Disclosed is a drum washing machine, including: an outer tank, configured in a shell; a drum, configured in the outer tank and capable of rotating by using a horizontal shaft or an inclination shaft inclining relative to a horizontal direction as a center; a rotating body, configured at a rear part of the drum and having protruding parts in contact with washings on a surface of the rotating body; a driving part, capable of operating in a first drying form and a second driving form, wherein the first driving form refers to a driving form which enables the drum and the rotating body to rotate at different rotating speeds, and the second driving form refers to a driving form which enables the drum and the rotating body to rotate integrally at the same rotating speed; and a control part.

A water reuse control method of a multiple-drum washing machine, having a first washing drum and a second washing drum. When the first drum reaches a drainage process, comparing a time for the second drum to reach a water supply process T.sub.12 to a time for the first drum to reach a next drainage process T.sub.11; if T.sub.12<T.sub.11, the first drum waits until water is supplied into the second drum; if T.sub.12≧T.sub.11, water in the first drum is directly drained. Alternatively, when the first drum reaches the water supply process, comparing time for the second drum to reach the drainage process T.sub.22 to time for the first drum to reach a next water supply process T.sub.21; if T.sub.22≧T.sub.21, clean water is directly supplied into the first drum; if T.sub.22<T.sub.21, the first drum waits until the second drum drains water.

The present disclosure provides a heat pump drying or washing-drying machine, including a drum for holding laundry, a heat pump module and a condensed water draining duct. The heat pump module includes a heat pump mounting box, a condenser, an evaporator, a fan and a compressor, the condenser and the evaporator are mounted in the heat pump mounting box, and the heat pump mounting box is provided with a draining port for draining a condensed water. An upper end of the condensed water draining duct is connected with the draining port, a lower end of the condensed water draining duct is communicated with the drum, and the condensed water draining duct extends along a gravity direction from the upper end to the lower end.

A washing machine has a reservoir configured to hold materials to be washed, the reservoir positioned to receive water from a water source, a drain pipe connected to the reservoir, at least two cleaning agent dispensers, a controller connected to the cleaning agent dispensers, the controller arranged to control water flow into and out of the reservoir, and dispensing of agents from the cleaning agent dispenser, and at least one sensor arranged to sense contents of one of either the water or materials to be washed and communicate the contents to the controller, the controller to dispense cleaning agents based upon the contents. A method of dispensing cleaning agents includes receiving signals from at least one sensor, wherein the signals provide information about soil in a reservoir, using the information to select appropriate cleaning agents from a set of cleaning agents, and dispensing selected cleaning agents into the reservoir.

In a control method of a washing machine, a primary nephelometric turbidity unit (NTU) of washing water is sensed before a washing course is started in a washing cycle, a second NTU is sensed based on the primary NTU, and a washing time, an amount of washing agent, and/or a number of times of rinsing are varied based on a difference value between the primary NTU and the secondary NTU, thereby improving washing performance and washing efficiency.

A laundry treatment apparatus is disclosed. The laundry treatment apparatus includes a cabinet, a tub disposed in the cabinet to provide a washing space, a drum rotatably disposed in the tub to receive laundry placed therein, a detergent pump for supplying detergent to the tub, and a detergent box removably mounted to the detergent pump and configured to contain the detergent. The detergent box includes a body for providing a space containing the detergent and a through-hole formed in a rear side of the body to allow the detergent to flow out therethrough. The body includes a lower surface including a first slanted surface, which is slanted downwards from a front side of the body toward the rear side of the body. The through-hole is located at the lowermost position of the body.

In a control method of a washing machine, a washing operation is performed through a heating washing process for a first set time and is performed through a non-heating washing process for a residual time, and, if the heating washing process is started, the rotation of a driving motor is weakly controlled until a washing water temperature reaches a primary target temperature, and is strongly controlled until the washing water temperature reaches a secondary target temperature after the washing water temperature reaches the primary target temperature, so that the washing water temperature is relatively gradually increased.

Disclosed is a method of controlling laundry treating apparatus including supplying power to a driving unit configured to rotate a drum, an input unit configured to input a control command and a communication unit configured to receive a remote control command transmitted from a remote control device, setting a remote control mode so as to operate the driving unit if the communication unit receives the remote control command, and executing a standby operation so as to cut off power supply to the driving unit and to maintain power supplied to the communication unit, when the remote control mode is set.

A control method of a laundry treatment apparatus is disclosed. The control method includes rotating the drum at a predetermined first number of rotations to measure the weight of the laundry stored in the drum (a laundry weight measurement step), rotating the drum at a predetermined second number of rotations to determine the magnitude of the dynamic unbalance of the drum (an unbalance measurement step), accelerating the drum to a target number of rotations, which is greater than the first number of rotations and the second number of rotations, when the magnitude of the dynamic unbalance measured at the unbalance measurement step is less than a predetermined reference value (an acceleration step), interrupting the rotation of the drum when the variation per unit time of current supplied to the stator during execution of the acceleration step is equal to or greater than a predetermined reference variation (a first interruption step), rotating the drum at the first number of rotations to determine the weight of the laundry stored in the drum (a laundry weight remeasurement step), and interrupting the rotation of the drum when the deviation between the laundry weight measured at the laundry weight remeasurement step and the laundry weight measured at the laundry weight measurement step is equal to or greater than a predetermined reference deviation (a second interruption step).

A laundry washing machine (1) includes an outer casing (2) and, inside said outer casing (2), a washing tub (3), a detergent dispensing assembly (9), a fresh-water supply circuit (10) for selectively channeling a flow of fresh water from the water mains towards the detergent dispensing assembly (9) and/or the washing tub (3), and a water softening device (11) interposed between the fresh water supply circuit (10) and the detergent dispensing assembly (9) or the washing tub (3), and being structured for reducing the harness degree of the fresh water supplied to the washing tub (3). The water softening device (11) includes a water-softening agent container (26), crossed by fresh water arriving from the fresh-water supply circuit (10) and is filled with a water softening agent; a regeneration-agent reservoir (27) being structured to receive a salt or other regeneration agent for performing a regeneration of the water softening function of the water softening agent; and a water supply circuit (28) for selectively channeling a given amount of fresh water into the regeneration-agent reservoir (27) to form brine; and an electrically-powered brine-circulating pump assembly (29) interposed between the water-softening agent container (26) and the regeneration-agent reservoir (27), and being structured for transferring/moving the brine from the regeneration-agent reservoir (27) to the water-softening agent container (26) when activated, and for watertight sealing/isolating the regeneration-agent reservoir (27) from the water-softening agent container (26) when deactivated.