CN215272471U

CN215272471U - Vibratile mop and automatic cleaning equipment

Info

Publication number: CN215272471U
Application number: CN202120375466.5U
Authority: CN
Inventors: 于光
Original assignee: Beijing Rockrobo Technology Co Ltd
Current assignee: Beijing Rockrobo Technology Co Ltd
Priority date: 2021-02-10
Filing date: 2021-02-10
Publication date: 2021-12-24
Anticipated expiration: 2031-02-10

Abstract

The present invention provides a vibratable mop and an automatic cleaning device, the vibratable mop comprises a movable area 412 and a fixed area 411, the movable area 412 and the fixed area 411 are connected by a flexible connection 413, wherein the movable area 412 can move substantially reciprocally with respect to the fixed area 411. Since the movable region of the vibratable mop is capable of substantially reciprocating with the vibrating device, a region can be repeatedly cleaned.

Description

Vibratile mop and automatic cleaning equipment

Technical Field

The invention relates to the technical field of cleaning robots, in particular to a vibratable mop and automatic cleaning equipment.

Background

The cleaning robot mainly comprises a sweeping robot and a mopping robot, and the sweeping robot and the mopping robot have single functions, and can only sweep or mop. If the user wants to sweep and mop the floor simultaneously, two sets of equipment must be prepared simultaneously, and due to the fact that the structural design is unreasonable, double space is occupied, and arrangement of other parts is affected.

In the prior art, the mop for the cleaning robot is a single structural material, and the mop cleans an operation surface along with the movement of the cleaning robot. However, the mop with a single structure can only perform passive cleaning along with the movement of the cleaning robot, and cannot effectively clean areas with more stains or stains which are difficult to remove.

Disclosure of Invention

The invention aims to provide a vibratable mop and automatic cleaning equipment, which can solve one of the technical problems. The specific scheme is as follows:

according to a particular embodiment of the invention, the invention provides a vibratable mop, comprising a movable area 412 and a fixed area 411, the movable area 412 and the fixed area 411 being connected by a flexible connection 413, wherein the movable area 412 is substantially reciprocally movable with respect to the fixed area 411.

Optionally, the method further includes: a slide fastener 414 extending along the shakable mop edge for securing the shakable mop.

Optionally, the vibratable mop cloth is provided with at least one adhesive area on its back side.

Optionally, the pasting area is located on the back of the fixed area 411 and/or the movable area 412.

Optionally, a side of the active area 412 in contact with the operation surface includes a relief structure that cleans at least a portion of the operation surface when the active area 412 is substantially reciprocated.

Optionally, the active area 412 is a rectangular, circular or semi-circular structure.

Optionally, the vibratable mop cloth is of a single-layer structure or a multi-layer structure.

There is also provided, in accordance with an embodiment of the present invention, an automatic cleaning apparatus, including,

a mobile platform 100 configured to automatically move on an operation surface;

the cleaning module 150, disposed on the mobile platform 100, includes:

a dry cleaning module 151 configured to clean at least a portion of the operation surface by a dry cleaning method;

a wet cleaning module 400 configured to clean at least a portion of the operating surface using a wet cleaning method; wherein the wet cleaning module 400 comprises:

a cleaning head 410 for cleaning the worktop, and,

a drive unit 420 for driving the cleaning head 410 to substantially reciprocate along a target surface, which is a part of the operating surface,

wherein the cleaning head 410 comprises a shakable swab as described in any of the above.

Optionally, the driving unit 420 includes:

a driving platform 421 connected to the bottom surface of the moving platform 100 for providing a driving force;

and a supporting platform 422 detachably connected to the driving platform 421, for supporting the cleaning head 410, and being capable of lifting under the driving of the driving platform 421.

Optionally, the support platform 422 includes at least one mounting region 4224 for mounting the cleaning head 410.

Compared with the prior art, the embodiment of the invention has the following technical effects:

the invention provides a vibratable mop and an automatic cleaning device, wherein the vibratable mop comprises a movable area and a fixed area, the movable area and the fixed area are connected through a flexible connecting part, and the movable area can move back and forth relative to the fixed area. Since the movable region of the vibratable mop is capable of substantially reciprocating with the vibrating device, a region can be repeatedly cleaned.

Drawings

The accompanying drawings, which are incorporated in and constitute a part of this specification, illustrate embodiments consistent with the invention and together with the description, serve to explain the principles of the invention. It is obvious that the drawings in the following description are only some embodiments of the invention, and that for a person skilled in the art, other drawings can be derived from them without inventive effort. In the drawings:

fig. 1 is an oblique view of an automatic cleaning apparatus according to an embodiment of the present invention.

Fig. 2 is a schematic view of a bottom structure of the automatic cleaning apparatus according to an embodiment of the present invention.

FIG. 3 is an oblique view of a one side drive wheel assembly of one embodiment of the present invention.

FIG. 4 is a front view of a one side drive wheel assembly of one embodiment of the present invention.

FIG. 5 is an oblique view of a dust box of one embodiment of the present invention.

FIG. 6 is an oblique view of a blower of one embodiment of the present invention.

Fig. 7 is a schematic view showing an opened state of the dust box according to the embodiment of the present invention.

Fig. 8 is a schematic view of a dust box and fan combination according to an embodiment of the present invention.

Figure 9 is an exploded view of an automatic cleaning device according to one embodiment of the present invention.

Figure 10 is a block diagram of a robotic cleaning device support platform according to one embodiment of the present invention.

FIG. 11 is a block diagram of a vibrating member of an automatic cleaning apparatus according to an embodiment of the present invention.

FIG. 12 is a schematic view of a cleaning head drive mechanism based on a slider-crank mechanism according to another embodiment of the present invention.

Fig. 13 is a schematic view of a cleaning head driving mechanism based on a double crank mechanism according to another embodiment of the present invention.

Figure 14 is a schematic view of a cleaning head drive mechanism based on a crank mechanism according to another embodiment of the present invention.

FIG. 15 is a block diagram of a vibrating member according to an embodiment of the present invention.

FIG. 16 is a schematic view of a clean substrate assembly according to one embodiment of the invention.

Fig. 17 is a block diagram of a motor-driven clean water pump according to an embodiment of the present invention.

Fig. 18 is a structural view of a motor-driven lifting module according to an embodiment of the present invention.

Fig. 19 is a schematic view of a raised state of the automatic cleaning apparatus according to an embodiment of the present invention.

Fig. 20 is a schematic view illustrating a sinking state of the automatic cleaning apparatus according to an embodiment of the present invention.

Fig. 21 is a schematic diagram of a four-bar linkage lifting mechanism according to an embodiment of the present invention in a lifted state.

Fig. 22 is a schematic view of a sunken state of the four-bar linkage lifting structure according to an embodiment of the present invention.

Fig. 23 is a schematic view of a dry cleaning module in a submerged state according to an embodiment of the present invention.

FIG. 24 is a schematic view of a dry cleaning module in an elevated state according to an embodiment of the present invention.

Description of reference numerals:

the mobile platform 100, the rear portion 110, the front portion 111, the sensing system 120, the position determining device 121, the buffer 122, the cliff sensor 123, the control system 130, the driving system 140, the driving wheel assembly 141, the steering assembly 142, the elastic element 143, the driving motor 146, the cleaning module 150, the dry cleaning module 151, the dust box 152, the filter screen 153, the dust suction opening 154, the air outlet 155, the fan 156, the energy system 160, the human-computer interaction system 170, the wet cleaning assembly 400, the cleaning head 410, the driving unit 420, the driving platform 421, the supporting platform 422, the motor 4211, the driving wheel 4212, the vibration piece 4213, the connecting rod 4214, the vibration buffering device 4215, the claw 4216, the clean water pump tube 4218, the clean water pump 4219, the cleaning base plate 4221, the elastic disassembly button 4229, the assembly area 4224, the clamping position 4225, the first sliding groove 4222, the second sliding groove 4223, the first sliding block 525, the second sliding block 528, the rotating end 512(4227), The sliding end 514(4226), the first pivot 516(624), the second pivot 518(626), the driving mechanism 800(600, 700), the four-bar linkage lifting structure 500, the first connecting end 501, the second connecting end 502, the first bracket 5011, the first connecting bar pair 5012, the first connecting bar 50121, the second connecting bar 50122, the power assembly 5013, the motor 50131, the cable 42194, the cable motor terminal 50131, the cable bracket terminal 50132, the beam 50111, the sliding slot 50112, the through hole 50113, the first longitudinal beam 50114, the second longitudinal beam 50115, the second bracket 5021, the second link pair 5022, the third link 50221, the fourth link 50222, the floating lifting structure 600, the first fixed bracket 601, the second fixed bracket 602, the link pair 603, the first link pair 6031, the second link pair 6032, the first link 60311, the second link 60312, the third link 60321, the fourth link 60322, the first fixing portion 6011, and the second fixing portion 6012.

