Provided is a wireless electrocardiogram monitoring device comprising: a patch part including a plurality of electrodes; and a module part detachably coupled to the patch part and capable of wireless communication with an external device, wherein the patch part comprises: a downward patch part formed at the bottom surface to be attached to the human body while some of the plurality of electrodes are exposed from the bottom surface; and an upward patch part disposed at the top surface opposite to the bottom surface while the others of the plurality of electrodes are exposed from the top surface.

The present disclosure provides an electroencephalogram electrode cap, including: a stretchable covering body; an electrode array; and a fixing seat. The fixing seat includes a fixing structure. The fixing seat is mounted on the stretchable covering body through the fixing structure. The fixing seat further includes a hollow chamber for accommodating conductive medium or conductive medium preform. The electrode array includes plug ends, a plurality of electrode sensing units and a plurality of conductive traces. One end of the conductive trace is connected with the electrode sensing unit, and another end of the conductive trace is connected with the plug end. The electrode sensing unit is connected with the fixing seat.

An ECG electrode includes a substrate and one or more holes. The substrate includes on one side an electrolyte gel for contacting a patients skin and an adhesive. The one or more holes perforate the substrate and the adhesive to increase the adhesion between the patients skin and the substrate. The one or more holes can have a circular shape, rectangular shape, crescent shape, polygonal shape, elliptical shape, diamond shape, star shape, or triangular shape. A method for manufacturing an ECG electrode includes assembling a substrate that includes on one side an electrolyte gel for contacting a patients skin and an adhesive and creating one or more holes in the substrate and the adhesive that increase the adhesion between the skin and the substrate. The one or more holes are created using a laser or a drill.

An ECG electrode includes a substrate and one or more holes. The substrate includes on one side an electrolyte gel for contacting a patients skin and an adhesive. The one or more holes perforate the substrate and the adhesive to increase the adhesion between the patients skin and the substrate. The one or more holes can have a circular shape, rectangular shape, crescent shape, polygonal shape, elliptical shape, diamond shape, star shape, or triangular shape. A method for manufacturing an ECG electrode includes assembling a substrate that includes on one side an electrolyte gel for contacting a patients skin and an adhesive and creating one or more holes in the substrate and the adhesive that increase the adhesion between the skin and the substrate. The one or more holes are created using a laser or a drill.

An electrode connector adapted for attachment to a biomedical patient electrode by either pinch or snap connection includes a pair of pivotally connected members including a connector body and a jaw pivotally connected to said connector body, with the jaw defining a beveled lower surface that functions to urge the jaw open by engagement of the top surface of an ECG stud thereby allowing the connector to be attached by snap engagement. An electrically conducting plate is disposed at the bottom of the connector to maximize electrical contact with the electrode stud. The jaw member further includes a lip functioning to engage a lower portion of the head of the stud and urge the radially enlarged base of the stud into electrical contact with the bottom surface of said electrically conducting member. An ECG electrode connector in accordance with the present invention may further be fabricated of radiolucent materials.

An electrode connector adapted for attachment to a biomedical patient electrode by either pinch or snap connection includes a pair of pivotally connected members including a connector body and a jaw pivotally connected to said connector body, with the jaw defining a beveled lower surface that functions to urge the jaw open by engagement of the top surface of an ECG stud thereby allowing the connector to be attached by snap engagement. An electrically conducting plate is disposed at the bottom of the connector to maximize electrical contact with the electrode stud. The jaw member further includes a lip functioning to engage a lower portion of the head of the stud and urge the radially enlarged base of the stud into electrical contact with the bottom surface of said electrically conducting member. An ECG electrode connector in accordance with the present invention may further be fabricated of radiolucent materials.

Electrodes for use in electroencephalographic recording, including consciousness and seizure monitoring applications, have novel features that speed, facilitate or enforce proper placement of the electrodes, including any of alignment indicators, tabs and juts, color coding, and an insulating bridge between reference and ground electrodes which ensures a safe application distance between the conductive regions of the two electrodes in the event of cardiac defibrillation. A method of using a set of at least four such electrodes is also disclosed.

A bioelectrode includes a support member, an electrode member of conductive rubber, including a supported part that is a member to be supported by the support member and at least one electrode part that is a member protruding from the supported part, and a snap-button-type connector that is provided on the support member, and that electrically connects the electrode member to outside. The snap-button-type connector and the supported part are integrally molded.

A bioelectrode includes a support member, an electrode member of conductive rubber, including a supported part that is a member to be supported by the support member and at least one electrode part that is a member protruding from the supported part, and a snap-button-type connector that is provided on the support member, and that electrically connects the electrode member to outside. The snap-button-type connector and the supported part are integrally molded.

A pediatric electrocardiogram electrode and cover are provided. The pediatric electrocardiogram electrode and cover includes an electrode. The electrode includes an interface that is designed to connect to an electrocardiogram machine. The electrode also includes a gel surface that conducts electrical currents through the electrode. A cover is sized to cover the electrode. The electrode includes an adhesive surface to secure the cover thereon. The cover includes a pair of arms that can overlap to secure the cover to the electrode.