Abstract: This multipurpose, modular system provides diagnostic-quality, wireless, multichannel monitoring in diverse settings, including interventional procedures guided by X-ray and MRI, with variable electromagnetic interference (EMI) and eliminates the need for multiple detachments/reattachments of patient cables when the patient is moved from one room/procedure to another. The system includes: 1) multiple filterbanks (filtering procedures) for recording both diagnostic-quality (broad-band) signals in the absence of EMI and narrow-band signals in the presence of EMI, with subsequent reconstruction of diagnostic-quality signals from the narrow-band signals; 2) filtering of EMI, using a priori and adaptive criteria about differences between the EMI and physiological signals' characteristics; 3) filtering of the magneto-hydrodynamic effect, using physiological measurements at different distances from the magnet (i.e.

Abstract: Systems, methods, computer-readable media (e.g., transitory and non-transitory) and apparatus are described herein for obtaining medical diagnostic measurements that are accurate and/or consistent over time.

Abstract: The present invention relates to a physiological recording electrode, a method, and apparatus for attaching the physiological electrode to a subject. The physiological electrode comprises a substrate having an upper and a lower surface, and at least one penetrator(s) protruding from the upper surface of the substrate. The penetrator(s) is capable of piercing through the stratum corneum or outer layer of the skin, and transmitting an electric potential from the lower layers of the epidermis through the penetrator(s) which can be measured, or detecting agents from the lower layers of the epidermis primarily the stratum germinativum layer. At least one epidermis stop may be provided resulting in the formation of detritus troughs interposed between adjacent penetrator(s) and epidermis stops. The physiological electrode is attached to a subject by means of the apparatus and method for attaching same. The present invention also includes a method of sensing biopotentials in the skin.

Abstract: A method for diagnosing motility disorders of a gastrointestinal tract of a body. The method can include measuring electrical signals from the gastrointestinal tract while the patient is engaged in normal daily activities, recording the measured electrical signals on a portable electronic device carried by the body, recording by the patient in real time one or more symptoms of the body and analyzing characteristics of the recorded electrical signals with the recorded symptoms of the body to diagnosis gastrointestinal disorders of the body. Apparatus for use therewith and methods for treatment thereof are provided.

Abstract: A wearable therapeutic device that includes a garment configured to contain an external defibrillator. The garment is configured to house at least one of an alarm module and a monitor and to house a first therapy electrode and a second therapy electrode. The garment is also configured to releasably receive a receptacle that contains a conductive fluid proximate to at least one of the first therapy electrode and the second therapy electrode, and to electrically couple the receptacle with the garment.

Abstract: A body associated device comprises a housing, an adhesive layer configured to be applied to a body of a living subject, and at least one standoff located between the housing and the adhesive layer. An electronic module may be located within the housing of the body associated device. A personal communication system comprises a body associated device including an electronic module and further comprises a feedback portion coupled to the housing and to the electronic module. The feedback portion is configured to communicate information between the living subject and the body associated device. An external local node is operative to provide at least one of transmit communications to and receive communications from the body associated device.

Abstract: A device for providing electrical stimulation of a human knee. One example device includes first, second, third, and fourth surface electrodes, a wrap configured to be wrapped around the human knee, and an electrical device. The wrap includes a wrap positioning indicator configured to be positioned over a specified portion of the human knee. The wrap also includes first, second, third, and fourth electrode attachment locations corresponding to acupuncture points Stomach 34, Stomach 36, Spleen 9, and Spleen 10. The electrical device is configured to automatically send, to the first, second, third, and fourth surface electrodes, during a single treatment, a first current at a first frequency for a first time period followed by a second current at a second frequency for a second time period, with the first frequency being different from the second frequency.

Abstract: A wearable sensor and method for providing a wearable sensor are disclosed. In a first aspect, the wearable sensor comprises at least one power source and a first module coupled to the at least one power source. The first module includes a first outer shell and a first printed circuit board (PCB) within the first outer shell. The wearable sensor further comprises a second module coupled to the first module. The second module includes a second outer shell and a second PCB within the second outer shell. One of the first and second modules is disposable and the other of the first and second modules is reusable.

Abstract: A wearable sensor and method for providing a wearable sensor are disclosed. In a first aspect, the wearable sensor comprises at least one power source and a first module coupled to the at least one power source. The first module includes a first outer shell and a first printed circuit board (PCB) within the first outer shell. The wearable sensor further comprises a second module coupled to the first module. The second module includes a second outer shell and a second PCB within the second outer shell. One of the first and second modules is disposable and the other of the first and second modules is reusable.