Detailed Description

In order to make the objects, technical solutions and advantages of the present invention clearer, the present invention will be described in further detail with reference to the accompanying drawings, and it is apparent that the described embodiments are only a part of the embodiments of the present invention, not all of the embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.

The terminology used in the embodiments of the invention is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention. As used in the examples of the present invention and the appended claims, the singular forms "a", "an", and "the" are intended to include the plural forms as well, unless the context clearly indicates otherwise, and "a plurality" typically includes at least two.

It should be understood that the term "and/or" as used herein is merely one type of association that describes an associated object, meaning that three relationships may exist, e.g., a and/or B may mean: a exists alone, A and B exist simultaneously, and B exists alone. In addition, the character "/" herein generally indicates that the former and latter related objects are in an "or" relationship.

It should be understood that although the terms first, second, third, etc. may be used to describe embodiments of the present invention, these should not be limited to these terms. These terms are only used to distinguish one from another. For example, a first may also be referred to as a second, and similarly, a second may also be referred to as a first, without departing from the scope of embodiments of the present invention.

It is also noted that the terms "comprises," "comprising," or any other variation thereof, are intended to cover a non-exclusive inclusion, such that an article or apparatus that comprises a list of elements does not include only those elements but may include other elements not expressly listed or inherent to such article or apparatus. Without further limitation, the recitation of an element by the phrase "comprising a" does not exclude the presence of additional like elements in a commodity or device comprising the element.

Alternative embodiments of the present invention are described in detail below with reference to the accompanying drawings.

Example 1

Fig. 1-2 are schematic structural views illustrating an automatic cleaning apparatus, which may be a vacuum robot, a floor mopping/brushing robot, a window climbing robot, etc., as shown in fig. 1-2, according to an exemplary embodiment, and which may include a mobile platform 100, a sensing system 120, a control system 130, a drive system 140, a cleaning module 150, an energy system 160, and a human-computer interaction system 170. Wherein:

the mobile platform 100 may be configured to automatically move along a target direction on the operation surface. The operating surface may be a surface to be cleaned by the automatic cleaning device. In some embodiments, the robotic cleaning device may be a floor-mopping robot, and the robotic cleaning device operates on a floor surface, the floor surface being the operating surface; the automatic cleaning equipment can also be a window cleaning robot, and the automatic cleaning equipment works on the outer surface of the glass of the building, wherein the glass is the operation surface; the automatic cleaning device can also be a pipeline cleaning robot, and the automatic cleaning device works on the inner surface of the pipeline, wherein the inner surface of the pipeline is the operation surface. The following description in this application is given by way of example of a floor-mopping robot, purely for illustration purposes.

In some embodiments, the mobile platform 100 may be an autonomous mobile platform or a non-autonomous mobile platform. The autonomous mobile platform means that the mobile platform 100 itself can automatically and adaptively make operation decisions according to unexpected environmental inputs; the non-autonomous mobile platform itself cannot adaptively make operational decisions based on unexpected environmental inputs, but may execute established programs or operate according to certain logic. Accordingly, when the mobile platform 100 is an autonomous mobile platform, the target direction may be autonomously determined by the robotic cleaning device; when the mobile platform 100 is a non-autonomous mobile platform, the target direction may be set systematically or manually. When the mobile platform 100 is an autonomous mobile platform, the mobile platform 100 includes a forward portion 111 and a rearward portion 110.

The sensing system 120 includes a position determining device 121 located above the mobile platform 100, a buffer 122 located at the forward portion 111 of the mobile platform 100, a cliff sensor 123 and an ultrasonic sensor (not shown), an infrared sensor (not shown), a magnetometer (not shown), an accelerometer (not shown), a gyroscope (not shown), an odometer (not shown), and other sensing devices located at the bottom of the mobile platform, and provides various position information and motion state information of the machine to the control system 130.

To describe the behavior of the automatic cleaning device more clearly, the following directional definitions are made: the robotic cleaning device may travel over the floor through various combinations of movement relative to the following three mutually perpendicular axes defined by the mobile platform 100: a lateral axis x, a front-to-back axis y, and a central vertical axis z. The forward driving direction along the forward-backward axis y is denoted as "forward", and the backward driving direction along the forward-backward axis y is denoted as "backward". The transverse axis x extends between the right and left wheels of the robotic cleaning device substantially along the axis defined by the center point of the drive wheel assembly 141. Wherein the robotic cleaning device is rotatable about an x-axis. The "pitch up" is when the forward portion of the automatic cleaning apparatus is tilted upward and the rearward portion is tilted downward, and the "pitch down" is when the forward portion of the automatic cleaning apparatus is tilted downward and the rearward portion is tilted upward. Additionally, the robotic cleaning device may be rotatable about the z-axis. In the forward direction of the automatic cleaning apparatus, when the automatic cleaning apparatus is tilted to the right side of the Y axis, it turns to the right, and when the automatic cleaning apparatus is tilted to the left side of the Y axis, it turns to the left.

As shown in fig. 2, cliff sensors 123 for preventing the automatic cleaning apparatus from falling when the automatic cleaning apparatus is retreated are provided on the bottom of the moving platform 100 and in front of and behind the driving wheel assemblies 141, so that the automatic cleaning apparatus can be prevented from being damaged. The "front" means the same side with respect to the traveling direction of the automatic cleaning apparatus, and the "rear" means the opposite side with respect to the traveling direction of the automatic cleaning apparatus.

The position determining device 121 includes, but is not limited to, a camera, a laser distance measuring device (LDS).

The various components of the sensing system 120 may operate independently or together to achieve a more accurate function. The cliff sensor 123 and the ultrasonic sensor are used for identifying the surface to be cleaned so as to determine the physical characteristics of the surface to be cleaned, including the surface material, the cleaning degree and the like, and can be combined with a camera, a laser ranging device and the like for more accurate judgment.

For example, it may be determined whether the surface to be cleaned is a carpet by the ultrasonic sensor, and if the ultrasonic sensor determines that the surface to be cleaned is a carpet material, the control system 130 controls the automatic cleaning device to perform carpet mode cleaning.

The forward portion 111 of the mobile platform 100 is provided with a bumper 122, the bumper 122 detects one or more events (or objects) in the travel path of the robotic cleaning device via a sensor system, such as an infrared sensor, as the robotic cleaning device is propelled across the floor by the drive wheel assembly 141 during cleaning, and the robotic cleaning device can respond to the events (or objects), such as an obstacle, a wall, by controlling the drive wheel assembly 141 to cause the robotic cleaning device to respond to the events (or objects), such as a distance from the obstacle, as detected by the bumper 122.

The control system 130 is disposed on a circuit board in the mobile platform 100, and includes a non-transitory memory, such as a hard disk, a flash memory, a random access memory, a communication computing processor, such as a central processing unit, and an application processor, and the application processor is configured to receive sensed environmental information of the plurality of sensors from the sensing system 120, draw an instantaneous map of the environment in which the automatic cleaning apparatus is located using a positioning algorithm, such as SLAM, based on obstacle information fed back from the laser ranging device, and the like, and autonomously determine a travel path based on the environmental information and the environmental map, and then control the driving system 140 to perform operations, such as forward, backward, and/or steering, based on the autonomously determined travel path. Further, the control system 130 can also determine whether to start the cleaning module 150 for cleaning operation according to the environmental information and the environmental map.

