WO2013107374A1 - Automatic work apparatus and control method therefor - Google Patents

Automatic work apparatus and control method therefor Download PDF

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Publication number
WO2013107374A1
WO2013107374A1 PCT/CN2013/070649 CN2013070649W WO2013107374A1 WO 2013107374 A1 WO2013107374 A1 WO 2013107374A1 CN 2013070649 W CN2013070649 W CN 2013070649W WO 2013107374 A1 WO2013107374 A1 WO 2013107374A1
Authority
WO
WIPO (PCT)
Prior art keywords
working
automatic
working device
area
automatic working
Prior art date
Application number
PCT/CN2013/070649
Other languages
French (fr)
Chinese (zh)
Inventor
鲍瑞那图·强尼
王家达
何明明
Original Assignee
苏州宝时得电动工具有限公司
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Priority claimed from CN2012100184519A external-priority patent/CN103217912A/en
Priority claimed from CN2012100183658A external-priority patent/CN103217977A/en
Priority claimed from CN201210137109.0A external-priority patent/CN103217926B/en
Application filed by 苏州宝时得电动工具有限公司 filed Critical 苏州宝时得电动工具有限公司
Publication of WO2013107374A1 publication Critical patent/WO2013107374A1/en

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Classifications

    • AHUMAN NECESSITIES
    • A01AGRICULTURE; FORESTRY; ANIMAL HUSBANDRY; HUNTING; TRAPPING; FISHING
    • A01DHARVESTING; MOWING
    • A01D34/00Mowers; Mowing apparatus of harvesters
    • A01D34/006Control or measuring arrangements
    • A01D34/008Control or measuring arrangements for automated or remotely controlled operation
    • AHUMAN NECESSITIES
    • A47FURNITURE; DOMESTIC ARTICLES OR APPLIANCES; COFFEE MILLS; SPICE MILLS; SUCTION CLEANERS IN GENERAL
    • A47LDOMESTIC WASHING OR CLEANING; SUCTION CLEANERS IN GENERAL
    • A47L2201/00Robotic cleaning machines, i.e. with automatic control of the travelling movement or the cleaning operation
    • A47L2201/06Control of the cleaning action for autonomous devices; Automatic detection of the surface condition before, during or after cleaning

Definitions

  • the present invention relates to an automatic working device and a control method therefor.
  • the movable working device has a walking device, a work clothes, and an automatic control device, so that the automatic working device can be separated from the operation of the person, and walks and performs work within a certain range, in the automatic working device _S- ⁇ r
  • the energy storage device H When the energy storage device H is insufficient, it can automatically return to the charging station device for charging, and then continue to work.
  • This kind of automatic work equipment frees people from the boring and time-consuming work of housework such as house cleaning and lawn trimming, saving people's time and bringing convenience to people's lives.
  • the present invention provides an automatic working device and a control method thereof which are convenient to use.
  • a method for controlling an automatic working device wherein the automatic working device automatically moves in a set working area, has a working state and a sleeping state
  • the control method includes The following steps are: starting the automatic working device operation; acquiring area information of the working area; formulating a working time plan according to the area information according to a preset scheduling algorithm; and the automatic working device enters a working state according to the working time plan And exit the working state, enter the sleep state.
  • the preset scheduling algorithm is: comparing the area information with a preset number of area intervals; finding a preset area interval where the area information is located; and reading the work corresponding to the preset area interval Time plan.
  • the preset scheduling algorithm is: substituting the area information into a preset function; calculating a result according to the preset function; and reading a working time plan corresponding to the result.
  • the area information is obtained by the following steps: the automatic working device moves from the starting point along the boundary of the working area, and returns to the starting point; records the track information during the moving of the automatic working device; The information calculates the area information of the work area.
  • the track information recorded during the movement of the automatic working device is the map data of the work area recorded by the POS positioning.
  • the track information recorded during the moving of the automatic working device is recorded as coordinate information of a position where the automatic working device changes direction each time.
  • the area information is obtained by the following steps: inputting an input interface set on the automatic device to input area information input by a user.
  • the working time plan includes a first working time plan and a maintenance working time plan.
  • the working time plan includes a plurality of sub-work time plans with the same period.
  • the period is 24 hours.
  • the plurality of sub-work hours are planned to be the same.
  • the duration of the working state in the plurality of sub-work time schedules is decreased.
  • the starting time of the working state in the plurality of sub-work time schedules is different.
  • the control method further comprises the steps of: acquiring external information; adjusting the working time plan according to the preset adjustment algorithm based on the external information.
  • the external information is an adjustment signal input by a user.
  • the external information is longitude, latitude, date and time information of the location of the self-operating device obtained by the PG positioning.
  • the preset adjustment algorithm is: determining a preset longitude latitude interval where the longitude and latitude is located; determining a preset date interval where the date is located; according to the preset longitude latitude interval and the preset date interval
  • the corresponding adjustment plan adjusts the working time plan.
  • the external information is temperature and humidity information of a location of the automatic working device itself obtained by the automatic working device through a sensor.
  • the preset adjustment algorithm is: determining a preset temperature interval where the temperature is located; determining a preset period and a degree interval where the humidity is located; and corresponding to the preset temperature interval and the humidity interval
  • the adjustment plan adjusts the working time plan.
  • adjusting the working time plan is to adjust the duration of the working state.
  • adjusting the working time plan is to replace the duration of the working state by a factor multiplied by a duration of the working state.
  • adjusting the working time plan is a starting time for adjusting the working state.
  • the boundary of the working area is detected by a boundary sensor disposed on two sides of the central axis of the movable working device, and when the boundary sensor of one side first detects the boundary, the boundary of the working device to the other side The direction in which the sensor is located is turned.
  • the boundary of the working area is detected by a boundary sensor disposed on two sides of the central axis of the movable working device, and when the boundary sensor detects a boundary, the automatic working device determines that the central axis and the boundary are formed. The angle, and continue to walk in the direction of the angle between the sharp angle formed by the reduction of the central axis and the boundary.
  • a method for controlling an automatic working device wherein the automatic working device automatically moves in a set working area
  • the control method comprising the following steps: starting the automatic working device Running; the automatic working device moves from the starting point along the boundary of the working area, and returns to the starting point; records the track information in the moving process of the automatic working device; and calculates the work according to the preset area algorithm based on the track information The area of the area.
  • the track information recorded during the moving of the automatic working device is obtained by: calculating the coordinates of the moving path of the automatic working device relative to the starting point; recording the above coordinates.
  • the track information recorded during the movement of the automatic working device is obtained by: detecting whether the automatic working device is turned; if steering, according to the recorded last steering, the coordinates of the automatic working device and the angle of the steering are calculated.
  • detecting whether the automatic working device changes the moving direction is obtained by the following method: Detecting the speed difference between the drive wheels of the automatic work equipment.
  • the angular velocity sensor on the automatic working device detects whether the automatic working device changes the direction of movement.
  • the area of the working area is calculated by a polygon area formula based on coordinates of the moving path of the automatic working device relative to the starting point.
  • the track information recorded during the moving of the automatic working device is the map data of the work area recorded by the POS positioning.
  • the automatic working device formulates a working time schedule based on an area of the work area.
  • an automatic working device that automatically walks in a set working area, including: a casing; a working module; a walking module that supports and drives the automatic working device to walk; Controlling module, controlling the walking module and the working module to work;
  • the automatic working device further comprises a trajectory detecting unit and an area calculating unit, wherein the trajectory detecting unit records trajectory information of the automatic working device walking along a boundary of the working area
  • the area calculation unit calculates the area of the work area according to the preset area algorithm based on the track information.
  • the trajectory detecting unit comprises a magnetic sensing unit for detecting movement of the walking module
  • the main control module calculates coordinates of the moving trajectory of the automatic working device relative to the starting point based on the movement of the walking module.
  • the automatic working device detects whether the automatic working device changes the moving direction by the magnetic sensing unit, calculates the steering angle, and calculates the coordinates of the automatic working device relative to the starting point when the vehicle is turned.
  • the automatic working device detects a speed difference between the driving wheels of the automatic working device through the magnetic sensing unit.
  • the trajectory detecting unit includes an angular velocity sensing crying to detect a change in a moving direction of the automatic working device.
  • the area of the working area is calculated by a polygon area formula based on coordinates of the moving path of the automatic working device relative to the starting point.
  • the track detecting unit is a G P S module.
  • the automatic working device formulates a working time plan based on an area of the work area.
  • an automatic working device H moving work in a set working area, comprising: a casing; a working module; a walking module, supporting and driving the moving working device to walk;
  • the automated work device detects the work area and sets a work time based on the work area.
  • the automatic working device includes a GPS positioning module, the automatic working device starts from a starting point along a boundary of the working area and returns to a starting point, and the GPS positioning module records map data of the working area, according to the map data.
  • the area information of the work area is calculated, and the automatic work equipment sets the work time based on the area information.
  • the automatic working device comprises an input interface for inputting area information input by the user, and the automatic working device sets the working time based on the area information.
  • the automatic working device includes an external information gathering unit, the external information collecting unit collects external information, and the automatic working device adjusts the working time based on the external information.
  • the external information gathering unit is an input interface, and an adjustment signal input by the user is input.
  • the external information gathering unit is a G P S positioning module
  • the G P S positioning module acquires the latitude, longitude, date and time information of the location of the automatic working device.
  • the external information gathering unit is a sensor, and the sensor acquires temperature and humidity information of a location where the automatic working device is located.
  • the main control unit adjusts the working duration of the automatic working device.
  • the main control unit adjusts the working start time of the automatic working device.
  • the movable working device includes a boundary sensor disposed on two sides of the central axis of the automatic working device to detect a boundary of the working area, and when the boundary sensor of the side detects the boundary first, the automatic working The device turns to the direction of the boundary sensor on the other side.
  • the mobile working device includes a boundary sensor disposed on two sides of the central axis of the automatic working device.
  • the boundary sensor detects a boundary
  • the automatic working device determines the central axis and the boundary. Angle, and continue to walk in the direction of the angle between the acute angle and the boundary formed by the reduction of the central axis and the boundary.
  • the movable working device is a lawn mower or a vacuum cleaner.
  • an automatic working device in a set
  • the working area automatically moves, has a working state and a sleeping state, and includes: a casing; a working module; a walking module, supports and drives the automatic working device to walk; a main control module, controls the walking module and the working module to work
  • the automatic working device further includes an area information collecting unit, the area information collecting unit collecting the area information of the working area, the main control module receiving the area information, and according to the area information, according to the preset schedule
  • the algorithm formulates a working time plan, and controls the working module and the walking module to enter a working state and exit the working state according to the working time plan, and enter a sleep state.
  • the automatic working device includes a GPS positioning module, and the automatic working device starts from a starting point along a boundary of the working area and returns to a starting point, and the GPS positioning module records map data of the working area according to the map. The data calculates the area information of the work area.
  • the automatic working device comprises an input interface for inputting area information input by the user.
  • the automatic working device includes an external information gathering unit, the external information collecting unit collects an external signal, the main control unit receives the external information, and adjusts the preset according to the external information according to a preset adjustment algorithm. Work time plan.
  • the external information gathering unit is an input interface, and an adjustment signal input by the user is input.
  • the external information gathering unit is a G P S positioning module
  • the G P S positioning module acquires the latitude, longitude, date and time information of the location of the automatic working device.
  • the external information gathering unit is a sensor, and the sensor acquires temperature and humidity information of a location where the automatic working device is located.
  • the main control unit adjusts the duration of the working state
  • the main control unit adjusts a start time of the working state.
  • the movable working device includes a boundary sensor disposed on two sides of the central axis of the automatic working device to detect a boundary of the working area, and when the boundary sensor of the side detects the boundary first, the automatic working The device turns to the direction of the boundary sensor on the other side.
  • the mobile working device includes a boundary sensor disposed on two sides of the central axis of the automatic working device.
  • the boundary sensor detects a boundary
  • the automatic working device determines the central axis and the boundary. Angle, and reduce the central axis and boundary Continue to walk in the direction of the acute angle or the angle between the right angles.
  • the automatic working device is a lawn mower or a vacuum cleaner.
  • an automatic working device which automatically walks in a set working area, has a working state and a sleep state, and includes: a casing; a working module; a walking module, a supporting and driving station The automatic working device walks; the main control module controls the walking module and the working module to work; the automatic working device further includes an information collecting unit, and collects information about the area where the automatic working device is located, the main The control module receives the information, formulates a working time plan according to the preset information according to the preset scheduling algorithm, and controls the working module and the walking module to enter a working state and exit the working state according to the working time plan, and enter a sleep state.
  • the information collection unit is a G P S module, and collects one or more of area, longitude latitude, date, and time data of the area where the user is located.
  • an automatic working device which automatically walks in a set working area, has a working state and a sleep state, and includes: a casing; a working module; a walking module, a supporting and driving station The automatic working device walks; the main control module controls the working module and the walking module to enter a working state and exit the working state according to a preset working time schedule, and enters a sleep state; the automatic working device includes an external information gathering unit The external information gathering unit collects external information, the main control module receives the external information, and adjusts the working time plan according to the preset information according to the preset information.
  • the external information gathering unit is an input interface, and an adjustment signal input by the user is input.
  • the external information gathering unit is a G P S positioning module
  • the G P S positioning module obtains latitude and longitude, date and time information of the location where the user is located.
  • the main control module determines a preset longitude latitude interval in which the latitude and longitude is located; and determines a preset date interval in which the date is located; and corresponding to the preset longitude latitude interval and the preset date interval.
  • the adjustment plan adjusts the working time plan.
  • the external information gathering unit is a sensor, and the sensor acquires temperature and humidity information of a location where it is located.
  • the main control module determines a preset temperature interval in which the temperature is located; and determines a preset humidity interval in which the humidity is located; according to the preset temperature interval and the humidity region
  • the corresponding adjustment plan adjusts the working time plan.
  • the main control module adjusts the duration of the working state.
  • the main control module replaces the duration of the working state by a factor of the duration of the working condition, multiplied by a coefficient.
  • the main control module adjusts a start time of the working state.
  • a method for controlling an automatic working device wherein the automatic working device automatically moves in a set working area, and has a working state and a dormant state.
  • the control method includes the following steps. : starting the automatic working device operation, the working device enters the working state according to the working time schedule and exits the working state too, and enters the sleep state; the control method further includes the following steps: acquiring external information; The preset adjustment algorithm adjusts the working time schedule.
  • the external information is an adjustment signal input by a user.
  • the external information is longitude, latitude, date and time information of the location of the self-operating device obtained by the PG positioning.
  • the preset adjustment algorithm is: determining a preset longitude latitude interval where the longitude and latitude is located; determining a preset date interval where the date is located; according to the preset longitude latitude interval and the preset date interval
  • the corresponding adjustment plan adjusts the working time plan.
  • the external information is temperature and humidity information of the location of the automatic working device obtained by the automatic working device through the sensor.
  • the preset adjustment algorithm is: determining a preset temperature interval where the temperature is located; determining a preset humidity interval where the humidity is located; and adjusting a plan according to the preset temperature interval and the humidity interval Adjust the working time plan.
  • adjusting the working time plan is to adjust the duration of the working state.
  • adjusting the working time plan is to replace the duration of the working state by a factor multiplied by a duration of the working state.
  • adjusting the working time plan is a starting time for adjusting the working state.
  • the boundary of the working area is detected by a boundary sensor disposed on both sides of the central axis of the automatic working device, and when the boundary sensor of one side first detects the boundary, the boundary of the automatic working device to the other side The direction in which the sensor is located is turned.
  • the boundary sensor is disposed on both sides of the central axis of the automatic working device Detecting a boundary of the working area, when the boundary sensor detects a boundary, the automatic working device determines an angle formed by the central axis and the boundary, and reduces an acute angle formed by the central axis and the boundary or Continue to walk in the direction of the right angle.
  • a method for controlling an automatic working device The automatic working device automatically travels in a set working area, and has an operating state and a sleep state.
  • the control method includes the following steps: Starting the automatic working device to operate; entering the learning mode, the automatic working device walking and working; recording the working information when the automatic working device meets the preset condition; and formulating the working time according to the preset information according to the working information
  • the automatic working device enters a working state and exits the working state according to the working time plan, and enters a sleep state.
  • the preset condition is that the automatic working device has a load less than a preset value within a preset time.
  • the work information in the record learning mode is a duration of the record learning mode.
  • the preset scheduling algorithm is: determining a preset time interval in which the duration is located; and reading a working time plan corresponding to the preset time interval.
  • the work information in the record learning mode is a travel distance in the record learning mode.
  • the preset scheduling algorithm is: determining a preset process interval in which the walking mileage is located; and reading a working time plan corresponding to the preset mileage interval.
  • the working time plan includes a plurality of cycles of the same sub-work time plan, wherein the period is 24 hours.
  • the plurality of sub-work hours are planned to be the same.
  • the duration of the working state in the plurality of sub-work time plans is decreasing.
  • the starting time of the working state in the plurality of sub-work time schedules is different.
  • the control method further comprises the steps of: acquiring external information; adjusting the working time plan according to the preset adjustment algorithm based on the external information.
  • the external information is an adjustment signal input by a user.
  • the external information is longitude, latitude, date and time information of the location of the self-operating device obtained by the PG positioning.
  • the preset adjustment algorithm is: determining a preset period of the latitude and longitude a latitude interval; determining a preset date interval in which the date is; adjusting the working time plan according to the preset longitude latitude interval and the adjustment plan corresponding to the preset date interval.
  • the external information is temperature and humidity information of the location of the automatic working device obtained by the automatic working device through the sensor.
  • the preset adjustment algorithm is: determining a preset temperature interval where the temperature is located; determining a preset humidity interval where the humidity is located; and adjusting a plan according to the preset temperature interval and the humidity interval Adjust the working time plan.
  • adjusting the working time plan is to adjust the duration of the working state.
  • adjusting the working time plan is to replace the duration of the working state by a factor multiplied by a duration of the working state.
  • adjusting the working time plan is a starting time for adjusting the working state.
  • an automatic working device which automatically walks in a set working area, has a working state and a sleep state, and includes: a casing; a working module; a walking module, a supporting and driving station The automatic working device walks; the main control module controls the walking module and the working module to work; the automatic working device has a learning mode, and the main control module records that the automatic working device meets the preset condition in the learning mode Working information according to the work information; formulating a working time plan according to the preset work schedule according to the work information; the automatic working device enters a working state and exits the working state according to the working time plan, and enters a sleep state.
  • the main control module detects a load of the working module of the automatic working device, and the preset condition is that the automatic working device has a load less than a preset value within a preset time.
  • the main control module records the walking process of the learning mode of the automatic working device.
  • the main control module records the duration of the learning mode of the automatic working device
  • the automatic working device comprises an input interface for inputting area information input by the user.
  • the automatic working device includes an external information gathering unit, the external information collecting unit collects external information, the main control unit receives the external information, and adjusts the preset according to the external information according to a preset adjustment algorithm. Work time plan.
  • the external information gathering unit is an input interface, and an adjustment signal input by a user is input.
  • the external information gathering unit is a G P S positioning module
  • the G P S positioning module acquires the latitude, longitude, date and time information of the location of the automatic working device.
  • the external information gathering unit is a sensor, and the sensor acquires temperature and humidity information of a location where the automatic working device is located.
  • the main control unit adjusts the duration of the working state
  • the main control unit adjusts a start time of the working state.
  • the dynamic working device includes a boundary sensor disposed on both sides of the central axis of the automatic working device to detect a boundary of the working area, and when the boundary sensor of the side first detects the boundary, the automatic working device Turn to the direction of the boundary sensor on the other side.
  • the mobile working device includes a boundary sensor disposed on two sides of the central axis of the automatic working device.
  • the boundary sensor detects a boundary
  • the automatic working device determines the central axis and the boundary. Angle, and continue to walk in the direction of the angle between the acute angle and the boundary formed by the reduction of the central axis and the boundary.
  • the movable working device is a lawn mower or vacuuming.
  • the automatic working device and the control method thereof provided by the invention enable the user to easily or automatically set the work plan when the user uses the automatic working device for the first time;
  • the environment changes, and the work plan can be automatically adjusted simply or automatically, making it easier to use and getting a good experience.
  • FIG. 1 is a schematic diagram of a H-moving working device provided by an embodiment of the present invention.
  • FIG. 2 is a schematic side view of a H-moving working device according to an embodiment of the present invention
  • FIG. 3 is a circuit block diagram of a H-moving working device according to an embodiment of the present invention
  • FIG. 4 is a working view of a H-moving working device according to an embodiment of the present invention.
  • FIG. 5 is a path selection diagram of a H-moving working device according to an embodiment of the present invention
  • 6 is a schematic diagram of path selection of an automatic working device according to an embodiment of the present invention;
  • FIG. 7 is a schematic diagram of path selection of an automatic working device according to an embodiment of the present invention.
  • FIG. 8 is a schematic diagram of steering of an automatic working device according to an embodiment of the present invention
  • FIG. 9 is a schematic diagram of coordinates of an automatic working device according to an embodiment of the present invention
  • FIG. 1G is a flowchart of an automatic working device according to an embodiment of the present invention
  • Figure 11 is a flow chart of an automatic working device according to a second embodiment of the present invention.
  • Figure 12 is a flow chart of the automatic working device according to the third embodiment of the present invention.
  • Ill a drive wheel 1 51, 152. boundary sensor
  • the automatic working device provided by the specific embodiment of the present invention automatically moves in the work area.
  • the automatic work equipment can be an automatic lawn mower or an automatic vacuum cleaner. They automatically walk on the lawn or on the ground to mow or vacuum work.
  • the automatic working equipment is not limited to automatic lawn mowers and automatic vacuum cleaners, but can also be used for other types of equipment, such as automatic spraying equipment or automatic monitoring equipment, to achieve unattended operation of various tasks through automatic working equipment.
  • the automatic working equipment 1 includes a walking module 11, a working module 12, an energy storage module 13, a main control module 14, a detecting module 15, a user interface 16, and a casing 17 for housing the above modules.
  • the walking module 11 includes a motor and a driving wheel 111.
  • the driving wheel 111 is usually driven by a plurality of motors, and the rotation speed or steering of each motor is controllable, thereby automatically working. During the walking of the device, flexible steering is performed by adjusting the rotational speed of the drive wheel 111.
  • the walking module 11 includes a motor and a driving wheel 111.
