CN210090955U

CN210090955U - Self-powered module, wireless control switch and wireless control system

Info

Publication number: CN210090955U
Application number: CN201920856051.2U
Authority: CN
Inventors: 刘远芳
Original assignee: Shenzhen Yi Bailong Technology Co Ltd
Current assignee: Shenzhen Yi Bailong Technology Co Ltd
Priority date: 2019-06-06
Filing date: 2019-06-06
Publication date: 2020-02-18
Anticipated expiration: 2029-06-06

Abstract

The utility model provides a from power module, wireless control switch and wireless control system, wherein wireless control system include a wireless control switch and with a wireless control switch pairs an at least terminal equipment of connecting. The wireless control switch comprises a communication module and a self-powered module, wherein the communication module transmits at least one control signal under the power-on condition, the self-powered module comprises at least one power generation device and a linkage device, wherein the power generation device is connected with the linkage device in a driving mode, the linkage device further comprises a first driving support and a second driving support, the first driving support and the second driving support are connected in a transmission mode, and when the linkage device is pressed by force, the first driving support and the second driving support drive the power generation device in a balanced mode.

Description

Self-powered module, wireless control switch and wireless control system

Technical Field

The utility model relates to a wireless control field especially relates to a from power module, wireless control switch and wireless control system.

Background

The switch is an important control element in the field of electrical equipment, and is used for controlling the working state of other electrical equipment in a circuit, such as on/off of current of electrical equipment such as lamps, motors, computers and doorbells. The switches of electrical devices of the prior art are mainly wired control switches and wireless control switches, wherein the wired control switches are electrically connected to the operating circuit of the electrical device. The wired control switch has more defects, such as wire waste and complicated installation and construction processes, and has larger potential safety hazard because the switch is directly electrically connected to a working circuit. In addition, the wired control switch of the prior art can be fixedly installed on a wall surface desktop or connected to an electric appliance to be controlled through a cable, which makes it impossible for a user to freely move the position of the switch and control the operating state of the electric appliance at any position.

The wireless control switch in the prior art is usually in communication connection with an electrical apparatus with a wireless receiving function in a circuit under the condition of power supply by an electrical energy storage device such as a dry battery, a lithium battery and the like, wherein the wireless control switch controls the working state of the electrical apparatus in a wireless connection manner. Obviously, the wireless control switch overcomes many defects of the prior art wired control switch, such as electricity safety, resource waste of connecting cables and the like. However, in the wireless control switch in the prior art, energy storage devices such as dry batteries and lithium batteries are required to supply power, so that the batteries of the wireless control switch need to be replaced periodically, which undoubtedly increases the problems of resource waste, environmental pollution and the like.

Referring to fig. 1 and 2 of the drawings of the present application, a passive wireless control module is disclosed in the chinese utility model patent with publication number CN206638978U, wherein the passive wireless control module generates electric energy and transmits a switch control signal in a self-generating manner to control the operating state of at least one electric device. The passive wireless control module comprises a passive wireless transmitting component 10P and at least one housing 20P, wherein when the housing 20P is pressed downwards, the housing 20P drives the passive wireless transmitting component 10P to generate electric energy in a tilting manner. The passive wireless transmitting assembly 10P comprises at least one self-generating device 11P, at least one lever assembly 12P and a communication circuit board 13P, wherein when the lever assembly 12P is driven by the housing 20P to be pressed down, the lever assembly 12P drives the self-generating device 11P to move, mechanical energy is converted into electric energy by the self-generating device 11P, and the self-generating device 11P provides working electric energy for the communication circuit board 13P.

As shown in fig. 2, the housing 20P is pressed to tilt the lever assembly 12P back and forth, so as to drive the self-generating device 11P to generate electric energy. It can be understood that, when the passive wireless control module disclosed in the present invention is in operation, a user needs to press the position of the housing 20P corresponding to the upper side of the lever assembly 12P to drive the movement of the lever assembly 12P, i.e. press a side position of the housing 20P. In the passive wireless control module, the number of the self-generating devices 11P and the number of the lever assemblies 12P are the same, and therefore, if the passive wireless control module is desired to be able to generate electric energy when both sides are pressed, at least two self-generating devices 11P need to be provided, and the two self-generating devices 11P are reversely provided.

Although the different self-generating devices 11P can be driven to operate by pressing at two different positions of the housing 20P, the manufacturing cost of the passive wireless control module is increased. The wireless control switch in the prior art has higher manufacturing cost and complex manufacturing process. On the other hand, when the wireless control switch in the prior art is used, a user needs to press a designated position of the switch to drive the motor inside the wireless switch to move, so that electric energy is generated. That is, the user cannot drive the motor to operate at any position where the switch is pressed.

On the other hand, the wireless control switch of the prior art needs to simultaneously operate the terminal device and the wireless control switch to realize the state of the pairing connection when the pairing connection is performed with the controlled terminal device. For example, after a pairing key of a receiving device of the terminal device is pressed for a period of time, the terminal device enters a pairing state, and then the wireless control switch is pressed to transmit data to be bound and paired with the terminal, and the terminal device stores mac (id) data of the wireless control switch, so as to realize pairing connection. However, this method has the disadvantage that it is difficult to obtain the pairing key in the terminal device when the terminal device, such as a lamp, is installed. Another pairing method is power-on pairing, that is, when the terminal device automatically enters a pairing state in a period of time immediately before power-on, a signal of the wireless control switch is waited for, and once the signal of the wireless control switch exists, the terminal device is automatically bound with the wireless control switch to form a pairing relationship. The disadvantage of this method is that if there are a plurality of different terminal equipments in the environment, when there is a power failure and then there is a call, all the terminal equipments are in the waiting pairing state, and as long as any one of the wireless control switches transmits a signal, all the terminal equipments will be connected to it to form an incorrect connection mode, so this method is also very inconvenient. Therefore, the prior wireless control switch and the terminal device are complicated and unreliable in a matching connection mode.

SUMMERY OF THE UTILITY MODEL

One of the primary advantages of the present invention is to provide a self-powered module, a wireless control switch and a wireless control system, wherein the self-powered module includes a linkage and a power generation device, and when the linkage is under stress, the linkage is driven in a balanced motion manner to generate electric energy.

Another advantage of the present invention is to provide a self-powered module, wireless control switch and wireless control system, wherein the linkage includes a first driving bracket and a second driving bracket, wherein the first driving bracket is linked to the second driving bracket, when the first driving bracket or/and the second driving bracket is stressed, the linkage drives the power generation device to generate electric energy. In other words, when either end of the linkage of the self-powered module is subjected to a force, the first and second drive brackets are moved in balance in linkage with each other, and the power generation device is triggered.

Another advantage of the present invention is to provide a self-powered module, wireless control switch and wireless control system, wherein when the arbitrary one end of linkage received a force, it was feasible that first drive bracket with second drive bracket moved with the mode balance of linkage, and drove the power generation facility electricity generation.

Another advantage of the present invention is to provide a self-powered module, wireless control switch and wireless control system, wherein a housing of the wireless control switch is pressed, the housing drives the linkage to move in a balanced manner, thereby triggering the power generation device.

Another advantage of the present invention is to provide a self-powered module, wireless control switch and wireless control system, wherein when a plurality of positions of the upper end of the housing are pressed, the housing can drive the linkage moves in a balanced manner, whereby the linkage triggers the power generation device. In other words, the wireless control switch can be pressed at a plurality of positions when in use, so as to trigger the power generation device of the self-powered module.

Another advantage of the present invention is to provide a self-powered module, wireless control switch and wireless control system, wherein the self-powered module only needs one power generation device, when the linkage is in the atress of arbitrary different positions, trigger power generation device. Therefore, the present invention provides a solution in which the number of power generation devices can be reduced, thereby reducing the manufacturing cost of the self-powered module.

Another advantage of the present invention is to provide a self-powered module, a wireless control switch and a wireless control system, wherein the self-powered module is simplified by reducing the number of power generation devices.

Another advantage of the present invention is to provide a self-powered module, wireless control switch and wireless control system, wherein the self-powered module reduces the number of power generating devices, and the size of the wireless control switch is reduced, so that the wireless control switch is miniaturized.

Another advantage of the present invention is to provide a self-powered module, wireless control switch and wireless control system, wherein the wireless control system the wireless control switch through be close to a terminal equipment the mode with the terminal equipment is mated to be connected, so that the terminal equipment receives the control signal of the wireless control switch.

Another advantage of the present invention is to provide a self-powered module, a wireless control switch and a wireless control system, wherein the wireless control system identifies the terminal device by recognizing the communication signal in a close range, so that the terminal device and the wireless control switch are connected in pairs.

Another advantage of the present invention is to provide a self-powered module, wireless control switch and wireless control system, wherein the wireless control system identifies the terminal device by close-range ground-identification RFID radio frequency signal the wireless control switch, so that the terminal device and the wireless control switch are connected in pairs.

Another advantage of the present invention is to provide a self-powered module, wireless control switch and wireless control system, wherein the wireless control system the terminal device is identified many times through the short distance liftoff the mode of the wireless control switch is removed the terminal device with the pairing connection between the wireless control switch.

Another advantage of the present invention is to provide a self-powered module, wireless control switch and wireless control system, wherein the wireless control system detects the terminal device through the signal strength's in the detection environment the presence of the wireless control switch, so that the wireless control switch with the terminal device pair-wise connect.

Another advantage of the present invention is to provide a self-powered module, a wireless control switch, a wireless control system and a pairing method thereof, wherein a swing magnet set of a power generation device of the self-powered module is fixed by clamping, thereby simplifying the assembly and manufacturing process of the power generation device.

The other advantages and features of the invention will be fully apparent from the following detailed description and realized by means of the instruments and combinations particularly pointed out in the appended claims.

According to an aspect of the present invention, the present invention can achieve the foregoing object and other objects and advantages a self-powered module, includes:

at least one power generation device; and

a linkage, wherein the power generation device is drivably connected to the linkage, the linkage further comprising a first drive bracket and a second drive bracket, wherein the first drive bracket and the second drive bracket are drivingly connected to each other, wherein the first drive bracket and the second drive bracket drive the power generation device in balance with each other when the linkage is depressed by a force.

According to the utility model discloses an embodiment, first drive support includes a first touch pole and certainly two first linkage arms that form are extended integratively in the both ends of first touch pole, wherein second drive support further includes a second touch pole and certainly two second linkage arms that form are extended integratively in the both ends of second touch pole, wherein first linkage arm with second linkage arm mutual drive connects.

According to the utility model discloses an embodiment, each of first drive support first linkage arm includes a first fulcrum and a first linkage end, wherein each of second drive support second linkage arm includes a second fulcrum and a second linkage end, wherein first linkage end linkage second linkage end with based on first fulcrum place pivot is seesawed from top to bottom, wherein second linkage end linkage first linkage end with based on pivot top to bottom seesaw at second fulcrum place.

According to the utility model discloses an embodiment, first fulcrum downwardly extending first linkage arm, the second fulcrum downwardly extending second linkage arm, wherein first drive support first trip lever with second drive support the second trip lever is based on first fulcrum with the motion of second fulcrum in a balanced way each other.

According to the utility model discloses an embodiment, first linkage end with the second linkage end is the transmission cooperation structure of "L" type, wherein one side the opening of first linkage end up to with it the opening of complex second linkage end down, wherein the other side the opening of first linkage end down, and with it the complex the opening of second linkage end up.

