
Abstract:
An array of electrodes is constructed to allow the user to easily adjust to the correct size of the patient's head. The array is self-adhesive, pre-gell ed and disposable. The array fits easily over the temple and forehead areas whe re EEG signals can be acquired by specially designed monitors for purposes of monitoring a number of bodily phenomena, including but not limited to, depth of anesthesia, and/or ischemia, and burst suppression. The array is connecte d to the monitor via a tab connector that is integral to the disposable device . The tab connector is insertible into a reusable connector that is part of a monitoring system.
Abstract:
An array of electrodes is constructed to allow the user to easily adjust to the correct size of the patient's head. The array is self-adhesive, pre-gelled and disposable. The array fits easily over the temple and forehead areas where EEG signals can be acquired by specially designed monitors for purposes of monitoring a number of bodily phenomena, including but not limited to, depth of anesthesia, and/or ischemia, and burst suppression. The array is connected to the monitor via a tab connector that is integral to the disposable device. The tab connector is insertible into a reusable connector that is part of a monitoring system.
Abstract:
A system and method of identifying and removing artifact from radio frequency noise from biopotentials identifies epochs contaminated with radio frequency noise. Contaminated epochs are then replaced with recent uncontaminated epochs stored in a buffer, depending on the current level of artifact and the availability of suitable data. Discontinuities arising at the beginning of the replaced epochs are smoothed by means of a windowing function.
Abstract:
A sensor system which includes a biopotential signal monitor, a smart sensor and the accompanying hardware and software interface which authenticates the source and validity of the smart sensor and also verifies that the smart sensor meets various criteria for use.