WO2010041902A2 - Vacuum cleaner - Google Patents

Abstract

The present embodiment relates to a vacuum cleaner. The vacuum cleaner of the present embodiment removes the dust of a filter unit automatically using a dust-removing member. Therefore a user can avoid the inconvenience of separating the filter unit from the cleaner main body and cleaning the filter directly.

Description

Vacuum cleaner

This embodiment relates to a vacuum cleaner.

In general, a vacuum cleaner is a device that sucks air containing dust by using a suction force generated by a suction motor mounted inside the main body, and then filters the dust in the dust separating apparatus.

The vacuum cleaner includes a main body provided with a suction motor, a dust separation device for separating dust from air sucked into the main body, and storing separated dust, and a purifying filter for filtering the air discharged from the dust separation device. A device is included. Then, the air passing through the purification device is discharged to the outside of the main body through the suction motor.

An object of the present embodiment is to provide a vacuum cleaner that can be easily cleaned of the purification device for filtering the air sucked into the main body.

Another object of the present embodiment is to propose a vacuum cleaner to compress the dust stored in the dust collecting container.

Vacuum cleaner according to one aspect, the cleaner body is provided with a suction motor; A dust collecting container detachably mounted to the cleaner body; A filter unit provided on an upstream side of the suction motor; Vibration damping means for removing dust from the filter unit; And a collecting space in which dust collected by the filter unit is removed from the vibration removing means, wherein either one of the filter unit or the vibration damping member is rotatable, and the dust of the filter unit is rotated by the vibration damping member in a rotation process. And the collection space is in selective communication with the dust collecting container.

According to the proposed embodiment, since the dust accumulated in the filter unit is automatically removed by the damping member, the trouble of having to separate the filter unit from the cleaner body and directly clean the filter is eliminated.

In addition, since a clean filter of the plurality of filters is located upstream of the suction motor by the rotation of the filter unit, clean air flows into the suction motor, thereby minimizing the inflow of fine dust into the suction motor, and cleans the outside. The air can be discharged.

In addition, since the dust removed from the filter unit is stored in the dust collecting container, there is an advantage that the user can easily empty the dust.

In addition, since the dust stored in the dust collecting container is compressed by the pressing member, there is an advantage that the dust collecting capacity of the dust collecting container is maximized.

1 is a perspective view showing an internal configuration of a cleaner body according to a first embodiment.

2 is a cross-sectional perspective view showing an internal configuration of the cleaner body according to the first embodiment.

3 is a perspective view showing a configuration of an opening and closing device according to the first embodiment;

4 is a perspective view of a purification apparatus according to the first embodiment;

5 is a sectional perspective view of the purification apparatus according to the first embodiment;

6 is an exploded perspective view of the filter unit according to the first embodiment;

7 is a front view of a purification apparatus according to the first embodiment.

8 is a vertical sectional view showing a state in which the dust collecting container according to the first embodiment is mounted on the mounting portion.

9 is a horizontal sectional view of the dust collecting container according to the first embodiment;

10 is a block diagram showing a configuration of a vacuum cleaner according to the first embodiment.

11 is a view illustrating a process in which dust is compressed inside the dust collecting container.

12 shows air flow in a vacuum cleaner under normal cleaning mode.

13 shows air flow in a vacuum cleaner under filter cleaning mode.

14 is a flowchart illustrating a control method of the vacuum cleaner according to the present embodiment.

15 is a perspective view showing a purification device according to a second embodiment;

16 is a sectional perspective view of a purification apparatus according to a second embodiment.

17 is a perspective view illustrating an internal configuration of a cleaner body according to a third embodiment.

18 is a perspective view of a purification apparatus according to a third embodiment;

19 is a sectional perspective view of a purification apparatus according to a third embodiment.

20 is a perspective view showing a purification device according to a fourth embodiment;

21 is a sectional perspective view of a purifying apparatus according to a fourth embodiment.

Hereinafter, exemplary embodiments will be described in detail with reference to the accompanying drawings.

1 is a perspective view showing the internal configuration of the cleaner body according to the first embodiment, Figure 2 is a cross-sectional perspective view showing the internal configuration of the cleaner body according to the first embodiment. 1 illustrates a state in which a case forming the outer shape of the cleaner body is removed.

1 and 2, the vacuum cleaner of the present embodiment includes a main body 1 provided with a suction motor assembly 30 for generating a suction force. In this embodiment, since there is a major interest in the internal configuration of the main body 1, detailed illustration and description of the external shape and other configuration of the main body 1 will be omitted.

The main body 1 is detachably mounted with a dust separator 10 for separating dust in the air and storing the separated dust. The main body 1 includes a mounting part 5 on which the dust separation device 10 is mounted. In addition, the main body 1 includes a guide tube 60 for guiding the air containing dust to move to the dust separator 10, and a purifying device for filtering the air discharged from the dust separator 10. 20 is provided.

The purifying device 20 is located between the dust separator 10 and the suction motor assembly 30 based on the flow of air. Therefore, the air containing the dust flows through the guide tube 60, the dust separation device 10, the purifying device 20 to the suction motor assembly 30.

In the description of this embodiment, it is noted that "dust" includes other foreign matter in addition to the dictionary meaning.

First, the dust separation apparatus 10 will be briefly described.

The dust separator 10, a dust separator 110 for separating the dust in the air by a cyclone method, a dust collecting container 120 to store the dust separated in the dust separator 110, A cover member 130 covering the dust separator 110 is included. An inside of the dust collecting container 120 is provided with a suction pipe 122 to allow the air of the guide tube 60 to be moved to the dust separation unit 110. The suction pipe 122 may be integrally formed with the dust collecting container 120 or may be coupled to the dust collecting container 120 and extend in the vertical direction. The dust separation unit 110 is detachably coupled to the upper side of the dust collecting container 120, the dust separation unit 110, in the state coupled to the dust collecting container 120, the suction pipe 122 and A suction port 112 is formed in communication. In addition, the dust separation unit 110 includes a dust discharge unit 115 through which dust separated from air is discharged, and an air discharge port 114 through which air is discharged. In addition, a filter member 116 for filtering the air discharged to the air outlet 114 is coupled to the dust separation unit 110.