  • the driving wheel can be arranged in various manners. In the present embodiment, as shown in FIG. 2, the left side of the figure is the front part of the automatic working device 1, and the right side is automatic.
  • two drive wheels 111 are symmetrically disposed on both sides of the rear portion of the automatic work equipment 1, and a guide wheel is disposed in a portion near the front of the automatic work equipment 1.
  • the number of driving wheels can also be more or less, for example, the driving wheel can be one, or more than two; the position of the driving wheel can also be located at the front of the automatic working equipment, or separately located in the automatic working equipment. Four corners, etc., are not listed here.
  • the working module 12 is a working module executed by the automatic working device.
  • the working modules of different automatic working devices are different.
  • the working module of the automatic mower includes a mowing blade, a cutting motor, etc., for performing cutting of the automatic mower. Grass work;
  • the working module of the vacuum cleaner includes a vacuum motor, a suction port, a suction pipe, a vacuum chamber, a dust collecting device, and the like for performing a vacuuming task.
  • the energy storage module 13 is generally a rechargeable battery that provides power for the automatic mower operation or is connected to an external power source for charging; preferably, the energy storage module 13 has a charging or discharging protection unit capable of charging the energy storage module 13 Or discharge for protection.
  • the user interface 16 is disposed on the housing 17 for a location that is viewable and operable by the user, such as the top of the automated work device.
  • the user interface 16 typically includes a display and input buttons, and the user inputs commands to the automated work device via input buttons, such as setting an automatic The time of the work device, the work plan, and the like, the user interface 16 can also be a remote control that can be remotely controlled.
  • the detection module 15 is used to detect information related to the lawn mower 1 and provide detection information to the main control module 14 to provide parameters for the walking and working of the automatic working equipment.
  • the main control module 14 includes a processing unit 141, a storage unit 142 and a control unit 143.
  • the processing unit 141 receives the information input by the detection module 15 or the user interface 16, and after processing, stores the information in the storage unit 142, or reads from the storage unit 142.
  • the corresponding program controls the walking module 11 and the working module 12 to perform walking and working through the control unit 143.
  • the automatic working device 1 is in the working area, and the working area is a closed interval surrounded by a manually set boundary line 3, and the boundary line 3 can prevent the automatic working device 1 from leaving the working area;
  • the boundary line can be a wall, Railings, etc.; can also be energized wires or other signal generating devices, such as electromagnetic signals or optical signals.
  • a stop station 5 is set on the boundary line 3.
  • the bus stop 5 is usually capable of providing a charging function to charge the energy storage module 13 .
  • the automatic working device 1 When the power of the energy storage module 13 is insufficient, the automatic working device 1 returns to the parking station 5 for charging.
  • the docking station 5 can provide guidance and docking for the return of the automatic working device 1, and the docking can be wirelessly guided by infrared or ultrasonic waves, or can be guided and docked through the boundary line 3.
  • the automatic working device 1 works in the working area
  • the automatic working device 1 includes at least one boundary sensor 1 5 1 , 1 5 2
  • the boundary sensor 1 5 1 , 1 5 2 is set in the automatic working device
  • the two sides of the central axis of 1 are used to detect the positional relationship between the automatic working equipment 1 and the boundary line 3.
  • the boundary sensor 1 can be a distance sensor, an infrared sensor, an ultrasonic sensor, a collision sensor, a magnetic sensor, or the like.
  • the dotted line passing through the automatic working device 1 is the walking path of the automatic working device 1, and the automatic working device 1 travels in a straight line in the working area, and the boundary sensor 1 5 1 , 1 5 2 detects the distance between the boundary line 3 and if The boundary sensor 1 5 1 on the left side of the axis first detects that the distance from the boundary line 3 is less than the preset value, and the automatic working device 1 turns to the right side of the central axis where the boundary sensor 1 5 2 is located; if the boundary sensor on the right side of the central axis 1 5 2 First, it is detected that the distance from the boundary line 3 is less than the preset value, and the automatic working device 1 is turned to the left side of the central axis where the boundary sensor 1 5 1 is located.
  • the boundary sensor 1 5 1 , 1 5 2 can also detect the angle between the central axis and the boundary line 3, and when any one of the boundary sensors 1 5 1 , 1 5 2 detects that the distance from the boundary line 3 is less than
  • the central axis of the automatic working device 1 and the boundary line 3 have an intersection point, and the central axis and the tangent line of the boundary line 3 form an acute angle ⁇ , and the automatic working device 1 continues to move forward, and is reduced. Small, the direction of the acute angle is turned.
  • the boundary sensors 1 5 1 , 1 5 2 on both sides of the central axis of the automatic working device 1 simultaneously detect that the distance from the boundary line 3 is less than a preset value, the central axis of the automatic working device 1 and the boundary line 3 pass through their intersection point.
  • the tangent lines are perpendicular to each other, at which point the automatic work equipment is randomly turned.
  • the preset value of the minimum distance between the automatic working device 1 and the boundary line 3 is set to satisfy the following conditions: During the steering of the automatic working device 1, the walking can be maintained, thereby preventing the automatic working device 1 from stopping when steering Or backwards, saving time and avoiding Frequent startup and shutdown also saves power and reduces the number of automatic working equipment charging, which greatly improves the working efficiency of automatic working equipment.
  • the path selection method as described above can also improve the walking efficiency of the automatic working device 1 in the work area, and in particular, can efficiently exit the narrow section in the work area.
  • the path selection method as described above enables the working device 1 to work in the same working area, regardless of the shape of the working area, the obstacle in the working area or the complexity of the work, the time for the automatic working device 1 to complete the work is similar. This is important for the present invention. Of course, it is not unique to be able to satisfy the condition that the working time is the same when the working equipment 1 is in the same working area.
  • the automatic working equipment can record the route that has been traveled by GPS positioning. When the automatic working equipment is walking, the repeated walking route is avoided as much as possible, thereby improving the walking efficiency of the automatic working equipment in the working area, and the working time is similar for the working area with the same area.
  • path planning There are other ways of path planning, which are not mentioned here.
  • control method of the automatic working device 1 provided by the present invention includes the following steps.
  • Step S O The system starts.
  • the system is initialized through the user interface 16 to initialize the system, and the initialization includes the self-checking of the automatic working device 1, for example, the remaining capacity of the energy storage module 1 4 2, and the like.
  • the working device 1 is preferably at the stop station 5. If the remaining power of the energy storage module 1 4 2 is insufficient, the energy storage module 1 4 2 is charged through the docking station 5.
  • Step S1 Obtain the area information of the work area.
  • Automatic working equipment 1 Starting from the stopping station 5 Follow the boundary line 3 Walk around the working area and return to the stopping station 5 again;
  • the detection module of the automatic working equipment 1 1 5 includes the trajectory detecting unit, and the trajectory detecting unit can be
  • the GPS module locates the position where the automatic working equipment is located, that is, the latitude and longitude coordinates of the location of the automatic working equipment. These measuring points are connected to form the walking trajectory of the automatic working equipment 1, and the processing unit 1 4 1 receives the measurement.
  • the obtained latitude and longitude coordinates are inversely calculated as X and Y coordinates according to the preset area algorithm, and the area of the work area surrounded by each measurement point is calculated according to the coordinates;
  • the preset area algorithm may be CASIO fx - 4 5 0 0 P area calculation program, of course, other algorithms can also calculate the area according to the latitude and longitude coordinates, not here - enumeration.
  • the automatic working device 1 can also measure the coordinates of the respective vertices of the work area by separately. Then calculate the area of the work area.
  • the area information of the working area is automatically acquired by the automatic working device 1.
  • the area information can also be input by the user through the user interface 16 or through the automatic working device 1 Input with the connection interface of a computer or other device.
  • Step S2 It is judged whether the area information acquisition is completed.
  • the main control module 1 4 determines that the area information acquisition is completed, and controls the automatic working device 1 to stop walking along the boundary line 3.
  • the main control module 1 4 detects whether the user interface 1 6 inputs an acknowledgment signal, and when detecting the user interface 16 input acknowledgment signal, it is determined that the area information acquisition is completed.
  • the next operation can be performed; if it is judged that the area information has not been obtained yet, the area information of the working area is continuously obtained.
  • Step S3 Processing the area information.
  • Processing Unit 1 4 1 After receiving the area information of the working area provided by the detection module 1 5 or the user interface 1 6 , the area information is processed and converted into a data format that the main control module 1 of the automatic working device 1 can recognize.
  • Step S4 Formulate a working time plan according to a preset scheduling algorithm.
  • the storage unit 1 4 2 stores a preset working time plan, and the preset working time plan corresponds to the working area interval.
  • the working area 600 square meters to 699 square meters
  • the corresponding working time plan is working area of 10 hours
  • the corresponding working time plan is Work for 15 hours.
  • the processing unit 1 4 1 compares the area information with each area of the storage unit 1 4 2 , and the area of the working area is greater than 700 square meters and less than 800.
  • the processing unit 1 4 1 reads the work plan corresponding to the working area interval of 700 square meters to 800 square meters, and the working time plan for the work is 15 hours.
  • the preset working time plan provided by the present embodiment, for the sake of simplicity of description, only two area intervals are listed by way of example, and the area interval of each working area is 100 square meters; in fact, the number of area intervals More can be, the area range can also be other than 100 square meters.
  • the working area of the automatic working equipment 1 ranges from 0 square meters to 1 500 square meters, and each area interval is 100 square meters, which can be divided into 15 area intervals; the working area of the automatic working equipment 1 From 0 square meters to 200 square meters, each area interval is 100 square meters, which can be divided into 20 area intervals; the working area of automatic working equipment 1 is 0. From square meters to 1 500 square meters, each area interval is 50 square meters, which can be divided into 30 area intervals; the working area of automatic working equipment 1 ranges from 0 square meters to 200 square meters. When each area is 50 square meters, it can be divided into 40 area intervals.
  • the preset scheduling algorithm may also be a preset function stored in the storage unit 1 4 2 with the area information as a variable, and the processing unit 14 1 substitutes the received area information into the preset function, according to the The preset function calculates the time required to complete the work, reads the working time plan corresponding to the result from the storage unit 142, and formulates the working time plan for the work.
  • the working time plan separately performs a sub-work time plan including a plurality of cycles in a plurality of unit time periods, and the length of each unit time period can be set according to, for example, each unit time period is 8 hours. 1 2 hours, 2 4 hours, etc.
  • the working state duration of the automatic working device 1 may be the same or different.
  • the first day of work is 7 hours after the end of the work, and the sleep state is finished after 5 hours of the next day.
  • Working for 3 hours in a day, completing the work the duration of the working state is decremented during each unit time period.
  • the working time plan includes the initial working time plan and the maintenance working time plan.
  • the working equipment 1 When the working equipment 1 is working in the working area for the first time, it is a brand new job, and the workload is large, so it takes a long time; after completing the initial work , spend less time each day to maintain the work.
  • the maintenance work schedule is scheduled to start after the initial work is completed, including multiple work time schedules per unit time period. In the present embodiment, after the automatic working equipment 1 completes the initial working time plan, the maintenance working time schedule is executed, and the work is performed for 2 hours per day.
  • the preset working time plan or formula is based on the path planning method of the automatic working equipment 1, and is experimentally or modeled. Select a more relaxed data when formulating a preset working time plan. For example, in the path planning mode, the maximum time required to complete the work in the same area of the work area, so as to ensure that the maximum can be completed in all cases. Part of the work.
  • Step S 5 Execute the working time plan.
  • the automatic working equipment 1 enters the working state at a predetermined time according to the working time schedule after getting the working time plan, and exits the working state at the predetermined time to enter the sleep state.
  • the automatic working device 1 automatically acquires the area information of the working area. It is necessary to detect the coordinates through the GPS module. Of course, the automatic working device can also measure the area information of the working area by other means.
  • the user can enter the command through the user interface 16 to cause the automatic working device 1 to depart from the stop station 5 and walk along the boundary line until returning to the starting point.
  • the automatic working device 1 detects and records the trajectory of walking.
  • the detecting module 15 of the automatic working device 1 includes a trajectory detecting unit that measures the walking distance of the driving wheel 111.
  • the trajectory measuring unit is measured by the principle of magnetic induction, and includes a magnetic generator and a magnetic detector.
  • the two driving wheels 111 are respectively provided with magnetic components, and the magnetic components may be magnets or other components capable of generating a magnetic field.
  • a magnetic sensor is provided in the position near the drive wheel 111 for sensing the magnetic element.
  • the magnetic sensor can detect and send a signal to the processing unit 141, which represents the driving wheel rotating one turn, the driving wheel 111
  • the circumference of the wheel and the number of turns of the drive wheel 111 are multiplied to obtain the distance traveled by the drive wheel 111.
  • the processing unit 141 can calculate the moving distance of the automatic working device 1 within a certain period of time or within a certain path according to the distance traveled by the driving wheel.
  • the trajectory detecting unit is not limited to the above-mentioned magnetic element and magnetic detector, and all detectors that can detect the rotational speed of the driving wheel are possible.
  • the driving wheels 111 are symmetrically disposed on the rear sides of the automatic working device 1, the wheel spacing between the two driving wheels is D, and the driving wheels 111 have the same diameter.
  • the processing unit 141 determines whether the automatic working device 1 is traveling in a straight line according to whether the distance traveled by the driving wheels 111 is the same. If the trajectory detecting unit detects that the traveling speeds of the two driving wheels 111 are the same, the automatic working device 1 is in a straight line. Walking; if the trajectory detecting unit detects that the traveling speeds of the two driving wheels 111 are different, it indicates that the automatic working device 1 is performing steering.
  • the processing unit 141 determines that the automatic working device is turning, it calculates the angle at which the automatic working device 1 changes direction according to the distance traveled by the driving wheel.
  • the steering angle of the working equipment 1 can also be measured by other means, such as setting an angular velocity sensor on the automatic working device 1, or a digital compass or the like.
  • Automatic working equipment 1 travels from the stop station along the boundary line to point A, at this time the boundary line 3 Changing the direction, the processing unit 141 determines that the automatic working device 1 is performing steering, calculates the position at which the automatic working device 1 is located at this time, and stores the position information in the storage unit 142.
  • the position at which the automatic working device 1 is located can be represented by the coordinates (X 1 , yl ) of the points in the Cartesian coordinate system where the stop station 5 is the coordinate origin. As shown in Fig. 9, the abscissa X 1 of the point A is the distance moved by the automatic working device 1 from the docking station 5 to the point A, and the vertical coordinate y 1 is 0.
  • the automatic working device 1 turns at point A, and the processing unit 141 calculates the angle at which the automatic working device 1 is rotated by ⁇ based on the aforementioned algorithm, and at this time, the processing unit 141 restarts calculating the distance moved by the automatic working device 1.
  • the automatic working device 1 continues to travel along the boundary line 3 to reach the turning point , and the processing unit 141 determines that the automatic working device 1 is turning at the , point, and calculates the coordinates of the ⁇ point in the Cartesian coordinate system with the stopping station as the coordinate origin (X 2, y 2 ), the processing unit 141 calculates that the distance moved by the automatic working device 1 from point A to point B is D 1 , and the abscissa X 2 of point B can pass the formula (X 1 +D 1 * c 0 s ⁇ ) Calculated, the ordinate y 2 of the ⁇ point can be calculated by the formula ( y 1 + D 1 * si ⁇ ⁇ ).
  • the processing unit can calculate the coordinates of each turning point during the walking of the automatic working device 1 along the boundary line 3 until it returns to the stop station 5, that is, when the automatic working device 1 returns to the coordinate origin (xOyO) again.
  • the main control module 14 determines that the walking track information has been acquired, and controls the automatic working device 1 to stop walking along the boundary line 3.
  • the automatic working device 1 obtains a set of coordinate values, ( xOyO )( xlyl )( x2y2 )...( xnyn ) ( xOyO ), which are the trajectory information of the automatic working device 1 walking along the boundary line.
  • the processing unit 141 calculates the coordinates of the turning point according to the sine or cosine formula.
  • other formulas can also calculate the coordinates of the turning point, such as a tangent formula, a cotangent formula, or a combination between the above formulas. .
  • the processing unit 141 calculates the area of the work area based on the preset area algorithm based on the coordinates of each of the turning points stored in the storage unit 142.
  • each turning point is connected to form a closed polygon
  • the area of the working area is equal to the area of the polygon
  • a method for controlling an automatic working device 1 according to a second embodiment of the present invention includes the following steps: Step S 1 0: The system starts.
  • the startup process of the system in the second embodiment of the present invention is the same as that of the first embodiment, and the description thereof will not be repeated here.
  • Step S1 1 Determine whether to enter the self-learning mode.
  • the automatic working device 1 determines whether it is necessary to enter the self-learning mode. For example, when the processing unit 1 4 1 of the automatic working device 1 detects that the working time plan already exists, it is determined that the automatic working device 1 does not need to enter the self-learning mode, and the work is performed. Time plan; The processing unit 1 of the automatic working device 1 enters the self-learning mode when it detects that there is no working time plan. The automatic working device 1 can also determine whether it needs to enter the self-learning mode by detecting whether its own geographical location changes. When the geographical location of the automatic working device 1 does not change, the automatic working device 1 does not enter the self-learning mode, and automatically works.
  • the automatic working device 1 can also determine whether it is necessary to enter the self-learning mode by detecting the time interval between the current booting time and the last booting time. When the time interval is greater than the predetermined value, the automatic working device 1 enters the self-learning mode. When the time interval is less than the predetermined value, the automatic working device 1 does not enter the self-learning mode.
  • the automatic working device 1 can also determine whether to enter the self-learning mode according to the information input by the user through the user interface 16 , and when the user selects to enter the self-learning mode through the user interface 16 , the automatic working device 1 enters the self-learning mode; When the user selects not to enter the self-learning mode through the user interface 16, the automatic working device 1 does not enter the self-learning mode.
  • Step S 1 2 Enter the self-learning mode.
  • the automatic working equipment 1 enters the self-learning mode.
  • the automatic working equipment 1 does not set the working time plan, starts from the stopping station 5, and walks in the working area according to the preset path planning mode.
  • the detection module 1 5 detects the working information of the automatic working equipment 1, and the working information may include one or more of the working time, the walking mileage, the working load, the walking path, and the like of the automatic working equipment 1 in the self-learning mode.
  • Step S 1 3 Determine whether to exit the self-learning mode.
  • the detecting module 15 includes a current detecting unit that detects the load current of the working module 12, and the processing unit 14 1 compares the detected load current with the stored preset value in the storage unit 1 4 2 if it is within a certain period of time The load current of the working module 1 2 is always less than the preset value, and the processing unit 1 4 1 judges that the working module 1 2 has no load for a long time, and controls the automatic working device 1 to exit the self-learning mode.
  • the automatic working device 1 can also judge whether it should exit the self-learning mode by other information. Style. For example, when the automatic working device 1 is an automatic lawn mower, the detecting module 15 includes a contact sensor disposed at the bottom of the automatic mower, and the contact sensor detects contact information between the grass and the bottom of the automatic mower, if for a period of time, The contact sensor has not detected the contact signal at all times, and the processing unit 1 4 1 considers that the work has been completed, and controls the automatic mower to exit the self-learning mode.
  • the detecting module 15 can detect the increase amount of dust in the dust collecting device. If the sensor does not detect the increase of dust at all for a period of time, the processing unit 14 1 considers that the automatic vacuum cleaner has been working. Finish, control the auto vacuum cleaner to exit the self-learning mode.
  • the automatic working device 1 can also judge whether the self-learning mode should be exited by the camera, the infrared sensor or the like, and is not enumerated here.
  • the automatic working device 1 automatically determines whether the self-learning mode should be exited. Of course, it can also be controlled by the user through the user interface 16. When the user determines that the automatic working device 1 needs to exit the self-learning mode, the user interface is pressed. On the corresponding button on 1 6 , the automatic working device 1 exits the self-learning mode.
  • Step S 1 4 Record the work information when the preset condition is met.
  • the working information of the automatic working device 1 detected by the detecting module 15 is recorded, for example, the working time, walking mileage, working load, walking path of the automatic working device 1 running in the self-learning mode and many more.
  • Recording the work information when the preset condition is met may be performed before exiting the self-learning mode or after exiting the self-learning mode or when exiting the self-learning mode, so the order of step S1 3 and step S 1 4 may be interchanged. Or at the same time, but the recorded work information is always at the time when the preset condition is met.
  • Step S 1 5 Processing the work information in the self-learning mode.
  • Processing unit 1 4 1 Process the work information and convert it into the data format of the master module of the automatic work device 1 4 .
  • Step S 1 6 Develop a working time plan according to a preset algorithm.
  • the storage unit 1 4 2 stores a preset working time schedule, and the preset working time schedule corresponds to the working information of the automatic working device 1 in the self-learning mode.
  • the work time in the work area is in the 10 hour - 15 hour interval, and the corresponding working time is planned to be 2 hours per day for maintenance; in the self-learning mode The working time is in the 16-hour to 20-hour interval, and the corresponding working time is planned to be maintained for 3 hours per day.
  • the working time is 1 2 Hours
  • the processing unit 1 4 1 compares the working time with each time interval in the storage unit 1 4 2 , and the working time is greater than 10 hours and less than 15 hours, then the processing unit 1 4 1 reads the working time interval 1 A work plan corresponding to 0 hours to 15 hours, and a working time plan for the work is planned to be 2 hours a day for maintenance.
  • the preset working time plan may also correspond to other work information of the automatic working device 1 in the self-learning mode, for example, the walking mileage running in the self-learning mode, the processing unit 1 4 1 will travel the mileage and storage. Comparing the respective mileage intervals in the unit 1 4 2, the corresponding work plan is selected as the working time schedule of the automatic working equipment 1.
  • the preset working time plan may also correspond to one or more of the working information of the automatic working device 1 in the self-learning mode, for example, the working time of the automatic working device 1 in the learning mode, the walking mileage, One or more of a workload, a walking path, and so on
  • the preset algorithm may also be a formula in which the working information of the automatic working device 1 in the self-learning mode is a variable, and the processing unit 1 1 1 substitutes the received working information into a preset formula to calculate the time required to complete the work. , Develop a working time plan for this work.
  • Step S 1 7 Execute the working time plan.
  • Automatic Work Equipment 1 After getting the working time plan, enter the working state at the scheduled time according to the working time schedule, and exit the working state at the scheduled time to enter the sleep state.
  • control method of the automatic working device 1 according to the third embodiment of the present invention includes the following steps:
  • Step S 2 0 The system starts up.