Specifically, the control system 130 may comprehensively determine what working state the sweeper is currently in by combining the distance information and the speed information fed back by the buffer 122, the cliff sensor 123, the ultrasonic sensor, the infrared sensor, the magnetometer, the accelerometer, the gyroscope, the odometer and other sensing devices, for example, when the distance information and the speed information are passed through a threshold, the sweeper is located at the cliff, the upper carpet or the lower carpet is stuck, the dust box is full, the sweeper is taken up and the like, and further, a specific next-step action strategy is given according to different conditions, so that the work of the automatic cleaning device better meets the requirements of an owner, and better user experience is achieved. Furthermore, the control system can plan the most efficient and reasonable cleaning path and cleaning mode based on the instant map information drawn by the SLAM, and the cleaning efficiency of the automatic cleaning equipment is greatly improved.

Drive system 140 may execute drive commands to steer the robotic cleaning device across the floor based on specific distance and angle information, such as x, y, and theta components. Fig. 3 and 4 are oblique and front views of one side driving wheel assembly 141 according to an embodiment of the present invention, and as shown, the driving system 140 includes the driving wheel assembly 141, and the driving system 140 can control the left and right wheels simultaneously, and in order to control the movement of the machine more precisely, the driving system 140 preferably includes a left driving wheel assembly and a right driving wheel assembly, respectively. The left and right drive wheel assemblies are symmetrically disposed along a lateral axis defined by the mobile platform 100. The driving wheel assembly comprises a body part, a driving wheel and an elastic element, one end of the body part is connected to the frame, and the driving wheel is arranged on the body part and driven by a driving motor 146; the elastic element is connected between the body part and the frame, the elastic element is configured to provide an elastic force between the frame and the body part, the driving motor 146 is located outside the driving wheel assembly 141, the axial center of the driving motor 146 is located in the cross-sectional projection of the driving wheel, and the driving wheel assembly 141 can also be connected with a circuit for measuring the driving current and an odometer.

In order to provide more stable movement or greater mobility of the robotic cleaning device over the floor surface, the robotic cleaning device may include one or more steering assemblies 142, the steering assemblies 142 may be driven wheels or driving wheels, and the steering assemblies 142 may be configured to include, but are not limited to, universal wheels, and the steering assemblies 142 may be positioned in front of the driving wheel assemblies 141.

The drive motor 146 powers rotation of the drive wheel assembly 141 and/or the steering assembly 142.

The drive wheel assembly 141 may be removably attached to the mobile platform 100 to facilitate disassembly and maintenance. The drive wheel may have a biased drop-type suspension system movably secured, e.g., rotatably attached, to the robotic cleaning device moving platform 100 and maintained in contact with the floor and traction with a certain grounding force by a resilient element 143, such as a tension or compression spring, while the cleaning module 150 of the robotic cleaning device also contacts the surface to be cleaned with a certain pressure.

Energy source system 160 includes rechargeable batteries such as nickel metal hydride batteries and lithium batteries. The charging battery can be connected with a charging control circuit, a battery pack charging temperature detection circuit and a battery under-voltage monitoring circuit, and the charging control circuit, the battery pack charging temperature detection circuit and the battery under-voltage monitoring circuit are connected with the single chip microcomputer control circuit. The host computer is connected with the charging pile through the charging electrode arranged on the side or the lower part of the machine body for charging. If dust is attached to the exposed charging electrode, the plastic body around the electrode is melted and deformed due to the accumulation effect of electric charge in the charging process, even the electrode itself is deformed, and normal charging cannot be continued.

The human-computer interaction system 170 comprises keys on a panel of the host computer, and the keys are used for a user to select functions; the machine control system can further comprise a display screen and/or an indicator light and/or a loudspeaker, wherein the display screen, the indicator light and the loudspeaker show the current state or function selection item of the machine to a user; and a mobile phone client program can be further included. For the path navigation type cleaning equipment, a map of the environment where the equipment is located and the position of a machine can be displayed for a user at a mobile phone client, and richer and more humanized function items can be provided for the user.

The cleaning module 150 may include a dry cleaning module 151 and/or a wet cleaning module 400.

As shown in fig. 5-8, the dry cleaning module 151 includes a roller brush, a dust box, a blower, and an air outlet. The rolling brush with certain interference with the ground sweeps the garbage on the ground and winds the garbage to the front of a dust suction opening between the rolling brush and the dust box, and then the garbage is sucked into the dust box by air which is generated by the fan and passes through the dust box and has suction force. The dust removal capability of the sweeper can be represented by the sweeping efficiency DPU (dust pick up efficiency), which is influenced by the structure and the material of the rolling brush, the wind power utilization rate of an air duct formed by a dust suction port, a dust box, a fan, an air outlet and connecting parts among the dust suction port, the dust box, the fan, the air outlet and the dust box, the type and the power of the fan, and the sweeper is a complicated system design problem. Compared with the common plug-in dust collector, the improvement of the dust removal capability is more significant for cleaning automatic cleaning equipment with limited energy. Because the improvement of the dust removal capability directly and effectively reduces the energy requirement, namely the machine which can clean the ground of 80 square meters by charging once can be developed into the machine which can clean 180 square meters or more by charging once. And the service life of the battery, which reduces the number of times of charging, is also greatly increased, so that the frequency of replacing the battery by the user is also increased. More intuitively and importantly, the improvement of the dust removal capability is the most obvious and important user experience, and the user can directly draw a conclusion whether the sweeping/wiping is clean. The dry cleaning module may also include an edge brush 152 having an axis of rotation that is angled relative to the floor for moving debris into the roller brush area of the cleaning module 150.

Fig. 5 is a schematic structural view of the dust box 152 in the dry cleaning module, fig. 6 is a schematic structural view of the fan 156 in the dry cleaning module, fig. 7 is a schematic structural view of the dust box 152 in an open state, and fig. 8 is a schematic structural view of the dust box and the fan in an assembled state.

The rolling brush with certain interference with the ground sweeps up the garbage on the ground and takes the garbage in front of the dust suction opening 154 between the rolling brush and the dust box 152, then the garbage is sucked into the dust box 152 by the air which is generated by the structure of the fan 156 and passes through the dust box 152 and has suction force, the garbage is isolated inside the dust box 152 by the filter screen 153 and close to one side of the dust suction opening 154, the filter screen 153 completely isolates the dust suction opening from the air outlet, and the filtered air enters the fan 156 through the air outlet 155.

Typically, the dust collection opening 154 of the dust box 152 is located at the front of the machine, the air outlet 155 is located at the side of the dust box 152, and the air suction opening of the fan 156 is connected with the air outlet of the dust box.

The front panel of the dirt tray 152 can be opened for cleaning the dirt tray 152 of the trash.

The filter screen 153 is connected for dismantling with the box body of dirt box 152, makes things convenient for the filter screen to dismantle and wash.

According to an embodiment of the present invention, as shown in fig. 9-11, the wet cleaning module 400 is configured to clean at least a portion of the operation surface by a wet cleaning method; wherein the wet cleaning module 400 comprises: a cleaning head 410, a drive unit 420, wherein the cleaning head 410 is configured to clean at least a portion of the operative surface, and the drive unit 420 is configured to drive the cleaning head 410 to substantially reciprocate along a target surface, the target surface being a portion of the operative surface. The cleaning head 410 reciprocates along the surface to be cleaned, cleaning cloth or a cleaning plate is arranged on the surface of the contact surface of the cleaning head 410 and the surface to be cleaned, and high-frequency friction is generated between the cleaning head 410 and the surface to be cleaned through reciprocating motion, so that stains on the surface to be cleaned are removed.

The higher the friction frequency, the more the friction times in unit time, the high-frequency reciprocating motion, also called reciprocating vibration, the cleaning capacity is much higher than that of the common reciprocating motion, such as rotation and friction cleaning, and optionally, the friction frequency is close to the sound wave, and the cleaning effect is much higher than that of the rotation friction cleaning of dozens of circles per minute. On the other hand, the bristles on the surface of the cleaning head can be more neatly and neatly stretched towards the same direction under the shaking of high-frequency vibration, so that the whole cleaning effect is more uniform, the cleaning effect is not improved by only applying downward pressure to increase friction force under the condition of low-frequency rotation, the bristles cannot be stretched towards the same direction due to only downward pressure, and the effect is that the water marks on the operation surface after high-frequency vibration cleaning are more uniform, and disordered water marks cannot be left.