On the other hand, the purifying device 20, a filter mounting unit 210, a filter unit 240 for filtering the air discharged from the dust separation apparatus 10 accommodated in the filter mounting unit 210, and the filter unit A discharge duct 215 through which the dust removed at 240 flows is included. The discharge duct 215 is in selective communication with the guide tube 60. That is, the dust removed from the filter unit 240 flows through the discharge duct 215 to the guide tube 60 and then to the dust separator 10. The discharge duct 215 is opened and closed by an opening and closing device (see 50 in FIG. 3). In another aspect, the discharge duct 215 is selectively communicated with the guide tube 60 by the opening and closing device (see 50 in FIG. 3).

On the other hand, the filter unit 240 is selectively rotated in the filter mounting portion 210 by the drive device (40). The drive device 40 includes a drive motor 410 and a gear 420 coupled to the shaft of the drive motor 410. A portion of the gear 420 is inserted into the filter mounting unit 210 from the outside of the filter mounting unit 210 and is connected to the filter unit 240.

The suction motor assembly 30 includes a suction motor (not shown) and a motor housing 310 in which the suction motor is accommodated. The motor housing 310 is formed with an inlet 312 through which air discharged from the purifying device 20 is introduced.

3 is a perspective view showing a configuration of an opening and closing device according to the first embodiment.

Referring to FIG. 3, the opening and closing device 50 includes an opening and closing member 510 for selectively communicating the discharge duct 215 and the guide tube 60, and opening and closing for operating the opening and closing member 510. A motor 520 and a detector 530 for detecting a rotation position of the opening and closing member 510 are included. On the other hand, the guide tube 60 is formed with an inlet 610 through which the dust discharged from the discharge duct 215 is introduced.

The rotating shaft 512 of the opening and closing member 510 is installed at the inlet 610. In addition, the pressing unit 514 for selectively pressing the sensing unit 530 is coupled to the rotation shaft 512 on the outside of the inlet 610. The open / close motor 520 is coupled to the pressing unit 514. For example, the sensing unit 530 may be applied with a micro switch. Accordingly, the opening and closing member 510 is rotated together with the pressing unit 514, and the pressing unit 514 is the sensing unit 530 while the opening and closing member 510 closes the discharge duct 215. ) Will be pressed. Then, the stop signal of the open / close motor 520 is transmitted from the sensing unit 530 to the controller to be described later, and the operation of the open / close motor 520 is stopped by the control unit. The switch motor is a motor capable of bidirectional rotation, for example, a synchronous motor (synchronous motor) may be used.

The synchronized motor is configured to be capable of forward and reverse rotation by the motor itself. When the force applied to the motor is greater than or equal to a predetermined value when the motor rotates in one direction, the rotation of the motor is converted to the other direction. At this time, the force applied to the motor is a resistance force (torque) generated as the opening and closing member 510 is interfered with the inner peripheral surface of the guide tube 60 in the process of opening the discharge duct 215. When the resistance reaches a set value, the rotation of the motor is configured to change direction. When the resistive force is applied to the motor, the current applied to the motor is momentarily increased, so that the controller stops the operation of the motor when the current of the motor is momentarily increased.

In the present exemplary embodiment, the operation of the open / close motor 520 is controlled by the operation of the sensing unit 530 and the resistive force applied to the open / close motor 520, but the rotation speed of the open / close motor 520 is different. In advance, the opening and closing motor may be configured to rotate only by the set number of rotations.

Hereinafter, the purification apparatus will be described in detail.

4 is a perspective view of a purification apparatus according to the first embodiment, FIG. 5 is a cross-sectional perspective view of the purification apparatus according to the first embodiment, FIG. 6 is an exploded perspective view of the filter unit according to the first embodiment, and FIG. A front view of the purification device according to the first embodiment.

1 to 7, the purifier 20 includes a filter unit 240, a housing 230 protecting the filter unit 240, and a filter mounting unit in which the housing 230 is accommodated. 210 and a cover 250 rotatably coupled to an upper side of the filter mounting unit 210 to selectively open and close the filter mounting unit 210.

In detail, the filter mounting unit 210 is formed with an inlet 211 through which the air discharged from the dust separation device 10 is introduced, and an outlet 212 through which the air passing through the filter unit 240 is discharged. . In addition, partition ribs 213 and 213a for vertically partitioning the inner space of the filter mounting unit 210 are formed in the horizontal direction on the inner surface of the filter mounting unit 210 while the housing 230 is accommodated therein. A discharge duct 215 is formed at an outer lower side of the filter mounting unit 210 based on the partition ribs 213 and 213a. The discharge passage 216 through which dust flows is formed in the discharge duct 215. In addition, the filter mounting unit 210 is provided with a filter detecting unit 270 for detecting the mounting of the filter unit 240. For example, a switch may be used as the filter detector 270 or may be a hall sensor that detects a magnetic member provided in the housing 230. In the present embodiment, the type of the filter detector 270 is not limited.

The filter unit 240 is rotated with respect to the housing 230 by the driving device 40 in a state accommodated in the housing 230. The filter unit 240 includes a filter casing 241 and a filter 246 seated on the filter casing 241.

The filter casing 241 is formed with a hole 243 through which air passes. A plurality of gear teeth 242 (also referred to as a connecting portion) for engaging the gear 420 is formed around the filter casing 241. In addition, a plurality of magnetic members 244 are provided around the filter casing 241. The plurality of magnetic members 244 are disposed at 180 degree intervals with respect to the rotation center of the filter casing 241.

For example, a pleats filter that is bent a plurality of times may be used as the filter 246. The filter 246 may be divided into a first filter 246a positioned above and a second filter 246b positioned below the partition ribs 213 and 213a. That is, a part of the filter 246 positioned above the division ribs 213 and 213a is called a first filter 246a, and a part of the filter 246 positioned below the division rib is called a second filter ( 246b).

The filter mounting unit 210 is provided with a rotation detecting unit 260 for detecting a rotation position of the filter casing 241. The rotation detecting unit 260 includes a hall sensor 262 for detecting a magnetism of any one of the plurality of magnetic members 244 during the rotation of the filter casing 241. Included. The Hall sensor 262 is located on the same horizontal plane as the partition ribs 213 and 213a. When the magnetism of one of the magnetic members 244 is detected by the hall sensor 262, the rotation detection unit 260 transmits a stop signal of the driving motor 410 to the controller, and thus the filter casing ( Rotation of 241 is stopped. At this time, since the plurality of magnetic members 244 are disposed at intervals of 180 degrees, the filter casing 241 is rotated 180 degrees in one rotation.

