Abstract: The present invention provides an outdoor lighting lamp comprising a ground inserted base including an assembly opening and a ground nail, and a lighting module including a first shell, a light projection gap, a light emitting component, and a solar panel connected with the light emitting component. The light generated by electrifying the light emitting component is only projected by the light projection gap. One end of the first shell is mounted at the assembly opening, and the first shell is forced to rotate relative to the ground inserted base based on an axis of the ground nail to be a rotation axis. The solar panel is arranged at one end of the first shell where is in an opposite direction of the ground inserted base and not in horizontal. The solar panel adjusts a light receiving position by rotating the first shell relative to the ground inserted base.

Abstract: A swimming pool entrance opening warning device comprises at least one door magnetic switch, at least one bypass switch and a host, wherein the door magnetic switch is arranged on a door leading to the swimming pool entrance, the bypass switch is arranged on a building structure adjacent to the swimming pool entrance, the bypass switch being provided with a first release button, and the host is arranged on the building structure adjacent to the swimming pool entrance or the door, the host and the bypass switch be located at different positions, the host comprising a host shell, a speaker module arranged on the host shell, a second release button arranged on the host shell, and a control circuit board connected with the first release button and the second release button, while according to the invention, when the door is opened and two release buttons do not generate a release signal after passing a buffering time, the speaker module is actuated through the control circuit board, thereby preventing unauthorize

Abstract: The present invention provides an outdoor lighting lamp comprising a ground inserted base including an assembly opening and a ground nail, and a lighting module including a first shell, a light projection gap, a light emitting component, and a solar panel connected with the light emitting component. The light generated by electrifying the light emitting component is only projected by the light projection gap. One end of the first shell is mounted at the assembly opening, and the first shell is forced to rotate relative to the ground inserted base based on an axis of the ground nail to be a rotation axis. The solar panel is arranged at one end of the first shell where is in an opposite direction of the ground inserted base and not in horizontal. The solar panel adjusts a light receiving position by rotating the first shell relative to the ground inserted base.

Abstract: A swimming pool entrance opening warning device comprises at least one door magnetic switch, at least one bypass switch and a host, wherein the door magnetic switch is arranged on a door leading to the swimming pool entrance, the bypass switch is arranged on a building structure adjacent to the swimming pool entrance, the bypass switch being provided with a first release button, and the host is arranged on the building structure adjacent to the swimming pool entrance or the door, the host and the bypass switch be located at different positions, the host comprising a host shell, a speaker module arranged on the host shell, a second release button arranged on the host shell, and a control circuit board connected with the first release button and the second release button, while according to the invention, when the door is opened and two release buttons do not generate a release signal after passing a buffering time, the speaker module is actuated through the control circuit board, thereby preventing unauthorize

Abstract: A wall-mounted solar lamp disposed on a building wall surface by connectors, comprising a casing, a solar panel disposed on the casing, a battery disposed in the casing and connected to the solar panel, and a first light projecting unit disposed at a side of the casing. The casing defines a first surface contacting the building wall surface when assembled, and a second surface parallel to the first surface and mounted with the solar panel. The first surface is formed with lateral mounting holes and longitudinal mounting holes. The casing comprises a first installation state in which the lateral mounting holes are assembled with the connectors to enable the solar lamp to project light in parallel with a ground, and a second installation state in which the longitudinal mounting holes are assembled with the connectors to enable the solar lamp to project light perpendicular to the ground.

Abstract: A solar lamp includes a lamp cup, a lamp cover, a solar panel disposed on the lamp cover, and a light emitting module electrically connected with the solar panel. The lamp cup includes an accommodating space, an opening communicated with the accommodating space and a first combining structure disposed in the opening. The first combining structure is divided into at least one limiting section and at least one open section connected with the limiting section. The lamp cover is selectively assembled on the opening of the lamp cup and includes a cover body and a second combining structure disposed at an edge of the cover body. The lamp cover includes a fixed mode in which the second combining structure is positioned on the limiting section and a disassembled mode in which the second combining structure slides to the open section and is separated from the lamp cup.

Abstract: A water solar lamp comprises a light transmissive casing, a solar panel, a power processing unit, and a plurality of light emitting components. The light transmissive casing comprises an upper cover, a base assembled with the upper cover, and an installation space defined by the upper cover and the base. The base is set as a water-facing side, the base comprises a ring groove for temporarily storing gas when the light transmissive casing is disposed on water, and the ring groove divides the base into an inner ring region and an outer ring region. The solar panel is disposed on the upper cover, and the power processing unit is disposed in the installation space and connected to the solar panel. The plurality of light emitting components are disposed in the installation space, and the plurality of light emitting components receive power provided by the power processing unit to emit light.