The reciprocating motion may be a reciprocating motion in any one or more directions in the operation surface, or may be a vibration perpendicular to the operation surface, which is not strictly limited. Optionally, the reciprocating direction of the cleaning module is approximately perpendicular to the machine traveling direction, because the reciprocating direction parallel to the machine traveling direction may cause instability to the traveling machine itself, because the driving wheels may easily slip due to thrust and resistance in the traveling direction, the effect of the slip is more obvious when a wet cleaning module is included, because the possibility of the slip is increased due to the wet slip of the operation surface, and the slip may cause inaccurate distance measurement of sensors such as odometers and gyroscopes besides affecting smooth traveling cleaning of the machine, thereby causing inaccurate positioning and mapping of the navigation type automatic cleaning device, and in case of frequent slip, the effect on SLAM may not be ignored, and therefore, the machine behavior of the slip needs to be avoided as much as possible. In addition to slippage, the component of the cleaning head motion in the direction of machine travel causes the machine to be constantly propelled forward and backward while traveling, and thus the machine travels erratically and smoothly.

As an alternative embodiment of the present invention, as shown in fig. 9, the driving unit 420 includes: a driving platform 421 connected to the bottom surface of the moving platform 100 for providing a driving force; and a supporting platform 422 detachably connected to the driving platform 421, for supporting the cleaning head 410, and being capable of lifting under the driving of the driving platform 421.

As an alternative embodiment of the present invention, a lifting module is disposed between the cleaning module 150 and the mobile platform 100 for making the cleaning module 150 contact with the surface to be cleaned better, or for cleaning the surface to be cleaned with different materials by using different cleaning strategies.

Optionally, the dry type cleaning module 151 may be connected to the mobile platform 100 through a passive lifting module, and when the cleaning device encounters an obstacle, the dry type cleaning module 151 may more conveniently pass over the obstacle through the lifting module.

Optionally, the wet cleaning module 400 may be connected to the movable platform 100 through an active lifting module, and when the wet cleaning module 400 does not work temporarily or meets a surface to be cleaned, which cannot be cleaned by the wet cleaning module 400, the wet cleaning module 400 is lifted by the active lifting module and separated from the surface to be cleaned, so as to change a cleaning method.

As shown in fig. 10 to 11, the driving stage 421 includes: a motor 4211, which is disposed on one side of the driving platform 421 close to the movable platform 100 and outputs power through a motor output shaft; the driving wheel 4212 is connected with the motor output shaft, and the driving wheel 4212 is of an asymmetric structure; and a vibration member 4213 disposed on the opposite side of the driving platform 421 to the motor 4211, connected to the driving wheel 4212, and configured to reciprocate by the asymmetric rotation of the driving wheel 4212.

The drive platform 421 may further include a gear mechanism. A gear mechanism may connect the motor 4211 and the drive wheel 4212. The motor 4211 can directly drive the driving wheel 4212 to make a rotary motion, or indirectly drive the driving wheel 4212 to make a rotary motion through a gear mechanism. One skilled in the art will appreciate that the gear mechanism may be a single gear or a gear set comprising a plurality of gears.

The motor 4211 transmits power to the cleaning head 410, the driving platform 421, the supporting platform 422, the water feeding mechanism, the water tank, etc. simultaneously through the power transmission device. The energy system 160 provides power and energy to the electric machine 4211 and is controlled as a whole by the control system 130. The power transmission device can be a gear transmission, a chain transmission, a belt transmission, a worm gear and the like.

The motor 4211 comprises a forward output mode and a reverse output mode, the motor 4211 rotates forward in the forward output mode, the motor 4211 rotates reversely in the reverse output mode, in the forward output mode of the motor 4211, the motor 4211 can simultaneously drive the driving platform vibration piece 4213 in the wet cleaning assembly 400 to do reciprocating motion and the water feeding mechanism to do synchronous motion through the power transmission device, and in the reverse output mode of the motor 4211, the motor 4211 drives the driving platform 421 to go up and down through the power transmission device.

Further, the driving platform 421 further includes: a connecting rod 4214 extending along the edge of the driving platform 421, connecting the driving wheel 4212 and the vibrating member 4213, so that the vibrating member 4213 extends to a preset position, wherein the extending direction of the vibrating member 4213 is perpendicular to the connecting rod 4214, so that the reciprocating direction of the vibrating member 4213 is substantially perpendicular to the machine traveling direction.

The motor 4211 is connected to a drive wheel 4212, a vibration member 4213, a connecting rod 4214 and a vibration damper 4215 via a power transmission device. The vibrating member 4213 and the connecting rod 4214 form an approximately L-shaped structure, and as shown in fig. 15, the vibrating member 4213 reciprocates under the driving of the connecting rod 4214. The vibration buffering device 4215 plays a role in absorbing vibration and reducing shaking for the movement driven by the driving wheel 4212, so that the vibration piece 4213 can stably vibrate within the range of the movement amplitude provided by the supporting platform 422. Optionally, the shock buffering device 4215 is made of a soft material, and optionally has a rubber structure, and the shock buffering device 4215 is sleeved on the connecting rod 4214. On the other hand, the vibration buffering device 4215 can also protect the vibration member 4213 from being damaged due to collision with the driving platform 421, and the reciprocating motion of the vibration member 4213 is also influenced. The movable and stationary members of the drive platform 421 are connected to each other in a flexible manner in a direction substantially perpendicular to the direction of travel, i.e., the direction of vibration of the vibration member 4213, so as to restrict movement in the direction of travel of the machine by a connection having a relatively small elasticity. The above-mentioned both movement restrictions make the movement pattern of the vibrating member 4213 not exactly reciprocating but substantially reciprocating. When the wet type cleaning assembly 400 is started, the motor 4211 starts to work to rotate forward, the motor 4211 drives the connecting rod 4214 to reciprocate along the surface of the driving platform 421 through the driving wheel 4212, meanwhile, the vibration buffering device 4215 drives the vibration member 4213 to basically reciprocate along the surface of the driving platform 421, the vibration member 4213 drives the cleaning base plate 4221 to basically reciprocate along the surface of the supporting platform 422, and the cleaning base plate 4221 drives the movable area 412 to basically reciprocate along the surface to be cleaned. At this time, the clean water pump makes the clean water flow out from the clean water tank and sprinkles the clean water on the cleaning head 410 through the water outlet device 4217, and the cleaning head 410 cleans the surface to be cleaned through reciprocating motion.

The cleaning intensity/efficiency of the automatic cleaning device can also be automatically and dynamically adjusted according to the working environment of the automatic cleaning device. For example, the automatic cleaning device may be dynamically adjusted based on the sensing system 120 detecting physical information of the face of the surface to be cleaned. For example, the sensing system 120 may detect information about the flatness of the surface to be cleaned, the material of the surface to be cleaned, the presence of dirt and dust, etc., and communicate this information to the control system 130 of the robotic cleaning device. Accordingly, the control system 130 can direct the automatic cleaning apparatus to automatically and dynamically adjust the rotation speed of the motor and the transmission ratio of the power transmission device according to the working environment of the automatic cleaning apparatus, thereby adjusting the preset reciprocating period of the reciprocating motion of the cleaning head 410.

For example, when the automatic cleaning device works on a flat ground, the preset reciprocating period can be automatically and dynamically adjusted to be longer, and the water quantity of the water pump can be automatically and dynamically adjusted to be smaller; when the automatic cleaning equipment works on a not-flat ground, the preset reciprocating period can be automatically and dynamically adjusted to be shorter, and the water quantity of the water pump can be automatically and dynamically adjusted to be larger. This is because a flat floor is easier to clean than a less flat floor, and therefore cleaning an uneven floor requires faster reciprocation (i.e., higher frequency) and a greater volume of water by the cleaning head 410.

