A system for washing laundry includes a cleaning fluid electrolytic hydrogen nano bubbles generation device for receiving tap water and electrolyzing the tap water to generate nano hydrogen bubbles and nano ion water or alkaline electrolytic water together as a cleaning fluid; a recycled water nano bubbles generation device for receiving tap water and water recycled by the system and generating ozone nano bubbles from the water, and at least one washing machine capable of performing pre-wash, main wash, or rinse. In the pre-wash or rinse, the recycled water nano bubbles generation device supplies the tap water having ozone nano bubbles to each washing machine through a pre-wash or rinse line. In the main wash, the cleaning fluid electrolytic hydrogen nano bubbles generation device supplies the main solution to each washing machine through, a cleaning fluid line.

An electro-chemical activation (ECA) system includes an anode chamber, a cathode chamber, and a neutralization chamber. The anode chamber includes an anode configured to convert water having an alkaline-metal chloride into an anodic electrolyte that includes hypochlorous acid. The cathode chamber includes a cathode configured to convert water into a cathodic electrolyte. The neutralization chamber includes a neutralization cathode configured to remove protons from the anodic electrolyte after it leaves the anode chamber. The ECA system is configured to recirculate the anodic electrolyte back through the anode chamber and the neutralization chamber at least one more time to produce a concentrated chlorine solution. The ECA system is further configured to recirculate the cathodic electrolyte back through the cathode chamber at least one additional time to produce a concentrated alkaline solution.

A system for washing clothing includes an alkaline ionized water-generating unit, an alkaline ionized water-generating medium-supplying unit, an alkaline ionized water storage unit, and a washing tub. The alkaline ionized water-generating unit is configured to generate alkaline ionized water. The alkaline ionized water-generating medium-supplying unit is configured to supply the alkaline ionized water-generating medium to the alkaline ionized water-generating unit, and the alkaline ionized water-generating medium generates the alkaline ionized water. The alkaline ionized water storage unit is configured to store the alkaline ionized water generated by the alkaline ionized water-generating unit. The washing tub is configured to wash an object.

The present invention relates to an electrolysis body suitable for water disinfection for use in a water reservoir having a definite internal volume comprising a) a pair of electrodes made of a conductive material suitable for providing electrolysis, b) means for applying current to the electrodes, c) an insert unit having a first side and a second side opposite each other, wherein the first side faces out of the water reservoir when the insert unit is placed in position in the water reservoir in use for water disinfection and the second side faces into the volume of the water reservoir when placed in position in the water reservoir in use for water disinfection, and d) optionally a filter unit extending from the second side of the insert unit. The present invention also concerns a water reservoir comprising the body, as well as a washing system comprising the water reservoir.

A system for washing laundry includes a cleaning fluid electrolytic hydrogen nano bubbles generation device for receiving tap water and electrolyzing the tap water to generate nano hydrogen bubbles and nano ion water or alkaline electrolytic water together as a cleaning fluid; a recycled water nano bubbles generation device for receiving tap water and water recycled by the system and generating ozone nano bubbles from the water, and at least one washing machine capable of performing pre-wash, main wash, or rinse. In the pre-wash or rinse, the recycled water nano bubbles generation device supplies the tap water having ozone nano bubbles to each washing machine through a pre-wash or rinse line. In the main wash, the cleaning fluid electrolytic hydrogen nano bubbles generation device supplies the main solution to each washing machine through, a cleaning fluid line.

A washing machine rinse water purification device and washing apparatus including the washing machine rinse water purification device. The washing machine rinse water purification device includes a first liquid supplier, a processing tub, a buffer tub and a washing tub. In the first liquid supplier, a first liquid introduced from an introduction portion into a processing tub is swirled from an introduction portion to a discharge portion to generate a swirling flow, plasma is generated in a gas phase to produce a reforming component, the produced reforming component is dissolved in the first liquid and is dispersed in the first liquid to produce a reforming liquid, the produced reforming liquid temporarily passes through a buffer tub from a discharge portion and then is supplied into a washing tub as a second liquid.

A water-conducting electrical device having a water receiving element, an electrochemical cell having electrodes and designed to produce a bleaching agent when it contains a salt-containing solution and a DC voltage is applied to the electrodes, a pump designed to convey fluid located in the electrochemical cell out of the electrochemical cell into the water receiving element, and a control unit configured to selectively apply both DC voltage and AC voltage to the electrodes of the electrochemical cell. A method for operating the water-conducting electrical device includes feeding a salt-containing solution into the electrochemical cell, applying DC voltage to the electrodes of the electrochemical cell for a predetermined period of time in order to produce the bleaching agent in the electrochemical cell, applying AC voltage to the electrodes of the electrochemical cell for a predetermined period of time in order to heat fluid located in the electrochemical cell, and conveying the fluid out of the electrochemical cell into the water receiving element.

An electrolytic assembly and a laundry treatment apparatus. An electrolytic assembly includes an electrolytic device, a heating member, and a mounting device. The electrolytic device includes an electrode. The electrolytic device and/or heating member is connected to the mounting device. The heating member and the electrode are located on the same side of the mounting device. The electrolytic assembly can produce a hydroxyl radical having a strong oxidization activity by electrolyzing water by means of the electrolytic device to perform disinfection and sterilization, and can further heat a liquid to a required temperature by means of the heating member. The integration of the heating member and the electrolytic device can facilitate the arrangement of the structures of the heating member and the electrolytic device more compact and facilitate overall assembly/disassembly.

This disclosure of a liquid treatment device includes a first metal electrode having a part disposed in a reaction tank into which a water being treated is filled, a second metal electrode disposed in the reaction tank, an insulator having an opening portion disposed to surround the first metal electrode so that a closed space is formed. A bubble is generated from the closed space to the water being treated via the opening portion. The liquid treatment device also includes a gas supply device that supplies the space with a gas for generating the bubble, and a power supply that applies a voltage between the first metal electrode and the second metal electrode.

An electrolysis electrode and a preparation method therefor, an electrolysis apparatus, and a clothing treatment device. The electrolysis electrode includes a substrate, a transition layer, and an electrode catalytic material layer, and the transition layer is attached to the surface of the substrate, the electrode catalytic material layer is attached to the surface of the transition layer, and the thickness of the transition layer satisfies that: electrons can pass through the transition layer. The transition layer of the electrolysis electrode is relatively thin, so that electrons can pass through the transition layer due to a quantum tunneling effect, and thus the electrocatalytic performance of the electrolysis electrode is basically not affected. Furthermore, the transition layer plays the role of transition connection, and can greatly improve the phenomenon of cracks in the electrode catalytic material layer.