Abstract: A water solar lamp comprises a light transmissive casing, a solar panel, a power processing unit, and a plurality of light emitting components. The light transmissive casing comprises an upper cover, a base assembled with the upper cover, and an installation space defined by the upper cover and the base. The base is set as a water-facing side, the base comprises a ring groove for temporarily storing gas when the light transmissive casing is disposed on water, and the ring groove divides the base into an inner ring region and an outer ring region. The solar panel is disposed on the upper cover, and the power processing unit is disposed in the installation space and connected to the solar panel. The plurality of light emitting components are disposed in the installation space, and the plurality of light emitting components receive power provided by the power processing unit to emit light.

Abstract: A self-moving sweeping device comprises a device body and at least two movement wheels and a direction change wheel located at the bottom of the device body. The direction change wheel includes a magnetic element which is turnable therewith and has a first magnetic pole and a second magnetic pole that are repulsive against each other in magnetism. The device body includes a magnetic induction unit faced the direction change wheel. During movement of the device body the magnetic induction unit detects in normal conditions whether the first magnetic pole has generated a detection signal sent to a behavior control module which determines whether the self-moving sweeping device moves abnormally based on whether the detection signal has been continuously received within a monitor time; if positive, judges the self-moving sweeping device moves normally; otherwise, abnormally.

Abstract: A self-moving dust suction apparatus to facilitate cleaning comprises a dust suction base, a detachable dust collection unit and an airflow directing element. The dust suction base includes an air drawing mechanism to draw airflow, a housing space corresponding to the air drawing mechanism, an opening communicating with the housing space and a trigger driven mechanism. The detachable dust collection unit is held in the housing space through the opening and includes a dust suction inlet corresponding to the air drawing mechanism. The airflow directing element is disposed on the detachable dust collection unit and includes an elastic barrier plate which partially surrounds the dust suction inlet and extends towards a floor from the detachable dust collection unit to confine direction of the airflow flowing into the dust suction inlet.

Abstract: A self-moving dust suction device comprises a body, at least one buffer means and a sticking means. The body includes a top cover, a base, a dust suction operation module, at least two movement wheels and at least one mounting portion. The buffer means is corresponding to the mounting portion and has an installation dock fastened to the mounting portion, a buffer element located on the installation dock to provide an action force in a direction remote from the top cover in normal conditions and a butting dock located at one end of the buffer element remote from the top cover to bear the action force. The sticking means is located at one side of the base and has a connection bracket coupled with the butting dock to receive the action force transmitted by the butting dock and a sticking roller located on the connection bracket.

Abstract: An automatic homing and charging method for a self-moving cleaning apparatus mainly includes the steps of: judging power of the self-moving cleaning apparatus lower than an intended charging power value; controlling the self-moving cleaning apparatus to move forward until bumping against an obstacle; controlling the self-moving cleaning apparatus to turn a swerved angle; controlling the self-moving cleaning apparatus to move straightly for a preset distance; controlling the self-moving cleaning apparatus to move along an arched locus until bumping against the obstacle again; and detecting a position signal issued from a charging dock and controlling the self-moving cleaning apparatus to turn and move forward to form electric contact with the charging dock. The invention also provides a debugging mechanism to avoid circuiting round the obstacle, thus can accurately search the charging dock.

Abstract: An automatic homing and charging method for a self-moving cleaning apparatus mainly includes the steps of: judging power of the self-moving cleaning apparatus lower than an intended charging power value; controlling the self-moving cleaning apparatus to move forward until bumping against an obstacle; controlling the self-moving cleaning apparatus to turn a swerved angle; controlling the self-moving cleaning apparatus to move straightly for a preset distance; controlling the self-moving cleaning apparatus to move along an arched locus until bumping against the obstacle again; and detecting a position signal issued from a charging dock and controlling the self-moving cleaning apparatus to turn and move forward to form electric contact with the charging dock. The invention also provides a debugging mechanism to avoid circuiting round the obstacle, thus can accurately search the charging dock.

Abstract: A movement operation system for autonomous moving cleaning apparatus comprises a charging dock and an autonomous moving cleaning apparatus. The charging dock includes a charging module and an infrared ray emitter. The autonomous moving cleaning apparatus includes a battery, at least one servomotor, an infrared ray receiver and a microcontroller unit. The infrared ray receiver receives an encrypted infrared signal emitted by the infrared ray emitter and sends the encrypted infrared signal to the microcontroller unit for decoding. The microcontroller unit detects whether the present voltage of the battery is higher than a charge voltage of the charging module, and generates a control signal to control the servomotor to move the autonomous moving cleaning apparatus away from the charging dock or to the charging dock for charging the battery.

