Abstract:
An apparatus for treating contaminated water includes an electrolytic cell and a flow directing device. The electrolytic cell includes an anode chamber, a cathode chamber, an anode, a cathode, and a membrane. The anode is in the anode chamber and the cathode is in the cathode chamber. The membrane is positioned in the electrolytic cell to maintain a pH difference between the anode chamber and cathode chamber when a voltage is applied between the anode and cathode. The contaminated water for treatment is provided with hydrogen ions at the anode and with hydroxyl ions at the cathode when the voltage is applied. The flow directing device is connected to direct the water from the anode chamber to the cathode chamber.
Abstract:
An electrolysis device of the present invention includes an electrolysis unit. The electrolysis unit includes a channel for fluid to be treated, at least one electrolysis electrode pair, a flow inlet, and a flow outlet. The electrolysis electrode pair is disposed so as to incline with respect to a vertical direction and includes an upper electrode and a lower electrode disposed so as to face each other. The channel for fluid to be treated is disposed so that a fluid that has flowed in from the flow inlet flows through an interelectrode channel between the upper electrode and the lower electrode from a lower side to an upper side and flows out from the flow outlet.
Abstract:
The invention relates to an electrolysis cell for the particularly efficient treatment of wastewater polluted with organic substances by electrooxidative degradation of the wastewater constituents contributing to the chemical oxygen demand, and also its use.
Abstract:
Provided is an apparatus for treating ballast water by using electrolysis. The apparatus includes a plurality of ballast tanks into which ballast water is introduced; a first pipe for a main stream of the ballast water supplied to the ballast tanks; a second pipe for a side stream of the ballast water branched from the main stream of the ballast water; an electrolytic cell configured to perform electrolysis of the side stream of the ballast water; a first salinity measuring unit configured to measure a salinity of the side stream of the ballast water introduced into the electrolytic cell; a second salinity measuring unit configured to measure a salinity of ballast water introduced into at least one of the ballast tanks; and a controller configured to control to supply the ballast water to the electrolytic cell from one of the plurality of ballast tanks based on the salinity of ballast water measured by the second salinity measuring unit, when the salinity of the side stream of the ballast water measured by the first salinity measuring unit is less than a threshold value.
Abstract:
A micro-channel electrode structure includes a layer and an electrode micro-channel formed in the layer, the electrode micro-channel having an electrode micro-channel bottom forming the bottom of the electrode micro-channel and an electrode micro-channel top forming the top the electrode micro-channel. The electrode micro-channel is at least partially filled with an electrode that extends along the electrode micro-channel and extends from the electrode micro-channel bottom toward the electrode micro-channel top. A fluid micro-channel adapted to carry a fluid is formed in the layer. An electrical power source is connected to the electrode. The fluid micro-channel intersects the electrode micro-channel in the layer to form a micro-channel intersection and the electrode extends from the electrode micro-channel into the micro-channel intersection without occluding the fluid micro-channel.
Abstract:
A three-dimensional micro-channel structure includes a plurality of layers arranged in a stack, each layer having one or more separate micro-channels having first, second, and third ports spatially aligned in the stack so that the first, second, or third ports each form one or more first, second, or third contiguous areas, respectively, that do not include other ports. Each of the contiguous areas includes at least one port from each of two or more layers in the stack. One or more pipes having an open side each covers only one contiguous area.
Abstract:
An electrolytic chlorinator including a housing, electrodes, and a conduit. The housing defines a flow path for conveying water. The electrodes have a surface area within an interior of the housing to treat the conveyed water. The conduit includes an inlet opening, to the interior of the housing, at a location above at least a majority of the surface area to collect gas resultant from the treatment.
Abstract:
A device and process are disclosed for the separate removal of oppositely charged ions from electrolyte solutions and recombining them to form new chemical compositions. The invention provides the ability to create multiple ion flow channels and then form new chemical compositions therefrom. The process is accomplished by selectively combining oppositely charged ions of choice from different electrolyte solutions via the capacitive behavior of high electrical capacitance electrodes confined in insulated containers.
Abstract:
The electrolysis water-making apparatus (A) which is an apparatus for making electrolysis water (W5) by electrolyzing a raw material solution (W1, W3) including a chlorine ion includes: an electrolytic cell (2); a raw material solution feed pump (3) used to supply the raw material solution (W1, W3) to the electrolytic cell (2); and a pipe (32, 36) connecting an outlet (3b) of the raw material solution feed pump (3) allowing the raw material solution (W1, W3) to be discharged therefrom and an inlet (26) allowing the raw material solution (W1, W3) to flow into the electrolytic cell (2). In addition, the raw material solution feed pump (3) is provided so that the outlet (3b) is disposed on a lower side of the inlet (26).
Abstract:
The electrolysis water-making apparatus (A) includes: an electrolytic cell (2); a raw material solution feed pump (3) used to supply the raw material solution (W1, W3) to the electrolytic cell (2); a raw material solution pipe (32, 36) connecting an outlet (3b) of the raw material solution feed pump (3) and an inlet (26) of the electrolytic cell (2); and an electrolyzed solution advection-deterring portion (40) formed in the raw material solution pipe (32, 36) between the outlet (3b) and the inlet (26). The raw material solution feed pump (3) is provided so that the outlet (3b) is disposed on an upper side of the inlet (26). A pitched pipe (32c) in which an end thereof near the inlet (26) is disposed on an upper side of another end thereof near the outlet (3b) is provided in at least a part of the electrolyzed solution advection-deterring portion (40).