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:
An in-line cleaning and sanitation apparatus for cleaning a liquid, the apparatus including electronic oxidation means to increase the oxidation reduction potential of the liquid, and ionization means to produce ions having an algaecidal or bactericidal effect into the liquid, in that order together with ultrasonic cleaning means to introduce sound waves into the liquid, and wherein the ionization means, the ultrasonic cleaning means and the electronic oxidation means are operated simultaneously for a period to clean and sanitize the liquid in the absence of added salt, chlorine or other chemicals.
Abstract:
A salt chlorine generator for use in conjunction with a swimming pool, spa, hot tub or large vessel of water includes a bracket for mounting a housing on a wall of a swimming pool, spa, hot tub or large vessel of water. The housing is releasable mounted relative to said bracket and contains a compartment wherein a halogen-producing electrode configuration is removably mounted relative to the compartment. A predetermined length of electrical cable is stored within the compartment for enabling the halogen producing electrode configuration to be selectively removed from said compartment for replacing, servicing or winterizing.
Abstract:
An electronic water treatment apparatus includes an electronic impulse generator and control box attached to a power source. An impulse chamber includes a cylindrical anode rod inside a tubular cathode and is connected to the impulse generator and control box with a low-voltage cable which is no more than about six feet long. The impulse generator and control box supply about 16 v DC power and 120-180 milliamps to the impulse chamber at between 2300 and 5200 Hertz. The discharge frequency within the impulse chamber automatically varies with the conductivity of the aqueous solution within the impulse chamber. The impulse generator and control box supply power with a waveform that includes about a two microsecond break between each positive and negative pulse to prevent corrosion of the electrodes and create the aragonite form of calcium carbonate instead of the calcite form.
Abstract:
An electronic water treatment apparatus includes an electronic impulse generator and control box attached to a power source. An impulse chamber includes a cylindrical anode rod inside a tubular cathode and is connected to the impulse generator and control box with a low-voltage cable which is no more than about six feet long. The impulse generator and control box supply about 16v DC power and 70 milliamps to the impulse chamber at between 2300 and 5200 Hertz. The discharge frequency within the impulse chamber automatically varies with the conductivity of the aqueous solution within the impulse chamber. The impulse generator and control box supply power with a waveform that includes about a two microsecond break between each positive and negative pulse to prevent corrosion of the electrodes and create the aragonite form of calcium carbonate instead of the calcite form.
Abstract:
An oxygen emitter which is an electrolytic cell is disclosed. When the anode and cathode are separated by a critical distance, very small microbubbles and nanobubbles of oxygen are generated. The very small oxygen bubbles remain in suspension, forming a solution supersaturated in oxygen. A flow-through model for oxygenating flowing water is disclosed. The use of supersaturated water for enhancing the growth of plants is disclosed. Methods for applying supersaturated water to plants manually, by drip irrigation or in hydroponic culture are described. The treatment of waste water by raising the dissolved oxygen with the use of an oxygen emitter is disclosed.
Abstract:
An apparatus for treating wastewater comprising an electrocoagulation cell 100 including holding and isolating members 7, a top cell cover 17, a plurality of electrode plates E1 through E8 inserted within a sleeve 18 made of non-conductive material, thereby the electrode plate sets 11 and 12 offer minimum resistance to the incoming liquid. Such an electrocoagulation cell 100 including a member to break the laminar liquid flow and to maintain a turbulent state all along said cell 100. A set of electrode plates 11 and 12 connected in parallel or in series, wherein said electrode plate sets 11 and 12 have connections arranged such that it allows the electrical current be indistinctively interrupted and reversed. Such an electrode plate set 11 and 12 connected in parallel or in series, wherein a combination of non-similar metals may be made in order to have electrical connections that allow disinfection of the treated liquid.
Abstract:
An electrolytic cell is provided that can include: a first electrode plate including a first surface that can include a graphite material; a second electrode plate including a second surface that can include a graphite material opposing the first surface; an electrolytic reaction zone between the first surface and the second surface; and an inlet to and an outlet from the electrolytic reaction zone. The first electrode plate and the second electrode plate can include impregnated graphite. The first electrode plate and the second electrode plate can essentially form a chamber for the electrolytic reaction. Methods are provided for using the electrolytic cells, a sodium chloride solution, and a sodium bromide solution, for on-site electrolytic production of hypobromite solution for use as a biocide in water systems.
Abstract:
A process allowing treatment of effluents. The process comprises the following steps: (a) providing a reactor comprising an inlet, an outlet, at least one block of electrodes comprising at least one anode and at least one cathode. The effluent to be treated is run between the electrodes in an upward direction; and (b) allowing the effluent to be treated to run between the electrodes of the at least one block in an upward direction so as to submit the effluent to an electrical current and thereby treating the effluent by electrocoagulation and/or electroflotation. There is thus produced a sludge containing at least one pollutant that is comprised in the effluent to be treated, and a treated effluent. The produced sludge is thereafter separated from the treated effluent. There is also provided an apparatus allowing implementation of this process. The process and the apparatus make it possible to efficiently treat effluents of various compositions and that may contain a wide range of contaminants.
Abstract:
A fully automatic deionizer comprising five sub-systems for removing ionic contaminants from various liquids at low energy consumption is devised. Based on the charging-discharging principle of capacitors, the deionizer conducts deionization through applying a low DC voltage to its electrodes for adsorbing ions, while more than 30% of the process energy is recovered and stored by discharging the electrodes. At the mean time of discharge, surface of the electrodes is regenerated on site and reset for performing many more cycles of deionization-regeneration till the desirable purification is attained. In one moment, both deionization and regeneration proceed simultaneously on different groups of electrode modules, and in the next moment the electrode modules quickly switch the two processes. Such swift reciprocating actions are engaged in synchronized coordination of sub-systems of electrode modules, energy management, fluid flow, and automatic control.