  • the startup process of the system in the third embodiment of the present invention is the same as that of the first embodiment, and the description thereof will not be repeated.
  • Step S 2 1 Develop a working time plan.
  • Automatic Work Equipment 1 After startup, develop a work time schedule.
  • the working time plan may be self-developed by the automatic working equipment 1 using the methods provided by the first embodiment and the second embodiment of the present invention.
  • the working time plan of 1 can also be input manually through the user interface 16 or through the connection interface of the automatic working device 1 with a computer or other device.
  • Step S 2 2 Perform the work. After obtaining the working time plan, the automatic working equipment 1 enters the working state at a predetermined time according to the working time schedule, and exits the working state at a predetermined time to enter the sleep state.
  • Step S23 Acquire external information.
  • the external information of the automatic work device 1 includes the date, time, geographic coordinates, environmental information, etc. of its own location.
  • the detecting module 15 detects external information in real time; detecting external information may also be performed periodically, for example, the automatic working device 1 performs a test every time from the sleep state to the working state; or the automatic working device 1 every other segment The time period is tested once, for example every other week or month.
  • the detection module 15 includes a GPS module, and the GPS module acquires data such as geographic coordinates, time, and date of the location of the automatic working device 1 .
  • the detection module 15 may also include an environmental sensor that detects environmental information of the location where the automatic working device 1 is located; the environmental sensor may be a temperature sensor and a humidity sensor that detects temperature information and humidity information of the location of the automatic working device 1 .
  • Step S24 Determine whether the external information is acquired.
  • the automatic working device 1 obtains external information, it is usually acquired in a certain combination.
  • the GPS module obtains the geographical coordinates, time and date of the location of the automatic working device 1 itself, when the three data are acquired, the external information is obtained. carry out.
  • the environmental sensor detects the environmental information, when the temperature and humidity data are acquired, it is judged that the external information acquisition is completed.
  • Step S25 Processing external information. After receiving the external information provided by the detection module 15, the processing unit 141 processes the external information and converts it into a data format that the master module 14 of the automatic working device 1 can recognize.
  • Step S 26 Modify the working time plan according to a preset algorithm.
  • a preset adjustment schedule based on the work time schedule is stored in the storage unit 142.
  • the adjustment plan stored in the storage unit 142 is set based on the growth law of the grass in each region of the world in one year, and these laws can be known by meteorological statistical data. For example, grass in China has the fastest growth rate in summer, followed by spring and autumn, and winter grass grows the slowest.
  • the adjustment plan stored in storage unit 142 is shown in Table 1:
  • the adjustment plan in Table 1 is based on the working time plan of the automatic mower 1 by multiplying the time of each unit time by a preset factor to increase or decrease the working time.
  • the preset coefficients are in the form of percentages. Of course, the preset coefficients can also be other forms, such as decimals or functions.
  • the processing unit 1 4 1 receives the time, date and geographic coordinate information provided by the GPS module of the detection module 1 5, first determines which area the automatic lawn mower is in, for example, when the GPS module acquires the coordinates of the position where the automatic lawn mower is located, the east longitude 1 2 0 degrees, 20 degrees north latitude, when the date is June 1, the processing unit 1 4 1 compares the geographical coordinate information with the global map data stored in the storage unit 1 4 2, and concludes that the automatic lawn mower is in the Chinese region. Then, compared with the various date intervals as shown in Table 1 stored in the storage unit 1 4 2, it is known that the automatic lawn mower adjustment plan is multiplied by 150% based on the working time plan. For example, in the working time plan, the automatic mower needs to cut grass for 10 hours. When the automatic mower detects the external information as described above, the mowing time of the automatic mower is adjusted to 15 hours.
  • the interval in the preset adjustment plan provided by the present embodiment, for the convenience of description, in the interval of 3 months, the interval can be set as needed, for example, one month or even shorter, and the shorter the interval spanning, The adjustment of the work of the automatic mower can be more precise.
  • the automatic mower can also adjust the schedule by changing the time to start mowing.
  • the time of day is different. Before the day, the grass will be damp, which is unfavorable for mowing. Adjustments to the start of mowing time can be added to the preset adjustment plan.
  • the adjustment plan stored in the storage unit 1 4 2 can also be set based on the growth law of the grass under different temperatures and different humidity conditions, and these rules can also be easily obtained through meteorological statistical data. For example, if the grass grows at a temperature greater than 20 degrees Celsius and the humidity is greater than 30%, the automatic mower can increase the mowing time by adjusting the plan; the grass is at a temperature lower than 10 degrees Celsius, and the humidity is lower than 1 When the growth rate is the slowest at 0%, the automatic mower can reduce the mowing time by adjusting the plan accordingly; when the temperature and humidity are between the above two intervals, the automatic mower does not adjust the working time schedule.
  • the adjustment plan stored in the storage unit 1 4 2 can be set based on the correspondence between the climate and the formation of dust, for example, external information detected by the GPS module, the processing unit 1 4 1 Judging the geographical location of the automatic vacuum cleaner, it is easy to form a dusty weather at the current time, and correspondingly increasing the vacuuming time; when the location of the automatic vacuum cleaner is not easy to form a dusty weather at the current time, the cleaning time is correspondingly reduced.
  • the processing unit 1 4 1 determines whether the position of the automatic vacuum cleaner is located, and whether the temperature and humidity conditions are favorable for forming dust.
  • the automatic vacuum cleaner adjusts the working time schedule in a manner similar to the automatic lawn mower described above, and the description will not be repeated here.
  • Step S 2 7 Execute the revised working time plan.
  • the automatic working equipment 1 enters the working state at the scheduled time according to the modified working time schedule, and exits the working state at a predetermined time to enter the sleep state.
  • the automatic working device 1 automatically acquires external information through the detecting module.
  • the automatic working device 1 can also manually input the working time schedule adjustment parameter through the user interface 16 .
  • the user interface 1 of the automatic working device 1 sets an adjustment button, for example, an increase and decrease of the working time button.
  • the processing unit 14 receives the input information provided by the user interface 16. Processing, reading the corresponding adjustment parameter from the storage unit 1 4 2; for example, when the user selects the increase of the working time button once, the corresponding adjustment plan is to increase the working time by 10%, when the user selects twice consecutively, the corresponding The adjustment plan is to increase the working time by 20%; when the user selects the time limit for reducing the working time, the corresponding adjustment plan is to reduce the working time by 10%. When the user selects twice continuously, the corresponding adjustment plan is reduced by 2 0% of working time. Similarly, the user can easily adjust the time when the automatic working device 1 starts working through the user interface 16.
  • control method of the automatic working device provided by the third embodiment of the present invention can be applied to an automatic working device that needs to manually set a working time plan, or can be applied to an automatic working device that does not need to manually set a working time plan, in particular Control method of automatic working equipment provided by the first embodiment of the present invention and the second embodiment of the present invention Used together.
  • the automatic working device and the control method thereof provided by the invention can start work without complicated setting in the initial work, and can automatically change the working time plan according to external conditions such as climate during use, so that Use more convenient and convenient, give users a good experience

Abstract

An automatic work apparatus (1) which can automatically move to work within a set working area has a working state and a dormant state. A control method for the automatic work apparatus comprises the following steps: starting the automatic work apparatus (1) (S0); obtaining the area information of the working area (S1); determining work time schedule according to the preset program algorithm based on the area information (S4). The automatic work apparatus enters the working state and exits the work state to the dormant state according to the work time schedule. While working, the automatic work apparatus can automatically constitute the work time schedule without complicated settings by user so as to be used more simply and conveniently.

Description

自动工作设备及其控制方法 技术领域  Automatic working equipment and control method thereof
本发明涉及一种 自 动工作设备及其控制方法。  The present invention relates to an automatic working device and a control method therefor.
背景技术 Background technique
随着科学技术的不断进步 各种 自 动工作设备已经开始慢慢的走 进人们的生活 , 例如 自 动吸 器和 自 动割草机等 。 这种 动工作设备 具有行走装置 , 工作衣且 , 以及 自 动控制衣且 , 从而使得 自 动工作设 备能够脱离人们的操作, 在 —定范围 内 动行走并执行工作, 在 自 动 工作设备的 _S- ~r  With the continuous advancement of science and technology, various automatic working equipments have begun to slowly enter people's lives, such as automatic suction machines and automatic lawn mowers. The movable working device has a walking device, a work clothes, and an automatic control device, so that the automatic working device can be separated from the operation of the person, and walks and performs work within a certain range, in the automatic working device _S-~ r
储能装置 H 里 不足时 , 其能够 自 动返回充电站装置进行充 电 , 然后继续工作。 这种 自 动工作设备将人们从房屋清洁 、 草坪修剪 等枯燥且费时费力的家务工作中解放出来 , 节省 了人们的时间 , 为人 们生活带来了便利。  When the energy storage device H is insufficient, it can automatically return to the charging station device for charging, and then continue to work. This kind of automatic work equipment frees people from the boring and time-consuming work of housework such as house cleaning and lawn trimming, saving people's time and bringing convenience to people's lives.
然而, 动工作设备的控制往往是比较复杂的。 在初次使用 自 动 工作设备时 使用者需要输入 —系列 的指令, 使 自 动工作设备能够正 确的开始工作 。 例如使用 者而要进行工作区域的设定, 工作时间的设 定 , 工作模式的设定等等。 fk而此类指令的设定往往是困难的, 特别 是具有较多 功能的 自 动工作设备或者能够编程预设工作计划 的 自 动 工作设备, 使用者需要在大量的菜单中寻找相应的栏 目 以及进行步骤 复杂的设定; 此外, 当 自 动工作设备的使用 环境发生变化时, 使用者 需要重新进行上述设定, 给使用 带来了 不便。 发明内容  However, the control of moving work equipment is often more complicated. When using the automatic working equipment for the first time, the user needs to input the – series of instructions to enable the automatic working equipment to start working properly. For example, the user must set the work area, set the work time, set the work mode, and so on. Fk and the setting of such instructions is often difficult, especially for automatic working equipment with more functions or automatic working equipment capable of programming preset work plans. Users need to find corresponding columns and steps in a large number of menus. Complex settings; In addition, when the usage environment of the automatic work equipment changes, the user needs to re-set the above settings, which brings inconvenience to the use. Summary of the invention
为解决上述技术问题, 本发明提供一种使用 方便的 自 动工作设备 及其控制方法。  In order to solve the above technical problems, the present invention provides an automatic working device and a control method thereof which are convenient to use.
为 实现上述目 的 , 本发明提供的技术方案是: 一种 自 动工作设备 的控制方法, 所述 自 动工作设备在设定的工作区域内 自 动移动工作, 具有工作状态和休眠状态, 所述控制方法包括如下步骤: 启动所述 自 动工作设备运行; 获取所述工作区域的面积信息; 基于所述面积信息 按照预设排程算法制定工作时间计划; 所述 自 动工作设备依照所述工 作时间计划进入工作状态和退出 工作状态, 进入休眠状态。 优选的, 所述预设排程算法为: 将所述面积信息与预设的若干面 积区间进行比较; 找到所述面积信息所在的预设面积区间; 读取所述 预设面积区 间对应的工作时间计划。 In order to achieve the above object, the technical solution provided by the present invention is: A method for controlling an automatic working device, wherein the automatic working device automatically moves in a set working area, has a working state and a sleeping state, and the control method includes The following steps are: starting the automatic working device operation; acquiring area information of the working area; formulating a working time plan according to the area information according to a preset scheduling algorithm; and the automatic working device enters a working state according to the working time plan And exit the working state, enter the sleep state. Preferably, the preset scheduling algorithm is: comparing the area information with a preset number of area intervals; finding a preset area interval where the area information is located; and reading the work corresponding to the preset area interval Time plan.
优选的 , 所述预设排程算法为 : 将所述面积信息代入预设函数; 根据所述预设函数计算出 结果; 读取所述结果对应的工作时间计划 。  Preferably, the preset scheduling algorithm is: substituting the area information into a preset function; calculating a result according to the preset function; and reading a working time plan corresponding to the result.
优选的, 所述面积信息通过以下步骤获取: 所述 自 动工作设备从 起点出发沿所述工作区域的边界移动, 并返回起点; 记录所述 自 动工 作设备移动过程中的轨迹信息; 根据所述轨迹信息计算出所述工作区 域的面积信息。  Preferably, the area information is obtained by the following steps: the automatic working device moves from the starting point along the boundary of the working area, and returns to the starting point; records the track information during the moving of the automatic working device; The information calculates the area information of the work area.
优选的 , 记录所述 自 动工作设备移动过程中 的轨迹信息为通过 G P S 定位记录的所述工作区域的地图数据 .  Preferably, the track information recorded during the movement of the automatic working device is the map data of the work area recorded by the POS positioning.
优选的 , 记录所述 自 动工作设备移动过程中 的轨迹信息为记录所 述 自 动工作设备每次改变方向时所处位置的坐标信息。  Preferably, the track information recorded during the moving of the automatic working device is recorded as coordinate information of a position where the automatic working device changes direction each time.
优选的, 所述面积信息通过以下步骤获取: 在所述 自 动设备上设 置的输入界面录入使用者输入的面积信息。  Preferably, the area information is obtained by the following steps: inputting an input interface set on the automatic device to input area information input by a user.
优选的 , 所述工作时间计划 包括初次工作时间计划和维护工作时 间计划。  Preferably, the working time plan includes a first working time plan and a maintenance working time plan.
优选的 , 所述工作时间计划 包括多 个周期相 同 的子工作时间计划 。 优选的, 所述周期为 2 4 小时。  Preferably, the working time plan includes a plurality of sub-work time plans with the same period. Preferably, the period is 24 hours.
优选的, 所述多 个子工作时间计划相同 。  Preferably, the plurality of sub-work hours are planned to be the same.
优选的 , 所述多 个子工作时间计划 中 工作状态的持续时间递减。 优选的 , 所述多 个子工作时间计划 中 工作状态的开始时间 不 同 。 优选的 , 所述控制方法还包括以下步骤: 获取外部信息; 基于所 述外部信息按照预设调整算法调整所述工作时间计划。  Preferably, the duration of the working state in the plurality of sub-work time schedules is decreased. Preferably, the starting time of the working state in the plurality of sub-work time schedules is different. Preferably, the control method further comprises the steps of: acquiring external information; adjusting the working time plan according to the preset adjustment algorithm based on the external information.
优选的, 所述外部信息为使用者输入的调整信号。  Preferably, the external information is an adjustment signal input by a user.
优选的 , 所述外部信息为所述 自 动工作设备通过 G P S 定位获得的 自 身所在位置的经度纬度、 日 期和时间信息。  Preferably, the external information is longitude, latitude, date and time information of the location of the self-operating device obtained by the PG positioning.
优选的, 所述预设调整算法为: 判断所述经度纬度所在的预设经 度纬度区间; 判断所述 日 期所在的预设 日 期区间 ; 依据所述预设经度 纬度区 间及所述预设 日 期 区 间相对应的调整计划调整所述工作时间 计划。 优选的 , 所述外部信息为所述 自 动工作设备通过传感器获得的所 述 自 动工作设备 自 身所在位置的温度和湿度信息。 Preferably, the preset adjustment algorithm is: determining a preset longitude latitude interval where the longitude and latitude is located; determining a preset date interval where the date is located; according to the preset longitude latitude interval and the preset date interval The corresponding adjustment plan adjusts the working time plan. Preferably, the external information is temperature and humidity information of a location of the automatic working device itself obtained by the automatic working device through a sensor.
优选的, 所述预设调整算法为: 判断所述温度所在的预设温度区 间; 判断所述湿度所在的预设 、、 度区间 ; 依据所述预设温度区间及所 述湿度区间相对应的调整计划调整所述工作时间计划 。  Preferably, the preset adjustment algorithm is: determining a preset temperature interval where the temperature is located; determining a preset period and a degree interval where the humidity is located; and corresponding to the preset temperature interval and the humidity interval The adjustment plan adjusts the working time plan.
优选的 , 调整所述工作时间计划是调整所述工作状态的持续时间 。 优选的 , 调整所述工作时间计划是将所述工作状态的持续时间用 所述工作状态的持续时间乘以 系数替换。  Preferably, adjusting the working time plan is to adjust the duration of the working state. Preferably, adjusting the working time plan is to replace the duration of the working state by a factor multiplied by a duration of the working state.
优选的 , 调整所述工作时间计划是调整所述工作状态的开始时间 。 优选的 , 通过设置于所述 动工作设备中轴线两侧的边界传感器 检测所述工作区域的边界, 当其中一侧的边界传感器首先检测到边界 时, 所述 动工作设备向另 一侧的边界传感器所在的方向转向。  Preferably, adjusting the working time plan is a starting time for adjusting the working state. Preferably, the boundary of the working area is detected by a boundary sensor disposed on two sides of the central axis of the movable working device, and when the boundary sensor of one side first detects the boundary, the boundary of the working device to the other side The direction in which the sensor is located is turned.
优选的 , 通过设置于所述 动工作设备中轴线两侧的边界传感器 检测所述工作区域的边界, 当所述边界传感器检测到边界时, 所述 自 动工作设备判断所述中轴线和边界所成的角度, 并向减小 中轴线和边 界所成的锐角 夹角或直角 夹角 的方向继续行走。  Preferably, the boundary of the working area is detected by a boundary sensor disposed on two sides of the central axis of the movable working device, and when the boundary sensor detects a boundary, the automatic working device determines that the central axis and the boundary are formed. The angle, and continue to walk in the direction of the angle between the sharp angle formed by the reduction of the central axis and the boundary.
本发明提供的另 一种技术方案是: 一种 自 动工作设备的控制方法, 所述 自 动工作设备在设定的工作区域内 自 动移动工作, 所述控制方法 包括如下步骤: 启动所述 自 动工作设备运行; 所述 自 动工作设备从起 点出发沿所述工作区域的边界移动, 并返回起点; 记录所述 自 动工作 设备移动过程中的轨迹信息; 基于所述轨迹信息按照预设面积算法算 出所述工作区域的面积。  Another technical solution provided by the present invention is: A method for controlling an automatic working device, wherein the automatic working device automatically moves in a set working area, the control method comprising the following steps: starting the automatic working device Running; the automatic working device moves from the starting point along the boundary of the working area, and returns to the starting point; records the track information in the moving process of the automatic working device; and calculates the work according to the preset area algorithm based on the track information The area of the area.
优选的 , 记录所述 自 动工作设备移动过程中 的轨迹信息通过以下 步骤获取: 计算 自 动工作设备移动轨迹相对于起点的坐标; 记录上述 坐标。  Preferably, the track information recorded during the moving of the automatic working device is obtained by: calculating the coordinates of the moving path of the automatic working device relative to the starting point; recording the above coordinates.
优选的 , 记录所述 自 动工作设备移动过程中 的轨迹信息通过以下 步骤获取: 检测 自 动工作设备是否转向; 若转向 , 根据记录的上次转 向时, 自 动工作设备的坐标和转向的角度大小 , 计算 自 动工作设备本 次转向时相对于所述起点的坐标; 计算 自 动工作设备本次转向的角度 大小 , 用 于计算下次转向时 自 动工作设备的坐标。  Preferably, the track information recorded during the movement of the automatic working device is obtained by: detecting whether the automatic working device is turned; if steering, according to the recorded last steering, the coordinates of the automatic working device and the angle of the steering are calculated. The coordinate of the automatic working equipment relative to the starting point during the current turning; Calculating the angle of the current working equipment to the current steering, used to calculate the coordinates of the automatic working equipment at the next turning.
优选的 , 检测 自 动工作设备是否改变移动方向通过以下方法获取: 检测 自 动工作设备驱动轮之间的速度差。 Preferably, detecting whether the automatic working device changes the moving direction is obtained by the following method: Detecting the speed difference between the drive wheels of the automatic work equipment.
优选的 , 通过 自 动工作设备上的角速度传感器检测 自 动工作设备 是否改变移动方向。  Preferably, the angular velocity sensor on the automatic working device detects whether the automatic working device changes the direction of movement.
优选的 , 所述工作区域的面积基于所述 自 动工作设备移动轨迹相 对于起点的坐标通过多 边形面积公式计算。  Preferably, the area of the working area is calculated by a polygon area formula based on coordinates of the moving path of the automatic working device relative to the starting point.
优选的 , 记录所述 自 动工作设备移动过程中 的轨迹信息为通过 G P S 定位记录的所述工作区域的地图数据。  Preferably, the track information recorded during the moving of the automatic working device is the map data of the work area recorded by the POS positioning.
优选的 , 所述 自 动工作设备基于所述工作区域的面积制定工作时 间计划。  Preferably, the automatic working device formulates a working time schedule based on an area of the work area.
本发明提供的另 一种技术方案是: 一种 自 动工作设备, 在设定的 工作区域内 自 动行走工作, 包括: 机壳; 工作模块; 行走模块, 支撑 并驱动所述 自 动工作设备行走; 主控模块, 控制所述行走模块和所述 工作模块工作; 所述 自 动工作设备还包括轨迹检测单元和面积计算单 元, 轨迹检测单元记录所述 自 动工作设备沿所述工作区域的边界行走 的轨迹信息, 面积计算单元基于所述轨迹信息按照预设面积算法算出 所述工作区域的面积。  Another technical solution provided by the present invention is: an automatic working device that automatically walks in a set working area, including: a casing; a working module; a walking module that supports and drives the automatic working device to walk; Controlling module, controlling the walking module and the working module to work; the automatic working device further comprises a trajectory detecting unit and an area calculating unit, wherein the trajectory detecting unit records trajectory information of the automatic working device walking along a boundary of the working area The area calculation unit calculates the area of the work area according to the preset area algorithm based on the track information.
优选的 , 所述轨迹检测单元包括检测行走模块运动的磁感应单元, 所述主控模块基于所述行走模块的运动计算出 自 动工作设备移动轨 迹相对于起点的坐标。  Preferably, the trajectory detecting unit comprises a magnetic sensing unit for detecting movement of the walking module, and the main control module calculates coordinates of the moving trajectory of the automatic working device relative to the starting point based on the movement of the walking module.
优选的 , 所述 自 动工作设备通过所述磁感应单元检测所述 自 动工 作设备是否改变移动方向 , 计算转向角 的大小 , 计算 自 动工作设备转 向时相对于所述起点的坐标。  Preferably, the automatic working device detects whether the automatic working device changes the moving direction by the magnetic sensing unit, calculates the steering angle, and calculates the coordinates of the automatic working device relative to the starting point when the vehicle is turned.