Abstract: An apparatus for measuring a health condition and connectable to existing medical devices may include a cable. The cable may include a plurality of conductors enclosed within an exterior covering and may include a plurality of mating devices, the plurality of mating devices located along a length of the cable. Each mating device may be coupled to a conductor of the cable. Cable apparatus may further include a connector device, the connector device coupled to an end of the cable and configured to couple the cable with the recording/monitoring device by coupling with an existing set of leads associated with the recording/monitoring device. Connector device may allow quick attachment of the cable, detachment of the cable and otherwise extend functionality of the cable.

Abstract: Remanufactured BIS sensors and methods for remanufacturing used BIS sensors are provided. Such a remanufactured sensor may include certain components from a used medical sensor and certain new components. For example, a remanufactured BIS sensor may include a backing layer and at least first, second, and third electrodes disposed on the backing layer having a conductive ink. The first, second, and third electrodes are adapted to be in electrical contact with a patient to perform BIS measurements. A foam layer may be disposed on at least a portion of the backing layer, and an adhesive may be attached to the foam layer and is configured to secure the remanufactured BIS sensor to the patient. The first electrode, the second electrode, the third electrode, the backing layer, or a combination thereof, may be new and the foam layer, the adhesive, or a combination thereof, may be from a used medical sensor.

Abstract: External electromagnetic stimulation of the interior of the body by applying three or more electrodes to the exterior of the patient to establish at least two electrical paths across the interior of the patient, determining impedance information representative of an impedance distribution across the interior of the body, delivering an electromagnetic waveform across each of the at least two electrical paths, wherein at least one parameter of the waveform is selected using the impedance information to produce a selected current density distribution at one or more locations within the interior of the body.

Abstract: Embodiments of the invention disclose an ECG device, an ECG signal processing method, an ECG lead signal generating circuit, an ECG signal generating method, another ECG device, another ECG signal processing method, and an ECG electrode assembly. The ECG device has an electrode assembly and an ECG lead signal generating circuit. The electrode assembly has three cardio enclosure electrodes for acquiring three cardio enclosure voltages, respectively. The ECG lead signal generating circuit has a first precordial lead generator. The first precordial lead generator is configured to generate a first modified precordial lead according to the three cardio enclosure voltages, wherein the three cardio enclosure voltages are sufficient for generating the first modified precordial lead.

Abstract: Several embodiments of a battlefield defibrillation system (2) comprising external defibrillator (6) and at least one electrode (8) connected thereto are described. The system includes direct cardiac access (8), or indirect subcutaneous electrodes (30). The direct cardiac access electrodes (26) engage the heart muscle directly via the intercostal space. Indirect subcutaneous electrodes are positioned under patient's skin. Several design features are implemented to aid precise electrode positioning and facilitate system operation by an untrained personnel.

Abstract: Physiological monitors are disclosed, as are systems and methods in which they are used. The physiological monitors are generally horseshoe-shaped and are sized and adapted to fit around the base of the neck. They have forward ends that extend downwardly and inwardly in some embodiments. In systems according to embodiments of the invention, monitors may be wirelessly connected to a device that receives, records, analyzes, and displays physiological and environmental information. Monitors may also be controlled by touch and gestures on touch-sensitive areas of the inner and outer surfaces. In some embodiments, the monitors may be used for long-term, stand-alone monitoring of patients in need of medical monitoring, and allow multiple vital signs, including a three-lead electrocardiogram (EKG) to be recorded from a single location near the base of the neck.

Abstract: The system for displaying muscle force data includes a wearable patch and a remote visual display. The wearable patch carries electrodes suitable for sensing electromyographic signals on the skin of the patient. The patch carries circuitry which converts the detected electromyographic signal to a digital output which can be transmitted to the remote visual display. The circuitry relies on filtering to produce a usable digital signal at very low power consumption. The transmitted signal can be used to drive a variety of visual displays, including a conventional hand-held personal communicators and entertainment devices which had been programmed to suitably process the visual display.

Abstract: A device for electroimpedance tomography with an electrode belt (2), which has electrodes (E1 . . . E16), wherein at least two groups (5, 6) of electrodes located next to each other are formed and the electrodes of one group are contacted with at least one, multiwire feed cable (7, 8). For a reduced noise level during data acquisition, provisions are made for at least one electrode (E9) of two mutually adjacently located electrodes (E8, E9) of two different groups (5, 6) to have an additional electrode feed line (15), which is led over the feed cable (7) of the adjacent group (5).