In the housing 230, a first housing 231 on which the filter unit 240 is seated, and the first housing 231 in a state where the filter unit 240 is seated on the first housing 231. A second housing 237 coupled to is included. The second housing 237 is formed in a ring shape and includes a first opening 238 through which air flows. In addition, the gear tooth 242 of the filter unit 240 passes through the first opening 238 while the second housing 237 is coupled to the first housing 231. Protrudes outward. A second opening 232 is formed in the first housing 231 for the air passing through the filter unit 240 to flow. In a state where the filter unit 240 is accommodated in the housing 230, the housing 230 is selectively accommodated in the filter mounting unit 210.

When the housing 230 is accommodated in the filter mounting unit 210, the gear teeth 242 of the filter unit 240 protruding outward of the housing 230 are engaged with the gear 420. In addition, the first housing 231 is formed with a handle 234 for the user to easily grip. At this time, in order to prevent movement of the housing 230 in a state where the housing 230 is accommodated in the filter mounting unit 210, a first guide part 217 is formed in the filter mounting unit 210. The first housing 231 is formed with a second guide portion 236 for insertion into the first guide portion 217. The Hall sensor 262 is aligned with the first sensor 231 and the second housing 237 when the Hall sensor 262 and any one magnetic member 244 are aligned while the filter unit 240 is rotated. Holes 235 and 239 are formed to easily detect the magnetism of the magnetic member 244.

Meanwhile, referring to FIG. 5, the inner space of the filter mounting unit 210 is divided up and down based on the partition ribs 213 and 213a. A portion (first filter) of the filter 246 is located in the upper space 214a, and another portion (second filter) of the filter 246 is located in the lower space 214b. Then, the air discharged from the dust separation device 10 is introduced into the upper space 214a through the inlet 211 of the filter mounting unit 210 to pass through only the first filter 246a. Air introduced into the purification device 20 passes through a portion of the filter 246. At this time, unless the discharge duct 215 and the guide tube 60 communicate with each other, since the suction force of the suction motor hardly acts on the lower space 214b, air flow in the lower space 214b does not occur. Practically not occurring. Here, the upper space 214a serves to connect the inlet 211 and the outlet 212 of the filter mounting unit 210, so that the upper space 214a may be referred to as a connection flow path.

Meanwhile, a plurality of vibration damping members 218 are formed on the surface 210a on which the inlet 211 of the filter mounting portion 210 is formed. The vibration damping member 218 protrudes from the surface 210a toward the filter unit 240 and is in contact with the filter 246. Therefore, dust of the filter 246 is removed by friction between the filter 246 and the vibration damping member 218 in the process of rotating the filter unit 240. The dust removed from the filter 246 is stored in the lower space 214b. That is, the damping member 218 is located below the compartment ribs 213 and 213a.

8 is a vertical sectional view showing a state in which the dust collecting container according to the first embodiment is mounted on the mounting portion, and FIG. 9 is a horizontal sectional view of the dust collecting container according to the first embodiment.

8 and 9, the dust collecting container 120 defines a dust storage unit 121 in which dust is stored. In addition, the dust storage unit 121 is provided with a pressing member 150 for compressing the stored dust to be movable. The pressure member 150 includes a pressure plate 152 for compressing dust and a rotation shaft 154 integrally formed with the pressure plate 152. The rotating shaft 154 is coupled to the fixed shaft 124 protruding upward from the bottom surface of the dust collecting container 120. The pressing member 150 is driven by the driving device 160. In detail, the driving device 160 includes a compression motor 161 provided in the mounting unit 5 and a power transmission unit for transmitting the power of the compression motor 161 to the pressing member. The power transmission unit is connected to the shaft of the compression motor 161, the drive gear 162 (also referred to as a first power transmission unit), and is connected to the pressing member 150 is driven from the drive gear 162 It includes a driven gear (164: also referred to as the second power transmission portion) that receives the. The shaft 166 of the driven gear 164 penetrates through the dust collecting container 120 at the lower side of the dust collecting container 120 and is connected to the rotating shaft 154 of the pressing member 150. Therefore, the driven gear is exposed to the outside of the dust collecting container 120. The drive gear 162 is exposed to the outside of the mounting portion 5 in a state coupled to the compression motor 161. The mounting portion 5 is formed with an opening 6 through which the drive gear 162 passes. Since the driving gear 162 is exposed to the outside of the mounting portion 5 as described above, when the dust collecting container 120 is mounted to the mounting portion 5, the driven gear 164 and the driving gear 162. Is engaged so that the pressing member 150 is rotatable.

On the other hand, the driven gear 164 is provided with a magnetic member 165. For example, the magnetic member 165 may be integrally formed by inserting injection into the driven gear 164. The inside of the mounting portion 5 is provided with a plurality of detectors for detecting the magnetic force generated by the magnetic member 165. In detail, the detection unit includes a mounting detection unit 174 for detecting the mounting of the dust collecting container 120 and a motion detection unit 176 for detecting the movement of the driven gear 164. Hall sensors may be applied to the sensing units 174 and 176. In this embodiment, since the pressing member 150 moves together with the driven gear 164, detecting the movement of the driven gear 164 may be described as detecting the movement of the pressing member 150. .

In addition, the mounting detecting unit 174 is positioned below the center of the driven gear 164 in order to detect the magnetic portion of the magnetic member 165. The motion detector 176 is spaced apart from the mounting detector 174, and detects the magnetism of part B of the magnetic member 165. Therefore, in the state in which the dust collecting container 120 is mounted on the mounting portion 5, the magnetism is always sensed by the mounting detection unit 174.

On the other hand, in the process in which the driven gear 164 is rotated, only when the magnetic member 165 is located above the motion detecting unit 176, the magnetic member 165 in the motion detecting unit 176 The magnetism is detected, and thus the movement of the driven gear 164 or the pressing member 150 can be confirmed. Detailed description thereof will be described below.

On the other hand, the connecting portion 126 is formed between the fixed shaft 124 and the suction pipe 122. The connection part 126 may be integrally formed with the fixed shaft 124 and the suction pipe 122. The connection part 126 prevents dust from passing between the fixed shaft 124 and the suction pipe 122 in the process of compressing the dust by the pressing member 150.

10 is a block diagram showing a configuration of a vacuum cleaner according to a first embodiment.

