Abstract: An ECG monitoring device comprises an integral handheld device including a ECG electronic module and an electrode patch having a plurality of electrodes which contact a subject by conductive hydrogel. A release liner covers and protects the hydrogel prior to use and is removed to expose the hydrogel. A second release liner is removed to expose a pressure sensitive adhesive by means of which the device is attached to a subject. The first and second release liners may be parts of a single release liner layer. After use the electrode patch is disposable and the ECG electronic module is detached from the patch for reuse.

Abstract: The present invention relates to an extended wear biomedical electrode assembly, comprising at least two conductive gel pads spaced apart from each other, electrodes in contact with the gel pads, a support construction disposed substantially laterally with respect to the gel pads, surrounding the gel pads, filling space between neighboring gel pads, and overlapping an lower, outer perimeter of each of the gel pads. A smooth, even skin-contacting surface and a mechanical decoupling of the connector from the skin improve user comfort.

Abstract: A biomedical electrode patch having improved resistance to capacitive coupling to extraneous electric fields. The patch includes a conductive shield and a contact portion formed on an upper surface thereof. The contact portion extends through the film layer and contacts an electrode formed of a material suitable for conducting electrical signals from a patient. Conductive traces formed on the lower surface of the tab extend to contact pads. A nonconductive layer is printed over the traces and can have a shield formed thereon.

Abstract: An ECG monitoring device comprises an integral handheld device including a ECG electronic module and an electrode patch having a plurality of electrodes which contact a subject by conductive hydrogel. A release liner covers and protects the hydrogel prior to use and is removed to expose the hydrogel. A second release liner is removed to expose a pressure sensitive adhesive by means of which the device is attached to a subject. The first and second release liners may be parts of a single release liner layer. After use the electrode patch is disposable and the ECG electronic module is detached from the patch for reuse.

Abstract: An external defibrillator for providing a defibrillating pulse to a patient includes a ceramic storage capacitor an d an energy conditioning circuit. A charging circuit coupled to the ceramic storage capacitor electrically charges the ceramic storage capacitor, which has an electrical discharge characteristic. The energy conditioning circuit coupled to the ceramic storage capacitor receives the electrical energy discharging according to the electrical discharge characteristic, and in response, provides output energy according to a modified electrical discharge characteristic. The output energy is delivered by a steering circuit to a patient as a defibrillating pulse having a defibrillating pulse characteristic.

Abstract: A device (8) comprises a medical device (10) which includes device electrical contacts (50). A patch (22) includes at least partially conductive first layer (28), which is in direct operative communication with a base surface (18). A patch connector (26) includes electrical contacts (42) being in electrical communication with the first conductive layer (28) and establishes an electrical communication path between the base surface (18) and medical device contacts (50), and a mechanical connection between the patch (22) and the medical device (10) when the patch connector (26) and the medical device (10) are engaged.

Abstract: An antenna structure including a driven antenna element is formed on a substrate that is folded to provide a closed surface, causing the substrate to be nonplanar and spacing the driven antenna element from a base of the substrate. Adhesives on an outside surface of the substrate permit fastening of the folded substrate to a container or packaging. The substrate may have one or more resilient elbows formed by folding, to bias the antenna element carrying portion of the substrate from the base of the substrate. A modulation circuit may drive the driven antenna element. The flexible substrate may be folded into any of a variety of forms such as a substantially O-shape, a substantially oval shape, a substantially coil shape, a substantially spiral shape, and a substantially S-shape. Additional folds in the substrate may provide surfaces for mounting passive or parasitic antenna elements, such as reflectors and directors, to form a Yagi antenna structure.

Abstract: A memory device comprises a substrate, an antenna on a first surface of the substrate, a microelectronic structure coupled to the antenna, a selectively deformable intermediate layer covering the first surface, the antenna and the microelectronic structure and conforming thereto, and an adhesive layer covering the intermediate layer. The intermediate layer may be deformable for selectively positioning the antenna with respect to the adhesive, and positioning the antenna with respect to an item to which the memory device is secured. The intermediate layer may be compressed, creating a relatively low profile for printing on the memory device. The intermediate layer may be an elastomerically compressible material, such as foam, or may be a selectively pressurizable and deformable envelope.

Abstract: An RF tag for inclusion in a smart label comprises a stiff substrate sized to be received in the smart label, an antenna carried by the substrate and an integrated circuit having a memory circuit carried by the substrate and coupled to the antenna by wire bonding. The substrate may be strain relieved, for example, by forming a pair of generally opposed serpentine edges on the substrate, or forming a plurality of grooves in at least one surface of the substrate. A smart label comprises the RF tag between a face sheet and an adhesive. A release liner may cover the adhesive. A compressably deformable material having a low viscoelastic modulus is received between the first surface of the substrate and the face sheet partially surrounding the circuit structure and wire bonds to hydrostatically protect against damage. A film layer with a blister may envelop the low viscoelastic modulus material.

Abstract: A thick film conductor material comprising metal particles containing both gold and at least one additional element prealloyed into a single particle. The additional element may preferably be Pd and the prealloying may preferably be accomplished by coprecipitation. The conductor material, when bonded with Al wire, impedes the growth of intermetallic compounds and subsequent Kirkendall voids, even at elevated temperatures.