Abstract: A movement operation system for autonomous moving cleaning apparatus comprises a virtual wall apparatus and an autonomous moving cleaning apparatus. The virtual wall apparatus includes an infrared ray emitter. The autonomous moving cleaning apparatus includes an infrared ray receiver and a microcontroller unit. The infrared ray emitter emits at least one encrypted infrared signal within an emission zone. When the autonomous moving cleaning apparatus enters the emission zone and the infrared ray receiver receives the encrypted infrared signal, the microcontroller unit controls the autonomous moving cleaning apparatus to move away from the virtual wall apparatus. The encrypted infrared signal can be encrypted in different codes or operating frequencies to prevent the autonomous moving cleaning apparatus from being interfered by external lights or other infrared rays so that it can operate steadily.

Abstract: A self-moving dust suction apparatus to facilitate cleaning comprises a dust suction base, a detachable dust collection unit and an airflow directing element. The dust suction base includes an air drawing mechanism to draw airflow, a housing space corresponding to the air drawing mechanism, an opening communicating with the housing space and a trigger driven mechanism. The detachable dust collection unit is held in the housing space through the opening and includes a dust suction inlet corresponding to the air drawing mechanism. The airflow directing element is disposed on the detachable dust collection unit and includes an elastic barrier plate which partially surrounds the dust suction inlet and extends towards a floor from the detachable dust collection unit to confine direction of the airflow flowing into the dust suction inlet.

Abstract: A method for operating an autonomous moving cleaning apparatus includes the steps of: a microcontroller unit (MCU) processes a digital signal through an encoding technique to form an encrypted encoding data set; the MCU continuously sends out the encrypted encoding data set; data values in the encrypted encoding data set are converted to high or low voltages to activate a light emission member to generate flicker light; a light receiving member continuously receives a string of reflective light corresponding to the flicker light to form a corresponding high or low voltage which is converted to a corresponding digital signal sent to the MCU to be compared with the encrypted coding data set for decoding; and the MCU controls operations of a servomotor based on decoding correctness and the detected corresponding digital signal. Thus the autonomous moving cleaning apparatus can function steadily without being interfered by external lights.

Abstract: A movement operation system for autonomous moving cleaning apparatus comprises a charging dock and an autonomous moving cleaning apparatus. The charging dock includes a charging module and an infrared ray emitter. The autonomous moving cleaning apparatus includes a battery, at least one servomotor, an infrared ray receiver and a microcontroller unit. The infrared ray receiver receives an encrypted infrared signal emitted by the infrared ray emitter and sends the encrypted infrared signal to the microcontroller unit for decoding. The microcontroller unit detects whether the present voltage of the battery is higher than a charge voltage of the charging module, and generates a control signal to control the servomotor to move the autonomous moving cleaning apparatus away from the charging dock or to the charging dock for charging the battery.

Abstract: A movement operation system for autonomous moving cleaning apparatus comprises a virtual wall apparatus and an autonomous moving cleaning apparatus. The virtual wall apparatus includes an infrared ray emitter. The autonomous moving cleaning apparatus includes an infrared ray receiver and a microcontroller unit. The infrared ray emitter emits at least one encrypted infrared signal within an emission zone. When the autonomous moving cleaning apparatus enters the emission zone and the infrared ray receiver receives the encrypted infrared signal, the microcontroller unit controls the autonomous moving cleaning apparatus to move away from the virtual wall apparatus. The encrypted infrared signal can be encrypted in different codes or operating frequencies to prevent the autonomous moving cleaning apparatus from being interfered by external lights or other infrared rays so that it can operate steadily.

Abstract: A destroying apparatus aims to destroy electronic elements with magnetic substance. The destroying apparatus includes a conveying unit and a destroying unit. The conveying unit includes a collection plane to hold a plurality of electronic elements, at least one picking arm spinning against the collection plane to form a conveying path, a barrier portion connecting to the collection plane to block the electronic elements on the conveying path, and a release passage corresponding to the barrier portion to allow the electronic elements to escape the conveying path. The picking arm includes a magnetic attraction portion to attract the magnetic substance on the conveying path. The destroying unit is located correspondingly to the release passage and includes a plurality of cutting elements and a cutting path between the cutting elements to communicate with the release passage.