Abstract: A wearable device applied to a human body is provided. The wearable device includes at least one sensing electrode, a conductive wire, a monitor device, and a shield element. The sensing electrode receives a physiological signal from the human body. The sensing electrode is coupled through the conductive wire to the monitor device. The monitor device is configured to process the physiological signal. The shield element includes metal fiber composition. The shield element covers the sensing electrode and the conductive wire so as to avoid electrostatic interference. The shield element is at least partially exposed to the human body.

Abstract: Methods, devices and kits for monitoring a physiological parameter using a portable physiological parameter detection and monitoring device. The devices include a removably adherable transparent film with an insulating upper surface that has two or more conductive elements within the film. The film can be adhered to a mobile device, such as a cell phone, to facilitate detecting a biological parameter such as a heart rhythm.

Abstract: In one embodiment, a cardiovascular condition of a subject is determined by capturing a three-dimensional electrocardiography image of the subject, generating a two-dimensional cardiac map from the electrocardiography image, and processing the cardiac map to determine the cardiovascular condition of the subject.

Abstract: A device for gathering data has first and second electrodes. The first electrode is coupled to a surface of interest, and the second electrode is coupled to “everything else” or “the air”. The first electrode is shielded from the second, and from most sources of parasitic capacitance, by a shield that is driven by an active driver that drives the shield to track, and ideally to match, the instantaneous potential of the electrode. The second electrode is likewise shielded in a similar way from most sources of parasitic capacitance. These shields likewise help to limit the extent to which RFI from the device electronics couples with either of the electrodes. In this way the sensing device achieves a markedly better signal-to-noise ratio at frequency bands of interest.

Abstract: A sensor for foetal monitoring, in particular for measuring electrophysiological signals, e.g. electrical activity of the uterus of a pregnant woman and/or of the heart of a foetus. The sensor includes a plurality of signal electrodes and a ground electrode mounted in or on a substrate, and a connector for connecting the sensor to a monitoring system. The ground electrode is positioned about or between a pair of signal electrodes.

Abstract: A vital signs monitor system is integrated with personal protective equipment (“PPE”) so that upon wearing the PPE, the monitor is placed in an operational position to monitor a vital sign. In one embodiment, the vital signs sensor comprises a thermal sensor located at a mouth guard to automatically make operational contact with tissue under the tongue when the mouth guard is worn. A second vital signs monitor comprising reflective pulse oximetry devices senses oxygen saturation and heart rate. Vital signs data are communicated to an RF module located in an associated helmet for transmission to a remote location. A gateway at that remote location receives the transmitted vital signs data and forwards that data to a data collection, organization, and access system that is programmed to make the vital signs data available over the Internet.

Abstract: An electrocardiographic system, the electrocardiographic system includes a first part that includes: a first housing that comprises of a first bottom layer that is elastic and has an underside provided with an adhesive material; a first set of electrodes that is located within the first housing; wherein the first set of electrodes comprises at least one first electrode; a second part that comprises: a second housing that comprises a second bottom layer that has an underside provided with an adhesive material; a second set of electrodes that are located within the second housing; wherein the second set of electrodes comprises at least one second electrode; a mechanical adaptor that is arranged to be detachably connected to a electrocardiographic device that comprises a processor and a wireless transmitter; and an electrical connector that is detachably is arranged to be detachably connected to the electrocardiographic device and to electrically couple the electrocardiographic device to conductors that convey s

Abstract: Physiological monitoring can be provided through a wearable monitor that includes two components, a flexible extended wear electrode patch and a removable reusable monitor recorder. The wearable monitor sits centrally on the patient's chest along the sternum oriented top-to-bottom. The placement of the wearable monitor in a location at the sternal midline (or immediately to either side of the sternum) benefits extended wear by removing the requirement that ECG electrodes be continually placed in the same spots on the skin throughout the monitoring period. The wearable monitor can interoperate wirelessly with other physiology and activity sensors and mobile communications devices, to download monitoring data either in real-time or in batches. The monitor recorder can provide data or other information to, or receive data or information from, an interfacing physiology or activity sensor, or mobile communications devices for relay to a further device, such as a server, analysis, or other purpose.

