Abstract:
Electrolytic equipment in the form of radiation mode that is provided with pluralities of baffles (13) in the form of radiation mode on the top surface of the seat (10) and acidic water passage (131) is formed between the baffles (13). The top surface of the seat (10) has through holes (14) used to make anode conduction portions (33) of anode plate (30) through. In the center of the seat (10), there is a socket joint portion (11) that is provided with an inlet and outlet interval tube (15) in the center of it. There are plurality of equidistributed baffles (151, 157) on the inside wall and the outside wall of the inlet and outlet interval tube (15) to form raw water inlet passage (152) and acidic water outlet passage (153). There are protuberant ribs (16) for separating water inside of the seat (10) corresponding to the location for separating water around the anode plate (30) and the cathode plate (40), which are used to separate alkaline water and acidic water electrolyzed from the anode plate (30) and the cathode plate (40). Alkaline water passage (631) is formed on the bottom surface of the lid (60) and the center of lid (60) is provided with alkaline water outlet joint (61).
Abstract:
The present invention uses the principles of electrochemical ion absorption (charging) and ion desorption (discharge), and relates to a continuous flow-electrode system, a high-capacity energy storage system, and a water treatment method using the same, in which high-capacity electric energy is stored as electrode materials of a slurry phase and electrolytes simultaneously flow in a successive manner within a fine flow channel structure formed on an electrode. More specifically, the present invention relates to a continuous flow-electrode system, an energy storage system, and a water treatment method, wherein electrode active materials consecutively flow in a slurry state whereby a high capacity is easily obtained without enlarging or stacking electrodes.
Abstract:
A process for electrocoagulation fluid treatment utilizing a tubular member with a plurality of electrocoagulation assemblies disposed therein. The assemblies have first and second conductive plates that are angularly oriented in relation to one another to promote turbulent flow through the tubular member. A non-conductive block is positioned between the plates to stabilize and orient the plates within the tubular member. The conductive plates may be provided with alternating negative and positive charges to combat corrosion.
Abstract:
An electrolysis water-making apparatus (1) generates electrolyzed products by supplying a raw material solution into an electrolytic cell (4) to perform electrolysis, and generates electrolyzed water by diluting the electrolyzed products. The electrolysis water-making apparatus (1) includes a casing (20) configured to accommodate the electrolytic cell (4), and a bracket (30) fixed to the casing (20) in a freely detachable manner, and the bracket (30) includes a pair of rigid walls to which one end and the other end of the electrolytic cell (4) are attached. The pair of rigid walls have a dimension therebetween that can be adjusted according to the linear dimension of the electrolytic cell (4).
Abstract:
Fluid treatment devices are disclosed. The fluid treatment devices may include a first electrode and a second electrode and a control device which provides an alternating potential difference between the first electrode and the second electrode.
Abstract:
An electrolysis cell is provided, which includes an inlet, an outlet, and coaxial, cylindrical inner and outer electrodes. A cylindrical ion-selective membrane is located between the inner and outer electrodes and forms respective first and second electrolysis reaction chambers on opposing sides of the membrane. Fluid flow paths along the first and second chambers join together as a combined inlet flow path through the inlet and a combined outlet flow path through the outlet.
Abstract:
The invention relates to a method and apparatus for removing impurities from waste water by electroflotation. The waste water to be cleaned is conducted through an electrolytic cell. Electrolysis is performed between two electrodes (1, 2) of different electronegativities, such that the more electronegative electrode (1), which is non-wearing in a cleaning process, is used for producing hydrogen gas and hydroxyl ions from water. The less electronegative electrode (2), which is an active, wearing electrode in a cleaning process, is used for producing metal ions in a solution to be cleaned. In addition to this basic reaction, a desired oxidation-reduction reaction is initiated in the cell in a strictly controlled electric field for removing one or more designated impurities from cleaned water.
Abstract:
A fluid treatment device is disclosed. The fluid treatment device includes at least a first electrode and a second electrode in direct contact with the fluid. The fluid treatment device may include a control device which adjusts a parameter of an alternating potential difference provided between the first electrode and the second electrode based on the indication of the conductivity between the first electrode and the second electrode.
Abstract:
The present invention provides a new method and apparatus/system for purifying ionic solutions, such as, for example, desalinating water, using engineered charged surfaces to sorb ions from such solutions. Surface charge is applied externally, and is synchronized with oscillatory fluid movements between substantially parallel charged plates. Ions are held in place during fluid movement in one direction (because they are held in the electrical double layer), and released for transport during fluid movement in the opposite direction by removing the applied electric field. In this way the ions, such as salt, are “ratcheted” across the charged surface from the feed side to the concentrate side. The process itself is very simple and involves only pumps, charged surfaces, and manifolds for fluid collection.
Abstract:
A water treatment system is disclosed having electrolytic cell for liberating hydrogen from a base solution. The base solution may be a solution of brine for generating sodium hypochlorite, or potable water to be oxidized. The cell has first and second opposing electrode endplates held apart from each other by a pair of supports such that the supports enclose opposing sides of the endplates to form a cell chamber. One or more inner electrode plates are spaced apart from each other in the cell chamber in between the first and second electrode plates. The supports are configured to electrically isolate the first and second electrode plates and the inner electrode plates from each other. The first and second electrode plates are configured to receive opposite polarity charges that passively charge the inner electrode plates via conduction from the base solution to form a chemical reaction in the base solution as the base solution passes through the cell chamber.