According to the utility model discloses an embodiment, first linkage end with the transmission of second linkage end mutually supporting, one of them side first linkage end has "U" type adaptation groove to be connected with it the second linkage end is the embedded structure of "a" style of calligraphy, wherein the other side the second linkage end has "U" type adaptation groove, and is connected with it the first linkage end is the embedded structure of "a" style of calligraphy.

According to the utility model discloses an embodiment, first drive support the first linkage end with the second drive support the second linkage end cooperation with embedding, first linkage end has a "U" type adaptation groove, wherein the second linkage end is "a" style of calligraphy embedded structure, wherein the second linkage end set up in first linkage end the adaptation groove.

According to an embodiment of the present invention, the first linkage end and the second linkage end are geared to each other, wherein the first linkage end and the second linkage end are of a mutually cooperating "U" shaped gear structure.

According to an embodiment of the present invention, the linkage structure further comprises a connecting member, wherein the connecting member connects the first linkage end and the second linkage end.

According to an embodiment of the present invention, the self-powered module further comprises at least one reset element, wherein the reset element is disposed below the linkage, and in the initial state, the reset element holds the linkage, and when the linkage is pressed, the reset element drives the linkage to return to the initial state, and thereby the linkage drives the power generation device to move.

According to an embodiment of the present invention, the reset element is a torsion spring, wherein the reset element is disposed below the first touch bar and the second touch bar, whereby the reset element drives the first touch bar and the second touch bar to move upward and balance the stress of the first touch bar and the second touch bar.

According to an embodiment of the present invention, the self-powered module further comprises a base plate, wherein the power generating device and the linkage are fixedly disposed on the base plate, whereby the relative position of the power generating device and the linkage is fixedly maintained by the base plate.

According to an embodiment of the present invention, the first driving bracket has a driving groove, wherein the driving groove is formed in the first trip lever, wherein the power generating device is drivably connected to the first driving bracket through the driving groove, whereby the power generating device is driven by the first driving bracket to move up and down.

According to the utility model discloses a further aspect, the utility model discloses a wireless control switch is further provided, include:

a self-powered module as described in any of the above;

a communication module, wherein the communication module is electrically connected to the self-powered module, wherein the self-powered module is driven to convert mechanical energy into electrical energy, and transmit the electrical energy to the communication module, wherein the communication module transmits at least one control signal when powered on.

According to an embodiment of the present invention, the communication module includes a communication circuit board, at least one power input terminal and at least one wireless transmission module, wherein the wireless transmission module is disposed on the circuit board, wherein the self-powered module is electrically connected to the power input terminal, thereby self-powered, wherein the wireless transmission module generates and transmits the control signal under the power-on condition.

According to the utility model discloses an embodiment, communication module further includes an at least electric energy storage and time delay unit, wherein electric energy storage and time delay unit electrical connection wireless transmitting module in power input end, wherein electric energy storage and time delay unit storage from the electric energy and the extension of power module transmission right it is long when wireless transmitting module's energy supply.

According to an embodiment of the present invention, the communication module further comprises at least one wireless sensing device, wherein the wireless sensing device is stored with a mac (id) address or pairing information of the wireless control switch, so that the terminal device can be paired with the wireless control switch by recognizing the wireless sensing device.

According to an embodiment of the present invention, the wireless sensing device is selected from any combination of sensing devices consisting of RFID devices or NFC devices.

According to an embodiment of the present invention, the wireless control switch further comprises a housing, wherein the self-powered module and the communication module are fixedly disposed in the housing.

According to an embodiment of the present invention, the housing includes a housing main body, at least one fixing buckle, and at least one module accommodating chamber, wherein the fixing buckle is integrally disposed above the housing main body, the fixing buckle is fixed in a buckling manner to fix the self-powered module in the module accommodating chamber.

According to an embodiment of the present invention, the wireless control switch further comprises a driving key, wherein the driving key is drivingly retained above the self-powered module, the driving key being forced to press the linkage, so that the linkage is driven in a balanced movement manner to drive the power generation device.

According to an embodiment of the utility model, the drive key includes a drive key main part and at least two and supports the end of pressing, support press the end set up in the inboard of drive key main part, wherein the drive key main part by set up movably in the top of casing, by the casing keeps support press the end support press in aggregate unit and drive aggregate unit moves balancedly.

According to another aspect of the present invention, the present invention further provides a wireless control system, suitable for controlling at least one electric device, including:

a wireless control switch, wherein the wireless control switch transmits at least one control signal; and

at least one terminal device, wherein the terminal device is mateably communicatively coupled to the wireless control switch, wherein the terminal device comprises:

a wireless communication device, wherein the wireless communication device receives the control signal sent by the wireless control switch;

the processing system stores the identity address information of the wireless control switch and generates at least one control instruction based on the identity address information and the wireless control signal after the wireless control switch is connected with the terminal equipment in a matching way; and

and the control execution device receives the control instruction of the processing system and controls the working state of the electric equipment based on the control instruction.

According to an embodiment of the present invention, the wireless control switch includes a self-powered module and a communication module, wherein the self-powered module is driven to convert mechanical energy into electrical energy, the self-powered module is electrically connected to the communication module, so that the communication module generates and transmits the control signal.

According to the utility model discloses an embodiment, wireless control switch includes a wireless induction system, wherein wireless induction system records wireless control switch's identity address information, terminal equipment further includes a wireless identification device, wherein wireless identification device communicatively connect in processing system, wireless identification device reads wireless induction system records wireless control switch's identity address information, and the storage identity address information extremely processing system, so that wireless control switch with terminal equipment connects pairwise.

According to the utility model discloses an embodiment, wireless induction system further includes a RFID chip and a receiving terminal RFID coil, RFID chip electric connection in receiving terminal RFID coil, wherein wireless identification device includes a transmitting terminal RFID coil and an RFID reading device, wherein receiving terminal RFID coil is close to during transmitting terminal RFID coil, the RFID chip passes through receiving terminal RFID coil conveying wireless control switch identity address information extremely transmitting terminal RFID coil.

According to the utility model discloses an embodiment, wireless control switch with terminal equipment pairs the back, terminal equipment wireless identification device reads at least once in a period of time wireless control switch's identity address information, by processing system deletes wireless control device's identity address information, in order to remove wireless control switch with terminal equipment's mating relation.

According to the utility model discloses an embodiment, wireless communication device further includes a data receiving module and a field intensity detection module, wherein data receiving module receives wireless control switch sends control signal's data message, field intensity detection module detects control signal's signal strength, processing system is based on whether the signal strength judgement of control signal pairs the connection.

According to the utility model discloses an embodiment, processing system sets up a signal strength and judges the threshold value, works as wireless communication device receives control signal's signal strength is greater than when the signal strength judges the threshold value, processing system considers control signal is for pairing signal, in a time quantum wireless communication device receives at least one control signal do when pairing signal, processing system storage wireless control switch's identity address information, so that wireless control switch join in marriage in terminal equipment.

According to the utility model discloses an embodiment, wireless control switch with terminal equipment pairs the back, in a time quantum, terminal equipment wireless communication device receive at least one control signal do when pairing the signal, processing system deletes wireless control switch's identity address information, in order to remove wireless control switch with terminal equipment's mating relation.

According to the utility model discloses an embodiment, wireless control switch is based on a communication protocol transmission of deciding one's own the control signal is short code data information, wherein control signal's data information length is less than 30 bytes.

According to the utility model discloses an embodiment, terminal equipment wireless communication device is by built-in short code decoding unit, by wireless communication device receives control signal's short code data information, by short code decoding unit is analytic to be obtained wireless control switch's control information.

According to the utility model discloses an embodiment, short code decoding unit is saved in with the online mode of upgrading of OTA wireless communication device.

According to an embodiment of the present invention, the short code decoding unit is stored in the wireless communication device in a burning manner.

According to another aspect of the present invention, the present invention further provides a pairing method of a wireless control system, wherein the pairing method comprises the steps of:

(a) transmitting at least one control signal at a location proximate to the terminal device; and

(b) and acquiring MAC address information of the wireless control switch, and storing the MAC address information to a processing system of the terminal equipment so as to pair the wireless control switch and the terminal equipment.

According to an embodiment of the present invention, in the above pairing method of the present invention, in the step (a), the control signal is sent to the terminal device in a self-generating manner, wherein the control signal contains the MAC address information of the wireless control switch.

According to an embodiment of the present invention, in the above pairing method of the present invention, the step (a) further includes the steps of: and transmitting the control signal at a position 5CM-100CM away from the terminal equipment.

According to an embodiment of the present invention, in the above pairing method of the present invention, the step (a) further includes the steps of: and continuously sending the control signal to the terminal equipment within a time window.

According to an embodiment of the present invention, between the steps (a) and (b) of the pairing method of the present invention, further comprising the steps of:

detecting the signal strength of the control signal; and

and judging whether the control signal is a pairing signal or not based on the signal strength of the control signal.

According to an embodiment of the present invention, before the step (b) of the pairing method of the present invention, further comprising: setting a signal intensity judgment threshold, and judging the control signal to be a pairing signal when the signal intensity of the control signal is greater than the signal intensity judgment threshold; and when the intensity of the control signal is smaller than the signal intensity judgment threshold, judging that the control signal is an action command signal.

detecting the signal strength of the control signal; and

and measuring and calculating the distance between the terminal equipment and the wireless control switch based on the signal intensity of the control signal.

According to an embodiment of the present invention, before the step (b) of the pairing method of the present invention, further comprising: setting a distance judgment threshold, and judging the control signal to be a pairing signal when the distance between the wireless control switch and the terminal equipment obtained by measurement is smaller than the distance judgment threshold; and when the measured distance between the wireless control switch and the terminal equipment is greater than the distance judgment threshold, judging that the control signal is an action instruction signal.

According to an embodiment of the present invention, the step (b) of the pairing method further comprises the steps of:

detecting the number of times of the pairing signal sent by the wireless control switch in the time window; and

setting a quantity threshold of a pairing signal, judging whether the wireless control switch is paired with the terminal equipment or not based on the quantity threshold of the pairing signal, and judging that the wireless control switch is paired with the terminal equipment when the terminal equipment detects that the number of times of the pairing signal sent by the wireless control switch is greater than the quantity threshold of the pairing signal; and when the terminal equipment detects that the number of times of the pairing signals sent by the wireless control switch is smaller than the number threshold of the pairing signals, judging that the pairing signals are action control instructions.

According to an embodiment of the present invention, the pairing method of the present invention may further include the step (c) of sending the control signal near the terminal device and deleting the MAC address information of the wireless control switch stored in the terminal device, so as to release the pairing relationship between the terminal device and the wireless control switch.

(1) reading MAC address information of the wireless control switch in a short distance; and

(2) and storing the MAC address information to a processing system of the terminal equipment so as to pair the terminal equipment with the wireless control switch.

According to an embodiment of the present invention, before the step (1) of the above pairing method of the present invention, further comprising the step of: and recording the MAC address information of the wireless control switch to a wireless induction device of the wireless control switch.

According to an embodiment of the present invention, in the step (1) of the above pairing method of the present invention, further comprising:

periodically transmitting at least one radio signal carrying electrical energy at radio frequencies;

receiving the radio signal of the terminal device at a short distance to generate induced power, and transmitting the MAC address information of the wireless control switch to the terminal device.