优选的 , 所述 自 动工作设备通过所述磁感应单元检测 自 动工作设 备驱动轮之间的速度差。  Preferably, the automatic working device detects a speed difference between the driving wheels of the automatic working device through the magnetic sensing unit.
优选的 , 所述轨迹检测单元包括角速度传感哭 检测所述 自 动工 作设备移动方向的改变。  Preferably, the trajectory detecting unit includes an angular velocity sensing crying to detect a change in a moving direction of the automatic working device.
优选的 , 所述工作区域的面积基于所述 自 动工作设备移动轨迹相 对于起点的坐标通过多 边形面积公式计算。  Preferably, the area of the working area is calculated by a polygon area formula based on coordinates of the moving path of the automatic working device relative to the starting point.
优选的 , 所述轨迹检测单元为 G P S模块。  Preferably, the track detecting unit is a G P S module.
优选的 , 所述 自 动工作设备基于所述工作区域的面积制定工作时 间计划。 本发明提供的另一种技术方案是: 一种 自 动工作设备, 在设定的 工作区域内 H 动行走工作, 包括: 机壳; 工作模块; 行走模块, 支撑 并驱动所述 动工作设备行走; 所述 自 动工作设备检测所述工作区域 并且基于所述工作区域设定工作时间 。 Preferably, the automatic working device formulates a working time plan based on an area of the work area. Another technical solution provided by the present invention is: an automatic working device, H moving work in a set working area, comprising: a casing; a working module; a walking module, supporting and driving the moving working device to walk; The automated work device detects the work area and sets a work time based on the work area.
优选的 所述 自 动工作设备包括 G P S 定位模块, 所述 自 动工作设 备从起点出发沿所述工作区域的边界并返回起点, 所述 G P S 定位模块 记录所述工作区域的地图数据, 根据所述地图数据计算出所述工作区 域的面积信息 , 所述 自 动工作设备基于所述面积信息设定工作时间 。  Preferably, the automatic working device includes a GPS positioning module, the automatic working device starts from a starting point along a boundary of the working area and returns to a starting point, and the GPS positioning module records map data of the working area, according to the map data. The area information of the work area is calculated, and the automatic work equipment sets the work time based on the area information.
优选的 所述 自 动工作设备包括输入界面, 录入使用者输入的面 积信息, 所述 自 动工作设备基于所述面积信息设定工作时间 。  Preferably, the automatic working device comprises an input interface for inputting area information input by the user, and the automatic working device sets the working time based on the area information.
优选的 所述 自 动工作设备包括外部信息釆集单元, 所述外部信 息釆集单元釆集外部信息, 所述 自 动工作设备基于所述外部信息调整 所述工作时间 。  Preferably, the automatic working device includes an external information gathering unit, the external information collecting unit collects external information, and the automatic working device adjusts the working time based on the external information.
优选的 所述外部信息釆集单元为输入界面, 录入使用者输入的 调整信号 。  Preferably, the external information gathering unit is an input interface, and an adjustment signal input by the user is input.
优选的 所述外部信息釆集单元为 G P S 定位模块, 所述 G P S 定位 模块获取所述 自 动工作设备所在位置的经纬、 日 期和时间信息。  Preferably, the external information gathering unit is a G P S positioning module, and the G P S positioning module acquires the latitude, longitude, date and time information of the location of the automatic working device.
优选的, 所述外部信息釆集单元为传感器, 所述传感器获取所述 自 动工作设备所在位置的温度和湿度信息。  Preferably, the external information gathering unit is a sensor, and the sensor acquires temperature and humidity information of a location where the automatic working device is located.
优选的, 所述主控单元调整所述 自 动工作设备工作持续时间 。 优选的, 所述主控单元调整所述 自 动工作设备工作开始时间 。 优选的, 所述 动工作设备包括边界传感器, 设置于所述 自 动工 作设备中轴线的两侧 , 检测所述工作区域的边界, 当其中 —侧的边界 传感器首先检测到边界时, 所述 自 动工作设备向另一侧的边界传感器 所在的方向转向 。  Preferably, the main control unit adjusts the working duration of the automatic working device. Preferably, the main control unit adjusts the working start time of the automatic working device. Preferably, the movable working device includes a boundary sensor disposed on two sides of the central axis of the automatic working device to detect a boundary of the working area, and when the boundary sensor of the side detects the boundary first, the automatic working The device turns to the direction of the boundary sensor on the other side.
优选的, 所述 动工作设备包括边界传感器, 设置于所述 自 动工 作设备中轴线的两侧 , 当所述边界传感器检测到边界时, 所述 自 动工 作设备判断所述中轴线和边界所成的角度, 并向减小 中轴线和边界所 成的锐角 夹角或直角 夹角 的方向继续行走。  Preferably, the mobile working device includes a boundary sensor disposed on two sides of the central axis of the automatic working device. When the boundary sensor detects a boundary, the automatic working device determines the central axis and the boundary. Angle, and continue to walk in the direction of the angle between the acute angle and the boundary formed by the reduction of the central axis and the boundary.
优选的, 所述 动工作设备为割草机或吸尘 器。  Preferably, the movable working device is a lawn mower or a vacuum cleaner.
本发明提供的另 一种技术方案是: 一种 自 动工作设备 在设定的 工作区域内 自 动行走工作, 具有工作状态和休眠状态, 包括: 机壳; 工作模块; 行走模块, 支撑并驱动所述 自 动工作设备行走; 主控模块, 控制所述行走模块和所述工作模块工作; 所述 自 动工作设备还包括面 积信息釆集单元, 面积信息釆集单元釆集所述工作区域的面积信息, 所述主控模块接收所述面积信息, 基于所述面积信息按照预设排程算 法制定工作时间计划 , 并控制所述工作模块和所述行走模块按照所述 工作时间计划进入工作状态和退出 工作状态, 进入休眠状态。 Another technical solution provided by the present invention is: an automatic working device in a set The working area automatically moves, has a working state and a sleeping state, and includes: a casing; a working module; a walking module, supports and drives the automatic working device to walk; a main control module, controls the walking module and the working module to work The automatic working device further includes an area information collecting unit, the area information collecting unit collecting the area information of the working area, the main control module receiving the area information, and according to the area information, according to the preset schedule The algorithm formulates a working time plan, and controls the working module and the walking module to enter a working state and exit the working state according to the working time plan, and enter a sleep state.
优选的, 所述 自 动工作设备包括 G P S 定位模块, 所述 自 动工作设 备从起点出发沿所述工作区域的边界并返回起点, 所述 G P S 定位模块 记录所述工作区域的地图数据, 根据所述地图数据计算出所述工作区 域的面积信息。  Preferably, the automatic working device includes a GPS positioning module, and the automatic working device starts from a starting point along a boundary of the working area and returns to a starting point, and the GPS positioning module records map data of the working area according to the map. The data calculates the area information of the work area.
优选的 , 所述 自 动工作设备包括输入界面, 录入使用 者输入的面 积信息。  Preferably, the automatic working device comprises an input interface for inputting area information input by the user.
优选的 , 所述 自 动工作设备包括外部信息釆集单元, 所述外部信 息釆集单元釆集外部信 、 所述主控单元接收所述外部信息, 基于所 述外部信息按照预设调整算法调整所述工作时间计划。  Preferably, the automatic working device includes an external information gathering unit, the external information collecting unit collects an external signal, the main control unit receives the external information, and adjusts the preset according to the external information according to a preset adjustment algorithm. Work time plan.
优选的 , 所述外部信息釆集单元为输入界面, 录入使用者输入的 调整信号 。  Preferably, the external information gathering unit is an input interface, and an adjustment signal input by the user is input.
优选的 , 所述外部信息釆集单元为 G P S 定位模块, 所述 G P S 定位 模块获取所述 自 动工作设备所在位置的经纬、 日 期和时间信息。  Preferably, the external information gathering unit is a G P S positioning module, and the G P S positioning module acquires the latitude, longitude, date and time information of the location of the automatic working device.
优选的, 所述外部信息釆集单元为传感器, 所述传感器获取所述 自 动工作设备所在位置的温度和湿度信息。  Preferably, the external information gathering unit is a sensor, and the sensor acquires temperature and humidity information of a location where the automatic working device is located.
优选的, 所述主控单元调整所述工作状态的持续时间  Preferably, the main control unit adjusts the duration of the working state
优选的, 所述主控单元调整所述工作状态的开始时间 。  Preferably, the main control unit adjusts a start time of the working state.
优选的, 所述 动工作设备包括边界传感器 , 设置于所述 自 动工 作设备中轴线的两侧 , 检测所述工作区域的边界 , 当其中 —侧的边界 传感器首先检测到边界时, 所述 自 动工作设备向另一侧的边界传感器 所在的方向转向 。  Preferably, the movable working device includes a boundary sensor disposed on two sides of the central axis of the automatic working device to detect a boundary of the working area, and when the boundary sensor of the side detects the boundary first, the automatic working The device turns to the direction of the boundary sensor on the other side.
优选的, 所述 动工作设备包括边界传感器 , 设置于所述 自 动工 作设备中轴线的两侧 , 当所述边界传感器检测到边界时, 所述 自 动工 作设备判断所述中轴线和边界所成的角度, 并向减小 中轴线和边界所 成的锐角 夹角或直角 夹角 的方向继续行走。 Preferably, the mobile working device includes a boundary sensor disposed on two sides of the central axis of the automatic working device. When the boundary sensor detects a boundary, the automatic working device determines the central axis and the boundary. Angle, and reduce the central axis and boundary Continue to walk in the direction of the acute angle or the angle between the right angles.
优选的, 所述自 动工作设备为割草机或吸尘器。  Preferably, the automatic working device is a lawn mower or a vacuum cleaner.
本发明提供的另 一种技术方案是: 一种 自 动工作设备, 在设定的 工作区域内 自 动行走工作, 具有工作状态和休眠状态, 包括: 机壳; 工作模块; 行走模块, 支撑并驱动所述 自 动工作设备行走; 主控模块, 控制所述行走模块和所述工作模块工作; 所述 自 动工作设备还包括信 息釆集单元, 釆集所述 自 动工作设备 自 身所在区域的信息, 所述主控 模块接收所述信息, 基于所述信息按照预设排程算法制定工作时间计 划 , 并控制所述工作模块和所述行走模块按照所述工作时间计划进入 工作状态和退出 工作状态, 进入休眠状态。  Another technical solution provided by the present invention is: an automatic working device, which automatically walks in a set working area, has a working state and a sleep state, and includes: a casing; a working module; a walking module, a supporting and driving station The automatic working device walks; the main control module controls the walking module and the working module to work; the automatic working device further includes an information collecting unit, and collects information about the area where the automatic working device is located, the main The control module receives the information, formulates a working time plan according to the preset information according to the preset scheduling algorithm, and controls the working module and the walking module to enter a working state and exit the working state according to the working time plan, and enter a sleep state. .
优选的, 所述信息釆集单元为 G P S模块, 釆集 自 身所在区域的面 积、 经度纬度、 日 期、 时间数据中的一个或多 个。  Preferably, the information collection unit is a G P S module, and collects one or more of area, longitude latitude, date, and time data of the area where the user is located.
本发明提供的另一种技术方案是: 一种 自 动工作设备, 在设定的 工作区域内 自 动行走工作, 具有工作状态和休眠状态, 包括: 机壳; 工作模块; 行走模块, 支撑并驱动所述 自 动工作设备行走; 主控模块, 控制所述工作模块和所述行走模块按照预设的工作时间计划进入工 作状态和退出 工作状态, 进入休眠状态; 所述 自 动工作设备包括外部 信息釆集单元, 所述外部信息釆集单元釆集外部信息, 所述主控模块 接收所述外部信息, 并基于所述外部信息按照预设调整算法调整所述 工作时间计划。  Another technical solution provided by the present invention is: an automatic working device, which automatically walks in a set working area, has a working state and a sleep state, and includes: a casing; a working module; a walking module, a supporting and driving station The automatic working device walks; the main control module controls the working module and the walking module to enter a working state and exit the working state according to a preset working time schedule, and enters a sleep state; the automatic working device includes an external information gathering unit The external information gathering unit collects external information, the main control module receives the external information, and adjusts the working time plan according to the preset information according to the preset information.
优选的, 所述外部信息釆集单元为输入界面, 录入使用者输入的 调整信号。  Preferably, the external information gathering unit is an input interface, and an adjustment signal input by the user is input.
优选的, 所述外部信息釆集单元为 G P S 定位模块, 所述 G P S 定位 模块获取 自 身所在位置的经度纬度、 日 期和时间信息。  Preferably, the external information gathering unit is a G P S positioning module, and the G P S positioning module obtains latitude and longitude, date and time information of the location where the user is located.
优选的 , 所述主控模块判断所述经度纬度所在的预设经度纬度区 间; 判断所述 日 期所在的预设 日 期区间; 依据所述预设经度纬度区间 及所述预设 日 期区间相对应的调整计划调整所述工作时间计划。  Preferably, the main control module determines a preset longitude latitude interval in which the latitude and longitude is located; and determines a preset date interval in which the date is located; and corresponding to the preset longitude latitude interval and the preset date interval. The adjustment plan adjusts the working time plan.
优选的, 所述外部信息釆集单元为传感器, 所述传感器获取 自 身 所在位置的温度和湿度信息。  Preferably, the external information gathering unit is a sensor, and the sensor acquires temperature and humidity information of a location where it is located.
优选的, 所述主控模块判断所述温度所在的预设温度区间 ; 判断 所述湿度所在的预设湿度区 间; 依据所述预设温度区间及所述湿度区 间相对应的调整计划调整所述工作时间计划。 Preferably, the main control module determines a preset temperature interval in which the temperature is located; and determines a preset humidity interval in which the humidity is located; according to the preset temperature interval and the humidity region The corresponding adjustment plan adjusts the working time plan.
优选的 , 所述主控模块调整所述工作状态的持续时间 。  Preferably, the main control module adjusts the duration of the working state.
优选的 , 所述主控模块将所述工作状态的持续时间用 所述工作状 太的持续时间乘以 系数替换。  Preferably, the main control module replaces the duration of the working state by a factor of the duration of the working condition, multiplied by a coefficient.
优选的 , 所述主控模块调整所述工作状态的开始时间 。  Preferably, the main control module adjusts a start time of the working state.
本发明提供的另 一种技术方案是: 一种 自 动工作设备的控制方法 所述 自 动工作设备在设定的工作区域内 自 动移动工作 , 具有工作状态 和休眠状太 , 所述控制方法包括如下步骤: 启动所述 自 动工作设备运 行 , 所述 动工作设备依照工作时间计划进入工作状态和退出 工作状 太 , 进入休眠状态; 所述控制方法还包括以下步骤: 获取外部信息; 基于所述外部信息按照预设调整算法调整所述工作时间计划 。  Another technical solution provided by the present invention is: A method for controlling an automatic working device, wherein the automatic working device automatically moves in a set working area, and has a working state and a dormant state. The control method includes the following steps. : starting the automatic working device operation, the working device enters the working state according to the working time schedule and exits the working state too, and enters the sleep state; the control method further includes the following steps: acquiring external information; The preset adjustment algorithm adjusts the working time schedule.
优选的, 所述外部信息为使用者输入的调整信号。  Preferably, the external information is an adjustment signal input by a user.
优选的 , 所述外部信息为所述 自 动工作设备通过 G P S 定位获得的 自 身所在位置的经度纬度、 日 期和时间信息。  Preferably, the external information is longitude, latitude, date and time information of the location of the self-operating device obtained by the PG positioning.
优选的, 所述预设调整算法为: 判断所述经度纬度所在的预设经 度纬度区间; 判断所述 日 期所在的预设 日 期区间 ; 依据所述预设经度 纬度区 间及所述预设 日 期 区 间相对应的调整计划调整所述工作时间 计划。  Preferably, the preset adjustment algorithm is: determining a preset longitude latitude interval where the longitude and latitude is located; determining a preset date interval where the date is located; according to the preset longitude latitude interval and the preset date interval The corresponding adjustment plan adjusts the working time plan.
优选的 , 所述外部信息为所述 自 动工作设备通过传感器获得的所 述 自 动工作设备 自 身所在位置的温度和湿度信息。  Preferably, the external information is temperature and humidity information of the location of the automatic working device obtained by the automatic working device through the sensor.
优选的, 所述预设调整算法为: 判断所述温度所在的预设温度区 间; 判断所述湿度所在的预设湿度区间; 依据所述预设温度区间及所 述湿度区间相对应的调整计划调整所述工作时间计划。  Preferably, the preset adjustment algorithm is: determining a preset temperature interval where the temperature is located; determining a preset humidity interval where the humidity is located; and adjusting a plan according to the preset temperature interval and the humidity interval Adjust the working time plan.
优选的 , 调整所述工作时间计划是调整所述工作状态的持续时间 。 优选的 , 调整所述工作时间计划是将所述工作状态的持续时间用 所述工作状态的持续时间乘以 系数替换。  Preferably, adjusting the working time plan is to adjust the duration of the working state. Preferably, adjusting the working time plan is to replace the duration of the working state by a factor multiplied by a duration of the working state.
优选的 , 调整所述工作时间计划是调整所述工作状态的开始时间 。 优选的 , 通过设置于所述 自 动工作设备中轴线两侧的边界传感器 检测所述工作区域的边界, 当其中一侧的边界传感器首先检测到边界 时, 所述 自 动工作设备向另 一侧的边界传感器所在的方向转向。  Preferably, adjusting the working time plan is a starting time for adjusting the working state. Preferably, the boundary of the working area is detected by a boundary sensor disposed on both sides of the central axis of the automatic working device, and when the boundary sensor of one side first detects the boundary, the boundary of the automatic working device to the other side The direction in which the sensor is located is turned.
优选的 , 通过设置于所述 自 动工作设备中轴线两侧的边界传感器 检测所述工作区域的边界, 当所述边界传感器检测到边界时, 所述 自 动工作设备判断所述中轴线和边界所成的角度, 并向减小 中轴线和边 界所成的锐角 夹角或直角 夹角 的方向继续行走。 Preferably, the boundary sensor is disposed on both sides of the central axis of the automatic working device Detecting a boundary of the working area, when the boundary sensor detects a boundary, the automatic working device determines an angle formed by the central axis and the boundary, and reduces an acute angle formed by the central axis and the boundary or Continue to walk in the direction of the right angle.
本发明提供的另一种技术方案是: 一种 自 动工作设备的控制方法 所述 自 动工作设备在设定的工作区域内 自 动行走工作, 具有工作状态 和休眠状态, 所述控制方法包括如下步骤: 启动所述 自 动工作设备运 行 ; 进入学习模式, 所述 自 动工作设备行走并工作; 记录所述 自 动工 作设备满足预设条件时的工作信息 ; 基于所述工作信息按照预设排程 算法制定工作时间计划; 所述 自 动工作设备依照所述工作时间计划进 入工作状态和退出 工作状态, 进入休眠状态。  Another technical solution provided by the present invention is: A method for controlling an automatic working device. The automatic working device automatically travels in a set working area, and has an operating state and a sleep state. The control method includes the following steps: Starting the automatic working device to operate; entering the learning mode, the automatic working device walking and working; recording the working information when the automatic working device meets the preset condition; and formulating the working time according to the preset information according to the working information The automatic working device enters a working state and exits the working state according to the working time plan, and enters a sleep state.
优选的 , 所述预设条件为所述自 动工作设备在预设时间 内 负 载小 于预设值 。  Preferably, the preset condition is that the automatic working device has a load less than a preset value within a preset time.
优选的 , 所述记录学习模式下的工作信息为记录学习模式的持续 时间 。  Preferably, the work information in the record learning mode is a duration of the record learning mode.
优选的, 所述预设排程算法为 : 判断所述持续时间所在的预设时 间 区间; 读取所述预设时间 区间对应的工作时间计划。  Preferably, the preset scheduling algorithm is: determining a preset time interval in which the duration is located; and reading a working time plan corresponding to the preset time interval.
优选的 , 所述记录学习模式下的工作信息为记录学习模式下的行 走里程。  Preferably, the work information in the record learning mode is a travel distance in the record learning mode.
优选的, 所述预设排程算法为 : 判断所述行走里程所在的预设里 程区间; 读取所述预设里程区间对应的工作时间计划。  Preferably, the preset scheduling algorithm is: determining a preset process interval in which the walking mileage is located; and reading a working time plan corresponding to the preset mileage interval.
优选的 , 所述工作时间计划 包括多 个周期相 同 的子工作时间计划 优选的, 所述周期为 2 4 小时。  Preferably, the working time plan includes a plurality of cycles of the same sub-work time plan, wherein the period is 24 hours.
优选的, 所述多 个子工作时间计划相 同 。  Preferably, the plurality of sub-work hours are planned to be the same.
优选的 , 所述多 个子工作时间计划 中工作状态的持续时间递减。 优选的 , 所述多 个子工作时间计划 中工作状态的开始时间 不 同 。 优选的 , 所述控制方法还包括以下步骤: 获取外部信息; 基于所 述外部信息按照预设调整算法调整所述工作时间计划。  Preferably, the duration of the working state in the plurality of sub-work time plans is decreasing. Preferably, the starting time of the working state in the plurality of sub-work time schedules is different. Preferably, the control method further comprises the steps of: acquiring external information; adjusting the working time plan according to the preset adjustment algorithm based on the external information.
优选的, 所述外部信息为使用者输入的调整信号。  Preferably, the external information is an adjustment signal input by a user.
优选的 , 所述外部信息为所述 自 动工作设备通过 G P S 定位获得的 自 身所在位置的经度纬度、 日 期和时间信息。  Preferably, the external information is longitude, latitude, date and time information of the location of the self-operating device obtained by the PG positioning.
优选的, 所述预设调整算法为: 判断所述经度纬度所在的预设经 度纬度区间; 判断所述 日 期所在的预设 日 期区间 ; 依据所述预设经度 纬度区 间及所述预设 日 期 区 间相对应 的调整计划调整所述工作时间 计划。 Preferably, the preset adjustment algorithm is: determining a preset period of the latitude and longitude a latitude interval; determining a preset date interval in which the date is; adjusting the working time plan according to the preset longitude latitude interval and the adjustment plan corresponding to the preset date interval.