For another example, when the automatic cleaning device works on a table, the preset reciprocating period can be automatically and dynamically adjusted to be longer, and the water quantity of the water pump can be automatically and dynamically adjusted to be smaller; when the automatic cleaning device 100 is operated on the ground, the preset reciprocation period may be automatically and dynamically adjusted to be shorter, and the water amount of the water pump may be automatically and dynamically adjusted to be larger. This is because the table top has less dust and oil dirt relative to the floor, and the material forming the table top is easier to clean, so that the cleaning head 410 needs to perform a smaller number of reciprocating movements and the water pump provides a relatively smaller amount of water to clean the table top.

As an alternative embodiment of the present invention, the supporting platform 422 includes: a cleaning base plate 4221 freely movably disposed on the supporting platform 422, wherein the cleaning base plate 4221 substantially reciprocates under the vibration of the vibration member 4213. Alternatively, as shown in fig. 16, the cleaning substrate 4221 includes: and assembly notches 42211 provided at positions contacting with the vibration members 4213, wherein when the support platform 422 is coupled to the driving platform 421, the vibration members 4213 are assembled to the assembly notches 42211, so that the cleaning base plate 4221 can be substantially reciprocated in synchronization with the vibration members 4213. The cleaning device travel direction of the cleaning substrate 4221 comprises 4 first limit positions 42212, the 4 first limit positions 42212 are flexibly connected with the cleaning substrate 4221, but the elastic scaling space is small, so that the movement of the cleaning substrate 4221 relative to the support platform 422 in the cleaning device travel direction is limited; two second limit positions 42213 are included in the cleaning substrate 4221 in a direction perpendicular to the traveling direction of the cleaning device, and the two second limit positions 42213 limit the range of reciprocating movement of the cleaning substrate 4221 in the direction perpendicular to the traveling direction of the cleaning device. In addition, a water outlet hole 42214 is provided near the fitting indentation 42211 of the cleaning base plate 4221, so that water discharged from the water discharge device 4217 flows to the cleaning head 410 through the water outlet hole. The movement of the cleaning substrate 4221 is substantially reciprocating because of the influence of the restricting position and the shock absorbing means. The cleaning substrate 4221 is located on a portion of the support platform 422, and the local vibration may be performed at a higher vibration frequency, such as in a sonic frequency range. The movable and stationary members of the drive platform 421 are connected to each other in a flexible manner in a direction substantially perpendicular to the direction of travel, i.e., the direction of vibration of the vibration member 4213, so as to restrict movement in the direction of travel of the machine by a connection having a relatively small elasticity.

Figure 12 illustrates another cleaning head drive mechanism 500 based on a slider-crank mechanism in accordance with various embodiments of the present application. The drive mechanism 500 may be applied to the drive platform 421. The drive mechanism 500 includes a drive wheel 4212, a vibrating member 4213, a cleaning base plate 4221, a link 4222 (first link), and a link 4223 (second link).

The sliding

grooves

4222 and 4223 are opened on the supporting platform 422. Both ends of the cleaning substrate 4221 respectively include a slider 525 (first slider) and a slider 528 (second slider). The

sliders

525 and 528 are respectively a protrusion at both ends of the cleaning substrate 4221. The slider 525 is inserted in the slide groove 4222 and can slide along the slide groove 4222; the slider 4223 is inserted into the slide groove 4223, and can slide along the slide groove 4223. In some embodiments, slot 4222 is collinear with slot 4223. In some embodiments, chute 4222 and chute 4223 are not collinear. In some embodiments, slot 4222 extends in the same direction as slot 4223. In some embodiments, the extension directions of the chute 4222 and the chute 4223 are the same as the extension direction of the cleaning substrate 4221. In some embodiments, the direction of extension of the link 4222 and link 4223 is different from the direction of extension of the cleaning base plate 4221. In some embodiments, the extension directions of chute 4222 and chute 4223 are different. For example, as shown in fig. 12, the extending direction of the link 4222 is the same as the extending direction of the cleaning base plate 4221, and the extending direction of the link 4223 is at an angle to the extending direction of the link 4222.

The vibrating member 4213 includes a swivel end 512 and a sliding end 514. The pivoting end 512 is connected to the drive wheel 4212 via a first pivot 516, and the sliding end 514 is connected to the cleaning base 4221 via a second pivot 518.

The rotation center of the drive wheel 4212 is point O, and the pivot center of the first pivot 516 is point a. The point O and the point A are not coincident, and the distance between the point O and the point A is a preset distance d.

When the driving wheel 4212 rotates, the point a makes a circular rotation movement. Accordingly, the turning end 512 makes a circular turning motion following the point a; the sliding end 514 drives the cleaning substrate 4221 to slide via the second pivot 518. Accordingly, the slider 525 of the cleaning base plate 4221 makes a reciprocating linear motion along the slide groove 4222; the slider 528 reciprocates linearly along the slide groove 4223. In fig. 4, the moving speed of the moving platform 210 is V0, and the moving direction is the target direction. According to some embodiments, when the chute 4223 and the chute 4222 are respectively approximately perpendicular to the direction of the moving speed V0 of the moving platform 210, the overall displacement of the cleaning base plate 4221 is substantially perpendicular to the target direction. According to other embodiments, when any one of the link 4223 and the link 4222 is at an angle other than 90 degrees to the target direction, the overall displacement of the cleaning base plate 4221 includes both components perpendicular to the target direction and parallel to the target direction.

Further, a vibration damping device 4215 is included, which is disposed on the connecting rod 4214, and is used for damping vibration in a specific direction, in this embodiment, in a direction of a movement component perpendicular to a target direction of the automatic cleaning apparatus.

Figure 13 illustrates another dual crank mechanism based cleaning head drive mechanism 600 according to various embodiments of the present application. The drive mechanism 600 may be applied to the drive platform 421. The drive mechanism 600 includes a drive wheel 4212 (first drive wheel), a drive wheel 4212' (second drive wheel), and a cleaning substrate 4221.

The cleaning substrate 4221 has two ends. The first end is connected with the driving wheel 4212 through a pivot 624 (first pivot); the second end is connected to the drive wheel 4212' via a pivot 626 (second pivot). The rotation center of the drive wheel 4212 is point O, and the pivot center of the pivot shaft 624 is point a. The point O and the point A are not coincident, and the distance between the point O and the point A is a preset distance d. The center of rotation of the drive wheel 236 is point O 'and the center of pivot of the pivot 626 is point a'. The point O 'and the point A' are not coincident, and the distance between the points is a preset distance d. In some embodiments, point a ', point O, and point O' lie on the same plane. Thus, drive wheel 4212 ', and cleaning base plate 4221 may form a double crankshaft mechanism (or parallelogram mechanism) in which cleaning base plate 4221 acts as a coupling rod and drive wheels 4212 and 4212' act as two cranks.

Fig. 14 illustrates a drive mechanism 700 based on a slider-crank mechanism in accordance with various embodiments of the present application. The drive mechanism 700 may be applied to the drive platform 421. The drive mechanism 700 includes a drive wheel 4212, a cleaning base plate 4221, and a chute 4222.

The slot 4222 opens on the support platform 422. The cleaning base plate 4221 includes a swivel end 4227 and a sliding end 4226. Swivel end 4227 is connected to drive wheel 4212 by pivot 4228. The rotation center of the driving wheel 4212 is point O, and the rotation center of the rotation end pivot 4228 is point a. The point O and the point A are not coincident, and the distance between the point O and the point A is a preset distance d. The slide end 4226 comprises a slider 4225. Slider 4225 is a projection on slider end 4226. The slider 4225 is inserted into the slide groove 4222 and can slide along the slide groove 4222. Therefore, the drive wheel 4221, the cleaning base plate 4221, the slider 4225 and the slide groove 4222 constitute a crank-slider mechanism.

When the driving wheel 4212 rotates, the point a makes a circular rotation motion. Accordingly, the rotation end 4227 of the cleaning substrate 4221 makes a circular rotation movement following the point a; the slider 4225 slides in the sliding slot 4222 and reciprocates linearly. As a result, the cleaning base plate 4221 starts to reciprocate. According to some embodiments, the chute 4222 is approximately perpendicular to the direction of the target direction of the speed of movement of the mobile platform, and thus, the linear movement of the sliding end 4226 comprises a component perpendicular to the target direction, and the circular swiveling motion of the swiveling end 4227 comprises both a component perpendicular to the target direction and a component parallel to the target direction.