Abstract: Physiological monitoring can be provided through a wearable monitor that includes two components, a flexible extended wear electrode patch and a removable reusable monitor recorder. The wearable monitor sits centrally (in the midline) on the patient's chest along the sternum oriented top-to-bottom. The placement of the wearable monitor in a location at the sternal midline (or immediately to either side of the sternum) benefits extended wear by removing the requirement that ECG electrodes be continually placed in the same spots on the skin throughout the monitoring period. Instead, the patient can place an electrode patch anywhere within the general region of the sternum. Power is provided through a battery provided on the electrode patch, which avoids having to open the monitor recorder's housing for battery replacement.

Abstract: A shield can inhibit transfer of microbes and bodily fluids from a first side to a second side of the shield, while allowing an ECG device adjacent the first side of the shield to sense separate electrical potentials on skin adjacent the second side. The shield comprises a flexible sheet with a first electrically conductive portion and a second electrically conductive portion; the first and second electrically conductive portions are separated from one another by an electrically insulating portion.

Abstract: Physiological monitoring can be provided through a wearable monitor that includes a flexible extended wear electrode patch and a removable reusable monitor recorder. A pair of flexile wires is interlaced or sewn into a flexible backing, serving as electrode signal pickup and electrode circuit traces. The wearable monitor sits centrally on the patient's chest along the sternum, which significantly improves the ability to sense cutaneously cardiac electric signals, particularly those generated by the atrium. The electrode patch is shaped to fit comfortably and conformal to the contours of the chest approximately centered on the sternal midline. To counter the dislodgment due to compressional and torsional forces, non-irritating adhesive is provided on the underside, or contact, surface of the electrode patch, but only on the distal and proximal ends. Interlacing the flexile wires into the flexile backing also provides structural support and malleability against compressional, tensile and torsional forces.

Abstract: Physiological monitoring can be provided through a wearable monitor that includes two components, a flexible extended wear electrode patch and a removable reusable monitor recorder. The wearable monitor sits centrally (in the midline) on the patient's chest along the sternum oriented top-to-bottom. The placement of the wearable monitor in a location at the sternal midline (or immediately to either side of the sternum) benefits extended wear by removing the requirement that ECG electrodes be continually placed in the same spots on the skin throughout the monitoring period. Instead, the patient can place an electrode patch anywhere within the general region of the sternum. Ensuring that the quality level of ECG recording remains constant over an extended period of time is provided through self-authentication of electrode patches. The monitor recorder implements a challenge response scheme upon being connected to an electrode patch. Failing self-authentication, the monitor recorder signals an error condition.

Abstract: Physiological monitoring can be provided through a wearable monitor that includes a flexible extended wear electrode patch and a removable reusable monitor recorder. The wearable monitor sits centrally on the patient's chest along the sternum, which significantly improves the ability to sense cutaneously cardiac electric signals, particularly those generated by the atrium. The electrode patch is shaped to fit comfortably and conformal to the contours of the chest approximately centered on the sternal midline. To counter the dislodgment due to compressional and torsional forces, non-irritating adhesive is provided on the underside, or contact, surface of the electrode patch, but only on the distal and proximal ends.

Abstract: A connector clip for medical sensors, including a first main body having two main tip contacts in electrical contact with electrical wires connectable to an instrument and a second main body mounted on the first main body and movable with respect to the first main body between an open position and a closed position. Two auxiliary tip contacts and an electric/electronic circuit provided with two connecting leads each electrically connected to one of the two auxiliary tip contacts are positioned in first or second main body. When a disposable sensor tab is correctly located and clamped each of two contacts is in contact with one of the main tip contacts and one of the auxiliary tip contacts and the electric circuit is connected in parallel with an electrical circuit defined by the sensor.

Abstract: A biosensor is described which can obtain physiological data from an individual. The biosensor may collect electrodermal activity, skin temperature, and other information. The biosensor may be attached to the body through the use of a garment which may be fastened in multiple locations on the human body. The biosensor has replaceable electrodes which may be interchanged. The electrodes contact the body without having any wires or leads external to the sensor.

Abstract: The invention relates to an electrophysiological analysis system which comprises a plurality of electrodes (E1-E4), power supply means (10, 30) for successively applying a substantially continuous voltage ranging approximately from 1 to 5 volts and lasting from 0.1 to 5 seconds to different slotted electrode pairs, collecting and storing means (450) for recording the variation of a current flow in the electrode pairs to which said voltage slots are applied, means (50) for enabling the current variations obtained by comparison between at least two current variations caused by supposed identical conditions and means (50) for comparing data related to the current variations recorded for several electrode pairs and enabled with reference data. Said invention can be used for chronoamperometrically detecting pathologies, pathological areas and organ dysfunctions.