优选的 , 所述外部信息为所述 自 动工作设备通过传感器获得的所 述 自 动工作设备 自 身所在位置的温度和湿度信息。  Preferably, the external information is temperature and humidity information of the location of the automatic working device obtained by the automatic working device through the sensor.
优选的, 所述预设调整算法为: 判断所述温度所在的预设温度区 间; 判断所述湿度所在的预设湿度区间; 依据所述预设温度区间及所 述湿度区间相对应的调整计划调整所述工作时间计划。  Preferably, the preset adjustment algorithm is: determining a preset temperature interval where the temperature is located; determining a preset humidity interval where the humidity is located; and adjusting a plan according to the preset temperature interval and the humidity interval Adjust the working time plan.
优选的 , 调整所述工作时间计划是调整所述工作状态的持续时间 。 优选的 , 调整所述工作时间计划是将所述工作状态的持续时间用 所述工作状态的持续时间乘以 系数替换。  Preferably, adjusting the working time plan is to adjust the duration of the working state. Preferably, adjusting the working time plan is to replace the duration of the working state by a factor multiplied by a duration of the working state.
优选的 , 调整所述工作时间计划是调整所述工作状态的开始时间 。 本发明提供的另 一种技术方案是: 一种 自 动工作设备, 在设定的 工作区域内 自 动行走工作, 具有工作状态和休眠状态, 包括: 机壳; 工作模块; 行走模块, 支撑并驱动所述 自 动工作设备行走; 主控模块, 控制所述行走模块和所述工作模块工作; 所述 自 动工作设备具有学习 模式, 所述主控模块记录所述自 动工作设备在学 习模式下满足预设条 件时的工作信息; 基于所述工作信息按照预设排程算法制定工作时间 计划; 所述 自 动工作设备依照所述工作时间计划进入工作状态和退出 工作状态, 进入休眠状态。  Preferably, adjusting the working time plan is a starting time for adjusting the working state. Another technical solution provided by the present invention is: an automatic working device, which automatically walks in a set working area, has a working state and a sleep state, and includes: a casing; a working module; a walking module, a supporting and driving station The automatic working device walks; the main control module controls the walking module and the working module to work; the automatic working device has a learning mode, and the main control module records that the automatic working device meets the preset condition in the learning mode Working information according to the work information; formulating a working time plan according to the preset work schedule according to the work information; the automatic working device enters a working state and exits the working state according to the working time plan, and enters a sleep state.
优选的 , 所述主控模块检测所述 自 动工作设备的工作模块的 负 载, 所述预设条件为所述 自 动工作设备在预设时间 内 负 载小于预设值。  Preferably, the main control module detects a load of the working module of the automatic working device, and the preset condition is that the automatic working device has a load less than a preset value within a preset time.
优选的 , 所述主控模块记录所述 自 动工作设备学习模式的行走里 程。  Preferably, the main control module records the walking process of the learning mode of the automatic working device.
优选的 , 所述主控模块记录所述 自 动工作设备学习模式的持续时 间  Preferably, the main control module records the duration of the learning mode of the automatic working device
优选的, 所述 自 动工作设备包括输入界面, 录入使用者输入的面 积信息。  Preferably, the automatic working device comprises an input interface for inputting area information input by the user.
优选的, 所述 自 动工作设备包括外部信息釆集单元, 所述外部信 息釆集单元釆集外部信息, 所述主控单元接收所述外部信息, 基于所 述外部信息按照预设调整算法调整所述工作时间计划。 优选的, 所述外部信息釆集单元为输入界面, 录入使用者输入的 调整信号。 Preferably, the automatic working device includes an external information gathering unit, the external information collecting unit collects external information, the main control unit receives the external information, and adjusts the preset according to the external information according to a preset adjustment algorithm. Work time plan. Preferably, the external information gathering unit is an input interface, and an adjustment signal input by a user is input.
优选的, 所述外部信息釆集单元为 G P S 定位模块, 所述 G P S 定位 模块获取所述 自 动工作设备所在位置的经纬、 日 期和时间信息。  Preferably, the external information gathering unit is a G P S positioning module, and the G P S positioning module acquires the latitude, longitude, date and time information of the location of the automatic working device.
优选的, 所述外部信息釆集单元为传感器, 所述传感器获取所述 自 动工作设备所在位置的温度和湿度信息。  Preferably, the external information gathering unit is a sensor, and the sensor acquires temperature and humidity information of a location where the automatic working device is located.
优选的, 所述主控单元调整所述工作状态的持续时间  Preferably, the main control unit adjusts the duration of the working state
优选的, 所述主控单元调整所述工作状态的开始时间 。  Preferably, the main control unit adjusts a start time of the working state.
优选的, 所述 动工作设备包括边界传感器 , 设置于所述 自 动工 作设备中轴线的两侧 , 检测所述工作区域的边界 , 当其中 侧的边界 传感器首先检测到边界时, 所述 自 动工作设备向另一侧的边界传感器 所在的方向转向。  Preferably, the dynamic working device includes a boundary sensor disposed on both sides of the central axis of the automatic working device to detect a boundary of the working area, and when the boundary sensor of the side first detects the boundary, the automatic working device Turn to the direction of the boundary sensor on the other side.
优选的, 所述 动工作设备包括边界传感器 , 设置于所述 自 动工 作设备中轴线的两侧 , 当所述边界传感器检测到边界时, 所述 自 动工 作设备判断所述中轴线和边界所成的角度, 并向减小 中轴线和边界所 成的锐角 夹角或直角 夹角 的方向继续行走。  Preferably, the mobile working device includes a boundary sensor disposed on two sides of the central axis of the automatic working device. When the boundary sensor detects a boundary, the automatic working device determines the central axis and the boundary. Angle, and continue to walk in the direction of the angle between the acute angle and the boundary formed by the reduction of the central axis and the boundary.
优选的, 所述 动工作设备为割草机或吸尘哭。  Preferably, the movable working device is a lawn mower or vacuuming.
与现有技术相比 , 本发明提供的 自 动工作设备及其控制方法, 使 得使用者在初次使用 自 动工作设备时, 能够简便的或者让工作设备 自 动设定工作计划; 在使用 过程中 , 如果工作环境发生变化, 也能够简 便的或者 自 动工作设备 自 动对工作计划进行调整, 使用 更加简便, 能 够获得良好的使用体验。 附图说明  Compared with the prior art, the automatic working device and the control method thereof provided by the invention enable the user to easily or automatically set the work plan when the user uses the automatic working device for the first time; The environment changes, and the work plan can be automatically adjusted simply or automatically, making it easier to use and getting a good experience. DRAWINGS
下面结合附图和实施方式对本发明作进一步说明;  The present invention will be further described below in conjunction with the accompanying drawings and embodiments;
图 1 是本发明 实施方式提供的 H 动工作设备的示意图 ;  1 is a schematic diagram of a H-moving working device provided by an embodiment of the present invention;
图 2 是本发明 实施方式提供的 H 动工作设备的侧面示意图 ; 图 3是本发明 实施方式提供的 H 动工作设备的电路框图 ; 图 4是本发明 实施方式提供的 H 动工作设备在工作区域内 的 图 5是本发明 实施方式提供的 H 动工作设备的一种路径选择 图 ; 图 6是本发明 实施方式提供的 自 动工作设备的一种路径选择示意 图 ; 2 is a schematic side view of a H-moving working device according to an embodiment of the present invention; FIG. 3 is a circuit block diagram of a H-moving working device according to an embodiment of the present invention; FIG. 4 is a working view of a H-moving working device according to an embodiment of the present invention. FIG. 5 is a path selection diagram of a H-moving working device according to an embodiment of the present invention; 6 is a schematic diagram of path selection of an automatic working device according to an embodiment of the present invention;
图 7是本发明 实施方式提供的 自 动工作设备的一种路径选择示意 图 ;  7 is a schematic diagram of path selection of an automatic working device according to an embodiment of the present invention;
图 8 是本发明 实施方式提供的 自 动工作设备的转向示意图 ; 图 9 是本发明 实施方式提供的 自 动工作设备的坐标示意图 ; 图 1 G是本发明 实施方式提供的 自 动工作设备的流程图 ;  8 is a schematic diagram of steering of an automatic working device according to an embodiment of the present invention; FIG. 9 is a schematic diagram of coordinates of an automatic working device according to an embodiment of the present invention; and FIG. 1G is a flowchart of an automatic working device according to an embodiment of the present invention;
图 11 是本发明第二实施方式提供的 自 动工作设备的流程图 ; 图 12 是本发明第三实施方式提供的 自 动工作设备的流程图 。  Figure 11 is a flow chart of an automatic working device according to a second embodiment of the present invention; and Figure 12 is a flow chart of the automatic working device according to the third embodiment of the present invention.
其巾 Its towel
I . 自 动工作设备 1 43.控制单元 I. Automatic working equipment 1 43. Control unit
I I .行走模块 1 5.检测模块  I I. Walking module 1 5. Detection module
III . Ill a . Ill b 驱动轮 1 51、 152.边界传感器  III . Ill a . Ill b drive wheel 1 51, 152. boundary sensor
12.工作模块 1 6.用 户界面 12. Work Module 1 6. User Interface
13.储能模块 1 7.外壳 13. Energy storage module 1 7. Shell
14.主控模块 3 .边界线 14. Main control module 3. Boundary line
141.处理单元 5.停靠站 141. Processing unit 5. Stopping station
142.存储单元 具体实施方式 142. Storage unit
下面结合附图及具体实施方式对本发明进行详细说明 。  The invention will be described in detail below with reference to the drawings and specific embodiments.
本发明具体实施方式提供的 自 动工作设备, 在工作区域内 自 动行 走工作。 自 动工作设备可以是 自 动割草机, 或者 自 动吸尘器。 他们 自 动行走于草坪或者地面上, 进行割草或者吸尘工作。 当 然, 自 动工作 设备并不限于 自 动割草机和 自 动吸尘器, 也可以为其他类型的设备, 例如 自 动喷洒设备或者 自 动监视设备等, 通过 自 动工作设备, 实现各 项工作的无人值守运行。  The automatic working device provided by the specific embodiment of the present invention automatically moves in the work area. The automatic work equipment can be an automatic lawn mower or an automatic vacuum cleaner. They automatically walk on the lawn or on the ground to mow or vacuum work. Of course, the automatic working equipment is not limited to automatic lawn mowers and automatic vacuum cleaners, but can also be used for other types of equipment, such as automatic spraying equipment or automatic monitoring equipment, to achieve unattended operation of various tasks through automatic working equipment.
请参见图 1 -图 2 , 自 动工作设备 1 包括行走模块 11, 工作模块 12, 储能模块 13, 主控模块 14, 检测模块 15, 用 户界面 16 以及收容 上述模块的外壳 17 等。  Referring to Figure 1 - Figure 2, the automatic working equipment 1 includes a walking module 11, a working module 12, an energy storage module 13, a main control module 14, a detecting module 15, a user interface 16, and a casing 17 for housing the above modules.
行走模块 11 包括电机和驱动轮 111 ,驱动轮 111 通常由多 个电机 分别驱动, 且每个电机的转速或者转向都是可控的, 从而在 自 动工作 设备行走的过程中 , 通过调节驱动轮 111 的转速进行灵活的转向。 行 走模块 11 包括电机和驱动轮 111 , 驱动轮的设置可以有多种方式, 在本实施方式中 ,如图 2 所示,以 图 中左侧为 自 动工作设备 1 的前部, 右侧为 自 动工作设备 1 的后部, 两个驱动轮 111 分别对称设置于 自 动工作设备 1 的后部两侧, 并且在靠近自 动工作设备 1 前部的部分, 设置有导向轮。 当 然, 驱动轮的个数也可以更多或更少 , 例如驱动轮 可以是 1 个, 或者多 于两个;驱动轮的位置也可以位于 自 动工作设备 的前部, 或者分别位于 自 动工作设备的四个角 等等, 在此不 列举。 The walking module 11 includes a motor and a driving wheel 111. The driving wheel 111 is usually driven by a plurality of motors, and the rotation speed or steering of each motor is controllable, thereby automatically working. During the walking of the device, flexible steering is performed by adjusting the rotational speed of the drive wheel 111. The walking module 11 includes a motor and a driving wheel 111. The driving wheel can be arranged in various manners. In the present embodiment, as shown in FIG. 2, the left side of the figure is the front part of the automatic working device 1, and the right side is automatic. At the rear of the work apparatus 1, two drive wheels 111 are symmetrically disposed on both sides of the rear portion of the automatic work equipment 1, and a guide wheel is disposed in a portion near the front of the automatic work equipment 1. Of course, the number of driving wheels can also be more or less, for example, the driving wheel can be one, or more than two; the position of the driving wheel can also be located at the front of the automatic working equipment, or separately located in the automatic working equipment. Four corners, etc., are not listed here.
工作模块 12 为 自 动工作设备执行的工作模块, 不同 的 自 动工作 设备的工作模块是不 同 的, 例如 自 动割草机的工作模块包括割草刀 片 、 切割马达等, 用 于执行 自 动割草机的割草工作; 自 动吸尘器的工作模 块则 包括吸尘马达, 吸尘 口 、 吸尘管、 真空室、 集尘衣置等用 于执行 吸尘任务的工作部件。  The working module 12 is a working module executed by the automatic working device. The working modules of different automatic working devices are different. For example, the working module of the automatic mower includes a mowing blade, a cutting motor, etc., for performing cutting of the automatic mower. Grass work; The working module of the vacuum cleaner includes a vacuum motor, a suction port, a suction pipe, a vacuum chamber, a dust collecting device, and the like for performing a vacuuming task.
储能模块 13通常为可充电的 电池,为 自 动割草机运行提供电力 , 或者连接外部电源进行充电; 优选的, 储能模块 13 带有充电或者放 电保护单元, 能够对储能模块 13 的充电或放电进行保护。  The energy storage module 13 is generally a rechargeable battery that provides power for the automatic mower operation or is connected to an external power source for charging; preferably, the energy storage module 13 has a charging or discharging protection unit capable of charging the energy storage module 13 Or discharge for protection.
用 户界面 16设置于外壳 17上便于用 户 能够看到和进行操作的位 置, 例如 自 动工作设备的顶部, 用 户界面 16 通常包括显示器和输入 按键, 用 户通过输入按键向 自 动工作设备输入指令, 例如设置 自 动工 作设备的时间 、 工作计划等等, 用 户界面 16 也可以是能够远程控制 的遥控器。  The user interface 16 is disposed on the housing 17 for a location that is viewable and operable by the user, such as the top of the automated work device. The user interface 16 typically includes a display and input buttons, and the user inputs commands to the automated work device via input buttons, such as setting an automatic The time of the work device, the work plan, and the like, the user interface 16 can also be a remote control that can be remotely controlled.
请一并参见图 3 , 检测模块 15 用 于检测与割草机 1 相关的信息, 并提供检测信息给主控模块 14 , 为 自 动工作设备的行走和工作提供参 数。主控模块 14 包括处理单元 141 ,存储单元 142 以及控制单元 143, 处理单元 141 接收检测模块 15 或者用 户界面 16 输入的信息, 经过处 理后, 存入存储单元 142, 或者从存储单元 142 中读取相应的程序, 通过控制单元 143 控制行走模块 11 和工作模块 12 进行行走和工作。  Referring to Figure 3 together, the detection module 15 is used to detect information related to the lawn mower 1 and provide detection information to the main control module 14 to provide parameters for the walking and working of the automatic working equipment. The main control module 14 includes a processing unit 141, a storage unit 142 and a control unit 143. The processing unit 141 receives the information input by the detection module 15 or the user interface 16, and after processing, stores the information in the storage unit 142, or reads from the storage unit 142. The corresponding program controls the walking module 11 and the working module 12 to perform walking and working through the control unit 143.
请参见图 4 , 自 动工作设备 1 在工作区域内 , 工作区域是由人工 设置的边界线 3 围绕而成的封闭 区间 , 边界线 3 能够避免 自 动工作设 备 1 离开工作区域; 边界线可以是墙壁、 栏杆等; 也可以是通电的导 线或者其他信号发生装置, 例如电磁信号或光信号。 在工作区域内设 置有停靠站 5 , 停靠站 5 设置于边界线 3 上, 自 动工作设备 1 在停止 工作时, 在停靠站 5 停靠, 进入休眠状态; 需要开始工作时, 再次从 停靠站 5 出发, 进入工作状态。 停靠站 5 通常能够提供充电功能, 为 储能模块 1 3 进行充电。 当储能模块 1 3 的电量不足时, 自 动工作设备 1 返回停靠站 5 进行充电。 停靠站 5 能够对 自 动工作设备 1 的返回提 供引导和对接, 对接可以通过红外线或者超声 波等方式实现无线引导, 也可以通过边界线 3 进行引导和对接。 Referring to Fig. 4, the automatic working device 1 is in the working area, and the working area is a closed interval surrounded by a manually set boundary line 3, and the boundary line 3 can prevent the automatic working device 1 from leaving the working area; the boundary line can be a wall, Railings, etc.; can also be energized wires or other signal generating devices, such as electromagnetic signals or optical signals. Designed in the work area There is a stop station 5, and the stop station 5 is set on the boundary line 3. When the automatic working device 1 stops working, it stops at the stop station 5 and enters a sleep state; when it needs to start work, it starts from the stop station 5 again and enters the working state. . The bus stop 5 is usually capable of providing a charging function to charge the energy storage module 13 . When the power of the energy storage module 13 is insufficient, the automatic working device 1 returns to the parking station 5 for charging. The docking station 5 can provide guidance and docking for the return of the automatic working device 1, and the docking can be wirelessly guided by infrared or ultrasonic waves, or can be guided and docked through the boundary line 3.
请参见图 5 -图 7 , 自 动工作设备 1 在工作区域内行走工作, 自 动 工作设备 1 包括至少一个边界传感器 1 5 1、 1 5 2 , 边界传感器 1 5 1、 1 5 2 设置于 自 动工作设备 1 的 中轴线的两侧, 用 于检测 自 动工作设备 1 与 边界线 3 的位置关系 。 边界传感器 1 可以是距离传感器、 红外线传感 器、 超声 波传感器、 碰撞传感器, 磁传感器等。  Referring to Figure 5 - Figure 7, the automatic working device 1 works in the working area, the automatic working device 1 includes at least one boundary sensor 1 5 1 , 1 5 2 , and the boundary sensor 1 5 1 , 1 5 2 is set in the automatic working device The two sides of the central axis of 1 are used to detect the positional relationship between the automatic working equipment 1 and the boundary line 3. The boundary sensor 1 can be a distance sensor, an infrared sensor, an ultrasonic sensor, a collision sensor, a magnetic sensor, or the like.
穿过 自 动工作设备 1 的虚线为 自 动工作设备 1 的行走轨迹, 自 动 工作设备 1 在工作区域内 沿直线行走, 边界传感器 1 5 1、 1 5 2 检测与 边界线 3 之间的距离 , 如果中轴线左侧的边界传感器 1 5 1 首先检测到 与边界线 3 的距离 小于预设值, 自 动工作设备 1 向边界传感器 1 5 2 所 在的中轴线的右侧转向; 如果中轴线右侧的边界传感器 1 5 2 首先检测 到与边界线 3的距离 小于预设值, 自 动工作设备 1则向边界传感器 1 5 1 所在的中轴线的左侧转向。  The dotted line passing through the automatic working device 1 is the walking path of the automatic working device 1, and the automatic working device 1 travels in a straight line in the working area, and the boundary sensor 1 5 1 , 1 5 2 detects the distance between the boundary line 3 and if The boundary sensor 1 5 1 on the left side of the axis first detects that the distance from the boundary line 3 is less than the preset value, and the automatic working device 1 turns to the right side of the central axis where the boundary sensor 1 5 2 is located; if the boundary sensor on the right side of the central axis 1 5 2 First, it is detected that the distance from the boundary line 3 is less than the preset value, and the automatic working device 1 is turned to the left side of the central axis where the boundary sensor 1 5 1 is located.
边界传感器 1 5 1、 1 5 2 也可以检测中轴线与边界线 3 之间的夹角 大小 , 当边界传感器 1 5 1、 1 5 2 中任意一个检测到与边界线 3 之间的 距离 小于预设值时, 自 动工作设备 1 的中轴线和边界线 3 具有一个交 点, 中轴线与边界线 3 经过这一交点的切线形成一个锐角 夹角 θ , 自 动工作设备 1 继续向前行走, 并且向减小这一锐角 夹角 的方向转向。 当 自 动工作设备 1 的中轴线两侧的边界传感器 1 5 1、 1 5 2 同 时检测到 与边界线 3之间的距离 小于预设值, 自 动工作设备 1 的中轴线与边界 线 3 经过它们交点的切线之间相互垂直, 此时, 自 动工作设备随机转 向。  The boundary sensor 1 5 1 , 1 5 2 can also detect the angle between the central axis and the boundary line 3, and when any one of the boundary sensors 1 5 1 , 1 5 2 detects that the distance from the boundary line 3 is less than When the value is set, the central axis of the automatic working device 1 and the boundary line 3 have an intersection point, and the central axis and the tangent line of the boundary line 3 form an acute angle θ, and the automatic working device 1 continues to move forward, and is reduced. Small, the direction of the acute angle is turned. When the boundary sensors 1 5 1 , 1 5 2 on both sides of the central axis of the automatic working device 1 simultaneously detect that the distance from the boundary line 3 is less than a preset value, the central axis of the automatic working device 1 and the boundary line 3 pass through their intersection point. The tangent lines are perpendicular to each other, at which point the automatic work equipment is randomly turned.