Referring to FIG. 10, the vacuum cleaner may include an operation signal input unit 70 for selecting a power (eg, strong, medium, or weak mode) of the suction motor, and a mode selection unit for selecting an operation mode of the vacuum cleaner ( 72, a controller 80 for controlling the operation of the suction motor 320, the drive motor 410, and the open / close motor 520 according to the signal input from the mode selector 72, and the filter. Rotation detection unit 260 for detecting the rotational position of the unit 240, compression motor 161 for rotating the pressing member 150, and mounting detection unit 174 for detecting the mounting of the dust collecting container And a motion detector 176 that detects the movement of the pressing member 150, a filter detector 270 that detects the mounting of the filter unit 240, and a signal generator that generates a signal to the outside of the cleaner. 180 and a dust amount display unit 190 for displaying the amount of dust stored in the dust collecting container. It is.

In detail, the operation mode includes a general cleaning mode and a filter cleaning mode. The general cleaning mode is a mode for cleaning the floor or the indoor space. In the general cleaning mode, the discharge duct 215 is closed by the opening / closing member 510. The filter cleaning mode is a mode for removing dust accumulated on the filter. In the filter cleaning mode, the discharge duct 215 is opened by the opening and closing member 510, and the filter unit 240 is rotated.

In addition, the suction motor 320 may be operated in each mode.

The compression motor 161 is preferably a motor capable of forward rotation and reverse rotation. That is, the compression motor 161 may be a motor capable of bidirectional rotation. Accordingly, the pressing member 150 may perform forward rotation (clockwise rotation) and reverse rotation (counterclockwise rotation). As the pressing member 150 rotates forward and reverse, the suction pipe 122 may rotate. Dust on both sides can be compressed.

As such, in order to enable forward and reverse rotation of the compression motor, a synchronous motor may be used as the compression motor. Since the synchronized motor is generally known in the motor art, a detailed description thereof will be omitted. However, it is one of the technical ideas of the present invention to enable the reverse rotation of the compression motor by the synchronized motor.

On the other hand, when the dust collecting container 120 is not mounted to the mounting portion 5, the magnetism of the magnetic member 165 is not detected by the mounting detection unit 174. In this state, when the operation signal of the suction motor 320 is input from the operation signal input unit 70, the control unit 80 causes the signal generation unit 180 to generate a dust collecting container-free signal. In addition, when the filter unit 240 is not mounted to the filter mounting unit 210, the controller 80 controls the signal generator 180 to generate a filter unit non-installation signal.

On the other hand, when the magnetism of the magnetic member 165 is sensed by the mounting detector 174 and the mounting of the filter unit 240 is detected by the filter detector 270, the controller 80 The amount of dust stored in the dust collecting container 120 is determined using the motion information of the pressing member 150 detected by the motion detecting unit 176. Then, the dust amount stored in the dust container 120 is displayed on the dust amount display unit 190. In addition, when the controller 80 determines that more than a reference amount of dust is stored, the signal generator 180 causes the dust emptying signal to be generated.

In this case, the signal generated by the signal generator 180 may be an audio signal or a visual signal, or may be a vibration transmitted directly to the user. As the signal generator 180, a speaker, an LED, a vibration motor, and the like may be used. The signal generated by the signal generator 180 may be set differently from a signal of dust emptying, a signal of not collecting a dust container, and a signal of not mounting a filter unit.

In contrast, the signal generator 180 may include a first signal generator for generating a dust collecting signal and a second signal generator for generating a dust empty signal, and a third signal generator for generating a filter unit without a filter unit. Can be configured.

11 is a view illustrating a process in which dust is compressed inside the dust collecting container.

Referring to FIG. 11, the pressing member 150 is bidirectionally rotated inside the dust collecting container 120. When the pressing member 150 is positioned at a point that is 1/2 of the maximum rotational angle of the pressing member 150 in the dust collecting container 120, the motion detecting unit 176 is the magnetic member 165. Sense the magnetism. Here, the position of the pressing member 150 when the motion detecting unit 176 detects the magnetism of the magnetic member 165 is referred to as a “reference position” for convenience of description.

In addition, in the controller 80, the time required for the pressing member 150 to return to the reference position again after rotating the clockwise direction, for example, from the reference position (TD1: first reciprocating time) and the pressing member 150. The time (TD2: second round trip time) required for returning from the reference position to the reference position after the counterclockwise rotation, for example, is sensed. That is, the controller 80 may include the timer.

As the amount of dust compressed by the pressing member 150 increases, the first round trip time TD1 and the second round trip time TD2 are gradually shortened. In the present exemplary embodiment, when one of the first round trip time TD1 and the second round trip time TD2 reaches a predetermined reference time, it is determined that the dust is sufficiently accumulated in the dust collecting container 120, and thus a dust emptying signal is generated. To be generated.

Hereinafter, the operation of the vacuum cleaner according to the present embodiment will be described.

12 is a view showing the air flow in the vacuum cleaner under the general cleaning mode, FIG. 13 is a view showing the air flow in the vacuum cleaner under the filter cleaning mode, Figure 14 is a control method of the vacuum cleaner according to the embodiment It is a flowchart explaining.

12 and 13, solid lines represent air and dotted lines represent dust.

12 and 14, the general cleaning mode is selected by the mode selection unit 72. Next, the controller 80 determines whether the suction motor operation signal is input through the operation signal input unit 70 (S10). If it is determined that the suction motor operation signal is input, it is determined whether the dust collecting container 120 is mounted (S11).

When the dust collecting container 120 is not mounted to the mounting unit 5, the magnetism of the magnetic member 165 is not detected by the mounting detecting unit 174. In this case, the controller 80 controls the signal generator 180 to generate an unmounted signal of the dust collecting container 120 (S12). In addition, the suction motor 320 maintains a stopped state.

When the suction motor operation signal is input in the state in which the dust collecting container 120 is not mounted as described above, the user can easily confirm that the dust collecting container is not mounted by informing the outside. In addition, since the operation of the suction motor is stopped while the dust collecting container 120 is not mounted, unnecessary operation of the suction motor can be prevented.

On the other hand, when the magnetism is sensed by the mounting detecting unit 174 and determines that the dust collecting container 120 is mounted, it is determined whether the filter unit 240 is mounted on the filter mounting unit 210 (S13). .

When the mounting signal of the filter unit 240 is not transmitted from the filter detector 270 to the controller 80 (or the filter unit not mounted signal is transmitted from the filter detector 270 to the controller 80). In this case, the controller 80 controls the signal generator 180 to generate a filter unit-free signal (S14).