Abstract: Methods and apparatus combine patient measurement data with demographic or physiological data of the patient to determine an output that can be used to diagnose and treat the patient. A customized output can be determined based the demographics of the patient, physiological data of the patient, and data of a population of patients. In another aspect, patient measurement data is used to predict an impending cardiac event, such as acute decompensated heart failure. At least one personalized value is determined for the patient, and a patient event prediction output is generated based at least in part on the personalized value and the measurement data. For example, bioimpedance data may be used to establish a baseline impedance specific to the patient, and the patient event prediction output generated based in part on the relationship of ongoing impedance measurements to the baseline impedance. Multivariate prediction models may enhance prediction accuracy.

Abstract: An electrode wearable or harness permits for easy, quick, and unsupervised administration or self-administration of a resting 12-or-more-lead ECG. Various advantageous features of the electrode wearable or harness include: inflatable or padded cushions at the lateral sides of the torso that function to press LA and RA electrodes mounted on the cushions against the downward-resting arms of the subject, permitting good electrode abutment with distal electrode placement without the need for adhesives, straps, bands, bracelets, or gloves on the arms; padding over the sternum to avoid tenting in the V1, V2, V3 and V3R electrodes whenever present, easy-to-don, one-piece design with an adjustable single point of connection and an adjustable shoulder strap; Lund or modified Lund placement; dry electrodes; and various other features. Methods of use are also described.

Abstract: An electro impedance measuring belt for placing electrodes around the thorax of a patient comprises an array of a plurality of spaced apart electrodes, and a support structure, on which the electrodes are arranged. The support structure with the electrode array comprises two angulated legs on which the electrodes are lined up, the two legs spread out from an apex at an angle, such that, when the belt is put around the thorax of a patient, the array of electrodes extends from the back of the patient, where the apex of fee angulated legs is to be located, essentially parallel to the ribs to the lower part of the breastbone of the patient.

Abstract: The present invention provides impedance data having an improved spatial resolution, both with regard to depth and lateral extension, which enables a detection of diseased skin conditions, such a malignant melanoma, at an early stage. Specifically, the present invention is implemented in a probe, medical devices and medical systems including such a probe, and methods using such a probe for measuring electrical impedance of tissue of a subject. A switching circuit is arranged for selectively activate electrode pairs of the probe in accordance with a predetermined activation scheme, the predetermined activation scheme including to activate adjacent electrodes in a successive manner, to gradually scan tissue of the subject at a first tissue depth so as to obtain a sequence of impedance signals from the tissue depth.

Abstract: Garments having one or more stretchable conductive ink patterns thereon. Described herein are garments (including compression garments) having one or more highly stretchable conductive ink pattern formed of a composite of an insulative adhesive, a conductive ink, and an intermediate gradient zone between the adhesive and conductive ink. The conductive ink typically includes between about 40-60% conductive particles, between about 30-50% binder; between about 3-7% solvent; and between about 3-7% thickener. The stretchable conductive ink patterns may be stretched more than twice their length without breaking or rupturing.

Abstract: The present invention provides methods, devices, and systems for wireless physiological sensor patches and systems which incorporate these patches. The systems and methods utilize a structure where the processing is distributed asymmetrically on the two or more types of ASIC chips that are designed to work together. The invention also relates to systems comprising two or more ASIC chips designed for use in physiological sensing wherein the ASIC chips are designed to work together to achieve high wireless link reliability/security, low power dissipation, compactness, low cost and support a variety of sensors for sensing various physiological parameters.

Abstract: Systems and apparatus for monitoring physiological electrical activity of an individual include a first electrode unit for receiving a first signal indicative of electrical activity at a first location on a body of the individual and a second electrode unit for receiving a second signal indicative of electrical activity at a second location on the body of the individual. Each of the first and second electrode units may be operated in a field-sensing mode wherein the electrode unit is placed on or in proximity to the individual's skin. The first and second electrode units comprise a capacitive sensor element, and the capacitive sensor element of each of the electrode units comprising an electrodynamic sensor which is sensitive to electromagnetic waves; and an antenna comprising an electrically conductive radiating element for receiving electromagnetic waves.