自 动工作设备 1 与边界线 3之间的最小距离 的预设值被设定为满 足如下条件: 在 自 动工作设备 1 的转向过程中 , 能够保持行走, 从而 避免 了 自 动工作设备 1 转向时停止前进或者倒退, 节省 了 时间 , 避免 了频繁的启动和停机也节省 了 电力 , 减少 了 自 动工作设备的充电次数 从而极大的提高 了 自 动工作设备的工作效率。 如上所述的路径选择方 式 也能够提高 自 动工作设备 1 在工作区域内 的行走效率, 特别是能 够高效的走出 工作区域内 的狹窄 区间 。 如上所述的路径选择方式, 使 得 动工作设备 1 在处理面积相同 的工作区域时, 不管工作区域的形 状 、 工作区域内 的障碍或者工作复杂程度如何, 自 动工作设备 1 完成 工作的时间是相似的 , 对于本发明 而言, 这是重要的。 当 然, 能够满 足 动工作设备 1 在处理面积相同 的工作区域时, 完成工作的时间是 相似的这一条件的路径规划方式并不是唯一的 , 例如 自 动工作设备可 以通过 G P S 定位记录曾经走过的路线, 在 自 动工作设备行走时, 尽量 避免重复行走过的路线, 从而提高 了 自 动工作设备在工作区域内 的行 走效率 , 对于面积相同 的工作区域, 完成工作的时间是相似的。 还有 其他的路径规划方式, 在此不——赘述。 The preset value of the minimum distance between the automatic working device 1 and the boundary line 3 is set to satisfy the following conditions: During the steering of the automatic working device 1, the walking can be maintained, thereby preventing the automatic working device 1 from stopping when steering Or backwards, saving time and avoiding Frequent startup and shutdown also saves power and reduces the number of automatic working equipment charging, which greatly improves the working efficiency of automatic working equipment. The path selection method as described above can also improve the walking efficiency of the automatic working device 1 in the work area, and in particular, can efficiently exit the narrow section in the work area. The path selection method as described above enables the working device 1 to work in the same working area, regardless of the shape of the working area, the obstacle in the working area or the complexity of the work, the time for the automatic working device 1 to complete the work is similar. This is important for the present invention. Of course, it is not unique to be able to satisfy the condition that the working time is the same when the working equipment 1 is in the same working area. For example, the automatic working equipment can record the route that has been traveled by GPS positioning. When the automatic working equipment is walking, the repeated walking route is avoided as much as possible, thereby improving the walking efficiency of the automatic working equipment in the working area, and the working time is similar for the working area with the same area. There are other ways of path planning, which are not mentioned here.
请参见图 1 0 ,本发明提供的 自 动工作设备 1 的控制方法包括以下 步骤  Referring to FIG. 10, the control method of the automatic working device 1 provided by the present invention includes the following steps.
步骤 S O : 系统启动。 使用者在初次使用 自 动工作设备 1 时, 通过 用 户界面 1 6 启动系统, 进行系统的初始化, 初始化包括 自 动工作设 备 1 的各项 自 我检查, 例如储能模块 1 4 2 的剩余电量等等。 系统启动 时 动工作设备 1 最好是处于停靠站 5 上, 如果储能模块 1 4 2 的剩 余电 里不足, 通过停靠站 5 对储能模块 1 4 2 进行充电。  Step S O : The system starts. When the user first uses the automatic working device 1, the system is initialized through the user interface 16 to initialize the system, and the initialization includes the self-checking of the automatic working device 1, for example, the remaining capacity of the energy storage module 1 4 2, and the like. When the system is started, the working device 1 is preferably at the stop station 5. If the remaining power of the energy storage module 1 4 2 is insufficient, the energy storage module 1 4 2 is charged through the docking station 5.
步骤 S 1: 获取工作区域的面积信息。 自 动工作设备 1 从停靠站 5 出发 沿边界线 3 围绕工作区域行走一圏 , 再次回到停靠站 5; 自 动 工作设备 1 的检测模块 1 5 包括轨迹检测单元, 轨迹检测单元可以是 Step S1: Obtain the area information of the work area. Automatic working equipment 1 Starting from the stopping station 5 Follow the boundary line 3 Walk around the working area and return to the stopping station 5 again; The detection module of the automatic working equipment 1 1 5 includes the trajectory detecting unit, and the trajectory detecting unit can be
G P S模块, 在行走的过程中 , G P S模块定位 自 动工作设备所在的位置, 即 自 动工作设备所在地的经纬度坐标, 这些测量点连接起来形成了 自 动工作设备 1 的行走轨迹, 处理单元 1 4 1 接收测量点的坐标后, 依照 预设面积算法将所得到的经纬度坐标反算为 X、 Y 坐标, 并根据坐标 计算 出 各测量点所 围 绕的 工作 区 域的 面积; 预设面积算法可以是 C A S I O f x - 4 5 0 0 P 面积计算程序, 当 然, 也可以通过其他的算法依照经 纬度坐标计算出 面积, 在此不——列举。 对于形状比较规则 的工作区 域, 自 动工作设备 1也可以通过单独测量工作区域的各个顶点的坐标, 进而计算出 工作区域的面积。 GPS module, during the walking process, the GPS module locates the position where the automatic working equipment is located, that is, the latitude and longitude coordinates of the location of the automatic working equipment. These measuring points are connected to form the walking trajectory of the automatic working equipment 1, and the processing unit 1 4 1 receives the measurement. After the coordinates of the point, the obtained latitude and longitude coordinates are inversely calculated as X and Y coordinates according to the preset area algorithm, and the area of the work area surrounded by each measurement point is calculated according to the coordinates; the preset area algorithm may be CASIO fx - 4 5 0 0 P area calculation program, of course, other algorithms can also calculate the area according to the latitude and longitude coordinates, not here - enumeration. For the work area with the shape comparison rule, the automatic working device 1 can also measure the coordinates of the respective vertices of the work area by separately. Then calculate the area of the work area.
此时,工作区域的面积信息通过 自 动工作设备 1 自 动获取,当 然, 如果使用者 已经知道工作区域的面积, 则面积信息也可以通过用 户界 面 1 6 由使用者进行输入, 或者通过自 动工作设备 1 与 电脑或者其他 设备的连接接口进行输入。  At this time, the area information of the working area is automatically acquired by the automatic working device 1. Of course, if the user already knows the area of the working area, the area information can also be input by the user through the user interface 16 or through the automatic working device 1 Input with the connection interface of a computer or other device.
步骤 S 2: 判断面积信息获取是否完成。 自 动工作设备 1 再次回到 停靠站 5 时, 主控模块 1 4 判断为面积信息获取完成, 控制 自 动工作 设备 1 停止沿边界线 3 的行走。 当人工输入面积信息时, 主控模块 1 4 检测用 户界面 1 6 是否输入确认信号, 当检测到用 户界面 1 6 输入确认 信号时, 判断为 面积信息获取完成。 当判断面积信息获取完成时, 可 以进行下一步操作; 如果判断面积信息还未获取完成, 则继续获取工 作区域的面积信息。  Step S2: It is judged whether the area information acquisition is completed. When the automatic working device 1 returns to the stop station 5 again, the main control module 1 4 determines that the area information acquisition is completed, and controls the automatic working device 1 to stop walking along the boundary line 3. When the area information is manually input, the main control module 1 4 detects whether the user interface 1 6 inputs an acknowledgment signal, and when detecting the user interface 16 input acknowledgment signal, it is determined that the area information acquisition is completed. When it is judged that the area information acquisition is completed, the next operation can be performed; if it is judged that the area information has not been obtained yet, the area information of the working area is continuously obtained.
步骤 S 3: 处理面积信息。 处理单元 1 4 1 接收检测模块 1 5 或用 户 界面 1 6 提供的工作区域的面积信息后, 对面积信息进行处理, 转换 成 自 动工作设备 1 的主控模块 1 4 能够识别 的数据格式。  Step S3: Processing the area information. Processing Unit 1 4 1 After receiving the area information of the working area provided by the detection module 1 5 or the user interface 1 6 , the area information is processed and converted into a data format that the main control module 1 of the automatic working device 1 can recognize.
步骤 S 4: 根据预设排程算法制定工作时间计划 。 存储单元 1 4 2 内存储预设的工作时间计划 , 预设的工作时间计划是与工作面积区间 相对应的。 例如, 6 0 0 平方米至 6 9 9 平方米的工作区域, 对应的工作 时间计划是工作 1 0 个小时, 7 0 0 平方米至 7 9 9 平方米的工作区域, 对 应的工作时间计划是工作 1 5 个小时。 当工作区域的面积为 7 2 0 平方 米时, 处理单元 1 4 1 将面积信息与存储单元 1 4 2 中的各个面积区间相 比较, 工作区域的面积大于 7 0 0 平方米而且小于 8 0 0 平方米, 则处理 单元 1 4 1读取工作面积区间 7 0 0平方米至 8 0 0平方米对应的工作计划 , 制定此次工作的工作时间计划为工作 1 5 个小时。 在本实施方式提供 的预设的工作时间计划 中 , 为 了叙述简便, 仅举例列 出 了 两个面积区 间 , 每个工作区域的面积区间为 1 0 0 平方米; 实际上, 面积区间的个 数可以更多 , 面积区 间也可以是 1 0 0 平方米以外的其他值。 例如 自 动 工作设备 1 的工作面积范围为 0 平方米到 1 5 0 0 平方米, 每个面积区 间为 1 0 0 平方米时, 可以分为 1 5 个面积区 间; 自 动工作设备 1 的工 作面积范围 为 0 平方米到 2 0 0 0 平方米, 每个面积区间为 1 0 0 平方米 时, 可以分为 2 0 个面积区间; 自 动工作设备 1 的工作面积范围为 0 平方米到 1 5 0 0 平方米, 每个面积区间为 5 0 平方米时, 可以分为 3 0 个面积区间 ; 自 动工作设备 1 的工作面积范围为 0 平方米到 2 0 0 0 平 方米, 每个面积区间为 5 0 平方米时, 可以分为 4 0 个面积区 间 。 Step S4: Formulate a working time plan according to a preset scheduling algorithm. The storage unit 1 4 2 stores a preset working time plan, and the preset working time plan corresponds to the working area interval. For example, the working area of 600 square meters to 699 square meters, the corresponding working time plan is working area of 10 hours, 700 square meters to 79 9 square meters, the corresponding working time plan is Work for 15 hours. When the working area has an area of 720 square meters, the processing unit 1 4 1 compares the area information with each area of the storage unit 1 4 2 , and the area of the working area is greater than 700 square meters and less than 800. In the square meter, the processing unit 1 4 1 reads the work plan corresponding to the working area interval of 700 square meters to 800 square meters, and the working time plan for the work is 15 hours. In the preset working time plan provided by the present embodiment, for the sake of simplicity of description, only two area intervals are listed by way of example, and the area interval of each working area is 100 square meters; in fact, the number of area intervals More can be, the area range can also be other than 100 square meters. For example, the working area of the automatic working equipment 1 ranges from 0 square meters to 1 500 square meters, and each area interval is 100 square meters, which can be divided into 15 area intervals; the working area of the automatic working equipment 1 From 0 square meters to 200 square meters, each area interval is 100 square meters, which can be divided into 20 area intervals; the working area of automatic working equipment 1 is 0. From square meters to 1 500 square meters, each area interval is 50 square meters, which can be divided into 30 area intervals; the working area of automatic working equipment 1 ranges from 0 square meters to 200 square meters. When each area is 50 square meters, it can be divided into 40 area intervals.
此外, 预设的排程算法也可以是存储于存储单元 1 4 2 中的以面积 信息为变量的预设函数, 处理单元 1 4 1 将接收到的面积信息代入所述 预设函数, 根据所述预设函数计算出 完成工作所需的时间 , 从所述存 储单元 1 4 2 中读取所述结果对应的工作时间计划 , 制定为此次工作的 工作时间计划。  In addition, the preset scheduling algorithm may also be a preset function stored in the storage unit 1 4 2 with the area information as a variable, and the processing unit 14 1 substitutes the received area information into the preset function, according to the The preset function calculates the time required to complete the work, reads the working time plan corresponding to the result from the storage unit 142, and formulates the working time plan for the work.
进一步的 , 工作时间计划在多 个单位时间 内分别进行 包括多 个 周期相同 的子工作时间计划 , 每个单位时间周期的长度可以根据而要 进行设定, 例如每个单位时间周期是 8 小时 , 1 2 小时, 2 4 小时等等 在每个单位时间周期 内 , 自 动工作设备 1 的工作状态持续时间可以相 同 , 也可以不同 。 在本实施方式中 , 自 动工作设备 1 执行工作 1 5 小 时的工作时间计划时, 其第一天工作 7 小时后结束进入休眠状态, 在 第二天工作 5 小时后结束进入休眠状态, 在第三天工作 3 小时, 完成 工作, 每个单位时间周期内 , 工作状态的持续时间递减。  Further, the working time plan separately performs a sub-work time plan including a plurality of cycles in a plurality of unit time periods, and the length of each unit time period can be set according to, for example, each unit time period is 8 hours. 1 2 hours, 2 4 hours, etc. During each unit time period, the working state duration of the automatic working device 1 may be the same or different. In the present embodiment, when the automatic working device 1 performs the working time plan of 15 hours, the first day of work is 7 hours after the end of the work, and the sleep state is finished after 5 hours of the next day. Working for 3 hours in a day, completing the work, the duration of the working state is decremented during each unit time period.
进一步的 , 工作时间计划 包括初次工作时间计划和维护工作时间 计划 , 自 动工作设备 1 初次在工作区域内 工作时, 是全新的工作, 工 作量较大, 所以耗时较长; 在完成初次工作后, 每天花费较少时间维 护工作效果。 维护工作时间计划从初次工作完成后开始执行, 包括多 个单位时间周期的工作时间计划 。 在本实施方式中 , 自 动工作设备 1 完成初次工作时间计划后,执行维护工作时间计划 ,每天工作 2 小时。  Further, the working time plan includes the initial working time plan and the maintenance working time plan. When the working equipment 1 is working in the working area for the first time, it is a brand new job, and the workload is large, so it takes a long time; after completing the initial work , spend less time each day to maintain the work. The maintenance work schedule is scheduled to start after the initial work is completed, including multiple work time schedules per unit time period. In the present embodiment, after the automatic working equipment 1 completes the initial working time plan, the maintenance working time schedule is executed, and the work is performed for 2 hours per day.
预设的工作时间计划或者公式是依据 自 动工作设备 1 的路径规划 方式, 经过实验或者建立模型得出 的。 制定预设的工作时间计划时选 取较为宽松的数据, 例如在该路径规划方式下 , 在相同 面积的工作区 域内 , 完成工作所需的最大时间 , 从而保证在所有情况下 , 都能完成 绝大部分工作。  The preset working time plan or formula is based on the path planning method of the automatic working equipment 1, and is experimentally or modeled. Select a more relaxed data when formulating a preset working time plan. For example, in the path planning mode, the maximum time required to complete the work in the same area of the work area, so as to ensure that the maximum can be completed in all cases. Part of the work.
步骤 S 5: 执行工作时间计划。 自 动工作设备 1 在得到工作时间计 划后, 按照工作时间计划在预定的时间进入工作状态, 并在预定的时 间退出 工作状态, 进入休眠状态。  Step S 5: Execute the working time plan. The automatic working equipment 1 enters the working state at a predetermined time according to the working time schedule after getting the working time plan, and exits the working state at the predetermined time to enter the sleep state.
在本实施方式中 , 自 动工作设备 1 自 动获取工作区域的面积信息 需要通过 GPS模块检测坐标, 当 然, 自 动工作设备也可通过其他方式 测量出 工作区域的面积信息。 In this embodiment, the automatic working device 1 automatically acquires the area information of the working area. It is necessary to detect the coordinates through the GPS module. Of course, the automatic working device can also measure the area information of the working area by other means.
使用者可以通过用 户界面 16 输入指令, 使 自 动工作设备 1 从停 靠站 5 出发, 沿边界线行走直至返回起点。 在行走的过程中 , 自 动工 作设备 1 检测并记录行走的轨迹。  The user can enter the command through the user interface 16 to cause the automatic working device 1 to depart from the stop station 5 and walk along the boundary line until returning to the starting point. During the walking process, the automatic working device 1 detects and records the trajectory of walking.
自 动工作设备 1 的检测模块 15 包括轨迹检测单元, 轨迹检测单 元测量驱动轮 111 的行走距离 。 轨迹测量单元是通过磁感应原理进行 测量的, 其包括磁性产生器和磁性探测器, 在两个驱动轮 111 上分别 设置有磁性元件, 磁性元件可以是磁铁或者其他可以产生磁场的元件, 在壳体 17 内 靠近驱动轮 111 的位置分别设置磁性感应器用 于感测磁 性元件。 每当驱动轮 111 旋转一圏 , 驱动轮 111 上的磁性元件靠近磁 性感应器时, 磁性感应器就可以探测到并进行发送信号给处理单元 141 , 其代表驱动轮旋转了 一圏 , 驱动轮 111 的周长和驱动轮 111 滚 动的 圏数相乘即可得出驱动轮 111 行走的距离 。 处理单元 141 依据驱 动轮行走的距离 能够算出 自 动工作设备 1在一定时间段内或者一定路 程内 的移动距离 。 当 然, 轨迹检测单元并不限于上述提及的磁性元件 和磁性探测器, 一切可以探测驱动轮转速的探测器都是可以的。  The detecting module 15 of the automatic working device 1 includes a trajectory detecting unit that measures the walking distance of the driving wheel 111. The trajectory measuring unit is measured by the principle of magnetic induction, and includes a magnetic generator and a magnetic detector. The two driving wheels 111 are respectively provided with magnetic components, and the magnetic components may be magnets or other components capable of generating a magnetic field. A magnetic sensor is provided in the position near the drive wheel 111 for sensing the magnetic element. Whenever the driving wheel 111 rotates one turn, the magnetic element on the driving wheel 111 approaches the magnetic sensor, the magnetic sensor can detect and send a signal to the processing unit 141, which represents the driving wheel rotating one turn, the driving wheel 111 The circumference of the wheel and the number of turns of the drive wheel 111 are multiplied to obtain the distance traveled by the drive wheel 111. The processing unit 141 can calculate the moving distance of the automatic working device 1 within a certain period of time or within a certain path according to the distance traveled by the driving wheel. Of course, the trajectory detecting unit is not limited to the above-mentioned magnetic element and magnetic detector, and all detectors that can detect the rotational speed of the driving wheel are possible.
请参见图 8 ,驱动轮 111对称设置于 自 动工作设备 1 的后部两侧, 两个驱动轮之间的轮间距为 D , 驱动轮 111 的直径相同 。 处理单元 141 依据驱动轮 111 行走的距离是否相同判断 自 动工作设备 1 是否在沿直 线行走, 如果轨迹检测单元检测到两个驱动轮 111 的行走速度是相 同 的, 则说明 自 动工作设备 1 在沿直线行走; 如果轨迹检测单元检测到 两个驱动轮 111 的行走速度是不同 , 则说明 自 动工作设备 1 在进行转 向。  Referring to Fig. 8, the driving wheels 111 are symmetrically disposed on the rear sides of the automatic working device 1, the wheel spacing between the two driving wheels is D, and the driving wheels 111 have the same diameter. The processing unit 141 determines whether the automatic working device 1 is traveling in a straight line according to whether the distance traveled by the driving wheels 111 is the same. If the trajectory detecting unit detects that the traveling speeds of the two driving wheels 111 are the same, the automatic working device 1 is in a straight line. Walking; if the trajectory detecting unit detects that the traveling speeds of the two driving wheels 111 are different, it indicates that the automatic working device 1 is performing steering.
当处理单元 141 判断出 自 动工作设备在进行转向时, 其根据驱动 轮行走的距离 不同 , 计算出 自 动工作设备 1 改变方向的角度。 自 动工 作设备 1 改变方向时, 驱动轮 111 a 行走的距离为 C 1 , 驱动轮 112b 行走的距离为 C2 , 则 自 动工作设备 1 转过的角度 α = ^i。 当 然, 自  When the processing unit 141 determines that the automatic working device is turning, it calculates the angle at which the automatic working device 1 changes direction according to the distance traveled by the driving wheel. When the working device 1 changes direction, the driving wheel 111 a travels at a distance C 1 and the driving wheel 112b travels at a distance C2 , and the angle at which the automatic working device 1 rotates α = ^i. Of course, since
2 π D  2 π D
动工作设备 1 的转向角度也可以通过其他方式测量, 例如在 自 动工作 设备 1 上设置角速度传感器, 或者数字指南针等等。 The steering angle of the working equipment 1 can also be measured by other means, such as setting an angular velocity sensor on the automatic working device 1, or a digital compass or the like.
自 动工作设备 1 从停靠站出发沿边界线行走至点 A , 此时边界线 3 改变方向 , 处理单元 141 判断出 自 动工作设备 1 在进行转向 , 计算 出此时 自 动工作设备 1 所处的位置, 并将位置信息存储入存储单元 142。 自 动工作设备 1 所处的位置可以用 以停靠站 5 为坐标原点的直 角 坐标系 中 的点的坐标 ( X 1 , y l ) 来表示。 如图 9 所示, A 点的横坐 标 X 1 即为 自 动工作设备 1 从停靠站 5 移动至 A 点所移动的距离 , 竖 坐标 y 1 为 0。 Automatic working equipment 1 travels from the stop station along the boundary line to point A, at this time the boundary line 3 Changing the direction, the processing unit 141 determines that the automatic working device 1 is performing steering, calculates the position at which the automatic working device 1 is located at this time, and stores the position information in the storage unit 142. The position at which the automatic working device 1 is located can be represented by the coordinates (X 1 , yl ) of the points in the Cartesian coordinate system where the stop station 5 is the coordinate origin. As shown in Fig. 9, the abscissa X 1 of the point A is the distance moved by the automatic working device 1 from the docking station 5 to the point A, and the vertical coordinate y 1 is 0.
自 动工作设备 1 在 A 点处转向 , 处理单元 141 基于前述算法计算 出 自 动工作设备 1 转过的角度为 α , 此时, 处理单元 141 重新开始计 算 自 动工作设备 1 移动的距离 。 自 动工作设备 1 继续沿边界线 3行走 到达转向点 Β 点, 处理单元 141 判断出 自 动工作设备 1 在 Β 点进行转 向 , 计算出 Β 点在以停靠站为坐标原点的直角 坐标系 中的坐标 ( X 2 , y 2 ) , 处理单元 141 计算出 自 动工作设备 1 从 A 点到 B 点间移动的距 离为 D 1 , 则 B 点的横坐标 X 2 可通过公式 ( X 1 +D 1 * c 0 s α ) 计算得出 , Β 点的纵坐标 y 2 可通过公式 ( y 1 +D 1 * s i η α ) 计算得出 。  The automatic working device 1 turns at point A, and the processing unit 141 calculates the angle at which the automatic working device 1 is rotated by α based on the aforementioned algorithm, and at this time, the processing unit 141 restarts calculating the distance moved by the automatic working device 1. The automatic working device 1 continues to travel along the boundary line 3 to reach the turning point ,, and the processing unit 141 determines that the automatic working device 1 is turning at the , point, and calculates the coordinates of the Β point in the Cartesian coordinate system with the stopping station as the coordinate origin (X 2, y 2 ), the processing unit 141 calculates that the distance moved by the automatic working device 1 from point A to point B is D 1 , and the abscissa X 2 of point B can pass the formula (X 1 +D 1 * c 0 s α ) Calculated, the ordinate y 2 of the Β point can be calculated by the formula ( y 1 + D 1 * si η α ).
