Abstract: Provided is a system for continuous generation of gases, the system including an electrochemical device and an active- material regeneration device.

Abstract: The present invention provides a process for fabricating an n-cell supercapacitor stack, including a step of providing at least n+1 identical, or substantially identical, electrically inert conductive sheets having a defined perimeter, n identical, or substantially identical, ion-permeable insulating sheets having a defined perimeter, n identical, or substantially identical, first electrodes having a defined perimeter, n identical, or substantially identical, second electrodes having a defined perimeter, and at least n matching dielectric frames having an outer perimeter, which is larger than the perimeter of the conductive sheet and the perimeter of the insulating sheet; a step of assembling the supercapacitor stack, a step of disposing an additional conductive sheet on top of the nth second electrode; and a step of attaching adjacent units onto one another, such that at least one of the frames within each unit is attached to at least one of the frames within each respective unit adjacent thereto.

Abstract: The present invention provides a process for fabricating an n-cell supercapacitor stack, including a step of providing at least n+1 identical, or substantially identical, electrically inert conductive sheets having a defined perimeter, n identical, or substantially identical, ion-permeable insulating sheets having a defined perimeter, n identical, or substantially identical, first electrodes having a defined perimeter, n identical, or substantially identical, second electrodes having a defined perimeter, and at least n matching dielectric frames having an outer perimeter, which is larger than the perimeter of the conductive sheet and the perimeter of the insulating sheet; a step of assembling the supercapacitor stack, a step of disposing an additional conductive sheet on top of the nth second electrode; and a step of attaching adjacent units onto one another, such that at least one of the frames within each unit is attached to at least one of the frames within each respective unit adjacent thereto.

Abstract: Provided is a nail treatment device including an active delivery device for disposing on the nail and for promoting delivery of an active agent into the nail to treat a nail infection; and at least one means for preventing delivery of the active agent to the skin. Further provided is a method of treating a nail infection including applying onto an infected nail a nail treatment device including an active delivery device for promoting delivery of an active agent into the nail to treat a nail infection and at least one means for preventing delivery of the active agent to the skin.

Abstract: The present invention provides a powered treatment device comprising at least one power source for supplying electrical energy to the device, and wherein at least one component of the power source is also configured as a power source treatment device electrode to facilitate electrical contact with a body region. In an embodiment wherein one component of the power source is configured as a power source treatment device electrode, the powered treatment device may further comprise at least one non-power source device electrode of opposite polarity from the power source treatment device electrode, wherein the at least one non-power source device electrode is electrically coupled to the at least one power source to facilitate electrical contact with a body area.

Abstract: The present invention is of an electrode comprising an electrode substrate base layer and a plurality of layers of insoluble pole electroactive substance disposed on the electrode substrate base layer, wherein each of the plurality of layers of insoluble pole electroactive substance is configured to facilitate a treatment of a condition. Further, the present invention is of use of the electrode in a currant generating treatment device.

Abstract: The present invention is of an electrode comprising an electrode substrate, wherein the electrode substrate has an electrode side and a back side; a conductive material layer disposed on the back side of the electrode substrate; and an insoluble electroactive material disposed on the electrode side of the electrode substrate. The electrode substrate can be a conductive substrate or a non-conductive substrate. In an embodiment wherein the substrate is a non-conductive substrate, the electrode can include vias which extend from the electrode substrate backside to the electrode side of the substrate. In some embodiments, the electroactive material is zinc and the conductive material is silver. The present invention provides an electrode with improved current distribution and high capacity, which can provide higher current and/or higher voltage. In addition, the present invention provides a dermal patch, which includes a higher powered, high capacity electrode with uniform current distribution.

Abstract: The present invention is of an electrode comprising an electrode substrate, wherein the electrode substrate has an electrode side and a back side; a conductive material layer disposed on the back side of the electrode substrate; and an insoluble electroactive material disposed on the electrode side of the electrode substrate. The electrode substrate can be a conductive substrate or a non-conductive substrate. In an embodiment wherein the substrate is a non-conductive substrate, the electrode can include vias which extend from the electrode substrate backside to the electrode side of the substrate. In some embodiments, the electroactive material is zinc and the conductive material is silver. The present invention provides an electrode with improved current distribution and high capacity, which can provide higher current and/or higher voltage. In addition, the present invention provides a dermal patch, which includes a higher powered, high capacity electrode with uniform current distribution.