According to an embodiment of the present invention, in the above pairing method of the present invention, after the step (2), the wireless control switch may be repeatedly pressed close to the terminal device and the MAC address information stored in the processing system may be deleted, so as to release the pairing relationship between the wireless control switch and the terminal device, which may further include the step (3).

Further objects and advantages of the invention will be fully apparent from the ensuing description and drawings.

These and other objects, features and advantages of the present invention will become more fully apparent from the following detailed description, the accompanying drawings and the appended claims.

Drawings

Fig. 1 is a schematic diagram of a wireless controlled switch of the prior art.

Fig. 2 is a schematic diagram of the operation of the wireless control switch in the prior art.

Fig. 3 is an overall schematic diagram of a wireless control switch according to a first preferred embodiment of the present invention.

Fig. 4A is an expanded schematic view of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 4B is another expanded schematic view of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 5A is a perspective cross-sectional view of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 5B is a schematic diagram of the operation of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 6 is an overall schematic diagram of a self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 7A is a partially exploded view of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 7B is an exploded view of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 8A is a schematic diagram of the linkage structure of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 8B is a schematic diagram of the linkage structure of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 9A is a side view of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 9B is a schematic diagram of the linkage operation of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 10 is a schematic view of a housing of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 11 is an overall schematic diagram of a power generation device of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 12 is a sectional view of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 13 is a general schematic diagram of another alternative implementation of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 14 is a schematic view of the linkage structure of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 15 is a schematic diagram of the linkage structure of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 16 is a schematic diagram of the linkage structure of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 17 is a schematic diagram of a linkage structure of another alternative implementation of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 18 is a schematic diagram of the linkage structure of the self-powered module of the wireless control switch according to the above preferred embodiment of the present invention.

Fig. 19 is a block diagram of a wireless control system according to a preferred embodiment of the present invention.

Fig. 20A is a schematic diagram of a pairing scenario of the wireless control system according to the above preferred embodiment of the present invention.

Fig. 20B is another schematic diagram of the pairing of the wireless control system according to the above preferred embodiment of the present invention.

Fig. 21 is an overall schematic block diagram of the wireless control system according to another preferred embodiment of the present invention.

Fig. 22 is a schematic diagram of a pairing scenario of the wireless control system according to the above preferred embodiment of the present invention.

Fig. 23 is a schematic diagram of the pairing process of the wireless control system according to the above preferred embodiment of the present invention.

Fig. 24 is a schematic diagram of the pairing method of the wireless control system according to the above preferred embodiment of the present invention.

Detailed Description

The following description is presented to disclose the invention so as to enable any person skilled in the art to practice the invention. The preferred embodiments in the following description are given by way of example only, and other obvious variations will occur to those skilled in the art. The basic principles of the invention, as defined in the following description, may be applied to other embodiments, variations, modifications, equivalents and other technical solutions without departing from the spirit and scope of the invention.

It will be understood by those skilled in the art that in the present disclosure, the terms "longitudinal," "lateral," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," "outer," and the like are used in a generic and descriptive sense only and not for purposes of limitation, as the terms are used in the description to indicate that the referenced device or element must have the specified orientation, be constructed and operated in the specified orientation, and not for the purpose of limitation.

It is understood that the terms "a" and "an" should be interpreted as meaning that a number of one element or element is one in one embodiment, while a number of other elements is one in another embodiment, and the terms "a" and "an" should not be interpreted as limiting the number.

Referring to fig. 3 to 12 of the drawings of the present invention, a wireless control switch according to a first preferred embodiment of the present invention will be explained in the following description. The wireless control switch comprises a driving key 10 and a self-powered module 20, wherein the self-powered module 20 is connected to the driving key 10 in a driving manner, and the self-powered module 20 is pressed when the driving key 10 is stressed to drive the self-powered module 20 to generate power. The driving key 10 is held above the self-powered module 20, wherein when the driving key 10 is pressed downward, the driving key 10 drives the self-powered module 20 in the vertical direction, and when the driving key 10 moves in the vertical direction, the driving key 10 is balanced in the horizontal direction. In short, when the driving key 10 is forced to drive the self-powered module 20, the driving key 10 drives the self-powered module 20 in a horizontal direction in a balanced manner. Preferably, when any position of the upper end of the driving key 10 is pressed, the self-powered module 20 can be driven by the driving key 10 to trigger power generation.

As shown in fig. 3 to 5B, the wireless control switch further includes a communication module 30, wherein the communication module 30 is electrically connected to the self-power module 20, wherein the self-power module 20 is driven by the driving key 10 to generate power, and the self-power module 20 outputs the power to the communication module 30 to support the operation of the communication module 30. The communication module 30 sends at least one control signal when powered on, wherein the control signal is receivable by a terminal device paired with the wireless control switch and performs circuit control operations, such as controlling the switching of a light fixture in a circuit. In other words, the wireless control switch is connected to at least one terminal device through the communication module 30 in a paired manner, wherein the terminal device receives the control signal transmitted by the communication module 30 and controls the operating state of an electric device based on the control signal.

The wireless control switch further comprises a housing 40, wherein the self-powered module 20 is disposed on the housing 40, and the self-powered module 20 is fixed by the housing 40. The driving key 10 is movably disposed on the housing 30, and the housing 40 holds the driving key 10 above the self-powered module 20. Preferably, in this preferred embodiment of the present invention, the communication module 30 is held in the housing 40.

As shown in fig. 6 to 7B, the self-powered module 20 includes a linkage 21, at least one power generation device 22, wherein the power generation device 22 is connected to the linkage 21 in a driving manner, when the linkage 21 is pressed by a force, the linkage 21 drives the power generation device 22, and the power generation device 22 converts mechanical energy into electrical energy. The linkage 21 of the self-powered module 20 is pressed against the lower side of the driving key 10, wherein the driving key 10 presses the linkage 21 to move downward, and the linkage 21 transmits the kinetic energy of the driving key 10 to the power generation device 22. The linkage 21 includes a first drive bracket 211 and a second drive bracket 212, wherein the first drive bracket 211 is drivingly connected to the second drive bracket 212. When the linkage 21 receives the pressing force, the first driving bracket 211 and the second driving bracket 212 of the linkage 21 move synchronously. That is, when the first driving bracket 211 of the linkage 21 is pressed by force, the first driving bracket 211 is pressed to move and drives the second driving bracket 212 to move synchronously. When the second driving bracket 212 of the linkage 21 is pressed by a force, the second driving bracket 212 is pressed to move and drive the first driving bracket 211 to move synchronously.

It is understood that the power generation device 22 is drivingly connected to the first driving bracket 211 of the linkage 21, and the power generation device 22 is driven by the first driving bracket 211; or the power generation device 22 is drivingly connected to the second driving bracket 212 of the linkage 21, and the power generation device 22 is driven by the second driving bracket 212; or the power generation device 22 is drivingly connected to the second driving bracket 212 and the first driving bracket 211 of the linkage 21, and the power generation device 22 is driven by the first driving bracket 211 and the second driving bracket 212 together. Preferably, in the preferred embodiment of the present invention, the power generating device 22 is drivingly connected to the first driving bracket 211, and when the first driving bracket 211 is pressed by a force, the first driving bracket 211 drives the power generating device 22 to move and drives the second driving bracket 212 to move synchronously with the first driving bracket 211. When the second driving bracket 212 is pressed by a force, the first driving bracket 211 is driven by the second driving bracket 212 to move synchronously, and the first driving bracket 211 drives the power generation device 22 to trigger the power generation device 22 to generate power. It is to be understood that the driving connection position of the generator 22 and the linkage 21 is only used as an example and not a limitation in the preferred embodiment of the present invention.

As shown in fig. 6 to 7B, the first driving bracket 211 includes a first touch bar 2111 and two first linkage arms 2112, wherein the linkage arms 2112 integrally extend at both ends of the touch bar 2111. The second driving bracket 212 includes a second touch bar 2121 and two second linkage arms 2122, wherein the first linkage arm 2112 is drivingly connected to the second linkage arm 2122 to enable the first driving bracket 211 and the second driving bracket 212 to be interlocked with each other. When the first touch bar 2111 of the first driving bracket 211 is pressed by a force, the first linkage arm 2112 drives the second linkage arm 2122 and the first linkage arm 2112 to move synchronously, so as to drive the second touch bar 2121 and the first touch bar 2111 to move synchronously. Preferably, in the preferred embodiment of the present invention, the second driving bracket 212 has an Contraband-shaped bracket structure, and the first driving bracket 211 has a Contraband-shaped bracket structure opposite to the second driving bracket 212. It is understood that the first driving bracket 211 and the second driving bracket are drivingly connected to each other to form a connecting structure in a shape of a Chinese character 'kou', wherein the power generating device 22 is disposed between the first driving bracket 211 and the second driving bracket 212.

In the preferred embodiment of the present invention, when the first driving bracket 211 and the second driving bracket 212 of the linkage 21 are pressed by force, the first driving bracket 211 and the second driving bracket 212 move in a swinging manner around a rotation axis respectively.

In detail, each first linkage arm 2112 of the first driving bracket 211 further includes a first fulcrum 21121 and a first linkage end 21122, wherein the first linkage arm 2112 swings around the first fulcrum 21121, or the first linkage arm 2112 makes a seesaw motion around the first fulcrum 21121. Each of the second linkage arms 2122 of the second drive bracket 212 further includes a second pivot point 21221 and a second linkage end 21222, wherein the second linkage arm 2122 swings about the second pivot point 21221 or the second linkage arm 2122 seesaws about the second pivot point 21221. It will be appreciated that the first pivot points 21121 of the first linkage arms 2112 at both ends form the rotational axis of the first drive bracket 211, and the second pivot points 21221 of the second linkage arms 2122 at both ends form the rotational axis of the second drive bracket 212. The first linkage end 21122 of the first linkage arm 2112 is drivingly connected to the second linkage end 21222 of the second linkage arm 2122 such that the first linkage end 21122 drives movement of the second linkage end 21222 or the second linkage end 21222 drives movement of the first linkage end 21122. It will be appreciated that first pivot point 21121 and second pivot point 21221 are projections extending downwardly from first linkage arm 2112 and second linkage arm 2122.

As shown in fig. 7A and 7B, the first linkage end 21122 and the second linkage end 21222 are drivingly connected to each other in a seesaw manner. Preferably, in this preferred embodiment of the present invention, the first linkage end 21122 and the second linkage end 21222 are in an "L" shape, wherein the opening of the first linkage end 21122 of the first linkage arm 2112 at one end faces upward, the opening of the first linkage end 21122 of the first linkage arm 2112 at the other end faces downward, the opening of the second linkage end 21222 of the second linkage arm 2122 at the other end faces upward. In short, the opening directions of the first linkage end 21122 and the second linkage end 21222 on the same side are opposite, so that the first linkage end 21122 and the second linkage end 21222 are fitted to each other in a tilting manner.