On the other hand, when the mounting of the dust collecting container 120 and the mounting of the filter unit 240 is detected, the controller 80 causes the suction motor 320 to be turned on according to the suction power selected by the user (S15). ). When the suction motor 320 is turned on, air containing dust is sucked into the guide tube 60 by the suction force. The air containing the dust sucked into the guide tube 60 is sucked into the dust separating unit 110 through the suction pipe 122 and the suction port 112. At this time, in the general cleaning mode as described above, the discharge duct 115 is kept closed.

The air sucked into the dust separator 110 is separated from the dust during the spiral flow along the inner circumferential surface of the dust separator 110. The separated dust is moved to the dust collecting container 120 through the dust discharge unit 115. On the other hand, the air is discharged to the outside of the dust separation unit 110 through the air outlet 114 after passing through the filter member 116. In addition, the air discharged to the outside of the dust separation unit 110 is introduced into the purification apparatus 20 through the inlet 211 of the purification apparatus 20. The air introduced into the purification device 20 passes through a part of the filter 246 (first filter 246a) located in the upper space 214a of the filter mounting unit 210. The air passing through the first filter 246a is discharged to the outside of the purification apparatus 20 through the outlet 212 of the filter mounting unit 210. Air discharged to the outside of the purifying device 20 is introduced into the motor housing 310 through the inlet 312 of the motor housing 310, and after passing through the suction motor 320, It is discharged to the outside.

As the dust in the air is separated as described above and the dust is stored in the dust collecting container 120, the pressing member 150 compresses the dust stored in the dust collecting container 120. That is, the controller 80 drives the compression motor 161 to compress the dust stored in the dust collecting container 120 after the suction motor 320 is operated (S16). Here, although the compression motor 161 is described as being operated after the suction motor 320 is operated in this embodiment, the suction motor 320 and the compression motor 161 may be operated simultaneously.

In step S16, when the compression motor 161 is driven, the driving gear 162 coupled with the compression motor 161 is rotated. When the driving gear 162 is rotated, the driven gear 164 meshed with the driving gear 162 is rotated. As the driven gear 164 is rotated, the pressing member 150 rotates to compress dust.

At this time, the controller 80 checks whether the pressing member 150 is located at a reference position (S17). Since the present exemplary embodiment measures the first reciprocating time and the second reciprocating time (or the moving range of the urging member) of the urging member 150 based on the reference position of the urging member 150, the urging member ( In the initial operation of 150, it is necessary to confirm that the pressing member 150 is in the reference position. The time when the pressing member 150 is positioned at the reference position for the first time is a time when the motion detecting unit 176 detects the magnetism of the magnetic member 165 for the first time during the initial operation of the compression motor 161. . Accordingly, the controller 80 may determine whether the motion detector 176 detects the magnetism of the magnetic member 165 for the first time. The first reciprocating time TD1 or the second of the pressing member 150 may be adjusted. The round trip time TD2 is measured (S18).

Here, as the amount of dust compressed in the dust collecting container 120 by the pressing member 150 increases, the left and right reciprocating rotation time of the pressing member 150 is shortened. The controller 80 determines whether the first round trip time TD1 or the second round trip time TD2 has reached a reference time (S19). Here, the reference time is a time set by the designer in the control unit 80 itself, which is the basis for determining that a predetermined amount or more of dust accumulated in the dust collecting container 120. The reference time is obtained by a designer repeating the test several times and depends on the capacity of the vacuum cleaner.

In the present embodiment, when either the first round trip time TD1 or the second round trip time TD2 reaches the reference time (when the reference time is less than or equal to), the amount of dust is required (dust emptying is required). Amount of money). On the contrary, when both the first round trip time TD1 and the second round trip time TD2 reach the reference time, it may be determined that the amount of dust has reached a predetermined amount (a quantity required for dust emptying).

As a result of the determination in step S19, when any one of the first round trip time TD1 and the second round trip time TD2 is longer than the reference time, the process returns to step S16 to perform the previous process. On the other hand, when the first round trip time TD1 or the second round trip time TD2 reaches the reference time, the controller 80 controls the signal generator 180 to generate a dust empty signal (S20). .

In addition, the control unit 80 turns off the suction motor 320 so that dust is no longer sucked (S21). Here, if the suction of dust continues in a state in which the amount of dust accumulated in the dust collecting container 120 exceeds a predetermined amount, not only the dust suction efficiency is lowered but also the overloading of the suction motor 320, the suction motor 320 is to be stopped. In addition, the control unit 80 causes the compression motor 161 to be turned off (S22).

Meanwhile, the filter cleaning mode will be described with reference to FIG. 12.

When the filter cleaning mode is selected, the filter cleaning mode is selected in the first case in which the filter cleaning mode is selected during the normal cleaning mode, and in a state in which the normal cleaning mode is completed and the suction motor 320 is stopped (stop mode). It may be divided into a second case and a third case in which the filter cleaning mode is selected before the user selects the normal cleaning mode.

In the first case, since the suction motor 320 is operating, when the filter cleaning mode is selected, the suction motor 320 is first stopped, rotation of the filter unit 240 and opening of the discharge duct 215 are performed. After this is completed, the suction motor 320 is restarted. At this time, when the suction motor 320 is stopped, the compression motor 161 is stopped together, and when the suction motor 320 is restarted, the compression motor 161 is also restarted together.

In contrast, in the first case, the filter unit 240 may be rotated and the discharge duct 215 may be opened while the suction motor 320 is operating. At this time, the compression motor 161 is also maintained in an operating state.

On the other hand, in the second and third cases, since the suction motor 320 is stopped, the suction motor 320 operates after the rotation of the filter unit 240 and the opening of the discharge duct 215 are completed. Can be.

Hereinafter, as an example, a case in which the filter cleaning mode is selected while the suction motor 320 is stopped will be described.

When the filter cleaning mode is selected by the mode selection unit 72 while the filter unit 240 is detected by the filter detection unit 270, the filter unit 240 is driven by the driving device 40. It is rotated in one direction.

When the magnetism of any one of the plurality of magnetic members 244 is detected by the rotation detector 260 while the filter unit 240 is rotated in one direction, the rotation detector 260 Transmits a stop signal to the controller 80. Then, the operation of the drive motor 410 is stopped. Here, as described above, the state in which the magnetism of the magnetic member 244 is detected by the rotation detecting unit 260 is that the filter unit 240 is rotated 180 degrees.

