Electrolytic liquid generating device (1) includes laminated body (41) in which conductive film (46) is laminated to be interposed between mutually adjacent electrodes (44, 45), and electrolytic part (40) which electrolyzes liquid. Furthermore, electrolytic liquid generating device (1) includes a passage having inflow port (71) in which liquid to be provided to electrolytic part (40) flows and outflow port (72) from which electrolytic liquid generated in electrolytic part (40) flows out. The passage is formed such that liquid flowing direction (X) crosses laminated direction (Z) of laminated body (41).

A drying unit, which can be easily associated with a domestic and/or hospitality containment cabin, includes a hot air generation structure. Conveniently, the drying unit includes interfacing structure with the containment cabin. The interfacing means is adapted to conduct the hot air generated by the hot air generation means into the containment cabin. The drying unit is adapted to be associated with the containment cabin in order to dry objects contained therein.

A water ozonation system (18) that receives source water (16) from a water source (14) and converts it to ozonated water (20) for use in a washing machine (12) includes a system body (30), an ozone generator (38), a sensor assembly (21), and a controller (46). The system body (30) receives the source water (16) from the water source (14). The ozone generator (38) is configured to generate ozone. The ozone generator (38) is coupled the system body (30). The sensor assembly (21) is also coupled to the system body (30). The sensor assembly (21) is configured to sense at least one ambient environmental condition and generate at least one electronic data signal based on the sensed at least one ambient environmental condition. The controller (46) receives the at least one electronic data signal from the sensor assembly (21) and regulates a level of ozone that is generated by the ozone generator (38) based at least in part on the at least one electronic data signal.

Embodiments of the present disclosure relate generally to methods and systems for bleaching textiles using ozone gas. Embodiments also incorporate a color removal step. In one example, there is provided a hybrid machine that incorporates certain features of a washer, but that also includes an integrated blower for gas distribution inside the machine. There is also provided an ozone dosing control system that allows for maintenance of a constant concentration of ozone in the machine. In one embodiment, the ozone output measured in grams/hour at this constant concentration in conjunction with the weight of product measured being treated may be referred to as the bleaching factor. There is further provided a drain sump design that helps minimize water volume in the presence of fabric lint, various added materials, and other processing chemicals.

An ozone and/or hydroxyl laundry system that injects ozone and/or hydroxyls into the chemical injection system in order to allow the system to inject ozone and/or hydroxyls as other cleaning chemicals are injected into the washer. This allows ozone and/or hydroxyls to be injected through the wash cycle rather than just during the initial fill phase and avoids the expense and maintenance of adding ozone and/or hydroxyls recirculation plumping to an ozone and/or hydroxyls laundry system. Accordingly, ozone and/or hydroxyl levels may be maintained at superior levels throughout the wash cycle.

An ozone and/or hydroxyl laundry system that injects ozone and/or hydroxyls into the chemical injection system in order to allow the system to inject ozone and/or hydroxyls as other cleaning chemicals are injected into the washer. This allows ozone and/or hydroxyls to be injected through the wash cycle rather than just during the initial fill phase and avoids the expense and maintenance of adding ozone and/or hydroxyls recirculation plumping to an ozone and/or hydroxyls laundry system. Accordingly, ozone and/or hydroxyl levels may be maintained at superior levels throughout the wash cycle.

An ozone laundry system that injects ozone into the chemical injection system in order to allow the system to inject ozone as other cleaning chemicals are injected into the washer. This allows ozone to be injected through the wash cycle rather than just during the initial fill phase and additional avoids the expense and maintenance of adding ozone recirculation plumping to an ozone laundry system. Accordingly, ozone levels may be maintained at superior levels throughout the wash cycle.

An ozone production method and system for producing ozone which comprises a plurality of washing machines, an ozone generator for generating ozone, and an ozone supply conduit for supplying ozone from the ozone generator to the washing machines. Each washing machine has a respective venturi, located between a water source and an inlet to the washing machine. The venturi is connected to the ozone supply conduit so that, as water flows through the respective venturi, such water flow creates a negative pressure within the ozone supply conduit. At least one sensor is located so as to detect the negative pressure created within the ozone supply conduit. The at least one sensor is connected to a control box, coupled to the ozone generator, which controls ozone production of the ozone generator depending upon the negative pressure generated within the ozone supply conduit.

The instant invention relates to a system for supplying a water-ozone mixture or fluid to a large laundry washing machine. The system includes at least two identical boxes with each of the boxes including ozone generators and an injector for supplying the water-ozone fluid to the washing machine.

The instant invention relates to a system and method for supplying a water-ozone mixture to a large laundry washing machine. The system includes a plurality of ozone generators and a plurality of injectors for supplying a water-ozone mixture to the laundry washing machine.