使用 同样的方法, 处理单元能够计算出 自 动工作设备 1 在沿边界 线 3 行走的过程中 , 每一个转向点的坐标, 直至回到停靠站 5 , 即 自 动工作设备 1 再次回归坐标原点 ( xOyO ) 时, 主控模块 14 判断行走轨 迹信息 已获取完成, 控制 自 动工作设备 1 停止沿边界线 3 的行走。 此 时, 自 动工作设备 1 获得了 一组坐标值,( xOyO )( xlyl )( x2y2 )…( xnyn ) ( xOyO ), 这些坐标即为 自 动工作设备 1 沿边界线行走的轨迹信息。  Using the same method, the processing unit can calculate the coordinates of each turning point during the walking of the automatic working device 1 along the boundary line 3 until it returns to the stop station 5, that is, when the automatic working device 1 returns to the coordinate origin (xOyO) again. The main control module 14 determines that the walking track information has been acquired, and controls the automatic working device 1 to stop walking along the boundary line 3. At this time, the automatic working device 1 obtains a set of coordinate values, ( xOyO )( xlyl )( x2y2 )...( xnyn ) ( xOyO ), which are the trajectory information of the automatic working device 1 walking along the boundary line.
在本实施方式中 , 处理单元 141 依据正弦或余弦公式计算出转向 点的坐标, 当 然, 还有其他公式也能计算出转向点的坐标, 例如正切 公式, 余切公式或者上述公式之间的组合。  In the present embodiment, the processing unit 141 calculates the coordinates of the turning point according to the sine or cosine formula. Of course, other formulas can also calculate the coordinates of the turning point, such as a tangent formula, a cotangent formula, or a combination between the above formulas. .
处理单元 141 基于存储单元 142 中存储的各转向点的坐标, 根据 预设面积算法计算工作区域的面积。 在以停靠站 5 为坐标原点的直角 坐标系 中 , 各转向点连接形成一封闭的多 边形 , 工作区域的面积即等 于该多 边形的面积, 处理单元 141 通过多 边形的面积计算公式计算出 工作区域的面积,例如 S = 0.5 * I(x0*yl-xl*y0) + (x 1 * y 2 -x2 * y 1 ) + ... + (xn*y0-x0*yn)l。  The processing unit 141 calculates the area of the work area based on the preset area algorithm based on the coordinates of each of the turning points stored in the storage unit 142. In the Cartesian coordinate system with the stop station 5 as the coordinate origin, each turning point is connected to form a closed polygon, the area of the working area is equal to the area of the polygon, and the processing unit 141 calculates the area of the working area by the area calculation formula of the polygon. For example, S = 0.5 * I(x0*yl-xl*y0) + (x 1 * y 2 -x2 * y 1 ) + ... + (xn*y0-x0*yn)l.
请参见图 11 ,本发明第二实施方式提供的 自 动工作设备 1 的控制 方法包括以下步骤: 步骤 S 1 0: 系统启动。 本发明第二实施方式中 系统的启动过程与 第一实施方式相同 , 在此不重复描述。 Referring to FIG. 11, a method for controlling an automatic working device 1 according to a second embodiment of the present invention includes the following steps: Step S 1 0: The system starts. The startup process of the system in the second embodiment of the present invention is the same as that of the first embodiment, and the description thereof will not be repeated here.
步骤 S 1 1:判断是否进入 自 学习模式。 自 动工作设备 1 在启动后, 判断是否需要进入 自 学习模式, 例如 自 动工作设备 1 的处理单元 1 4 1 检测到 已经存在工作时间计划时, 判断 自 动工作设备 1 无需进入 自 学 习模式, 执行该工作时间计划; 自 动工作设备 1 的处理单元 1 4 1 检测 到不存在工作时间计划时, 进入 自 学习模式。 自 动工作设备 1 也可以 通过检测其 自 身所在地理位置是否发生变化判断是否需要进入 自 学 习模式, 当 自 动工作设备 1 所在的地理位置未发生变化时, 自 动工作 设备 1 不进入 自 学习模式, 自 动工作设备 1 所在的地理位置发生变化 时, 进入 自 学 习模式。 自 动工作设备 1 也可以通过检测其本次开机时 间与上次开机时间之间 的时间 间 隔来判断是否需要进入 自 学 习模式, 当 时间 间 隔大于预定值时, 自 动工作设备 1 进入 自 学习模式, 当 时间 间 隔小于预定值时, 自 动工作设备 1 不进入 自 学 习模式。  Step S1 1: Determine whether to enter the self-learning mode. After the startup, the automatic working device 1 determines whether it is necessary to enter the self-learning mode. For example, when the processing unit 1 4 1 of the automatic working device 1 detects that the working time plan already exists, it is determined that the automatic working device 1 does not need to enter the self-learning mode, and the work is performed. Time plan; The processing unit 1 of the automatic working device 1 enters the self-learning mode when it detects that there is no working time plan. The automatic working device 1 can also determine whether it needs to enter the self-learning mode by detecting whether its own geographical location changes. When the geographical location of the automatic working device 1 does not change, the automatic working device 1 does not enter the self-learning mode, and automatically works. When the geographical location of device 1 changes, it enters self-learning mode. The automatic working device 1 can also determine whether it is necessary to enter the self-learning mode by detecting the time interval between the current booting time and the last booting time. When the time interval is greater than the predetermined value, the automatic working device 1 enters the self-learning mode. When the time interval is less than the predetermined value, the automatic working device 1 does not enter the self-learning mode.
此外, 自 动工作设备 1 还可以依据使用者通过用 户界面 1 6 输入 的信息判断是否进入 自 学习模式, 当使用 者通过用 户界面 1 6 选择进 入 自 学习模式时, 自 动工作设备 1 进入 自 学习模式; 当使用 者通过用 户界面 1 6 选择不进入 自 学习模式时, 自 动工作设备 1 不进入 自 学习 模式。  In addition, the automatic working device 1 can also determine whether to enter the self-learning mode according to the information input by the user through the user interface 16 , and when the user selects to enter the self-learning mode through the user interface 16 , the automatic working device 1 enters the self-learning mode; When the user selects not to enter the self-learning mode through the user interface 16, the automatic working device 1 does not enter the self-learning mode.
步骤 S 1 2 : 进入 自 学习模式。 自 动工作设备 1 进入 自 学 习模式, 在 自 学习模式下, 自 动工作设备 1 未进行工作时间计划的设定, 从停 靠站 5 出发, 按照预设的路径规划方式, 在工作区域内行走工作。 检 测模块 1 5 检测 自 动工作设备 1 的工作信息, 工作信息可以 包括 自 动 工作设备 1 在 自 学习模式下运行的工作时间 、 行走里程、 工作负 载、 行走路径等等中的一个或多 个。  Step S 1 2 : Enter the self-learning mode. The automatic working equipment 1 enters the self-learning mode. In the self-learning mode, the automatic working equipment 1 does not set the working time plan, starts from the stopping station 5, and walks in the working area according to the preset path planning mode. The detection module 1 5 detects the working information of the automatic working equipment 1, and the working information may include one or more of the working time, the walking mileage, the working load, the walking path, and the like of the automatic working equipment 1 in the self-learning mode.
步骤 S 1 3: 判断是否退出 自 学 习模式。 检测模块 1 5 包括电流检测 单元, 检测工作模块 1 2 的 负 载电流, 处理单元 1 4 1 将检测到的 负 载 电流与存储单元 1 4 2 内 的存储的预设值进行比较,如果在一段时间 内 , 工作模块 1 2 的 负 载电流始终小于预设值, 处理单元 1 4 1 判断工作模 块 1 2 在长时间 内 没有 负 载, 控制 自 动工作设备 1 退出 自 学 习模式。  Step S 1 3: Determine whether to exit the self-learning mode. The detecting module 15 includes a current detecting unit that detects the load current of the working module 12, and the processing unit 14 1 compares the detected load current with the stored preset value in the storage unit 1 4 2 if it is within a certain period of time The load current of the working module 1 2 is always less than the preset value, and the processing unit 1 4 1 judges that the working module 1 2 has no load for a long time, and controls the automatic working device 1 to exit the self-learning mode.
自 动工作设备 1也可以通过其它信息判断是否应该退出 自 学 习模 式。 例如 自 动工作设备 1 为 自 动割草机时, 检测模块 1 5 包括设置在 自 动割草机的底部的接触传感器, 接触传感器检测草与 自 动割草机的 底部的接触信息, 如果在一段时间 内 , 接触传感器始终未检测到接触 信号, 处理单元 1 4 1 认为工作 已经完成, 控制 自 动割草机退出 自 学习 模式。 当 自 动工作设备为 自 动吸尘器时, 检测模块 1 5 可以检测集尘 装置内灰尘的增加量, 在一段时间 内 , 如果传感器始终未检测到灰尘 的增加, 处理单元 1 4 1 认为 自 动吸尘器的工作 已经完成, 控制 自 动吸 尘器退出 自 学习模式。 此外, 自 动工作设备 1 还可以通过摄像头, 红 外传感器等等判断是否应该退出 自 学习模式, 在此不——列举。 The automatic working device 1 can also judge whether it should exit the self-learning mode by other information. Style. For example, when the automatic working device 1 is an automatic lawn mower, the detecting module 15 includes a contact sensor disposed at the bottom of the automatic mower, and the contact sensor detects contact information between the grass and the bottom of the automatic mower, if for a period of time, The contact sensor has not detected the contact signal at all times, and the processing unit 1 4 1 considers that the work has been completed, and controls the automatic mower to exit the self-learning mode. When the automatic working device is an automatic vacuum cleaner, the detecting module 15 can detect the increase amount of dust in the dust collecting device. If the sensor does not detect the increase of dust at all for a period of time, the processing unit 14 1 considers that the automatic vacuum cleaner has been working. Finish, control the auto vacuum cleaner to exit the self-learning mode. In addition, the automatic working device 1 can also judge whether the self-learning mode should be exited by the camera, the infrared sensor or the like, and is not enumerated here.
如上所述通过 自 动工作设备 1 自 动判断是否应该退出 自 学 习模式, 当 然, 其也可以 由用 户通过用户界面 1 6 进行控制 , 当用 户判断 自 动 工作设备 1 需要退出 自 学习模式时,按下用 户界面 1 6上相应的按键, 自 动工作设备 1 退出 自 学习模式。  As described above, the automatic working device 1 automatically determines whether the self-learning mode should be exited. Of course, it can also be controlled by the user through the user interface 16. When the user determines that the automatic working device 1 needs to exit the self-learning mode, the user interface is pressed. On the corresponding button on 1 6 , the automatic working device 1 exits the self-learning mode.
步骤 S 1 4: 记录满足预设条件时的工作信息。 自 动工作设备 1 满 足预设条件时, 记录下检测模块 1 5 检测到的 自 动工作设备 1 的工作 信息, 例如 自 动工作设备 1 在 自 学习模式下运行的工作时间 、 行走里 程、 工作负 载、 行走路径等等。  Step S 1 4: Record the work information when the preset condition is met. When the automatic working device 1 meets the preset condition, the working information of the automatic working device 1 detected by the detecting module 15 is recorded, for example, the working time, walking mileage, working load, walking path of the automatic working device 1 running in the self-learning mode and many more.
记录满足预设条件时的工作信息, 可以在退出 自 学习模式之前或 在退出 自 学 习模式后或者在退出 自 学习模式之时进行, 所以步骤 S 1 3 和步骤 S 1 4 的顺序可以是互换的或者同 时进行的 , 但是记录的总是满 足预设条件这一时间点时的工作信息。  Recording the work information when the preset condition is met may be performed before exiting the self-learning mode or after exiting the self-learning mode or when exiting the self-learning mode, so the order of step S1 3 and step S 1 4 may be interchanged. Or at the same time, but the recorded work information is always at the time when the preset condition is met.
步骤 S 1 5: 处理 自 学习模式下的工作信息。 处理单元 1 4 1 对工作 信息进行处理, 转换成 自 动工作设备 1 的主控模块 1 4 能够识别 的数 据格式。  Step S 1 5: Processing the work information in the self-learning mode. Processing unit 1 4 1 Process the work information and convert it into the data format of the master module of the automatic work device 1 4 .
步骤 S 1 6: 根据预设的算法制定工作时间计划 。 存储单元 1 4 2 内 存储预设的工作时间计划 , 预设的工作时间计划是与 自 动工作设备 1 在 自 学习模式下的工作信息相对应的。 例如, 自 动工作设备 1 在 自 学 习模式下, 完成工作区域内 的工作使用 的时间在 1 0 小时 - 1 5 小时区间 , 对应的工作时间计划为每天工作 2 小时进行维护; 在 自 学习模式下完 成工作使用 的时间在 1 6 小时 - 2 0 小时区间 ,对应的工作时间计划为每 天工作 3 小时进行维护。 当记录下的 自 学 习模式下的工作时间为 1 2 小时, 处理单元 1 4 1 将工作时间与存储单元 1 4 2 中的各个时间 区间相 比较,工作时间 的大小 大于 1 0 小时而且小于 1 5 小时,则处理单元 1 4 1 读取工作时间 区间 1 0 小时至 1 5 小时对应的工作计划, 制定此次工作 的工作时间计划为每天工作 2 小时进行维护。 Step S 1 6: Develop a working time plan according to a preset algorithm. The storage unit 1 4 2 stores a preset working time schedule, and the preset working time schedule corresponds to the working information of the automatic working device 1 in the self-learning mode. For example, in the self-learning mode, the work time in the work area is in the 10 hour - 15 hour interval, and the corresponding working time is planned to be 2 hours per day for maintenance; in the self-learning mode The working time is in the 16-hour to 20-hour interval, and the corresponding working time is planned to be maintained for 3 hours per day. When recording the self-learning mode, the working time is 1 2 Hours, the processing unit 1 4 1 compares the working time with each time interval in the storage unit 1 4 2 , and the working time is greater than 10 hours and less than 15 hours, then the processing unit 1 4 1 reads the working time interval 1 A work plan corresponding to 0 hours to 15 hours, and a working time plan for the work is planned to be 2 hours a day for maintenance.
当 然, 预设的工作时间计划也可以是与 自 动工作设备 1 在 自 学习 模式下的其它工作信息相对应的, 例如在 自 学习模式下运行的行走里 程, 处理单元 1 4 1 将行走里程与存储单元 1 4 2 中的各个里程区 间相比 较, 选取对应的工作计划作为 自 动工作设备 1 的工作时间计划。  Of course, the preset working time plan may also correspond to other work information of the automatic working device 1 in the self-learning mode, for example, the walking mileage running in the self-learning mode, the processing unit 1 4 1 will travel the mileage and storage. Comparing the respective mileage intervals in the unit 1 4 2, the corresponding work plan is selected as the working time schedule of the automatic working equipment 1.
当 然, 预设的工作时间计划也可以是与 自 动工作设备 1 在 自 学习 模式下的工作信息中的一个或多 个相对应的, 例如 自 动工作设备 1 在 学习模式下的工作时间 、 行走里程、 工作负 载、 行走路径等等中的 一个或多 个  Of course, the preset working time plan may also correspond to one or more of the working information of the automatic working device 1 in the self-learning mode, for example, the working time of the automatic working device 1 in the learning mode, the walking mileage, One or more of a workload, a walking path, and so on
此外 预设的算法也可以是以 自 动工作设备 1 在 自 学 习模式下的 工作信息为 变量的公式, 处理单元 1 4 1 将接收到的工作信息代入预设 的公式 计算出 完成工作所需的时间 , 制定为此次工作的工作时间计 划。  In addition, the preset algorithm may also be a formula in which the working information of the automatic working device 1 in the self-learning mode is a variable, and the processing unit 1 1 1 substitutes the received working information into a preset formula to calculate the time required to complete the work. , Develop a working time plan for this work.
步骤 S 1 7: 执行工作时间计划。 自 动工作设备 1 在得到工作时间 计划后, 按照工作时间计划在预定的时间进入工作状态, 并在预定的 时间退出 工作状态, 进入休眠状态。  Step S 1 7: Execute the working time plan. Automatic Work Equipment 1 After getting the working time plan, enter the working state at the scheduled time according to the working time schedule, and exit the working state at the scheduled time to enter the sleep state.
请参见图 1 2 ,本发明第三实施方式提供的 自 动工作设备 1 的控制 方法包括以下步骤:  Referring to FIG. 12, the control method of the automatic working device 1 according to the third embodiment of the present invention includes the following steps:
步骤 S 2 0: 系统启动。 本发明第三实施方式中 系统的启动过程与 第一实施方式相同 , 在此不重复描述。  Step S 2 0: The system starts up. The startup process of the system in the third embodiment of the present invention is the same as that of the first embodiment, and the description thereof will not be repeated.
步骤 S 2 1: 制定工作时间计划。 自 动工作设备 1 在启动后, 制定 工作时间计划。 工作时间计划可以是釆用 本发明第一实施方式和第二 实施方式提供的方法, 通过 自 动工作设备 1 自 行制定。 动工作设备 Step S 2 1: Develop a working time plan. Automatic Work Equipment 1 After startup, develop a work time schedule. The working time plan may be self-developed by the automatic working equipment 1 using the methods provided by the first embodiment and the second embodiment of the present invention. Working equipment
1 的工作时间计划也可以是通过用 户界面 1 6 由人工进行输入,或者通 过 自 动工作设备 1 与 电脑或者其他设备的连接接口 进行输入。 The working time plan of 1 can also be input manually through the user interface 16 or through the connection interface of the automatic working device 1 with a computer or other device.
步骤 S 2 2: 执行工作。 自 动工作设备 1 在得到工作时间计划后, 按照工作时间计划在预定的时间进入工作状态, 并在预定的时间退出 工作状态, 进入休眠状态。 步骤 S 23: 获取外部信息。 自 动工作设备 1 的外部信息包括其 自 身所在位置的 日 期、 时间 、 地理坐标、 环境信息等。 在工作时, 检测 模块 15 实时的检测外部信息; 检测外部信息也可以是定时进行的, 例如 自 动工作设备 1每次从休眠状态进入工作状态时,执行一次检测; 或者 自 动工作设备 1 每隔一段时间周期进行一次检测, 例如每隔一个 星期或者一个月 , 进行一次检测。 Step S 2 2: Perform the work. After obtaining the working time plan, the automatic working equipment 1 enters the working state at a predetermined time according to the working time schedule, and exits the working state at a predetermined time to enter the sleep state. Step S23: Acquire external information. The external information of the automatic work device 1 includes the date, time, geographic coordinates, environmental information, etc. of its own location. During operation, the detecting module 15 detects external information in real time; detecting external information may also be performed periodically, for example, the automatic working device 1 performs a test every time from the sleep state to the working state; or the automatic working device 1 every other segment The time period is tested once, for example every other week or month.
检测模块 15 包括 GPS 模块, 通过 GPS 模块获取 自 动工作设备 1 自 身所在位置的地理坐标、 时间和 日 期等数据。 检测模块 15 也可以 包括环境传感器, 检测 自 动工作设备 1 自 身所在位置的环境信息; 环 境传感器可以是温度传感器和湿度传感器, 检测 自 动工作设备 1 所在 位置的温度信息和湿度信息。  The detection module 15 includes a GPS module, and the GPS module acquires data such as geographic coordinates, time, and date of the location of the automatic working device 1 . The detection module 15 may also include an environmental sensor that detects environmental information of the location where the automatic working device 1 is located; the environmental sensor may be a temperature sensor and a humidity sensor that detects temperature information and humidity information of the location of the automatic working device 1 .
步骤 S 24: 判断外部信息是否获取完成。 自 动工作设备 1 获取外 部信息时, 通常是以一定的组合进行获取, GPS 模块获取 自 动工作设 备 1 自 身所在位置的地理坐标、 时间和 日 期时, 当三个数据都获取完 成时, 判断外部信息获取完成。 环境传感器检测环境信息时, 当温度 和湿度数据都获取完成时, 判断为外部信息获取完成。  Step S24: Determine whether the external information is acquired. When the automatic working device 1 obtains external information, it is usually acquired in a certain combination. When the GPS module obtains the geographical coordinates, time and date of the location of the automatic working device 1 itself, when the three data are acquired, the external information is obtained. carry out. When the environmental sensor detects the environmental information, when the temperature and humidity data are acquired, it is judged that the external information acquisition is completed.
步骤 S 25: 处理外部信息。 处理单元 141 接收检测模块 15 提供的 外部信息后, 对外部信息进行处理, 转换成 自 动工作设备 1 的主控模 块 14 能够识别 的数据格式。  Step S25: Processing external information. After receiving the external information provided by the detection module 15, the processing unit 141 processes the external information and converts it into a data format that the master module 14 of the automatic working device 1 can recognize.
步骤 S 26: 根据预设的算法修改工作时间计划 。 存储单元 142 内 存储以工作时间计划为基准的预设的调整计划。  Step S 26: Modify the working time plan according to a preset algorithm. A preset adjustment schedule based on the work time schedule is stored in the storage unit 142.
不 同 的 自 动工作设备设立工作时间计划调整计划 的依据是不 同 的。  The basis for setting up a working time plan adjustment plan for different automatic work equipment is different.
当 自 动工作设备 1 为 自 动割草机时, 存储单元 142 内存储的调整 计划基于全球各个地区的草在一年里的生长规律来设定, 这些规律可 以通过气象统计学数据得知。 例如, 中 国地区的草, 生长速度最快是 在夏季, 接下来是春季、 秋季, 冬天草生长最慢, 则在存储单元 142 内存储的调整计划如表一所示:  When the automatic working equipment 1 is an automatic lawn mower, the adjustment plan stored in the storage unit 142 is set based on the growth law of the grass in each region of the world in one year, and these laws can be known by meteorological statistical data. For example, grass in China has the fastest growth rate in summer, followed by spring and autumn, and winter grass grows the slowest. The adjustment plan stored in storage unit 142 is shown in Table 1:
2 月 _4 月 5 月 _7 月 8 月 _10 月 11 月 -次年 1 月February _April May _July August _10 November - the following year January
100% 150 % 90% 50% 表一中的调整计划为在 自 动割草机 1 的工作时间计划的基础上, 将每个单位时间 内 工作的时间乘以预设的 系数, 从而增加或减少工作 时间 。 在表一中 , 预设的 系数是百分比的形式, 当 然, 预设的 系数也 可以是其他的形式, 例如小数或者函数。 100% 150% 90% 50% The adjustment plan in Table 1 is based on the working time plan of the automatic mower 1 by multiplying the time of each unit time by a preset factor to increase or decrease the working time. In Table 1, the preset coefficients are in the form of percentages. Of course, the preset coefficients can also be other forms, such as decimals or functions.