When the filter unit 240 is rotated 180 degrees, the first filter 246a located in the upper space 214a moves to the lower space 214b, and the second filter 246b located in the lower space Moves to the upper space 214a. Here, since the lower space 214b is a space in which the filter is damped by the damping member, the lower space 214b may be referred to as a cleaning space. In addition, since the lower space 214b is a space where dust removed from the filter unit is collected (or temporarily stored), the lower space 214b may be referred to as a collection space.

In the process of moving the first filter 246a to the lower space 214b, the dust of the first filter 246a is removed by the damping member 218. In addition, the dust removed from the first filter 246a falls downward.

After the rotation of the filter unit 240 is completed, the discharge duct 215 is opened by the rotation of the opening / closing member 510 to discharge the dust dropped in the lower space 214b. When the discharge duct 215 is opened, the discharge duct 215 and the guide tube 60 is in communication. After the opening of the discharge duct 215 is completed, the suction motor 320 is operated to generate a suction force. At this time, the compression motor 161 operates in conjunction with the operation of the suction motor 320.

When the suction motor 320 is operated, since the lower space 214b of the filter mounting unit 210 communicates with the guide tube 60 by the discharge duct 215, the suction force of the suction motor 320 is increased. The lower space 214b of the filter mounting unit 210 acts. Then, the dust in the lower space 214b is introduced into the guide tube 60 through the discharge duct 215 together with the air by the suction force. At this time, some dust not removed from the filter located in the lower space can be removed from the filter by the suction force.

In addition, the air introduced into the guide tube 60 flows through the dust separator 10 and passes through a filter located in the upper space 214a and then flows into the motor housing 310. On the other hand, the dust introduced into the guide tube 60 is stored in the dust collecting container 120 after being separated from the air in the dust separator 10. In addition, the dust stored in the dust collecting container 120 is compressed by the pressing member 150. At this time, the opening and closing member 510 blocks the flow path of the guide tube 60 as shown in FIG. 12, so that air outside the cleaner body is not introduced into the guide tube 60.

In the filter cleaning mode, the controller 80 determines whether dust discharge to the lower space is completed. For example, it may be determined that the filter cleaning mode is completed when the operation time of the suction motor 320 reaches the reference time T1. When it is determined that the filter cleaning mode is completed, the operation of the suction motor 320 is stopped. In addition, the opening / closing member 510 is rotated by the opening / closing motor 520 to close the discharge duct 215. In addition, when the pressing unit 514 presses the micro switch 530 while the open / close motor 520 is rotated, the operation of the open / close motor 520 is stopped by the controller 80.

According to the present embodiment as described above, since the dust of the filter unit 240 is firstly removed by the damping member and automatically removed by the suction force of the suction motor 320, the user cleans the filter unit 240. The hassle of removing the filter from the main body and cleaning the filter directly is eliminated.

In addition, since the dust removed from the filter is discharged from the filter mounting unit 210 and stored in the dust collecting container, the accumulation of dust inside the purification device is prevented.

In addition, since the dust stored in the dust collecting container is automatically compressed by the pressing member, the dust collecting capacity of the dust collecting container can be maximized.

In the present embodiment, the rotation of the filter unit (that is, the filter cleaning) is determined by the user's mode selection. Alternatively, the rotation of the filter unit may be determined according to the current value of the suction motor. For example, when a lot of dust accumulates in the first filter 246a located in the upper space 214a, since the air does not easily pass through the first filter 246a, the current of the suction motor 320 is increased. . Therefore, when the current of the suction motor 320 reaches a predetermined value, the filter unit 240 may be rotated.

15 is a perspective view showing a purification apparatus according to the second embodiment, and FIG. 16 is a cross-sectional perspective view of the purification apparatus according to the second embodiment.

This embodiment is the same as the first embodiment in other parts, except that there is a difference in the structure of the purification device. Therefore, hereinafter, only characteristic parts of the present embodiment will be described.

15 and 16, the purification apparatus 700 of the present embodiment includes a filter unit 730, a housing 720 protecting the filter unit 730, and a filter in which the housing 720 is accommodated. A mounting portion 710, a cover 750 rotatably coupled to an upper side of the filter mounting portion 710 to selectively open and close the filter mounting portion 710, and a vibration suppression to remove dust from the filter unit 730. Device 740 is included.

In detail, the filter mounting part 710 is formed with an inlet 711 through which the air discharged from the dust separator 10 flows, and an outlet 712 through which the air passing through the filter unit 730 is discharged. do. In addition, a discharge duct 715 defining a discharge flow path 716 is formed at a surface where the inlet 711 of the filter mounting part 710 is formed. The discharge duct 715 is selectively communicated with the guide tube 60 by the opening and closing device 50 described in the first embodiment. In addition, the filter mounting unit 710 is provided with a filter detecting unit 760 for detecting the mounting of the filter unit 730.

The housing 720 may include a first housing 721 in which the filter unit 730 is seated, and the first housing 721 in a state in which the filter unit 730 is seated in the first housing 721. Included is a second housing 725 coupled to. The second housing 725 includes a first opening 726 through which air flows. The first housing 231 is formed with a second opening 722 for flowing air passing through the filter unit 730. The filter unit 730 includes a filter casing 731 and a filter 734 seated on the filter casing 731. The filter casing 731 is formed with a hole 732 through which air passes.

The vibration damping device 740 is rotatably coupled to the filter mounting part 710. The filter mounting portion 710 is formed with a guide rib 714 for guiding the rotation of the vibration suppression device 740. In addition, the vibration isolator 740 is rotated by the driving device 900. The driving device 900 may operate independently of the suction motor 320 and the compression motor 161. The vibration damping device 740 is formed in a disc shape, and a plurality of holes 742 are formed through which air passes. In addition, a plurality of gear teeth 746 (also referred to as a connection part) for connecting to the driving device 900 are formed around the vibration damping device 740. In addition, a plurality of vibration damping members 744 are formed in the vibration damping apparatus 740 to remove dust from the filter 734. The plurality of vibration damping members 744 protrude toward the filter 734 from the vibration suppression apparatus 740 and contact the filter 734. Therefore, when the vibration damping device 740 is rotated, the dust of the filter 734 is removed by the vibration damping member 744, and the removed dust is stored inside the filter mounting part 710.