As shown in fig. 8A to 9B, the first driving bracket 211 and the second driving bracket 212 of the linkage 21 are coupled to each other in a tilting manner, and when the first contact bar 2111 of the first driving bracket 211 of the linkage 21 is pressed by a force, the first linkage arm 2112 of the first driving bracket 211 moves upward based on the first fulcrum 21121 tilting the first linkage arm 2112 of the first driving bracket 211. Since the first linkage end 21122 of the first linkage arm 2112 and the second linkage end 21222 of the second linkage arm 2122 are fitted to each other in a tilting manner, when the first linkage end 21122 is tilted upward, the second linkage end 21222 is tilted upward by the first linkage end 21122, so that the second contact lever 2121 of the second driving bracket 212 is moved downward about the second fulcrum. Similarly, when the second triggering rod 2121 of the second driving bracket 212 is pressed by a force, and the second linkage end 21222 of the second driving bracket 212 is tilted upwards, the second linkage end 21222 drives the first linkage end 21122 and the second linkage end 21222 to move synchronously, so that the first triggering rod 2111 of the first driving bracket 2111 and the second triggering rod 2121 move synchronously downwards. In short, when any one of the first driving bracket 211 and the second driving bracket 212 is pressed by a force, the first driving bracket 211 and the second driving bracket 212 are interlocked with each other to tilt synchronously.

As shown in fig. 6 to 7B, the self-powered module 20 further includes at least one reset element 23, wherein the reset element 23 is disposed on the linkage 21, and when the linkage 21 is pressed to drive the power generation device 22 to generate power, the reset element 23 drives the linkage 21 to return to the initial position. The reset member 23 is disposed below the first and second driving

brackets

211 and 212 of the linkage 21, and the reset member 23 upwardly supports and drives the first and second driving

brackets

211 and 212. When either end of the linkage 21 is subjected to a force of pressing downward, the restoring member 23 supports the first and second driving

brackets

211 and 212 upward so that the first and second driving

brackets

211 and 212 move downward in synchronization and balance. When the acting force of the linkage 21 is eliminated, the reset element 23 drives the first driving bracket 211 and the second driving bracket 212 to move upwards synchronously and in balance, and the power generation device 22 is driven by the linkage 21 to generate power and return to the initial position.

Preferably, in the preferred embodiment of the present invention, the reset element 23 may be, but is not limited to, an elastic element, wherein the reset element 23 supports the first driving bracket 211 and the second driving bracket 212 with an upward elastic force. More preferably, the reset element 23 is a torsion spring, wherein two ends of the reset element 23 are respectively disposed below the first driving bracket 211 and the second driving bracket 212, and the reset element 23 provides an upward elastic force to the first driving bracket 211 and the second driving bracket 212. It is to be understood that the particular embodiment of the reduction element 23 is shown here by way of example only and not by way of limitation. The return element 23 can therefore also be embodied as another type of elastic element, such as a spring.

The first driving bracket 211 of the linkage 21 has a first reset notch 2113, and the second driving bracket 212 has a second reset notch 2123, wherein both ends of the reset device 23 are disposed at the first reset notch 2113 and the second reset notch 2123 to prevent the position of the reset device 23 from being deviated.

As shown in fig. 6 to 7B, the self-powered module 20 further includes a substrate 24, wherein the linkage 21, the power generating device 22 and the reset element 23 are disposed on the substrate 24, and the substrate 24 is used to fix or hold the components of the self-powered module 20. The base plate 24 includes a base plate main body 241 and four bracket fixing buttons 242, and the bracket fixing buttons 242 are integrally provided at the side of the base plate main body 241. The first driving bracket 211 and the second driving bracket 212 of the linkage 21 are movably held above the base main body 241 by the bracket fixing clip 242.

The first drive bracket 211 further comprises at least a first positioning element 2114, wherein the first positioning element 2114 is disposed on the first linkage arm 2112, wherein the second drive bracket 212 further comprises at least a second positioning element 2124, wherein the second positioning element 2124 is disposed on the second linkage arm 2122. The second positioning element 2124 and the first positioning element 2114 are movably disposed on the bracket fixing buckle 242, and the first driving bracket 211 and the second driving bracket 212 are held by the bracket fixing buckle 242.

The first positioning element 2114 is integrally formed with the first linkage arm 2112, and the first positioning element 2114 extends outwardly from the first linkage arm 2112, the second positioning element 2124 is integrally formed with the second linkage arm 2122, and the second positioning element 2124 extends outwardly from the second linkage arm 2122. In other words, the first and

second positioning elements

2114 and 2124 are protrusions formed on the first or

second linkage arm

2112 or 2122. It will be appreciated that each bracket retaining clasp 242 has an aperture for receiving and retaining the first 2114 and second 2124 positioning elements.

Preferably, the first positioning element 2114 is disposed adjacent to the first fulcrum 21121, and the second positioning element 2124 is disposed adjacent to the second fulcrum 21221.

As shown in fig. 6 to 7B, the base plate 24 includes at least one generator fixing unit 243 and is further provided with at least one generator accommodating cavity 244, wherein the generator fixing unit 243 fixes the power generating device 22 in the generator accommodating cavity 244. Preferably, in the preferred embodiment of the present invention, the generator fixing unit 243 is integrally formed at the base plate main body 241. More preferably, the generator fixing unit 243 is a fixing buckle, wherein the generator fixing unit 243 fixes the power generating device 22 in the generator accommodating cavity 244 in a buckling manner. The base plate 24 is further provided with a spring catch 245, wherein the return element 23 is arranged in the spring catch 245.

As shown in fig. 4A and 4B, the substrate 24 of the self-powered module 20 is disposed on the housing 40, and the power generation device 22 and the linkage 21 are fixedly held on the housing 40 by the substrate 24. Preferably, in this preferred embodiment of the present invention, said base plate 24 of said self-powered module 20 is fixed in said housing 40 in a snap-in manner. Accordingly, the housing 40 comprises a housing body 41 and is further provided with at least one module receiving cavity 42, wherein the self-powered module 20 is fixed by the housing body 41 to the module receiving cavity 42. The housing 40 further comprises at least one fixing buckle 43, wherein the fixing buckle 43 fixes the substrate 24 of the self-powered module 20 in the module receiving cavity 42 in a buckling manner. Preferably, in the preferred embodiment of the present invention, the fixing button 43 is integrally formed with the housing body 41 of the housing 40. The base plate 24 further includes at least one base plate catch 246, wherein the base plate catch 246 is fitted to the retaining catch 43 of the housing 40 so that the base plate 24 is secured to the housing body 41. It should be noted that the manner in which the self-powered module 20 is secured to the housing 40 is merely exemplary and not limiting. Therefore, the self-powered module 20 may also be disposed on the housing 40 by other fixing means, such as by means of screws.

The wireless control switch further comprises at least one fixing rib 50, wherein the fixing rib 50 is disposed on the housing 40, and the self-powered module 20 is held in the housing 40 by the fixing rib 50. The fixing ribs 50 are circumferentially disposed inside the housing 40, and the base plate 24 of the self-powered module 20 is connected to the bottom of the housing 40 through the fixing ribs 50.

As shown in fig. 4A and 4B, the driving key 10 is movably disposed on the housing 40, wherein when the driving key 10 is pressed with a force, the driving key 10 drives the self-powered module 20 downward and in balance above the housing 40. Preferably, in the preferred embodiment of the present invention, the driving key 10 is snapped to the housing 40. More preferably, the housing 40 is fastened to the inner side of the driving key 10. It is to be understood that the manner in which the drive key 10 is mounted to the housing 40 is by way of example only and not by way of limitation. The housing 40 further includes at least one drive key outer catch 44, wherein the drive key catch 44 is disposed on the outside of the housing 40. The driving key 10 includes at least one driving key main body 11 and at least one driving key inner latch 12, wherein the driving key inner latch is disposed inside the driving key main body 11, and wherein the driving key inner latch 12 corresponds to the driving key outer latch 44. The housing 40 is further provided with a fool-proof groove 45, wherein the fool-proof groove 45 is formed at the side of the housing body 41 of the housing 40, and the driving key 10 is mounted on the housing 40 while recognizing the position of the fool-proof groove 45. Accordingly, the driving key 10 further includes at least one positioning post 13, wherein the positioning post 13 is disposed on the inner side of the driving key main body 11, wherein the positioning post 13 corresponds to the fool-proof groove 45, and when the driving key 10 is mounted on the housing 40, the positioning post 13 is disposed on the fool-proof groove 45. It can be understood that, by recognizing the positions of the fool-proof groove 45 and the positioning column 13 and installing the driving key 10, the misplaced installation of the driving key 10 can be avoided, which is beneficial to improving the assembly efficiency of the wireless control switch.

Preferably, in the preferred embodiment of the present invention, the housing 40 and the driving key 10 are disc structures, wherein when any position above the driving key 10 is pressed, the driving key 10 drives the self-powered module 20 downwards in a horizontal direction in a balanced manner to trigger the self-powered module 20 to generate electricity. It is to be understood that the shape of the wireless control switch in the present invention is merely exemplary and not limiting. Thus, the wireless control switch may also be implemented in other shapes and configurations, such as an oval, square configuration.

The wireless control switch further comprises at least one base 60, wherein the base 60 is disposed below the housing 40, wherein the base 60 is configured to support the housing 40 and the self-powered module 20 within the housing 40.

As shown in fig. 10, the driving key 10 further includes at least two pressing ends 14, wherein the pressing ends 14 are formed at the inner side of the driving key main body 11 of the driving key 10. When the driving key 10 is pressed with force, the pressing end 14 of the driving key 10 presses the first driving bracket 211 and/or the second driving bracket 212 downwards. The pressing end 14 presses against the first touch bar 2111 of the first driving bracket 211 and the second touch bar 2121 of the second driving bracket 212, and a downward acting force is applied to the first touch bar 2111 and/or the second touch bar 2121 by the pressing end 14 to drive the first driving bracket 211 and/or the second driving bracket 212 to move downward.

As shown in fig. 11 and 12, the power generating device 22 of the self-powered module 20 is fixedly disposed on the base plate 24, wherein one end of the power generating device 22 is drivably connected to the linkage 21. When the linkage 21 is pressed by force, the power generation device 22 converts mechanical energy of the linkage 21 into electric energy. When the linkage 21 is pressed, the reset device 23 drives the linkage 21 to move upward, and the linkage 21 drives the power generation device 22 to return to the initial state.

The generator 22 includes a swing magnet assembly 221, an iron core 222, and at least one coil 223, wherein the iron core 222 is disposed in the coil 223, the swing magnet assembly 221 is disposed in the coil 223 in a swing manner, and the swing magnet assembly 221 is conductively connected to the iron core 222. During the swinging of the swinging magnetic group 221, the upper end and the lower end of the swinging magnetic group 221 are alternately conducted with the iron core 222. The swing magnet assembly 221 is drivingly connected to the linkage 21, wherein the linkage 21 drives the swing magnet assembly 221 to move downward when pressed by a force, and drives the swing magnet assembly 221 to move upward by the linkage 21 when the linkage 21 is reset.

In short, in the preferred embodiment of the present invention, the power generating device 22 is driven by the linkage 21 to move up and down, and during the up and down movement, the power generating device 22 converts mechanical kinetic energy into electric energy for the communication module 30 to work.