In fig. 14, the moving speed of the moving platform is V0, and the moving direction is the target direction; and the chute 4222 is approximately perpendicular to the target direction. At this time, the cleaning substrate 4221 as a whole makes a reciprocating motion having a moving component parallel to the target direction of the automatic cleaning apparatus and a moving component perpendicular to the target direction of the automatic cleaning apparatus.

Further, the supporting platform 422 further comprises: and an elastic detaching button 4229, which is arranged on at least one side of the supporting platform 422 and is used for enabling the supporting platform 422 to be detachably connected with the claw 4216 of the driving platform 421, so that the supporting platform 422 can be detachably and mechanically fixed on the driving platform 421 and is fixed relative to the driving platform and the automatic cleaning equipment. At least one mounting area 4224 provided on the support platform 422 for mounting the cleaning head 410. The mounting region 4224 may be formed of an adhesive material having an adhesive layer.

As an alternative embodiment of the present invention, as shown in fig. 9, the cleaning head 410 includes: and an active region 412 connected to the cleaning substrate 4221 and substantially reciprocated along the cleaning surface by the cleaning substrate 4221. The active region 412 is disposed at a substantially central location of the cleaning head 410.

Optionally, an adhesive layer is disposed on a side of the active region 412 connected to the cleaning substrate 4221, and the active region 412 is connected to the cleaning substrate 4221 through the adhesive layer.

Optionally, the cleaning head 410 further comprises: a fixed area 411 connected to the bottom of the support platform 422 through the at least one mounting area 4224, the fixed area 411 cleaning at least a portion of the worktop as the support platform 422 moves.

Further, the cleaning head 410 further includes: and a flexible connection part 413 disposed between the fixed region 411 and the movable region 412, for connecting the fixed region 411 and the movable region 412. The cleaning head 410 further comprises: a slide latch 414, extending along the edge of the cleaning head 410, is removably mounted to the support platform 422 at a latch position 4225.

In this embodiment, as shown in fig. 9, the cleaning head 410 may be made of a material having certain elasticity, and the cleaning head 410 is fixed to the surface of the supporting platform 422 through an adhesive layer, thereby performing a reciprocating motion. The cleaning head 410 is in contact with the surface to be cleaned at all times while the cleaning head 410 is in operation.

The water supply device comprises a water outlet 4217, and the water outlet 4217 may be directly or indirectly connected to a cleaning solution outlet of a water tank (not shown), i.e. a liquid outlet of the clean water tank, wherein the cleaning solution may flow to the water outlet 4217 through the cleaning solution outlet of the water tank, and may be uniformly coated on the surface to be cleaned through the water outlet. The water outlet device can be provided with a connecting element (not shown) by means of which the water outlet device is connected to the cleaning fluid outlet of the water tank. The water outlet device is provided with a distribution port which can be a continuous opening or a combination of a plurality of broken small openings, and the distribution port can be provided with a plurality of nozzles. The cleaning liquid flows through the cleaning liquid outlet of the water tank and the connecting piece of the water outlet device to the distribution opening, and is uniformly coated on the operation surface through the distribution opening.

The water feeding mechanism can also comprise a clean water pump 4219 and/or a clean water pump tube 4218, and the clean water pump 4219 can be directly communicated with a cleaning liquid outlet of the water tank or can be communicated with the cleaning liquid outlet of the water tank through the clean water pump tube 4218.

A clean water pump 4219 may be connected with the connection of the water outlet and may be configured to draw the cleaning liquid from the tank to the water outlet. The clean water pump may be a gear pump, a vane pump, a plunger pump, a peristaltic pump, or the like.

The water delivery mechanism pumps the cleaning solution in the clean water tank out through a clean water pump 4219 and a clean water pump tube 4218 and delivers the cleaning solution to a water outlet device, the water outlet device 4217 can be a nozzle, a water dropping hole, a soaking cloth and the like, and the water is uniformly distributed on the cleaning head, so that the cleaning head and the surface to be cleaned are wetted. The stains on the wet surface to be cleaned can be cleaned more easily. In the wet cleaning assembly 400, the power/flow of the clean water pump may be adjusted.

Further, as shown in fig. 17, the motor 4211 drives the clean water pump 4219 to creep through the gear set 42193, clean water enters from the water inlet 42191 and flows out from the water outlet 42192 through the creep of the clean water pump 4219, the clean water is conveyed to the water outlet device 4217 through the clean water pump tube 4218, and water flowing out from the water outlet device 4217 flows to the cleaning head 410 through the water outlet hole.

Further, as shown in fig. 18, the motor 4211 drives the cable gear 42196 to rotate through the gear set 42193, the cable 42194 is wound on the cable gear 42196, the cable 42194 is wound on the driving platform 421, and the cable gear 42196 pulls the cable 42194 to lift and fall, so that the driving platform 421 is lifted and lowered. The cable gear 42196 and the cable 42194 are core components of the lifting module.

The gear set 42193 and the inhaul cable gear 42196 are provided with clutches 42195, the motor 4211 controls the three motion modules by controlling the clutches of the clutches 42195 to rotate in one direction to drive the vibration of the vibration piece and simultaneously realize the water supply of the clean water pump 4219, and the lift modules are driven to lift by rotating in the opposite direction through inhaul cables 42194. Optionally, the combination design of the gear set realizes control of different combination forms of the three motion modules, such as water supply of a rotary clean water pump in one direction and control of lifting and vibration in the opposite direction. Alternatively, two motors may be used to control three motion modules, but the use of one more motor also increases the cost.

Because self-cleaning equipment's clean module is provided with dry-type cleaning module and wet-type cleaning module, can provide more comprehensive clean function. Simultaneously, in the wet-type cleaning module, through increasing drive unit, vibrations region, make the cleaning head reciprocating motion to can treat that the clean surface cleans repeatedly, make in cleaning machines people's movement track, a lot of cleanness can be realized through a certain region to once, thereby strengthened cleaning performance greatly, especially to the region that the spot is many, cleaning performance is obvious.

As shown in fig. 19 to 20, the wet cleaning module 400 is movably connected to the movable platform 100 through a four-bar linkage lifting structure 500, and is configured to clean at least a portion of the operation surface in a wet cleaning manner; wherein the four-bar linkage lifting structure 500 is a parallelogram structure, and is used for switching the wet cleaning module 400 between a lifting state and a sinking state, and the lifting state is that the wet cleaning module 400 leaves the operation surface, as shown in fig. 19; the sinking state is that the wet cleaning module 400 is attached to the operation surface, as shown in fig. 20.

As shown in fig. 21 to 22, the four-bar linkage elevating structure 500 includes: a first connection end 501 for providing a main power to switch the wet cleaning module 400 between a rising state and a sinking state; and a second connection end 502, which is arranged opposite to the first connection end 501 and rotates under the action of the main force. The first connection end 501 and the second connection end 502 are respectively located at both sides of the wet cleaning module 400, and the wet cleaning module 400 is lifted up or lowered down by stably providing a lifting force.

Specifically, the first connection end 501 includes a first bracket 5011 fixedly connected to the bottom of the mobile platform 100; the first bracket 5011 has a substantially zigzag structure, and the first bracket 5011 includes: the cross beam 50111, the first longitudinal beam 50114 and the second longitudinal beam 50115 are fixedly connected to the moving platform 100 at the tail ends of the first longitudinal beam 50114 and the second longitudinal beam 50115 through bolts, respectively, so as to provide a supporting force when the wet cleaning module 400 is lifted.

The first connection end 501 further includes a first link pair 5012, one end of the first link pair 5012 is rotatably connected to the first bracket 5011, and the other end is rotatably connected to the wet cleaning module 400. The first connecting rod pair 5012 can be of a hollow structure, and the whole weight of the lifting end can be reduced.