The driving device 900 includes a driving motor 910 and a gear 920 connected to the shaft of the driving motor 910. The gear 920 penetrates through the filter mounting part 710 and engages with the gear tooth 746. On the other hand, in the state in which the filter unit 730 is drawn out from the filter mounting unit 710, the internal space of the filter mounting unit 710 may be partitioned up and down by the partition device 800. The partition device 800 may include a driving motor 810 positioned outside the filter mounting unit 710 and a partition member 820 connected to the driving motor 810 and positioned inside the filter mounting unit 710. Included. The partition member 820 includes a rotation shaft 821. The rotation shaft 821 is rotatably coupled to the filter mounting part 710, and a part of the rotation shaft 821 protrudes out of the filter mounting part 710 through the filter mounting part 710. In addition, the driving motor 810 is connected to the rotating shaft 821 protruding outside the filter mounting part 710. In the state where the partition member 820 partitions the inner space of the filter mounting part 710, the discharge duct 715 and the guide tube 60 communicate with each other. Therefore, the suction force generated by the suction motor 320 acts on the lower space of the filter mounting part 710 so that the dust stored in the lower space of the filter mounting part 710 is discharged from the filter mounting part 710.

Hereinafter, the operation of the purification device will be described.

First, the general cleaning mode will be described. In the general cleaning mode, the discharge duct 715 is kept closed by the switchgear 50.

When the suction motor 320 is turned on while the dust collecting container is mounted on the mounting unit and the filter unit 230 is mounted on the filter mounting unit 710, air containing dust outside the cleaner is sucked by the suction force. It is sucked into the guide tube 60. Air containing dust sucked into the guide tube 60 is sucked into the dust separating unit 110 through the suction pipe 122 and the suction port 112. The air sucked into the dust separator 110 is separated from the dust during the spiral flow along the inner circumferential surface of the dust separator 110. The separated dust is moved to the dust collecting container 120 through the dust discharge unit 115. On the other hand, dust and air are discharged to the outside of the dust separation unit 110 through the air outlet 114. In addition, the air discharged to the outside of the dust separation unit 110 is introduced into the purification apparatus 700 through the inlet 711 of the purification apparatus 700. Air introduced into the purification apparatus 700 may pass through the filter 734. And, the air passing through the filter 734 is discharged to the outside of the purifying device 700 through the outlet 712 of the filter mounting portion 710. Air discharged to the outside of the purification apparatus 700 is introduced into the motor housing 310 through the inlet 312 of the motor housing 310, and after passing through the suction motor 320, It is discharged to the outside.

Next, the filter cleaning mode will be described.

When the filter cleaning mode is selected, the filter cleaning mode is selected in the first case in which the filter cleaning mode is selected during the normal cleaning mode, and in a state in which the normal cleaning mode is completed and the suction motor 320 is stopped (stop mode). It may be divided into a second case and a third case in which the filter cleaning mode is selected before the user selects the normal cleaning mode.

In the first case, the vibration damping device 740 may be rotated when the suction motor 320 is operated, or may be rotated after the suction motor 320 is stopped. When the vibration isolator 740 is rotated after the suction motor 320 is stopped, the vibration isolator 740 is stopped after being operated for a predetermined time (or after being rotated by an angle), and the vibration isolator 740 is provided. After the stop, the suction motor 320 may be operated again. In the second and third cases, since the suction motor 320 is stopped, the vibration isolator 740 is stopped after being operated for a predetermined time (or after being rotated by an angle).

In the present embodiment, the filter duct 215 maintains the discharge duct closed. In each case, when the damping device 740 is rotated, the dust of the filter 734 is removed by the damping member 744, and the dust removed from the filter 734 is removed from the filter mounting part 710. It is stored inside the bottom.

Next, the dust discharge mode will be described.

Since the dust removed from the filter 734 is stored in the lower side of the filter mounting part 710, discharge of the stored dust is required. In this embodiment, the dust stored in the filter mounting unit 710 is automatically discharged. In detail, when the filter unit 730 is detached from the filter mounting unit 710, the filter unit no signal is transmitted from the filter detection unit 760 to the controller 80.

In this state, when the dust discharge mode is selected, the controller 80 allows the driving motor 810 and the open / close motor 520 to operate. Then, the partition member 820 is rotated in one direction so that the inner space of the filter mounting part 710 is partitioned up and down. That is, the inner space of the filter mounting part 710 is partitioned into an upper space and a lower space by the partition member 820. At this time, the dust removed from the filter 734 is of course stored in the lower space. The opening and closing member 510 opens the discharge duct 715 so that the discharge duct 715 and the guide tube 60 communicate with each other. After the driving motor 810 and the opening / closing motor 520 are stopped, the controller allows the suction motor 320 to operate. At this time, the compression motor 161 may be operated together with the suction motor 320 or may be stopped. When the suction motor 320 is operated, the suction force generated by the suction motor 320 acts as the lower space. Then, the dust in the lower space is discharged to the discharge duct 215 together with the air. Dust and air discharged to the discharge duct 215 is moved to the dust separation unit 110 along the guide tube 60. In addition, the air moved to the dust separator 110 moves to the suction motor 320 after flowing through the upper space. On the other hand, the dust moved to the dust separation unit 110 is stored in the dust collecting container 120.

When the suction motor 320 is turned on and a predetermined time elapses, the suction motor 320 is turned off, and the partition member 820 is rotated in the other direction by the driving motor 810.

17 is a perspective view illustrating an internal configuration of a cleaner body according to a third embodiment, FIG. 18 is a perspective view of a purification device according to a third embodiment, and FIG. 19 is a cross-sectional perspective view of the purification device according to a third embodiment.

This embodiment is the same as the first embodiment in other parts, except that the filter unit is manually rotated. Therefore, hereinafter, detailed descriptions of components having the same structure and function as those of the first embodiment will be omitted, and only characteristic portions of the present embodiment will be described.

17 to 19, the main body of the vacuum cleaner according to the present embodiment includes a suction motor assembly 1030 that generates suction force and a dust separator 1010 that separates dust from air and stores separated dust. And, a purifying device 1100 for filtering the air discharged from the dust separation device 1010 is included.

The purifier 1100 includes a filter mounting unit 1110, a cover member 1150 covering an upper side of the filter mounting unit 1110, and a filter unit 240 selectively accommodated in the filter mounting unit 1110. An operation unit 1200 for rotating the filter unit 240 by a user's operation is included. Since the structure of the filter unit of this embodiment is the same as that of the filter unit of the first embodiment, the same reference numerals will be used.

