Abstract: A return pad for use with an electrosurgical system is disclosed. The return pad includes a conductive layer, a contact layer configured to engage a patient's skin and an intermediate layer disposed between the conductive layer and the contact layer. The intermediate layer is adapted to distribute energy.

Abstract: A cable stand-off for use with an electrosurgical system includes an accordion body portion having a plurality of panels, and a plurality of hinges. Each panel has at least one hole formed therethrough. The holes of the plurality of panels are axially aligned with one another. The plurality of hinges couples adjacent panels to one another. In one embodiment, the hinges couple adjacent panels in a tip-to-tail fashion. The accordion body portion may be made of a flexible material. Each panels may further include at least one slot extending from a hole to an edge of the panel.

Abstract: An electrosurgical return electrode includes a conductive pad including a patient-contacting surface configured to conduct electrosurgical energy, and a temperature sensing circuit coupled to the conductive pad. The temperature sensing circuit includes a plurality of switching elements connected in series, wherein each of the plurality of switching elements is configured to vary in impedance in response to temperature changes, such that an interrogation signal transmitted therethrough is indicative of the temperature change.

Abstract: An electrosurgical return electrode is disclosed. The return electrode includes a first and second flexible conductive material layers and a material layer disposed between the first and second conductive material layers. The material layer is transitionable between a solid state and a non-solid state, the material layer is also configured to melt upon an increase in temperature beyond a predetermined threshold, thereby increasing conductivity between the first and second conductive material layer.

Abstract: An electrosurgical return electrode is disclosed. The return electrode includes a first and second flexible conductive material layers and a material layer disposed between the first and second conductive material layers. The material layer is transitionable between a solid state and a non-solid state, the material layer is also configured to melt upon an increase in temperature beyond a predetermined threshold, thereby increasing conductivity between the first and second conductive material layer.

Abstract: A return pad for use with an electrosurgical system is disclosed. The return pad includes a conductive layer, a contact layer configured to engage a patient's skin and an intermediate layer disposed between the conductive layer and the contact layer. The intermediate layer is adapted to distribute energy.

Abstract: A return pad for use with an electrosurgical system is disclosed. The return pad includes a conductive layer, a contact layer configured to engage a patient's skin and an intermediate layer disposed between the conductive layer and the contact layer. The intermediate layer is adapted to distribute energy.

Abstract: A medical electrode, and a method of making a medical electrode. The electrode comprises an electrode member having a top face and a bottom face; disconnected regions of electrically conductive material in electrical contact with the top face of the electrode member, patient contacting layer and an electrical connector in electrical contact with the disconnected regions. The disconnected regions reduce patient skin irritation and burning while optimizing electrical impedance of the electrode.

Abstract: An electrosurgical return electrode is disclosed. The return electrode includes a first and second flexible conductive material layers and a material layer disposed between the first and second conductive material layers. The material layer is transitionable between a solid state and a non-solid state, the material layer is also configured to melt upon an increase in temperature beyond a predetermined threshold, thereby increasing conductivity between the first and second conductive material layer.

Abstract: An electrosurgical return electrode includes a conductive pad including a patient-contacting surface configured to conduct electrosurgical energy, and a temperature sensing circuit coupled to the conductive pad. The temperature sensing circuit includes a plurality of switching elements connected in series, wherein each of the plurality of switching elements is configured to vary in impedance in response to temperature changes, such that an interrogation signal transmitted therethrough is indicative of the temperature change.

Abstract: A cable stand-off for use with an electrosurgical system includes an accordion body portion having a plurality of panels, and a plurality of hinges. Each panel has at least one hole formed therethrough. The holes of the plurality of panels are axially aligned with one another. The plurality of hinges couples adjacent panels to one another. In one embodiment, the hinges couple adjacent panels in a tip-to-tail fashion. The accordion body portion may be made of a flexible material. Each panels may further include at least one slot extending from a hole to an edge of the panel.

Abstract: A return pad for use with an electrosurgical system is disclosed. The return pad includes a conductive layer, a contact layer configured to engage a patient's skin and an intermediate layer disposed between the conductive layer and the contact layer. The intermediate layer is adapted to distribute energy.

Abstract: A return pad for use with an electrosurgical system is disclosed. The return pad includes a conductive layer, a contact layer configured to engage a patient's skin and an intermediate layer disposed between the conductive layer and the contact layer. The intermediate layer is adapted to distribute energy.

Abstract: A medical electrode, and a method of making a medical electrode. The electrode comprises an electrode member having a top face and a bottom face; disconnected regions of electrically conductive material in electrical contact with the top face of the electrode member, patient contacting layer and an electrical connector in electrical contact with the disconnected regions. The disconnected regions reduce patient skin irritation and burning while optimizing electrical impedance of the electrode.

Abstract: A pair of disposable medical electrodes for delivering high-energy defibrillation or pacing stimulation are provided and include a positive electrode and a negative electrode. The positive electrode and the negative electrode each include an electrode member with a top face and a bottom face, a electrically conductive coating of a metal and a metal chloride, the coating being disposed on the bottom face, and an electrically conductive gel pad disposed on the coating. The amount of metal chloride included in the coating on the negative electrode is greater than the amount of metal chloride included in the coating on the positive electrode.

Abstract: A pair of disposable medical electrodes for delivering high-energy defibrillation or pacing stimulation are provided and include a positive electrode and a negative electrode. The positive electrode and the negative electrode each include an electrode member with a top face and a bottom face, a electrically conductive coating of a metal and a metal chloride, the coating being disposed on the bottom face, and an electrically conductive gel pad disposed on the coating. The amount of metal chloride included in the coating on the negative electrode is greater than the amount of metal chloride included in the coating on the positive electrode.