处理单元 1 4 1 接收检测模块 1 5 的 G P S 模块提供的时间 、 日 期和 地理坐标信息, 首先判断 自 动割草机处于哪个区域, 例如当 G P S 模块 获取 自 动割草机所在的位置的坐标为 东经 1 2 0 度, 北纬 2 0 度, 日 期 为 6 月 1 日 时, 处理单元 1 4 1 将地理坐标信息与存储单元 1 4 2 内存储 的全球地图数据进行比较, 得出 自 动割草机处于中 国 区域; 再与存储 单元 1 4 2 中存储的如表一所示的各个 日 期区间相比较, 获知 自 动割草 机的调整计划为在工作时间计划的基础上, 乘以 1 5 0 %。 例如工作时间 计划 中 , 自 动割草机需要割草 1 0 个小时, 当 自 动割草机检测到如上 所述的外部信息时, 调整 自 动割草机的割草时间为 1 5 个小时。  The processing unit 1 4 1 receives the time, date and geographic coordinate information provided by the GPS module of the detection module 1 5, first determines which area the automatic lawn mower is in, for example, when the GPS module acquires the coordinates of the position where the automatic lawn mower is located, the east longitude 1 2 0 degrees, 20 degrees north latitude, when the date is June 1, the processing unit 1 4 1 compares the geographical coordinate information with the global map data stored in the storage unit 1 4 2, and concludes that the automatic lawn mower is in the Chinese region. Then, compared with the various date intervals as shown in Table 1 stored in the storage unit 1 4 2, it is known that the automatic lawn mower adjustment plan is multiplied by 150% based on the working time plan. For example, in the working time plan, the automatic mower needs to cut grass for 10 hours. When the automatic mower detects the external information as described above, the mowing time of the automatic mower is adjusted to 15 hours.
在本实施方式提供的预设的调整计划 中 , 为 了叙述简便, 以 3 个 月 为 区间 , 这个区间是可以依据需要进行设定的 , 例如一个月 甚至更 短, 区间跨越的时间越短, 对 自 动割草机的工作的调整能够更加精确。  In the preset adjustment plan provided by the present embodiment, for the convenience of description, in the interval of 3 months, the interval can be set as needed, for example, one month or even shorter, and the shorter the interval spanning, The adjustment of the work of the automatic mower can be more precise.
进一步的 , 自 动割草机还能够通过改变开始割草的时间调整计划。 不同地区在一年的不 同 时间里, 日 出 时间 不同 , 在 日 出前草会比较潮 湿, 这对割草工作是不利的。 在预设的调整计划里可以加入对开始割 草时间的调整。 如表一所述的调整计划: 在 2 月 - 4 月 时, 不改变割草 开始时间; 在 5 月 - 7 月 时, 将割草开始时间提前 1 小时, 因为夏季 日 出 时间较早; 在 8 月 - 1 0 月 时, 不改变割草开始时间; 在 1 1 月 -次年 1 月 时, 将割草开始时间延迟 2 小时, 因为 日 出 时间较晚。 从而避免 了在草非常潮湿的情况下进行割草。  Further, the automatic mower can also adjust the schedule by changing the time to start mowing. In different regions of the year, the time of day is different. Before the day, the grass will be damp, which is unfavorable for mowing. Adjustments to the start of mowing time can be added to the preset adjustment plan. The adjustment plan as described in Table 1: From February to April, the mowing start time is not changed; in May-July, the mowing start time is advanced by 1 hour because the summer sunrise time is earlier; During August-October, the mowing start time is not changed; in January-January, the mowing start time is delayed by 2 hours because the sunrise time is later. This avoids mowing in the case of very wet grass.
存储单元 1 4 2 内存储的调整计划也可以基于草不同温度和不同 湿 度情况下的生长规律来设定, 这些规律同样可以轻易地通过气象统计 学数据得知。 例如, 草在温度大于 2 0摄氏度, 湿度大于 3 0 %时生长速 度最快, 则 自 动割草机可以通过调整计划相应的增加割草时间; 草在 温度低于 1 0摄氏度, 湿度低于 1 0 %时生长速度最慢, 则 自 动割草机可 以通过调整计划相应的减少割草时间; 温度湿度在上述两个区间之间 时, 自 动割草机不对工作时间计划进行调整。 自 动工作设备 1 为 自 动吸尘器时, 存储单元 1 4 2 内存储的调整计 划则可以基于气候与形成扬尘之间的对应关系来设定, 例如通过 G P S 模块检测到的外部信息, 处理单元 1 4 1 判断 自 动吸尘器所在的地理位 置, 在当前时间 易于形成扬尘天气, 则相应的增加吸尘时间 ; 当 自 动 吸尘器所在的地理位置, 在当前时间不易形成扬尘天气时, 相应的减 少吸尘时间 。 通过环境传感器检测得到外部信息时, 处理单元 1 4 1 判 断 自 动吸尘器所在的位置, 温度和湿度情况是否利于形成扬尘 , 如果 温度较高 , 湿度较大, 则 不易形成扬尘 , 可以相应的减少吸尘时间 ; 如果温度较高, 湿度较低, 则 易于形成养成, 可相应的增加吸尘时间 。 自 动吸尘器调整工作时间计划的方式与前面所述的 自 动割草机类似, 在此不重复描述。 The adjustment plan stored in the storage unit 1 4 2 can also be set based on the growth law of the grass under different temperatures and different humidity conditions, and these rules can also be easily obtained through meteorological statistical data. For example, if the grass grows at a temperature greater than 20 degrees Celsius and the humidity is greater than 30%, the automatic mower can increase the mowing time by adjusting the plan; the grass is at a temperature lower than 10 degrees Celsius, and the humidity is lower than 1 When the growth rate is the slowest at 0%, the automatic mower can reduce the mowing time by adjusting the plan accordingly; when the temperature and humidity are between the above two intervals, the automatic mower does not adjust the working time schedule. When the automatic working device 1 is an automatic vacuum cleaner, the adjustment plan stored in the storage unit 1 4 2 can be set based on the correspondence between the climate and the formation of dust, for example, external information detected by the GPS module, the processing unit 1 4 1 Judging the geographical location of the automatic vacuum cleaner, it is easy to form a dusty weather at the current time, and correspondingly increasing the vacuuming time; when the location of the automatic vacuum cleaner is not easy to form a dusty weather at the current time, the cleaning time is correspondingly reduced. When the external information is detected by the environmental sensor, the processing unit 1 4 1 determines whether the position of the automatic vacuum cleaner is located, and whether the temperature and humidity conditions are favorable for forming dust. If the temperature is high and the humidity is large, dust is not easily formed, and the dust can be reduced accordingly. Time; if the temperature is higher and the humidity is lower, it is easy to form a cultivation, and the cleaning time can be correspondingly increased. The automatic vacuum cleaner adjusts the working time schedule in a manner similar to the automatic lawn mower described above, and the description will not be repeated here.
步骤 S 2 7: 执行修改后的工作时间计划。 自 动工作设备 1 按照修 改后的工作时间计划在预定的时间进入工作状态, 并在预定的时间退 出 工作状态, 进入休眠状态。  Step S 2 7: Execute the revised working time plan. The automatic working equipment 1 enters the working state at the scheduled time according to the modified working time schedule, and exits the working state at a predetermined time to enter the sleep state.
在本实施方式中 , 自 动工作设备 1 通过检测模块 自 动获取外部信 息, 此外, 自 动工作设备 1 也可以通过用 户界面 1 6 由使用者手动输 入工作时间计划调整参数。  In the present embodiment, the automatic working device 1 automatically acquires external information through the detecting module. In addition, the automatic working device 1 can also manually input the working time schedule adjustment parameter through the user interface 16 .
自 动工作设备 1 的用 户界面 1 6 上设置调整按键, 例如增加和减 少工作时长按键, 当使用者选择增加工作时长按键时, 处理单元 1 4 1 接收用 户界面 1 6 提供的输入信息, 对其进行处理, 从存储单元 1 4 2 读取相应的调整参数; 例如使用 者选择一次增加工作时长按键时, 对 应的调整计划为增加 1 0 %的工作时间 , 当使用者连续选择两次时, 对 应的调整计划为增加 2 0 %的工作时间; 使用 者选择一次减少工作时长 按键时, 对应的调整计划为减少 1 0 %的工作时间 , 当使用者连续选择 两次时, 对应的调整计划为减少 2 0 %的工作时间 。 同样, 使用 者通过 用 户界面 1 6 也能够对 自 动工作设备 1 开始工作的时间进行方便的调 节。  The user interface 1 of the automatic working device 1 sets an adjustment button, for example, an increase and decrease of the working time button. When the user selects to increase the working time button, the processing unit 14 receives the input information provided by the user interface 16. Processing, reading the corresponding adjustment parameter from the storage unit 1 4 2; for example, when the user selects the increase of the working time button once, the corresponding adjustment plan is to increase the working time by 10%, when the user selects twice consecutively, the corresponding The adjustment plan is to increase the working time by 20%; when the user selects the time limit for reducing the working time, the corresponding adjustment plan is to reduce the working time by 10%. When the user selects twice continuously, the corresponding adjustment plan is reduced by 2 0% of working time. Similarly, the user can easily adjust the time when the automatic working device 1 starts working through the user interface 16.
当 然, 本发明第三实施方式提供的 自 动工作设备的控制方法, 可 以应用在需人工设置工作时间计划的 自 动工作设备上, 也可以应用在 无需人工设置工作时间计划的 自 动工作设备上, 特别是与本发明第一 实施方式和本发明 第二实施方式提供的 自 动工作设备的控制方法结 合使用 。 Of course, the control method of the automatic working device provided by the third embodiment of the present invention can be applied to an automatic working device that needs to manually set a working time plan, or can be applied to an automatic working device that does not need to manually set a working time plan, in particular Control method of automatic working equipment provided by the first embodiment of the present invention and the second embodiment of the present invention Used together.
本发明提供的 自 动工作设备及其控制方法, 在初次工作时, 无需 进行复杂的设定, 就可以开始工作, 在使用 的过程中 , 更可以根据气 候等外部条件, 自 动更改工作时间计划 , 使得使用 更力口便利 , 给使用 者带来良好的使用体验  The automatic working device and the control method thereof provided by the invention can start work without complicated setting in the initial work, and can automatically change the working time plan according to external conditions such as climate during use, so that Use more convenient and convenient, give users a good experience
本领域技术人员 可以想到的是, 本发明还可以有其他的实现方式, 但只要其釆用 的技术精髓与本发明相同或相近似, 或者任何基于本发 明作出 的 易于思及的变化和替换都在本发明 的保护范围之内 。  It will be appreciated by those skilled in the art that the present invention may have other implementations, but as long as the technical essence of the invention is the same or similar to the present invention, or any imaginable changes and substitutions based on the present invention are It is within the scope of the invention.

Claims

权 利 要 求 书 Claims
ι ·一种 自 动工作设备的控制方法, 所述 自 动工作设备在设定的工作区 域内 自 动移动工作, 具有工作状态和休眠状态, 其特征在于, 所述 控制方法包括如下步骤: ι · A method of controlling an automatic working device, the automatic working device automatically moving in a set working area, having an operating state and a sleeping state, wherein the control method comprises the following steps:
启动所述 自 动工作设备运行;  Starting the automatic working device to operate;
获取所述工作区域的面积信息;  Obtaining area information of the work area;
基于所述面积信息按照预设排程算法制定工作时间计划;  Developing a working time plan according to the area information according to a preset scheduling algorithm;
所述 自 动工作设备依照所述工作时间计划进入工作状态和退出 工 作状态 进入休眠状态。  The automatic working device enters the working state and exits the working state according to the working time plan to enter the sleep state.
2 .根据权利要求 1 所述的 自 动工作设备的控制方法, 其特征在于: 所 述预设排程算法为:  The method of controlling an automatic working device according to claim 1, wherein: the preset scheduling algorithm is:
将所述面积信息与预设的若干面积区间进行比较;  Comparing the area information with a predetermined number of area intervals;
找到所述面积信息所在的预设面积区间  Find the preset area of the area information
读取所述预设面积区 间对应的工作时间计划。  Reading a work time schedule corresponding to the preset area.
3 .根据权利要求 1 所述的 自 动工作设备的控制方法, 其特征在于: 所 述预设排程算法为:  The method of controlling an automatic working device according to claim 1, wherein: the preset scheduling algorithm is:
将所述面积信息代入预设函数  Substituting the area information into a preset function
根据所述预设函数计算出结果  Calculating the result according to the preset function
读取所述结果对应的工作时时间间计划。  Read the working time schedule corresponding to the result.
4 .根据权利要求 1 所述的 自 动动工工作设备的控制方法, 其特征在于: 所 述面积信息通过以下步骤获取 A method of controlling an automatic working equipment according to claim 1, wherein: said area information is obtained by the following steps
所述 自 动工作设备从起点出发沿所述工作区域的边界移动, 并返回 起点;  The automatic working device moves from the starting point along the boundary of the working area and returns to the starting point;
记录所述 自 动工作设备移动过程中的轨迹信息;  Recording track information during the moving of the automatic working device;
根据所述轨迹信息计算出所述工作区域的面积信息。  Calculating area information of the work area according to the trajectory information.
5 .根据权利要求 4 所述的 自 动工作设备的控制方法, 其特征在于: 记 录所述 自 动工作设备移动过程中 的轨迹信息为通过 G P S定位记录的 所述工作区域的地图数据  The control method of the automatic working device according to claim 4, wherein: the track information recorded during the moving of the automatic working device is map data of the working area recorded by the POS positioning
6 .根据权利要求 4 所述的 自 动工作设备的控制方法, 其特征在于: 记 录所述 自 动工作设备移动过程中 的轨迹信息为记录所述 自 动工作 设备每次改变方向时所处位置的坐标信息。 根据权利要求 1 所述的 自 动工作设备的控制方法, 其特征在于: 述面积信息通过以下步骤获取: The method for controlling an automatic working device according to claim 4, wherein: recording track information during the moving of the automatic working device is coordinate information of a position at which the automatic working device changes direction each time . The method of controlling an automatic working device according to claim 1, wherein: the area information is obtained by the following steps:
在所述 自 动设备上设置的输入界面录入使用者输入的面积信息。 根据权利要求 1 所述的 自 动工作设备的控制方法 其特征在于 述工作时间计划 包括初次工作时间计划和维护工作时间计划 。 The input interface set on the automatic device inputs the area information input by the user. A method of controlling an automatic work equipment according to claim 1, wherein said work time schedule includes a first work time plan and a maintenance work time plan.
根据权利要求 1 所述的 自 动工作设备的控制方法 其特征在于 述工作时间计划 包括多 个周期相 同 的子工作时间计划。 A method of controlling an automatic work equipment according to claim 1, wherein said work time schedule includes a plurality of sub-work time schedules having the same period.
.根据权利要求 9 所述的 动工作设备的控制方法 , 其特征在于 所述周期为 2 4 '、 1、时。  A method of controlling a mobile work equipment according to claim 9, wherein said period is 2 4 ', 1, and hours.
.根据权利要求 9 所述的 动工作设备的控制方法 , 其特征在于 所述多 个子工作时间计划相 同 。  A method of controlling a mobile work equipment according to claim 9, wherein said plurality of sub-work time plans are the same.
.根据权利要求 9 所述的 动工作设备的控制方法 , 其特征在于 所述多个子工作时间计划 中工作状态的持续时间递减。 A method of controlling a mobile work device according to claim 9, wherein the duration of the work state in said plurality of sub-work time schedules is decreased.
.根据权利要求 9 所述的 自 动工作设备的控制方法, 其特征在于: 所述多个子工作时间计划 中工作状态的开始时间不同 。 The method of controlling an automatic working device according to claim 9, wherein: the starting times of the working states in the plurality of sub-work time schedules are different.
.根据权利要求 1 所述的 自 动工作设备的控制方法, 其特征在于: 所述控制方法还包括以下步骤: 获取外部信息; 基于所述外部信 息按照预设调整算法调整所述工作时间计划 。 The control method of the automatic working device according to claim 1, wherein the control method further comprises the steps of: acquiring external information; adjusting the working time plan according to the preset information according to the preset information.
.根据权利要求 1 4 所述的 自 动工作设备的控制方法, 其特征在于: 所述外部信息为使用者输入的调整信号。 The method of controlling an automatic working device according to claim 14, wherein the external information is an adjustment signal input by a user.
.根据权利要求 1 4 所述的 自 动工作设备的控制方法, 其特征在于: 所述外部信息为所述 自 动工作设备通过 G P S 定位获得的 自 身所在 位置的经度纬度、 日 期和时间信息。 The control method of the automatic working device according to claim 14, wherein: the external information is longitude, latitude, date and time information of the location of the self-operated device obtained by the PG positioning.
.根据权利要求 1 6 所述的 自 动工作设备的控制方法, 其特征在于: 所述预设调整算法为: The method for controlling an automatic working device according to claim 1 , wherein: the preset adjustment algorithm is:
判断所述经度纬度所在的预设经度纬度区间 ;  Determining a preset longitude latitude interval of the longitude latitude;
判断所述 日 期所在的预设 日 期区间;  Determining a preset date interval in which the date is located;
依据所述预设经度纬度区 间及所述预设 日 期区 间相对应的调整计 划调整所述工作时间计划 。  And adjusting the working time plan according to the corresponding adjustment plan of the preset longitude and latitude area and the preset date area.
.根据权利要求 1 4 所述的 自 动工作设备的控制方法, 其特征在于: 所述外部信息为所述 自 动工作设备通过传感器获得的所述 自 动工 作设备自 身所在位置的温度和湿度信息。 The method of controlling an automatic working device according to claim 14, wherein: the external information is the automatic work obtained by the automatic working device through a sensor The temperature and humidity information of the location of the device itself.
根据权利要求 1 8 所述的 自 动工作设备的控制方法, 其特征在于: 所述预设调整算法为: The control method of the automatic working device according to claim 18, wherein: the preset adjustment algorithm is:
判断所述温度所在的预设温度区间; Determining a preset temperature interval in which the temperature is located;
判断所述湿度所在的预设湿度区间; Determining a preset humidity interval in which the humidity is located;
依据所述预设温度区 间及所述湿度区 间相对应的调整计划调整所 述工作时间计划 Adjusting the working time plan according to the corresponding adjustment schedule between the preset temperature zone and the humidity zone
根据权利要求 1 4 所述的 自 动工作设备的控制方法, 其特征在于: 调整所述工作时间计划是调整所述工作状态的持续时间 。 The control method of an automatic working device according to claim 14, wherein: adjusting the working time plan is adjusting a duration of the working state.
根据权利要求 2 0 所述的 自 动工作设备的控制方法, 其特征在于: 调整所述工作时间计划是将所述工作状态的持续时间用 所述工作 状态的持续时间乘以 系数替换。 A method of controlling an automatic working device according to claim 20, wherein: adjusting said working time plan is to replace said duration of said working state by a factor multiplied by a duration of said working state.
根据权利要求 1 4 所述的 自 动工作设备的控制方法, 其特征在于: 调整所述工作时间计划是调整所述工作状态的开始时间 。 The control method of an automatic working device according to claim 14, wherein: adjusting the working time schedule is a start time for adjusting the working state.
根据权利要求 1 所述的 自 动工作设备的控制方法, 其特征在于: 通过设置于所述 自 动工作设备中轴线两侧的边界传感器检测所述 工作区域的边界 , 当其中一侧的边界传感器首先检测到边界时, 所述 自 动工作设备向另一侧的边界传感器所在的方向转向 。 The control method of the automatic working device according to claim 1, wherein: the boundary of the working area is detected by a boundary sensor disposed on both sides of the central axis of the automatic working device, and the boundary sensor of one side is first detected Upon reaching the boundary, the automated work equipment is turned in the direction in which the boundary sensor on the other side is located.
根据权利要求 1 所述的 自 动工作设备的控制方法, 其特征在于: 通过设置于所述 自 动工作设备中轴线两侧的边界传感器检测所述 工作区域的边界 , 当所述边界传感器检测到边界时, 所述 自 动工 作设备判断所述中轴线和边界所成的角度, 并向减小 中轴线和边 界所成的锐角 夹角或直角 夹角 的方向继续行走。 The method of controlling an automatic working device according to claim 1, wherein: detecting a boundary of the working area by a boundary sensor disposed on both sides of a central axis of the automatic working device, when the boundary sensor detects a boundary The automatic working device determines an angle formed by the central axis and the boundary, and continues to walk in an angle that reduces an acute angle or a right angle formed by the central axis and the boundary.
—种 自 动工作设备, 在设定的工作区域内 自 动行走工作, 包括: 机壳; An automatic working device that automatically moves in a set working area, including: a casing;
工作模块; Working module
行走模块, 支撑并驱动所述 自 动工作设备行走; a walking module that supports and drives the automatic working equipment to walk;
其特征在于, 所述 自 动工作设备检测所述工作 区域, 并且基于所 述工作区域设定工作时间 。 It is characterized in that the automatic working device detects the work area and sets a working time based on the work area.
PCT/CN2013/070649 2012-01-20 2013-01-18 Automatic work apparatus and control method therefor WO2013107374A1 (en)

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CN201210017838 2012-01-20
CN2012100184519A CN103217912A (en) 2012-01-20 2012-01-20 Automatic working equipment
CN201210017838.2 2012-01-20
CN201210018451.9 2012-01-20
CN2012100183658A CN103217977A (en) 2012-01-20 2012-01-20 Control method of automatic working equipment
CN201210018365.8 2012-01-20
CN201210045300.2 2012-02-27
CN201210045300 2012-02-27
CN201210137109.0A CN103217926B (en) 2012-01-20 2012-05-04 Automatic operation equipment and control method thereof
CN201210136747.0 2012-05-04
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