The oscillating magnet group 221 includes a drawing end 2211, an oscillating arm 2212, a permanent magnet 2213, a first magnetic conductive sheet 2214, and a second magnetic conductive sheet 2215, wherein one end of the drawing end 2211 is disposed on the oscillating arm 2212, and the drawing end 2211 draws the oscillating arm 2212 to oscillate up and down. The permanent magnet 2213 is conductively disposed between the first magnetic conductive plate 2214 and the second magnetic conductive plate 2215, wherein the permanent magnet 2213, the first magnetic conductive plate 2214 and the second magnetic conductive plate 2215 are disposed on the swing arm 2212, and the swing arm 2212 drives the first magnetic conductive plate 2214 and the second magnetic conductive plate 2215 to be alternatively conducted to the iron core 222.

The first magnetic conductive sheet 2214 is attached above the permanent magnet 2213 (for example, N-level), and the second magnetic conductive sheet 2215 is attached below the permanent magnet 2213 (S-level). Preferably, in an initial state, the swing magnet assembly 221 is in an upwarping state, the second magnetic conductive sheet 2215 is conductively connected to the iron core, when the linkage 21 drives the traction end 2211 of the swing magnet assembly to move downward, the swing arm 2212 drives the permanent magnet 2213 and the first magnetic conductive sheet 2214 to move downward, the second magnetic conductive sheet 2215 is separated from the iron core, and the first magnetic conductive sheet 2214 is conductively connected to the iron core 222, so that a magnetic flux in the coil 223 is changed, and an induced current is generated by the coil 223.

It should be noted that in the preferred embodiment of the present invention, the pulling end 2211 of the swing magnet assembly 221 is driven by the first driving bracket 211 of the linkage 21 to move up and down. The first driving bracket 211 is further provided with at least one driving slot 2115, wherein one end of the pulling end 2211 of the swing magnet assembly 221 is disposed in the driving slot 2115. Preferably, the driving groove 2115 is formed at the first trip bar 2111 of the first driving bracket 211. It will be appreciated that the drive slot 2115 may also be formed in other locations of the linkage 21, such as the first linkage arm 2112 of the first drive bracket 211. Accordingly, the location at which the drive slot 2115 is formed is provided herein by way of example only, and not limitation.

Preferably, in the preferred embodiment of the present invention, the drawing end 2211 is implemented as a spring plate, and when the drawing end 2211 is pressed by a force, the drawing end 2211 is bent and deformed by the force. It is understood that the first and second magnetic conductive sheets 2214 and 2215 of the swing magnet group 221 are respectively attracted to the permanent magnet 2213, wherein when the first magnetic conductive sheet 2214 of the swing magnet group 221 approaches or connects to the iron core 222, the permanent magnet 2213 attracts the iron core 222 through the first magnetic conductive sheet 2214. When the pulling end 2211 pulls the first magnetic conductive sheet 2214 of the swing magnetic group 221 to separate from the iron core 222, the swing magnetic group 221 attracts the iron core 222, so that the pulling end 2211 is forced to bend. The pulling end 2211 is bent to enable the swing magnet assembly to store energy, when the swing magnet assembly 221 is separated from the iron core 222, the pulling end 2211 enables the iron core 222 to be rapidly separated from the first magnetic conductive sheet 2214 under the elastic action, and the second magnetic conductive sheet 2215 is in contact with the iron core 222, so that the magnetic flux in the coil 223 is rapidly changed, and the electric quantity is increased. More preferably, the pulling end 2211 is implemented as a metal dome.

The permanent magnet 2213 is made of permanent magnet materials, such as magnet, permanent magnet alloy, permanent magnetic ferrite, rare earth permanent magnet material, and permanent magnet material. The coil 223 further includes at least one bobbin 2231 disposed on at least one coil body 2232 of the bobbin 2231, wherein the bobbin 2231 supports the coil body 2232.

The power generation device 22 further comprises two current output elements 224, wherein the current output elements 224 are electrically connected to the coil 223, and the current generated by the coil 223 is output to the communication module 30 through the current output elements 224.

As shown in fig. 11 and 12, the power generation device 22 further comprises at least two magnetic group positioning elements 225 and at least one magnetic group fixing element 226, wherein the magnetic group positioning elements 225 are disposed at two ends of the swing arm 2212, and the first and second magnetic conductive sheets 2214 and 2215 are positioned on the swing arm 2212 by the magnetic group positioning elements. The magnetic group fixing element 226 clamps the upper ends of the first and second magnetic conductive sheets 2214 and 2215 in a clamping manner to fix the first and second magnetic conductive sheets 2214 and 2215.

As shown in fig. 3 to 5B, the communication module 30 is fixed above the self-powered module 20, wherein the communication module 30 comprises a communication circuit board 31 and further comprises at least two power input terminals 32, wherein the current output element 224 of the power generating device 22 of the self-powered module 20 is electrically connected to the power input terminals 32, and the communication circuit board 31 is supplied with operating power through the power input terminals 32.

The communication circuit board 31 of the communication module 30 is fixedly disposed on the substrate 24 of the self-powered module 20. Preferably, in the preferred embodiment of the present invention, the communication circuit board 31 is fixed above the base plate 24 in a snap-fit manner. Accordingly, the substrate 24 further comprises at least one circuit board fastener 247, wherein the circuit board fastener 247 is integrally disposed on the substrate main body 241, and the circuit board 31 is fixed and held by the substrate main body 241.

The communication module 30 generates and sends at least one control signal under the power supply of the self-powered module 20 to control at least one electrical device coupled to the wireless control switch. The communication module 30 further comprises at least one wireless transmission module 33, wherein the wireless transmission module 33 transmits the control signal when powered on, so that the electrical device receives the control signal and controls the operating state of the electrical device based on the control signal.

The communication module 30 further comprises at least one power storage and delay device 34, wherein the power storage and delay device 34 is electrically connected to the self-power module 20 and the wireless transmitting module 33, wherein the power storage and delay device 34 stores the power generated by the self-power module 20 and extends the power supply time of the wireless transmitting module 33 for the wireless transmitting module 33 to have sufficient power supply time to generate and transmit the control signal. Preferably, in this preferred embodiment of the present invention, the wireless transmission module 33 and the electric energy storage and delay device 34 are integrated into the communication circuit board 31.

The communication module 30 further comprises at least one wireless sensing device 35, wherein the wireless sensing device 35 records the mac (id) address or pairing information of the wireless control switch. When the wireless control switch is paired with a terminal device, the terminal device obtains the mac (id) address or pairing information of the wireless control switch through the wireless sensing device 35, so as to realize the pairing connection between the wireless control switch and the terminal device. When the wireless control switch sends a control signal, the wireless transmitting module 33 of the communication module 30 transmits message information having the same mac (id) address recorded by the wireless sensing device 35, so that the terminal device paired therewith can obtain the control signal of the wireless control switch.

Preferably, in the preferred embodiment of the present invention, the wireless sensing device 35 can be, but is not limited to, a Radio Frequency Identification (RFID) device. More preferably, the wireless sensing device 35 is disposed on the circuit board 31 of the communication module 30. When the wireless control switch is close to the terminal device, the mac (id) address or pairing information stored in the wireless sensing device 35 can be acquired by the terminal device. Alternatively, the wireless sensing device 35 may also be implemented as other types of devices, such as an NFC (near field Communication) device. It is to be understood that in the preferred embodiment of the present invention, the type and mounting location of the wireless sensing device 35 is provided herein by way of example only, and not limitation.

Referring to figures 13 to 18 of the drawings of the present application, further alternative embodiments of a linkage 21 of the self-powered module 20 of the wireless control switch according to the first preferred embodiment of the present invention are illustrated in the following description.

As shown in fig. 13 and 14, the linkage 21 includes a first driving bracket 211 and a second driving bracket 212, wherein the first driving bracket 211 includes a first triggering rod 2111 and two first linkage arms 2112 extending outwards from both ends of the first triggering rod 2111. The second driving bracket 212 includes a second touch bar 2121 and two second linkage arms 2122 extending outward from both ends of the second touch bar 2121. Each of the first linkage arms 2112 of the first drive bracket 211 further includes a first fulcrum 21121 and a first linkage end 21122, wherein the first linkage arm 2112 swings about the first fulcrum 21121, or the first linkage arm 2112 seesaws about the first fulcrum 21121. Each of the second linkage arms 2122 of the second drive bracket 212 further includes a second pivot point 21221 and a second linkage end 21222, wherein the second linkage arm 2122 swings about the second pivot point 21221 or the second linkage arm 2122 seesaws about the second pivot point 21221.

It is worth mentioning that the preferred embodiment of the present invention differs from the preferred embodiment described above in the structure of the first linkage end 21122 of the first linkage arm 2112 and the second linkage end 21222 of the second linkage arm 2122. The first linkage end 21122 and the second linkage end 21222 are engaged with each other in a fitting manner.

In detail, the first linkage end 21122 on one side of the first linkage arm 2112 has a "U" shaped adapting groove, and the first linkage end 21122 on the other side of the first linkage arm 2112 is a "one" shaped embedded structure. Accordingly, the second linkage arm 2122 corresponds to the first linkage arm 2112 and is connected to the first linkage arm 2112 in an embedded manner. The second linkage end 21222 on one side of the second linkage arm 2122 is a line-shaped embedded structure and is adapted to be embedded into the U-shaped first linkage end 21122 of the first linkage arm 2112; the second linkage end 21222 on the other side of the second linkage arm 2122 is a "U" shaped mating slot adapted to connect the first linkage end 21122 of the "straight" shape of the first linkage arm 2112. In short, the first linkage arm 2112 and the second linkage arm 2122 are connected to each other in a matching manner, and when the first driving bracket 211 is pressed by a force, the first driving bracket 211 drives the second linkage arm 2122 to move through the first linkage arm 2112, so that the first driving bracket 211 and the second driving bracket 212 move synchronously and in balance; when the second driving bracket 212 is pressed by force, the second driving bracket 212 drives the first driving bracket 211 to move synchronously and balancedly.

As shown in fig. 15, the linkage 21 includes a first driving bracket 211 and a second driving bracket 212, wherein the first driving bracket 211 includes a first triggering rod 2111 and two first linkage arms 2112 extending outwards from two ends of the first triggering rod 2111. The second driving bracket 212 includes a second touch bar 2121 and two second linkage arms 2122 extending outward from both ends of the second touch bar 2121. Each of the first linkage arms 2112 of the first drive bracket 211 further includes a first fulcrum 21121 and a first linkage end 21122, wherein the first linkage arm 2112 swings about the first fulcrum 21121, or the first linkage arm 2112 seesaws about the first fulcrum 21121. Each of the second linkage arms 2122 of the second drive bracket 212 further includes a second pivot point 21221 and a second linkage end 21222, wherein the second linkage arm 2122 swings about the second pivot point 21221 or the second linkage arm 2122 seesaws about the second pivot point 21221.

In detail, the first linkage end 21122 of the first linkage arm 2112 has a "U" shaped adapting groove, and the second linkage end 21222 of the second linkage arm 2122 is a "i" shaped embedded structure, and is adapted to be embedded into the "U" shaped first linkage end 21122 of the first linkage arm 2112. The first linkage arm 2112 and the second linkage arm 2122 are adaptively connected with each other, when the first driving bracket 211 is pressed by a force, the first driving bracket 211 drives the second linkage arm 2122 to move through the first linkage arm 2112, so that the first driving bracket 211 and the second driving bracket 212 move synchronously and balancedly; when the second driving bracket 212 is pressed by force, the second driving bracket 212 drives the first driving bracket 211 to move synchronously and balancedly.