Alternatively, the first connecting rod pair 5012 includes a first connecting rod 50121 and a second connecting rod 50122 which are disposed in parallel, first ends of the first connecting rod 50121 and the second connecting rod 50122 are rotatably connected to the first longitudinal beam 50114 by movable studs, and second ends of the first connecting rod 50121 and the second connecting rod 50122 are rotatably connected to the wet cleaning module 400 by movable studs. For example, through holes with a diameter larger than that of the movable stud are respectively formed at two ends of the first connecting rod 50121 and the second connecting rod 50122, so that the movable stud can freely rotate in the through holes, and the movable stud passes through the through holes and then is fixedly connected to the first longitudinal beam 50114. When the motor 4211 provides a pulling force to the first end through the cable, the first ends of the first and

second connection rods

50121 and 50122 simultaneously rotate around the movable stud of the first end, and the second end rises under the pulling force of the cable, so that the wet cleaning module 400 is lifted. When the motor 4211 releases a pulling force to the first end through the pulling cable, the first ends of the first and

second connection rods

50121 and 50122 rotate reversely around the movable stud of the first end at the same time, and the second end descends under the action of gravity, so that the wet cleaning module 400 sinks.

The lifting structure 500 further includes a cable 42194 for providing a pulling force to rotate the first pair of connecting rods 5012 within a predetermined angle. The stay cable 42194 includes: the cable motor terminal 50131 is connected to the driving unit 420, for example, is connected to a gear connected to the output shaft of the motor in a winding manner, and performs a telescopic motion by the rotation of the motor. The cable bracket terminal 50132 is connected to the first bracket 5011, and the motor raises or lowers the second ends of the first and

second connection rods

50121 and 50122 through the cable 42194.

Optionally, the first bracket 5011 further includes: the cable support structure comprises a sliding groove 50112 extending along the surface of the beam 50111, and a clamping hole 50113 penetrating through the beam 50111 and arranged at the extending tail end of the sliding groove 50112 and used for containing and clamping the cable support terminal 50132, wherein the cable 42194 is connected with the first ends of the first connecting rod 50121 and the second connecting rod 50122 through the sliding groove 50112 and the clamping hole 50113, the sliding groove 50112 can limit the moving direction of the cable, the lifting stability of a module is guaranteed, and the width of the sliding groove is matched with the thickness of the cable.

As shown in fig. 21-22, the second connection end 502 includes: a second bracket 5021 fixedly connected to the bottom of the mobile platform 100; a second link pair 5022 having one end rotatably connected to the second bracket 5021 and the other end rotatably connected to the wet type cleaning module 400; the second coupling lever pair 5022 rotates with the rotation of the first coupling lever pair 5012. The second connecting rod pair 5022 can be of a hollow structure, and the overall weight of the lifting end can be reduced.

Specifically, the second link pair 5022 includes a third link 50221 and a fourth link 50222 which are arranged in parallel, first ends of the third link 50221 and the fourth link 50222 are rotatably connected to the second bracket 5021 through a movable stud, and second ends of the third link 50221 and the fourth link 50222 are rotatably connected to the wet type cleaning module 400 through a movable stud. For example, through holes having a diameter larger than that of the movable studs are respectively formed at both ends of the third connecting rod 50221 and the fourth connecting rod 50222, so that the movable studs can freely rotate in the through holes, and the movable studs pass through the through holes and then are fixedly connected to the second bracket 5021 and the wet cleaning module 400. When the first connection end 501 is driven by the motor 4211 to rotate, the first ends of the third connection rod 50221 and the fourth connection rod 50222 simultaneously rotate around the movable stud of the first end, and the second ends of the third connection rod 50221 and the fourth connection rod 50222 simultaneously rotate around the movable stud of the second end, so that the wet cleaning module 400 is lifted. When the first connection end 501 releases the pulling force, the third connection rod 50221 and the fourth connection rod 50222 rotate around the movable stud in opposite directions, and descend under the action of gravity, so that the wet cleaning module 400 sinks.

Through the four-bar lifting structure arranged between the wet type cleaning module and the moving platform, the wet type cleaning module can be lifted relative to the moving platform, when the floor mopping task is executed, the wet type cleaning module is lowered to enable the wet type cleaning module to be in contact with the ground, when the floor mopping task is completed, the wet type cleaning module is lifted to enable the wet type cleaning module to be separated from the ground, and the resistance increase caused by the existence of the cleaning module when the cleaning equipment freely moves on a cleaned surface is avoided.

The sensor that can detect the surface type of treating clean surface such as cooperation surface medium sensor, the lift module can clean the operation with wet-type cleaning module according to the clean surface of waiting of difference, if at the clean module lifting of wet-type cleaning on the carpet surface to put down the clean module of wet-type on surfaces such as floor/ceramic tile and clean, thereby realize more comprehensive clean effect.

As shown in fig. 23, a floating lifting structure 600 is connected to the dry cleaning module 151 and configured to enable the dry cleaning module 151 to move up and down passively with respect to the movable platform 100 in a state where the dry cleaning module 151 is lifted up. Specifically, the floating lifting structure 600 is a parallelogram four-bar linkage lifting structure configured to passively switch the dry type cleaning module 151 between a lifting state and a sinking state under an external force.

Optionally, the floating lifting structure 600 includes: a first fixed bracket 601, wherein the first fixed bracket 601 is fixedly connected to the mobile platform 100; a second fixing bracket 602, wherein the second fixing bracket 602 is fixedly connected to the dry type cleaning module 151; the connecting rod pair 603 has one end rotatably connected to the first fixed bracket 601 through a movable stud and the other end rotatably connected to the second fixed bracket 602 through a movable stud. The first fixing bracket 601 and the second fixing bracket 602 are connected through a flexible connecting piece, when an obstacle is encountered, the dry type cleaning module 151 is jacked upwards, the first fixing bracket 601 rotates around the connecting rod pair 603 and then is folded upwards relative to the second fixing bracket 602, and passive lifting is realized. When the cleaning apparatus passes over an obstacle, the dry cleaning module 151 falls down by gravity to contact the operation surface, and the cleaning apparatus continues to perform a cleaning task. The parallelogram four-connecting-rod lifting structure can enable the cleaning equipment to cross the obstacle more flexibly and is not easy to damage.

Optionally, the pair of connecting rods 603 includes: a first connecting rod pair 6031, one end of which is rotatably connected to the first end of the first fixed bracket 601 through a movable stud, and the other end of which is rotatably connected to the first end of the second fixed bracket 602 through a movable stud; the second connecting rod pair 6032 is opposite to the first connecting rod pair 6031, and has one end rotatably connected to the second end of the first fixing bracket 601 through a movable stud and the other end rotatably connected to the second end of the second fixing bracket 602 through a movable stud. The first connecting rod pair 6031 or the second connecting rod pair 6032 can be hollow structures, so that the whole weight of the lifting end can be reduced.

Optionally, the first connecting rod pair 6031 includes a first connecting rod 60311 and a second connecting rod 60312 which are arranged in parallel, one end of the first connecting rod 60311 and one end of the second connecting rod 60312 are provided with a first shaft hole, and the other end of the first connecting rod 60311 and the other end of the second connecting rod 60312 are provided with a second shaft hole; the movable stud passes through the first shaft hole to rotatably fix the first connecting rod 60311 and the second connecting rod 60312 to the first end of the first fixing bracket 601, and the movable stud passes through the second shaft hole to rotatably fix the first connecting rod 60311 and the second connecting rod 60312 to the first end of the second fixing bracket 602. For example, through holes (not shown) with a diameter larger than that of the movable studs are respectively formed at two ends of the first connecting rod 60311 and the second connecting rod 60312, so that the movable studs can freely rotate in the through holes, and the movable studs pass through the through holes and then are fixedly connected to the first fixing bracket 601. When a raised obstacle is encountered, the dry cleaning module 151 is lifted up under the action of the obstacle, the first ends of the first connecting rod 60311 and the second connecting rod 60312 rotate around the movable stud of the first end at the same time, and the second ends of the first connecting rod 60311 and the second connecting rod 60312 rotate around the movable stud of the second end at the same time, so that the dry cleaning module 151 is lifted up. When the obstacle is passed, the dry cleaning module 151 drops by gravity to contact the operating surface.

