Abstract:
Electrochemically-treated water having an electron deficiency is described, which may be attained by a process comprising the following steps: a) Electrolysing water, b) Withdrawing a portion of the catholyte from the system, and c) Introducing the remaining catholyte into the anodic chamber.
Abstract:
A specified proton concentration in a volume (80) is produced by passing a controlled electrophoresis current through an adjacent electrophoresis volume (28) between a working electrode (26) and a counter electrode (24). An array of such volumes with specified proton concentration is used to provide the pH gradient for isoelectric focusing.
Abstract:
The present invention relates to An electronic osmotic dehydrator of electrophoresis style with a phase control using three-phase current, and more specifically, to An electronic osmotic dehydrator of electrophoresis style with a phase control using three-phase current, which can minimize an unnecessary loss of power consumed in the rotating drum itself by emboding the applying structure of the DC power supplied to the dehydrating domain of the electro-osmotic dehydrator so that a strength of the electric field generated between the rotating drum and the caterpillar may be variably controlled depending upon a sludge volume, and improving a structure of the rotating drum to which the DC power is applied, when forming an electronic osmotic dehydrator comprising a rotating drum in the cylindrical form, a caterpillar running on an endless track at a certain space from the rotating drum and two filter cloth belts for transferring and dehydrating the sludge as wound between the drum and the caterpillar, which is a continued invention of ‘an electro-osmotic dehydrator (K.R. Patent Application No. 10-2004-007759)’, ‘an electro-dehydrator of a phase control type (K.R. Patent Application No. 10-2005-009928)’, and ‘an electro-osmotic dehydrator (K.R. Patent Application No. 10-2007-046494)’ which were already filed by the applicant of the present invention.
Abstract:
The invention is directed to a chlorinator mounted inline in a water purification system having a housing having an inlet end and an outlet end and an upper compartment having an electronics section with a controller unit contained within the electronics section and in electrical communication with a power source and an at least one electrolytic plate. The system having a heat sink member in thermal communication with the controller, wherein the flow of the water in the water purification system cools the heat sink member and the controller unit.
Abstract:
An electrically powered apparatus for generating a solute such as chlorine to sanitise a body of water such as a pool or spa, a by-product of such generation being an explosive gas such as hydrogen, said apparatus including: a) an electrolytic cell (1) adapted to operate in a substantially vertical orientation through a range of 45 degrees either side of the vertical; b) a water inlet (13) and outlet (14) both located at the lower end of said electrolytic cell (1); and c) a defined space (16) surrounding one or more electrodes (28) of said electrolytic cell (1), wherein, in, the event that water flow through said apparatus ceases and said electrolytic cell (1) continues to produce said explosive gas, said explosive gas will displace water in said defined space (16) until there is no water around said electrodes (28).
Abstract:
A method and device for protecting an aqueous system from scale precipitation by depressing scale precipitation in a bulk phase of a water supply, the device including: (a) an electrolytic cell for fluidly connecting to the system, including: (i) a tank for receiving the water supply, the tank having a copper surface forming a cathode of the cell; and (ii) an element having a zinc surface disposed within the tank, and forming an anode of the cell; (b) a controlling unit for controlling a current (I) from the power supply; and (c) a flowmeter for measuring a flow rate of the water supply, the flow rate associated with a flow rate of water into the system, wherein the controlling unit is designed to control the current according to the flow rate so as to depress the scale precipitation in the bulk phase of the water supply, and wherein the current I exceeds (1.84−A)*Q and is less than (1.84+A)*Q, wherein I is measured in amperes; Q is the total flow rate (m3/h); and A is a positive number and less than 1.05.
Abstract:
An electrolysis cell is provided, which includes an anode electrode and a cathode electrode. At least one of the anode electrode or the cathode electrode includes a first plurality of apertures having a first size and/or shape and a second plurality of apertures having a second, different size and/or shape.
Abstract:
A method and apparatus for treating water or wastewater for drinking and/or industrial use. The method and apparatus comprises of a plurality of vertically positioned electrodes, which are placed in a treating chamber and wherein the electrodes are interconnected to one another. The positive and negative electrodes are insulated there-between. The polarity of the direct current supply is changeable at regular intervals in order to prevent passivation of the electrodes when reaching an even abrasion. The current can preferably be pulsatory. In order to be able to keep the current density between the electrodes at a desired value, the most efficient possible electrolysis is achieved by means of a minimum total current and wherein the spacing between the electrodes are adjustable.
Abstract:
A water treatment system provides treated or softened water to a point of use by removing a portion of any hardness-causing species contained in water from a point-of-entry coming from a water source, such as municipal water, well water, brackish water and water containing foulants. The water treatment system typically treats the water containing at least some undesirable species before delivering the treated water to a point of use. The water treatment system has a controller for adjusting or regulating at least one operating parameter of the treatment system or a component of the water treatment system to optimize the operation and performance of the system or components of the system. A flow regulator regulates a waste stream flow to drain and can be operated to recirculate fluid through electrode or concentrating compartments of an electrochemical device and can opened and closed intermittently according to a predetermined schedule or based on an operating parameter of the water treatment system. The flow regulator can also be charged so that ionic species can be generated in the surrounding fluid, which, in turn, can lower the pH of the surrounding fluid.
Abstract:
A water treatment system provides treated or softened water to a point of use by removing a portion of any hardness-causing species contained in water from a point-of-entry coming from a water source, such as municipal water, well water, brackish water and water containing foulants. The water treatment system typically treats the water containing at least some undesirable species before delivering the treated water to a point of use. The water treatment system has a controller for adjusting or regulating at least one operating parameter of the treatment system or a component of the water treatment system to optimize the operation and performance of the system or components of the system. A flow regulator regulates a waste stream flow to drain and can be operated to recirculate fluid through electrode or concentrating compartments of an electrochemical device and can opened and closed intermittently according to a predetermined schedule or based on an operating parameter of the water treatment system. The flow regulator can also be charged so that ionic species can be generated in the surrounding fluid, which, in turn, can lower the pH of the surrounding fluid.