As shown in fig. 16, the linkage 21 includes a first driving bracket 211 and a second driving bracket 212, wherein the first driving bracket 211 includes a first triggering rod 2111 and two first linkage arms 2112 extending outwards from both ends of the first triggering rod 2111. The second driving bracket 212 includes a second touch bar 2121 and two second linkage arms 2122 extending outward from both ends of the second touch bar 2121. Each of the first linkage arms 2112 of the first drive bracket 211 further includes a first fulcrum 21121 and a first linkage end 21122, wherein the first linkage arm 2112 swings about the first fulcrum 21121, or the first linkage arm 2112 seesaws about the first fulcrum 21121. Each of the second linkage arms 2122 of the second drive bracket 212 further includes a second pivot point 21221 and a second linkage end 21222, wherein the second linkage arm 2122 swings about the second pivot point 21221 or the second linkage arm 2122 seesaws about the second pivot point 21221.

In detail, the first linkage end 21122 of the first linkage arm 2112 has a "U" shaped configuration, and the second linkage end 21222 of the second linkage arm 2122 has a "U" shaped configuration adapted to drivingly connect with the first linkage end 21122. The first linkage arm 2112 and the second linkage arm 2122 are adaptively connected with each other, when the first driving bracket 211 is pressed by a force, the first driving bracket 211 drives the second linkage arm 2122 to move through the first linkage arm 2112, so that the first driving bracket 211 and the second driving bracket 212 move synchronously and balancedly; when the second driving bracket 212 is pressed by force, the second driving bracket 212 drives the first driving bracket 211 to move synchronously and balancedly. Optionally, the first linkage end 21122 and the second linkage end 21222 are gear-like structures, wherein the first linkage end 21122 and the second linkage end 21222 are driven in mesh with each other.

As shown in fig. 17, the linkage 21 includes a first driving bracket 211 and a second driving bracket 212, wherein the first driving bracket 211 includes a first triggering rod 2111 and two first linkage arms 2112 extending outwards from two ends of the first triggering rod 2111. The second driving bracket 212 includes a second touch bar 2121 and two second linkage arms 2122 extending outward from both ends of the second touch bar 2121. Each of the first linkage arms 2112 of the first drive bracket 211 further includes a first fulcrum 21121 and a first linkage end 21122, wherein the first linkage arm 2112 swings about the first fulcrum 21121, or the first linkage arm 2112 seesaws about the first fulcrum 21121. Each of the second linkage arms 2122 of the second drive bracket 212 further includes a second pivot point 21221 and a second linkage end 21222, wherein the second linkage arm 2122 swings about the second pivot point 21221 or the second linkage arm 2122 seesaws about the second pivot point 21221.

It is worth mentioning that the preferred embodiment of the present invention differs from the preferred embodiment described above in the structure of the first linkage end 21122 of the first linkage arm 2112 and the second linkage end 21222 of the second linkage arm 2122. The first linkage end 21122 and the second linkage end 21222 are drivingly connected to one another.

In this alternative embodiment of the present invention, the first linkage end 21122 of the first linkage arm 2112 and the second linkage end 21222 of the second linkage arm 2122 are mutually connected by a connecting member. The linkage device 21 further includes at least two connecting members 213, wherein the connecting members 213 connect the first linkage end 21122 and the second linkage end 21222, so that when the first linkage end 21122 is tilted, the first linkage end 21122 drives the second linkage end 21222 and the first linkage end 21122 to move synchronously. In short, the first driving bracket 211 and the second driving bracket 212 are connected to each other by the connection member 213 so that the first driving bracket 211 and the second driving bracket 212 move synchronously when either end of the linkage 21 is pressed by force. It is worth mentioning that the connection member 213 can be, but is not limited to, a screw, or a rivet, etc.

As shown in fig. 18, the linkage 21 includes a first driving bracket 211 and a second driving bracket 212, wherein the first driving bracket 211 includes a first triggering rod 2111 and two first linkage arms 2112 extending outward from both ends of the first triggering rod 2111. The second driving bracket 212 includes a second touch bar 2121 and two second linkage arms 2122 extending outward from both ends of the second touch bar 2121. Each of the first linkage arms 2112 of the first drive bracket 211 further includes a first fulcrum 21121 and a first linkage end 21122, wherein the first linkage arm 2112 swings about the first fulcrum 21121, or the first linkage arm 2112 seesaws about the first fulcrum 21121. Each of the second linkage arms 2122 of the second drive bracket 212 further includes a second pivot point 21221 and a second linkage end 21222, wherein the second linkage arm 2122 swings about the second pivot point 21221 or the second linkage arm 2122 seesaws about the second pivot point 21221.

The first linkage end 21122 of the first linkage arm 2112 has at least one connection hole 21123, and the second linkage arm 2122 further comprises at least one connection piece 21223, wherein the connection hole 21123 is fitted to the connection piece 21223. The connector 21223 of the second driving bracket 212 is connected to the first driving bracket 211 through the connection hole 21123 to move the first driving bracket 211 and the second driving bracket 211 synchronously and balancedly.

Referring to fig. 19-20B of the drawings accompanying the present application, in accordance with another aspect of the present invention, a wireless control system is illustrated in the following description. The wireless control system includes a wireless control switch 100 and at least one terminal device 200, wherein the wireless control switch 100 is communicably connected to the terminal device 200 so that the wireless control switch 100 is connected in a paired manner with the terminal device 200. The wireless control switch 100 is pressed to transmit at least one control signal in a self-generating manner, wherein the control signal is received by the terminal device 200 coupled to the wireless control switch 100 in a pairing manner, and the terminal device 200 controls an operating state of an electric device 300 based on the control signal. It is understood that the terminal device 200 is communicatively connected to the electric device 300, and the terminal device 200 can control the operation state of the electric device 300, such as the switching of a lamp, and the adjustment of the power of an electric device.

It is worth mentioning that the terminal device 200 may be, but not limited to, a lighting fixture, an electric tool, a smart speaker, a power switch, a smart lock, a home appliance, and the like. That is, after the wireless control switch 100 is paired with the terminal device 200, the operating state of the terminal device is wirelessly controlled in a self-generating manner.

It should be noted that the wireless control switch 100 can be, but is not limited to, the wireless control switch of the first preferred embodiment. In the preferred embodiment of the present invention, the wireless control switch 100 obtains the mac (id) address or pairing information of the wireless control switch 100 in a manner close to the terminal device 200, so as to realize the pairing connection between the terminal device 200 and the wireless control switch 100. Preferably, in this preferred embodiment of the present invention, the wireless control system realizes the pairing connection between the wireless control switch 100 and the terminal device 200 by means of radio frequency identification.

In detail, the wireless induction device 35 further includes an RFID chip 351 and a receiving-end RFID coil 352, the RFID chip 351 is electrically connected to the receiving-end RFID coil 352, wherein the receiving-end RFID coil 352 can generate induced electric energy when the terminal device 200 is in close proximity to the wireless control switch 100. The mac (id) address or pairing information of the wireless control switch 100 is written into the RFID chip 351, and the power generated by the receiving-end RFID coil 352 supports the RFID chip 351 to transmit the mac (id) address or pairing information of the wireless control switch 100.

Accordingly, the terminal device 200 includes a wireless communication device 210, a processing system 220, a control execution device 230, and a wireless identification device 240, wherein the wireless communication device 210 is communicatively connected to the processing system 220, the wireless communication device 210 can receive the control information sent by the wireless control switch 100, and the processing system 220 determines whether to execute the control operation according to the control information received by the wireless communication device 210. The control execution device 230 is communicatively connected to the processing system 220, and when the terminal device 200 receives the control information of the wireless control switch 100 paired therewith, the processing system 220 generates and transmits at least one control instruction to the control execution device 230, and the control instruction is executed by the control execution device 230, such as controlling the on/off of a lamp, the rotation speed of a motor, the operating state of a power switch, and the like.

The wireless identification device 240 is communicatively connected to the processing system 220, wherein the wireless identification device 240 obtains the identity information of the wireless control switch 100, such as a mac (id) address or pairing information, and stores the identity information of the wireless control switch 100 to the processing system 220 to complete the pairing connection of the wireless control switch 100 and the terminal device 200.

Accordingly, in the preferred embodiment of the present invention, the wireless identification device 240 of the terminal device 200 is an RFID identification device. When the wireless sensing device 35 of the wireless control switch 100 is close to the wireless identification device 240, the wireless identification device 240 enables the receiving end RFID coil 352 of the wireless sensing device 35 to generate induced electric energy, the receiving end RFID coil 352 supports the RFID chip 351 to work, and the receiving end RFID coil 352 transmits the identity address information of the wireless control switch 100 to the terminal device 200.

The wireless identification means 240 of the terminal device 200 comprises a transmitting end RFID coil 241 and an RFID reading means 242, wherein the RFID transmitting coil 241 emits radio signals with electric energy when powered. When the wireless control switch 100 is close to the wireless identification device 240 of the terminal device 200, for example, 5cm to 20cm, the power transmitted by the RFID transmission coil 241 causes the receiving-end RFID coil 352 to generate induced power. Preferably, the RFID transmitting coil 241 periodically transmits the radio signal.

The RFID chip 351 sends the identity address information of the wireless control switch 100 to the transmitting end RFID coil 241 of the wireless identification device 240 through the receiving end RFID coil 352. The RFID reading device 242 reads the identification address information of the wireless control switch 100 and stores the identification address information to the processing system 220, wherein the processing system 220 can identify the received wireless control signal based on the stored identification address information of the wireless control switch 100 to determine whether to execute the control command of the wireless control signal.

It is worth mentioning that the wireless sensing device 35 of the wireless control switch 100 and the wireless identification device 240 of the terminal device 200 exchange data through any frequency of 100KHZ to 5 GHZ. In other words, the frequency of the radio signal transmitted by the wireless identification device 240 received by the receiving-end RFID coil 352 of the wireless induction device 35 and the frequency of the radio signal transmitted by the receiving-end RFID coil 352 are in the range of 100KHZ to 5 GHZ.

In the preferred embodiment of the present invention, the processing system 220 can be but not limited to an MCU, wherein the processing system is used for storing the id address information of the wireless control switch 100, generating at least one control command based on the wireless control signal received by the wireless communication device 210, and transmitting the control command to the control executing device 230, so as to control at least one electric device in the circuit, such as a lamp, a motor, an intelligent sound device, etc., by executing the control command by the control executing device 230.

The terminal device 200 further comprises at least one power source 250, wherein the power source 250 is electrically connected to the processing system 220, the wireless communication device 210, and the control execution device 230 of the terminal device 200, and the power source 250 is used for supplying operating power. It is understood that the power source 250 may be dc or ac power externally connected to the external power consumption device, or the power source 250 is implemented as a battery device built in the terminal device 200.

When the driving key 10 of the wireless control switch 100 is pressed after the wireless control switch 100 is paired with the terminal device 200, the self-powered module 20 is triggered and generates pulse power. Illustratively, the wireless control switch 10 generates 1-5 milliseconds of pulsed electrical energy when depressed. The pulsed electrical energy generated by the self-powered module 20 is transmitted to the communication module 30, wherein the electrical energy storage and delay device 34 of the communication module 30 continuously oscillates the pulsed electrical energy to extend the existence time of the pulsed electrical energy, such that the pulsed electrical energy extends the supply time to between 5-30 milliseconds. It is to be understood that the amount and duration of the power generated by the wireless control switch 100 is provided herein by way of example only, and not limitation. The electric energy storage and delay device 34 supplies power to the wireless transmitting module 33, so that the wireless transmitting module 33 transmits a control signal in a broadcast message manner, wherein the control signal includes data segments such as a preamble, an MAC address, service information, key information, a check code, and the like. It is worth mentioning that the MAC address is Identity (ID) information of the self-powered wireless switch.