Abstract: The invention concerns a method for performing an electric inhibition of the facial muscles for purely aesthetic purposes, using a device comprising a support at the head of a user (1), two contact electrodes (2), an electronic circuit (3) for generating low-voltage electric pulses at said electrodes (2), a direct current electric power supply (4) and means for fixing and locking (7) said components on the head. The invention is characterized in that it includes the following steps: placing the electrodes (2) on either side of the upper part of the nose, at the glabella; passing the electric pulses via the electrodes (2) through the pyramidal muscle of the nose so as to cause said pyramidal muscle of the nose to relax and hence its antagonist muscle, the forehead muscle and the double eyebrow muscle.

Abstract: An implantable medical device and associated methods monitor thoracic fluid status and discriminate thoracic fluid conditions. Intrathoracic impedance is measured along multiple intrathoracic measurement vectors using implanted electrodes. A map of thoracic conductivity is computed using the measured intrathoracic impedances. A thoracic fluid condition is detected in response to the computed map.

Abstract: A device, system and method for obtaining a 12 lead electrocardiogram (ECG) from measurements obtained with 3 electrodes in some embodiments (it should be noted that some separate embodiments of the present invention relate to such measurements with 4 electrodes). Optionally and preferably, the device, system and method of the present invention may be easily and accurately operated by a layperson.

Abstract: An accessory device for a twelve-lead electrocardiography (ECG) apparatus includes a blanket. The ECG apparatus includes an ECG machine that has ten first electrical couplers, and ten electrodes each having a second electrical coupler. The blanket includes a sheet body configured to cover the body of a patient and formed with ten holes that are arranged according to a standard electrode placement for twelve-lead ECG measurement and that are configured to permit the second electrical couplers of the ten electrodes to extend therethrough, respectively.

Abstract: A method for making a medical electrical lead electrode assembly includes the steps of: forming an insulative carrier from an insulative material; coupling at least one conductive component to the carrier by inserting a pre-formed tab of the conductive component through the carrier, from a first side thereof to a second side thereof, so that the conductive component is secured to the carrier with the tab extending along a surface of the second side of the carrier and an inward facing surface of an electrode portion of the conductive component being disposed against a surface of the first side of the carrier; coupling an elongate flexible conductor to the tab of the component; and forming an insulative layer over the second side of the carrier, the tab and the conductor electrically coupled to the tab.

Abstract: A remote medical diagnostic device that includes both a bio-mouse and a bio-keyboard, and a method of using the same.

Abstract: The invention relates to large area electrodes suitable for use in a fetal heart rate monitoring systems. The electrode comprises: a cutaneous gel contact (10) for sensing fetal electrocardiogram signals from a human pregnant subject; an electrical conductor (12) electrically connected to the gel contact (10) so as to define a first electrical contact region; a connector (14) in electrical contact with the electrical conductor (12) for connection to a lead wire; and a substructure (16) for attachment to a human pregnant subject. The gel contact (10) and the electrical conductor (12) are arranged on the substructure (16) to allow a contact surface (11) of the gel contact (10) to be in electrical communication with the skin of a human pregnant subject to define a second electrical contact region. The second electrical contact region has an area greater than 370 square millimeters.

Abstract: An electrocardiographic waveform measuring apparatus mounted in a seat with a seat skin element includes: a sensor electrode at a seat interior side of the seat to be covered with the seat skin element; an insulating elastic element at the seat interior side of the sensor electrode in the seat opposite to the seat skin element to face the sensor electrode; a guard electrode at the seat interior side of the insulating elastic element in the seat opposite to the sensor electrode to be opposed to the sensor electrode through the insulating elastic element; and a housing case at the seat interior side of the insulating elastic element in the seat opposite to the sensor electrode to be opposite to the insulating elastic element. The housing case accommodates a sensor circuit with an amplifier circuit, to which a potential signal of the sensor electrode is initially input.

Abstract: A system for monitoring a physiological parameter comprises a substrate, a pair of drive electrodes, a pair of detection electrodes, and an RFID apparatus. The substrate is arranged to be removably securable to a biological organism. At least the pair of drive electrodes or the pair of detection electrodes is secured to the substrate. The RFID apparatus is arranged to be in electrical communication with at least the pair of drive electrodes or the pair of detection electrodes. Methods of using the device are also provided.

Abstract: A set of electrodes suitable for being attached to the skin of an animal or human being at locations normally used for attaching single-lead electrodes with a single sensor point. The electrodes of the set of electrodes have at least three sensors arranged to define two linearly independent directions, which allows sensing corresponding electrical potential differences in the two directions. Signals representing sensed potential differences can be transmitted wirelessly or via conductors to a processing apparatus for being transformed into electrical potentials that approximate traditional potentials obtained with wired single-sensor electrodes. A method is also presented.