The operation unit 1200 is coupled to the upper side of the cover 1150. The operation unit 1200 includes an operation member 1210, a first transmission part 1212 coupled to the operation member 1210, and an operation force of the operation member 1210 from the first transmission part 1212. A second delivery unit 1213 receiving the transmission, and a case 1220 to cover the first transmission unit 1212 and the second transmission unit 1213. In detail, the case 1220 is detachably coupled to the cover 1150. The operation member 1210 penetrates through one surface of the case 1220, and a guide hole 1222 is formed to guide the movement of the operation member 1210. The operation member 1210 is connected to the first transfer part 1212 through the guide hole 1222. The guide hole 1222 is elongated in the left and right directions of the case 1220. For example, a rack gear may be used as the first transfer unit 1212. In the present embodiment, the first transfer part 1212 may be formed of a bendable material.

The second transmission part 1213 is formed integrally with the first gear 1214 and the first gear 1214 connected to the first transmission part 1212, and has a diameter of the first gear 1214. The second gear 1215 is formed larger than the diameter of the). The second gear 1215 penetrates through a hole 1152 formed in the cover 1150. In addition, while the cover 1150 is rotated to shield the filter mounting unit 1110, a part of the second gear 1215 may be a gear tooth 242 of the filter casing 241 located at the filter mounting unit 1110. )

Therefore, the filter unit 240 is rotated while the user moves the operation member 1210 to the left or right, and dust of the filter 246 is rotated by the rotation of the filter unit 240. 218: see FIG. 7). At this time, when the operation member 1210 is moved from one end of the guide hole 1212 to the other end, the filter unit 240 is rotated 180 degrees.

The operation mode of the vacuum cleaner of the present embodiment includes a general cleaning mode and a dust discharge mode. The general cleaning mode is a mode for cleaning the floor or the indoor space, and the dust discharge mode is removed from the filter 246 to discharge dust accumulated in the lower space of the filter mounting portion from the filter mounting portion 1110. Mode.

In the general cleaning mode of this embodiment, the operation of the suction motor and the compression motor are the same as in the first embodiment, except that the user rotates the filter unit 240 by operating the operation member 1210 in the general cleaning mode. Thus, the dust of the filter 246 can be removed by the vibration damping member 218 (see FIG. 7).

Since the dust discharge mode is the same as the rest of the process after the filter unit 240 is rotated in the filter cleaning mode of the first embodiment, a detailed description thereof will be omitted.

20 is a perspective view showing a purification apparatus according to a fourth embodiment, and FIG. 21 is a cross-sectional perspective view of the purification apparatus according to the fourth embodiment.

20 and 21, the purification apparatus of the present embodiment includes a filter mounting unit 1110, a filter unit 730 selectively mounted on the filter mounting unit 1110, and an upper side of the filter mounting unit 1110. An operation unit 1200 for rotating the vibration suppressing apparatus 740 provided in the cover member 1150, the cover member 1150, the filter mounting part 1110 inside the cover member 1150, and the filter mounting part ( A partitioning device 800 that selectively partitions the internal space of 1110 up and down is included.

Since the filter unit 730, the vibration suppression apparatus 740, and the partition apparatus 800 of this embodiment have the same structure as described in the second embodiment, the same reference numerals as those used in the second embodiment will be used. . Since the filter mounting unit 1110, the cover member 1150, and the operation unit 1200 of the present embodiment have the same structure as in the third embodiment, the same reference numerals as those used in the third embodiment will be used.

A feature of this embodiment is that the vibration damping unit 740 is manually rotated by the operation unit 1200.

Claims (13)

A cleaner body provided with a suction motor; A dust collecting container detachably mounted to the cleaner body; A filter unit provided on an upstream side of the suction motor; Vibration damping means for removing dust from the filter unit; And And a collecting space for collecting dust from which the filter unit is removed from the dust removing means. Either the filter unit or the vibration damping member is rotatable, and dust of the filter unit is removed by the vibration damping member in a rotation process, And said collection space is in selective communication with said dust collection container. The method of claim 1, The cleaner body includes a filter mounting unit to which the filter unit is mounted, The filter mount defines the collection space, The vacuum cleaner, wherein the vibration isolator means is located inside the filter mounting portion. The method of claim 2, A driving device for automatically rotating the filter unit is further included, The drive device includes a motor provided on the outside of the filter mounting portion, a power transmission portion for transmitting the power of the motor to the filter unit, and inserted into the filter mounting portion, The filter unit is a vacuum cleaner including a connection for selectively connecting with the power transmission. The method of claim 3, wherein A rotation detector for detecting a rotation position of the filter unit; And And a controller configured to control an operation of the driving device in response to detection information of the rotation detector. The method of claim 2, An operation device for manually rotating the filter unit while the filter unit is mounted on the filter mounting part, And said operating device includes an operating member and at least one transmission unit for transmitting said operating member and operating force to said filter unit. The method of claim 2, A driving device for automatically rotating the vibration damping means is further included. The drive device includes a motor provided on the outside of the filter mounting portion, a power transmission portion for transmitting the power of the motor to the vibration suppression means and inserted into the filter mounting portion, The vibration isolator means a vacuum cleaner including a connection for selectively connecting with the power transmission. The method of claim 2, An operation device for manually rotating the vibration damping means, And said operating device includes an operating member and at least one transmission unit for transmitting said operating member and operating force to said filter unit. The method of claim 2, A discharge flow path through which the dust removed from the filter unit flows, The vacuum cleaner further comprises an opening and closing device for opening and closing the discharge passage. The method of claim 8, It is provided on the upstream side of the filter unit further comprises a dust separation unit for separating the dust in the air, And a connecting flow passage for connecting the dust separating portion and the suction motor to the filter mounting portion, and a partition rib for partitioning the filter mounting portion space into the collection space. The method of claim 9, And when the discharge passage communicates with the dust collecting container, dust in the collection space moves to the dust collecting container through the dust separating unit. The method of claim 9, The filter unit includes a first filter located in the connection channel and a second filter located in the collection space, And the discharge passage communicates with the dust collecting container, and the air in the collection space moves to the suction motor side through the dust discharge portion and the connection passage. The method of claim 8, Further comprising a partition device for selectively partitioning the inner space of the filter mounting portion, With the filter unit separated from the filter mounting portion, the partitioning device partitions the filter mounting portion, The opening and closing device opens the discharge passage, And said suction motor is operable with said filter unit detached from said filter mounting portion. The method of claim 2, A filter detector for detecting mounting of the filter unit; A pressing member for compressing the dust stored in the dust collecting container, A driving device for driving the pressing member is included, And a vacuum cleaner capable of operating the driving device in a state where a filter is detected by the filter detector.

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