It should be noted that the data length of the control signal transmitted by the wireless transmitting module 33 is less than or equal to 30 bytes, and in short, the data information of the control signal is short code data information. The wireless transmitting module 33 transmits the control signal based on a customized communication protocol, wherein the customized communication protocol is a non-standard communication protocol. Therefore, a standard wireless receiving device cannot recognize and process the short code data information of the control signal. It can be understood that the shorter the length of the control signal transmitted by the wireless transmission module 33, the less electric energy is required for transmitting the short code data information of a single frame of the control signal. Preferably, in the preferred embodiment of the present invention, the electric energy generated by the power generation of the self-powered module 20 through a single time is driven by the electric energy storage and delay device 34 to transmit the control signal at least twice, so as to improve the transmission accuracy of the control signal and reduce the packet loss rate.

Accordingly, the wireless communication means 210 of the terminal device 200 receives and processes the control signal. In the preferred embodiment of the present invention, the wireless communication device 210 is provided with a short code decoding unit, wherein the short code decoding unit can identify the short code data information of the control signal and process the short code data information to obtain the key information in the control signal, so as to control the operating status of the electric device 300. It should be noted that the short code decoding unit is implanted in the wireless communication device 210 of the terminal device 200 in an OTA online upgrade manner or a burning manner. It is understood that the wireless communication device 210 is implemented as a bluetooth receiving chip, wherein the short code decoding unit is implemented as a short code decoding program stored in the bluetooth receiving chip, by which the short code data information of the control signal is parsed.

When the wireless communication device 210 of the terminal device 200 receives the control signal transmitted by the wireless transmission module 33, the wireless communication device 210 transmits the control signal to the processing system 220, so that the processing system 220 determines whether to execute the control signal. The processing system 220 determines whether the control signal received by the wireless communication device 210 is legal based on the stored identity information of the wireless control switch 100. When the MAC address information in the control signal received by the wireless communication device 210 is the same as the identity information stored in the processing system 220, the processing system 220 considers the control information received by the wireless communication device 210 as legal information, and generates at least one control command for controlling the control execution device 230. Conversely, if the MAC address in the control signal received by the wireless communication device 210 is different from the identity information stored in the processing system 220, the processing system 220 considers the control signal as illegal information.

The utility model discloses a method of removing wireless control switch 100 with terminal equipment 200 mating relation is further provided. The wireless control switch 100 is close to the terminal device 200 for a plurality of times within a time window, and the terminal device 200 identifies the wireless control switch 100 for a plurality of times within the time window, so that the terminal device 200 is released from the pairing relationship with the wireless control switch 100. In detail, when the terminal device 200 identifies the wireless control switch 100, the processing system 220 of the terminal device 200 opens a time window, for example, a time period of 5 seconds, in which the terminal device 200 identifies one or more times of the wireless control switch 100, and then the MAC address of the wireless control switch 100 is deleted by the processing system 220 of the terminal device 200, so as to release the pairing connection relationship with the wireless control switch 100.

In accordance with another aspect of the present invention, the present invention further provides a pairing method of the wireless control switch 100 and the terminal device 200, wherein the pairing method comprises the following steps:

(1) reading the MAC address information of the wireless control switch 100 at a short distance; and

(2) the MAC address information is stored in a processing system 220 of the terminal device 200 to pair the terminal device 200 with the wireless control switch 100.

The above pairing method of the present invention further comprises, before the step (1), the steps of: recording the MAC address information of the wireless control switch 100 to a wireless sensing device 35 of the wireless control switch 100.

In the step (1) of the above pairing method of the present invention, the method further includes:

closely receiving the radio signal of the terminal device 200 to generate induced power, and transmitting the MAC address information of the wireless control switch 100 to the terminal device 200.

In the step (1) of the above pairing method of the present invention, the wireless sensing device 35 may be but is not limited to an RFID device or an NFC device.

In the above pairing method of the present invention, after the step (2), the method may further include the step (3) of repeatedly pressing close the wireless control switch 100 to the terminal device 200 and deleting the MAC address information stored in the processing system 220 in a time period, so as to release the pairing relationship between the wireless control switch 100 and the terminal device 200.

Referring to fig. 21-24 of the drawings, in accordance with another aspect of the present invention, a wireless control system is illustrated in the following description. The wireless control system includes a wireless control switch 100 and at least one terminal device 200, wherein the wireless control switch 100 is communicably connected to the terminal device 200 so that the wireless control switch 100 is connected in a paired manner with the terminal device 200. The wireless control switch 100 is pressed to transmit at least one control signal in a self-generating manner, wherein the control signal is received by the terminal device 200 coupled to the wireless control switch 100 in a pairing manner, and the terminal device 200 controls an operating state of an electric device 300 based on the control signal. It is understood that the terminal device 200 is communicatively connected to the electric device 300, and the terminal device 200 can control the operation state of the electric device 300, such as the switching of a lamp, and the adjustment of the power of an electric device.

It should be noted that, unlike the wireless control system of the above preferred embodiment, the terminal device 200 and the wireless control switch 100 of the wireless control system do not need to use a special mechanism to realize a pairing connection. In the preferred embodiment of the present invention, the terminal device 200 realizes the pairing connection between the terminal device 200 and the wireless control switch 100 by detecting the signal strength of the control signal transmitted by the wireless control switch 100.

As will be understood by those skilled in the art, the control signal transmitted by the wireless control switch 100 is received by the terminal device 200, wherein the distance between the terminal device 200 and the wireless control switch 100 is an image of the signal strength of the control signal received by the terminal device 200. Illustratively, when the wireless control switch 100 is close to the terminal device 200, for example, 20cm, the signal strength of the control signal transmitted by the control switch 100 received by the terminal device 200 is about-25 dB; when the wireless control switch 100 is far away from the terminal device 200, for example, 60m, the signal strength of the control signal transmitted by the control switch 100 received by the terminal device 200 is about-102 dB. Therefore, the wireless control system of the present invention determines whether the terminal device 200 is connected to the wireless control switch 100 in a paired manner, based on the signal strength of the control signal received by the terminal device 200; or the signal strength of the control signal received by the terminal device 200 measures the approximate distance between the terminal device 200 and the wireless control switch 100, and determines whether the terminal device 200 is connected in pair with the wireless control switch 100 based on the distance between the terminal device 200 and the wireless control switch 100.

The terminal device 200 includes a wireless communication device 210, a processing system 220, and a control execution device 230, wherein the wireless communication device 210 is communicatively connected to the processing system 220, the wireless communication device 210 can receive the control information sent by the wireless control switch 100, and the processing system 220 determines whether to execute the control operation according to the control information received by the wireless communication device 210. The control execution device 230 is communicatively connected to the processing system 220, and when the terminal device 200 receives the control information of the wireless control switch 100 paired therewith, the processing system 220 generates and transmits at least one control instruction to the control execution device 230, and the control instruction is executed by the control execution device 230, such as controlling the on/off of a lamp, the rotation speed of a motor, the operating state of a power switch, and the like.

The wireless communication device 210 includes a data receiving module 2110 and a field strength detecting module 2120, wherein the data receiving module 2110 receives a control data file of a control signal sent by the wireless control switch 100, and the field strength detecting module 2120 detects a signal strength of the control signal sent by the wireless control switch 100. The wireless communication device 210 transmits the received data file and the signal strength information to the processing system 220, so that the processing system 220 determines whether to pair with the wireless control switch 100 or execute a control instruction of the wireless control switch 100 based on the data file and the signal strength of the control signal.

The processing system 220 of the terminal device 200 sets a signal strength determination threshold, such as-25 dB, wherein when the control signal detected by the wireless communication apparatus 210 exceeds the signal strength determination threshold (-25dB), the processing system 220 can identify the control signal as a pairing signal. When the wireless communication device 210 of the terminal device 200 receives the control signal sent by the wireless control switch 100 as the pairing signal within a time period, the wireless control switch 100 and the terminal device 200 are connected in a pairing manner by the processing system 220.

Illustratively, when the terminal device 200 is within a window time of 3 seconds, the field strength detecting module 2120 of the wireless communication apparatus 210 detects that the wireless control switch 100 sends a pairing signal three times, and the processing system 220 stores the MAC address information of the wireless control switch 100, so as to realize pairing connection between the terminal device 200 and the wireless control switch 100. It is understood that the window time and the number of times the pairing signal is recognized set by the terminal device 200 in the present invention are merely exemplary and not limiting. In the preferred embodiment of the present invention, the user presses the wireless control switch 100 once, and the wireless control switch 100 sends a control signal once. Then, when the wireless control switch 100 is pressed one or more times within a time period, such as 1 second, within a distance range of 5cm-100cm, for example, when the wireless control switch 100 is close to the terminal device 200, the terminal device 200 may consider that the wireless control switch 100 is paired with the terminal device 200. The wireless communication device 210 of the terminal device 200 acquires the MAC address information of the wireless control switch 100 in the control signal sent by the wireless control switch 100, and stores the MAC address information to the processing system 220 of the terminal device 200, so as to realize the pairing connection between the wireless control switch 100 and the terminal device 200.

It should be noted that, when the wireless control switch 100 is operated, the wireless transmitting module 33 of the wireless control switch 100 transmits the control signal in a message manner, where the control signal includes a preamble, a MAC address, service information, key information, a check code, and other data segments, where the MAC address is Identity (ID) information of the self-powered wireless switch. The data receiving module 2110 of the wireless communication device 210 of the terminal device 200 receives the control signal sent by the wireless transmitting module 33 to the processing system 220, so that the processing system 220 can determine whether to execute the control signal of the wireless control switch 100.

After the wireless control switch 100 and the terminal device 200 are paired, the wireless control signal sent by the wireless control switch 100 is received by the wireless communication device 210 of the terminal device 200, wherein the processing system 220 generates at least one control instruction to the control execution device 230 based on the wireless control signal of the wireless control switch 100, so as to control the operating state of the control execution device 230, such as controlling a lamp to open, color to adjust, light to adjust, controlling a curtain motor to open or close a curtain, and the like.

Accordingly, when the pairing of the wireless control switch 100 and the terminal device 200 is completed, the wireless control switch 100 is operated at a position close to the terminal device 200, wherein the wireless control switch 100 is pressed and transmits at least one control signal. The terminal device 200 determines whether to release the pairing relationship between the wireless control switch 100 and the terminal device 200 based on the signal strength and the number of times of the control signal received within a period of time. Illustratively, when the terminal device 200 continuously receives three times of control signals exceeding a set signal strength threshold, such as-25 dB, within 3 seconds, the processing system 220 of the terminal device 200 deletes the MAC address information of the wireless control switch 100 to release the pairing relationship between the terminal device 200 and the wireless control switch 100.