Optionally, as shown in fig. 24, for a state diagram when the dry type cleaning module 151 is lifted, the second connecting rod pair 6032 includes a third connecting rod 60321 and a fourth connecting rod 60322 which are arranged in parallel, one end of the third connecting rod 60321 and one end of the fourth connecting rod 60322 are provided with a third shaft hole, and the other end of the third connecting rod 60321 and the other end of the fourth connecting rod 60322 are provided with a fourth shaft hole; the movable stud penetrates through the third shaft hole to be capable of rotating to fix the third connecting rod 60321 and the fourth connecting rod 60322 at the second end of the first fixed bracket 601, and the movable stud penetrates through the fourth shaft hole to be capable of rotating to fix the third connecting rod 60321 and the fourth connecting rod 60322 at the second end of the second fixed bracket 602. For example, through holes (not shown) with a diameter larger than that of the movable studs are respectively formed at two ends of the third connecting bar 60321 and the fourth connecting bar 60322, so that the movable studs can freely rotate in the through holes, and the movable studs pass through the through holes and then are fixedly connected to the first fixing bracket 601. When encountering a raised obstacle, the dry cleaning module 151 is lifted up under the action of the obstacle, the first ends of the third connecting bar 60321 and the fourth connecting bar 60322 rotate around the movable stud at the first end, and the second ends of the third connecting bar 60321 and the fourth connecting bar 60322 rotate around the movable stud at the second end, so that the dry cleaning module 151 is lifted up. When the obstacle is passed, the dry cleaning module 151 drops by gravity to contact the operating surface.

As an alternative embodiment, the first fixing bracket 601 includes: the first fixing portion 6011 protrudes from the first fixing bracket 601 and extends laterally and outwardly, so as to support the first connecting rod pair 6031. The second fixing portion 6012 is disposed symmetrically to the first fixing portion 6011, and is configured to support the second connecting rod pair 6032. The first fixing portion 6011 and the second fixing portion 6012 are used to protrudingly support the pair of connection bars such that the pair of connection bars can be freely rotated, thereby ensuring free lifting of the dry type cleaning module 151.

Optionally, the floating lifting structure 600 further includes a flexible connection member (not shown) connected between the first fixing bracket 601 and the second fixing bracket 602, and when the operating surface is uneven, the second fixing bracket 602 moves up and down relative to the first fixing bracket 601 through the flexible connection member.

In dry-type cleaning module, through setting up four connecting rod floating lifting structure, make dry-type cleaning module for moving platform passive form reciprocates, when cleaning device meets the barrier at the operation in-process, can be through the light barrier of crossing of four connecting rod floating lifting structure, and avoid the damage of barrier to cleaning device.

Example 2

According to a particular embodiment of the invention, the invention provides a vibratable mop, as shown in fig. 9, comprising a movable area 412 and a fixed area 411, said movable area 412 and said fixed area 411 being connected by a flexible connection 413, wherein said movable area 412 is substantially reciprocatable with respect to said fixed area 411. The direction of the approximate reciprocating motion is approximately vertical to the moving direction of the cleaning device, the approximate reciprocating motion means that the starting point and the end point of each moving motion can be the same or different, the starting point and the end point of the reciprocating motion can be controlled by controlling the driving device through the motor, and the frequency of the reciprocating motion can also be controlled.

As an alternative embodiment, the vibratable mop further comprises: a slide catch 414 extending along the shakable mop edge for securing the shakable mop to the cleaning device. The structure of the sliding buckle 414 can be a cylinder or a semi-cylinder, and the sliding buckle can slide to the clamping position at the bottom of the cleaning device through the cylinder or the semi-cylinder, so as to fix the edge area of the vibratable mop.

As an alternative embodiment, the vibratable mop is provided with at least one adhesive area on the back side. Optionally, the pasting area is located on the back of the fixed area 411 and/or the movable area 412. The bonding layer is arranged on the bonding area, so that the vibratile mop cloth is fixed on the bottom surface of the cleaning equipment. When the mop needs to be cleaned, the mop can be conveniently taken down.

As an alternative embodiment, the side of the active area 412 that contacts the operation surface includes a relief structure that cleans at least a portion of the operation surface when the active area 412 is substantially reciprocated. The concave-convex structure can increase friction force and improve the dirt removing capability of the mop when the mop reciprocates to clean the floor.

Optionally, the active area 412 has a rectangular, circular or semicircular structure, and the like, which is not limited in this respect. The vibratable mop is of a single-layer structure or a multi-layer structure, and is not limited, wherein the multi-layer structure is adopted to facilitate the increase of water absorption capacity and the enhancement of decontamination capacity.

As an alternative embodiment, the present invention also provides an automatic cleaning apparatus, including a moving platform 100 configured to automatically move on an operation surface; the cleaning module 150, disposed on the mobile platform 100, includes: a dry cleaning module 151 configured to clean at least a portion of the operation surface by a dry cleaning method; a wet cleaning module 400 configured to clean at least a portion of the operating surface using a wet cleaning method; wherein the wet cleaning module 400 comprises: a cleaning head 410 for cleaning the worktop, and a drive unit 420 for driving the cleaning head 410 in a substantially reciprocating motion along a target surface which is part of the worktop, wherein the cleaning head 410 comprises a shakable swab as described in the above embodiments.

Optionally, the driving unit 420 includes: a driving platform 421 connected to the bottom surface of the moving platform 100 for providing a driving force; and a supporting platform 422 detachably connected to the driving platform 421, for supporting the cleaning head 410, and being capable of lifting under the driving of the driving platform 421.

Finally, it should be noted that: the embodiments in the present description are described in a progressive manner, each embodiment focuses on differences from other embodiments, and the same and similar parts among the embodiments are referred to each other. The system or the device disclosed by the embodiment corresponds to the method disclosed by the embodiment, so that the description is simple, and the relevant points can be referred to the method part for description.

The above examples are only intended to illustrate the technical solutions of the present disclosure, not to limit them; although the present disclosure has been described in detail with reference to the foregoing embodiments, it should be understood by those of ordinary skill in the art that: the technical solutions described in the foregoing embodiments may still be modified, or some technical features may be equivalently replaced; and such modifications or substitutions do not depart from the spirit and scope of the corresponding technical solutions of the embodiments of the present disclosure.

Claims

1. A shakable mop, characterized by comprising a movable area (412) and a fixed area (411), the movable area (412) and the fixed area (411) being connected by a flexible connection (413), wherein the movable area (412) is substantially reciprocally movable with respect to the fixed area (411).

2. A shakable mop according to claim 1 further comprising: a slide catch (414) extending along the shakable mop edge for securing the shakable mop.

3. Vibratable mop according to claim 1, characterized in that the vibratable mop is provided with at least one adhesion area on its back side.

4. Vibratable mop according to claim 3, characterized in that the attachment area is located behind the fixed area (411) and/or the movable area (412).

5. Shakable mop according to any of claims 1 to 4, characterized in that the side of the active area (412) that is in contact with the worktop comprises a relief structure that cleans at least a part of the worktop when the active area (412) is substantially reciprocated.

6. Shakable mop according to claim 5, characterized in that the active area (412) has a rectangular, circular or semicircular configuration.

7. A shakable mop according to claim 1 wherein the shakable mop is of single or multiple layer construction.

8. An automatic cleaning device is characterized by comprising,

a mobile platform (100) configured to automatically move on an operation surface;

a cleaning module (150) disposed on the mobile platform (100), comprising:

a dry cleaning module (151) configured to clean at least a portion of the operating surface by dry cleaning;

a wet cleaning module (400) configured to clean at least a portion of the operative surface using a wet cleaning method; wherein the wet cleaning module (400) comprises:

a cleaning head (410) for cleaning the operating face, and,

a drive unit (420) for driving the cleaning head (410) to substantially reciprocate along a target surface, the target surface being a portion of the operative surface,

wherein the cleaning head (410) comprises a shakable swab according to any of claims 1 to 6.

9. The automatic cleaning apparatus according to claim 8, wherein the drive unit (420) comprises:

a driving platform (421) connected to the bottom surface of the mobile platform 100 for providing a driving force;

and the supporting platform (422) is detachably connected to the driving platform (421), is used for supporting the cleaning head (410), and can be driven by the driving platform (421) to lift.

10. An automatic cleaning device according to claim 9, characterized in that the support platform (422) comprises at least one mounting area (4224) for mounting the cleaning head (410).