It should be noted that, after the wireless control switch 100 and the terminal device 200 are paired, when the signal strength of the control signal received by the terminal device 200 is smaller than a set signal strength threshold, or the number of times of receiving the control signal is smaller than a set number of times, the processing system 220 of the terminal device 200 determines that the control signal is an operation control command, and controls the control execution device 23.

As shown in fig. 23 and 24, according to another aspect of the present invention, the present invention further provides a pairing method of a wireless control switch 100 and at least one terminal device 200, wherein the pairing method comprises the following steps:

(a) transmitting at least one control signal at a location close to the terminal device 200; and

(b) acquiring the MAC address information of the wireless control switch 100, and storing the MAC address information to a processing system 220 of the terminal device 200 to pair the wireless control switch 100 and the terminal device 200.

In the step (a) of the pairing method of the present invention, the control signal is sent to the terminal device 200 in a self-generating manner, wherein the control signal contains the MAC address information of the wireless control switch 100. In the above pairing method of the present invention, the step (a) further includes the steps of: the control signal is transmitted at a location distant from the terminal device 2005 CM-100 CM. In the above pairing method of the present invention, the step (a) further includes the steps of: continuously transmitting the control signal to the terminal device 200 within a time window.

Between the steps (a) and (b) of the pairing method of the present invention, further comprising the steps of:

detecting the signal strength of the control signal; and

Before the step (b) of the pairing method of the present invention, the method further comprises: setting a signal intensity judgment threshold, and judging the control signal to be a pairing signal when the signal intensity of the control signal is greater than the signal intensity judgment threshold; and when the intensity of the control signal is smaller than the signal intensity judgment threshold, judging that the control signal is an action command signal.

detecting the signal strength of the control signal; and

and calculating the distance between the terminal device 200 and the wireless control switch 100 based on the signal intensity of the control signal.

Before the step (b) of the pairing method of the present invention, the method further comprises: setting a distance judgment threshold, and judging the control signal to be a pairing signal when the distance between the wireless control switch 100 and the terminal device 200 measured and calculated is smaller than the distance judgment threshold; and when the measured distance between the wireless control switch 100 and the terminal device 200 is greater than the distance judgment threshold, judging the control signal as an action command signal.

The step (b) of the pairing method of the present invention further comprises the steps of:

detecting the number of times of the pairing signal transmitted by the wireless control switch 100 in the time window; and

setting a number threshold of a pairing signal, judging whether the wireless control switch 100 is paired with the terminal device 200 based on the number threshold of the pairing signal, and judging the wireless control switch 100 and the terminal device 200 when the terminal device 200 detects that the number of times of the pairing signal sent by the wireless control switch 100 is greater than the number threshold of the pairing signal; when the terminal device 200 detects that the number of times of the pairing signal sent by the wireless control switch 100 is smaller than the number threshold of the pairing signal, it is determined that the pairing signal is an action control instruction.

The step (b) of the pairing method of the present invention may further include the step (c) of sending the control signal at a position close to the terminal device 200, and deleting the MAC address information of the wireless control switch stored in the terminal device, so as to release the pairing relationship between the terminal device 200 and the wireless control switch 100.

It will be understood by those skilled in the art that the embodiments of the present invention as described above and shown in the drawings are given by way of example only and are not limiting of the present invention. The objects of the present invention have been fully and effectively accomplished. The functional and structural principles of the present invention have been shown and described in the embodiments without departing from the principles, embodiments of the present invention may have any deformation or modification.

Claims

1. A self-powered module, comprising:

at least one power generation device; and

2. The self-powered module of claim 1, wherein the first driving bracket comprises a first trip arm and two first linkage arms integrally extending from both ends of the first trip arm, wherein the second driving bracket further comprises a second trip arm and two second linkage arms integrally extending from both ends of the second trip arm, wherein the first linkage arm and the second linkage arms are drivingly connected to each other.

3. The self-powered module of claim 2, wherein each of the first linkage arms of the first drive chassis includes a first fulcrum and a first linkage end, wherein each of the second linkage arms of the second drive chassis includes a second fulcrum and a second linkage end, wherein the first linkage end links the second linkage end and tilts up and down based on a pivot axis on which the first fulcrum is located, and wherein the second linkage end links the first linkage end and tilts up and down based on a pivot axis on which the second fulcrum is located.

4. The self-powered module of claim 3, wherein the first fulcrum extends downwardly from the first linkage arm and the second fulcrum extends downwardly from the second linkage arm, wherein the first trip arm of the first drive bracket and the second trip arm of the second drive bracket move in balance with each other based on the first fulcrum and the second fulcrum.

5. The self-powered module of claim 4, wherein the first and second linkage ends are in an "L" shape with the first linkage end on one side facing upward and the second linkage end mating therewith facing downward, and the first linkage end on the other side facing downward and the second linkage end mating therewith facing upward.

6. The self-powered module as recited in claim 4, wherein the first and second linkage ends cooperatively drive, wherein the first linkage end on one side has a "U" shaped mating slot and the second linkage end connected thereto is a "I" shaped recessed feature, and wherein the second linkage end on the other side has a "U" shaped mating slot and the first linkage end connected thereto is a "I" shaped recessed feature.

7. The self-powered module as recited in claim 4, wherein the first coupling end of the first drive bracket matingly fits snuggly with the second coupling end of the second drive bracket, the first coupling end having a "U" shaped mating slot, wherein the second coupling end is a "I" shaped mating structure, wherein the second coupling end is disposed in the mating slot of the first coupling end.

8. The self-powered module of claim 4, wherein the first and second link ends are in intermeshing drive, wherein the first and second link ends are in a mating "U" gear configuration.

9. The self-powered module of claim 4 wherein the linkage further comprises a connector, wherein the connector connects the first linkage end and the second linkage end.

10. The self-powered module as claimed in any one of claims 5 to 9, wherein the self-powered module further comprises at least one reset element, wherein the reset element is disposed below the linkage, the linkage holds the linkage in the initial state, and when the linkage is pressed, the reset element drives the linkage to return to the initial state, and the linkage drives the power generation device to move.

11. The self-powered module of claim 10, wherein the reset element is a torsion spring, wherein the reset element is disposed below the first and second trip bars, and wherein the reset element drives the first and second trip bars to move upward and balance the force applied to the first and second trip bars.

12. The self-powered module of claim 10, wherein the self-powered module further comprises a substrate, wherein the power generation device and the linkage are fixedly disposed on the substrate, and wherein the substrate fixedly retains the power generation device and the linkage in relative position.

13. The self-powered module of claim 4 wherein the first drive bracket has a drive slot, wherein the drive slot is formed in the first trip lever, wherein the power generation device is drivably coupled to the first drive bracket via the drive slot, the power generation device being driven by the first drive bracket to move up and down.

14. A wireless controlled switch, comprising:

a self-powered module as claimed in any one of claims 1 to 13;

15. The wireless control switch according to claim 14, wherein the communication module comprises a communication circuit board, at least one power input terminal, and at least one wireless transmission module, wherein the wireless transmission module is disposed on the circuit board, wherein the self-powered module is electrically connected to the power input terminal, and is self-powered by the self-power, wherein the wireless transmission module generates and transmits the control signal when powered on.

16. The wireless control switch of claim 15, wherein the communication module further comprises at least one power storage and delay device, wherein the power storage and delay device electrically couples the wireless transmitter module to the power input, wherein the power storage and delay device stores the power transmitted from the power module and extends the duration of the power applied to the wireless transmitter module.

17. The wireless control switch of claim 16, wherein the communication module further comprises at least one wireless sensing device, wherein the wireless sensing device is configured to store a mac (id) address or pairing information of the wireless control switch for a terminal device to pair with the wireless control switch by identifying the wireless sensing device.

18. The wireless control switch of claim 17, wherein the wireless sensing device is selected from any combination of sensing devices consisting of RFID devices or NFC devices.

19. The wireless control switch according to any one of claims 14 to 18, wherein the wireless control switch further comprises a housing, wherein the self-powered module and the communication module are fixedly disposed in the housing.

20. The wireless control switch according to claim 19, wherein the housing comprises a housing body, at least one retaining buckle integrally disposed above the housing body, and at least one module accommodating cavity for accommodating the self-powered module therein.

21. The wireless control switch of claim 19, wherein the wireless control switch further comprises an actuation key, wherein the actuation key is drivingly retained above the self-powered module, the actuation key being forced to depress the linkage to drive the power generation device in a manner that balances movement of the linkage.

22. The wireless control switch according to claim 21, wherein the driving key comprises a driving key main body and at least two pressing ends, the pressing ends are disposed inside the driving key main body, wherein the driving key main body is movably disposed above the housing, and the pressing ends are held against the linkage by the housing and drive the linkage to move in balance.

23. A wireless control system adapted to control at least one powered device, comprising:

the processing system stores the identity address information of the wireless control switch and generates at least one control instruction based on the identity address information and the control signal after the wireless control switch is connected with the terminal equipment in a matching way; and

24. The wireless control system of claim 23, wherein the wireless control switch comprises a self-powered module and a communication module, wherein the self-powered module is driven to convert mechanical energy into electrical energy, and the self-powered module is electrically connected to the communication module for the communication module to generate and transmit the control signal.

25. The wireless control system of claim 24, wherein the wireless control switch includes a wireless sensing device, wherein the wireless sensing device records identification address information of the wireless control switch, and the terminal device further includes a wireless identification device, wherein the wireless identification device is communicatively connected to the processing system, the wireless identification device reads the identification address information of the wireless control switch recorded by the wireless sensing device, and stores the identification address information to the processing system, so that the wireless control switch and the terminal device are connected in pair.

26. The wireless control system of claim 25, wherein the wireless sensing device further comprises an RFID chip and a receiving RFID coil, the RFID chip being electrically connected to the receiving RFID coil, wherein the wireless identification device comprises a transmitting RFID coil and an RFID reading device, wherein when the receiving RFID coil is close to the transmitting RFID coil, the RFID chip transmits the identification address information of the wireless control switch to the transmitting RFID coil through the receiving RFID coil.

27. The wireless control system of claim 25, wherein after the wireless control switch is paired with the terminal device, the wireless identification device of the terminal device reads the id address information of the wireless control switch at least once within a time period, and the processing system deletes the id address information of the wireless control device to release the pairing relationship between the wireless control switch and the terminal device.

28. The wireless control system of claim 24, wherein the wireless communication device further comprises a data receiving module and a field strength detecting module, wherein the data receiving module receives data information of the control signal sent by the wireless control switch, the field strength detecting module detects the signal strength of the control signal, and the processing system determines whether to connect the pair based on the signal strength of the control signal.

29. The wireless control system according to claim 28, wherein the processing system sets a signal strength determination threshold, the processing system regards the control signal as a pairing signal when the signal strength of the control signal received by the wireless communication apparatus is greater than the signal strength determination threshold, and the processing system stores the identification address information of the wireless control switch when at least one of the control signals received by the wireless communication apparatus is the pairing signal within a time period, so that the wireless control switch is associated with the terminal device.

30. The wireless control system according to claim 29, wherein after the wireless control switch is paired with the terminal device, when the wireless communication apparatus of the terminal device receives at least one control signal as the pairing signal within a time period, the processing system deletes the identification address information of the wireless control switch to release the pairing relationship between the wireless control switch and the terminal device.

31. The wireless control system of claim 23, wherein the wireless control switch transmits the control signal as short code data information based on a self-defined communication protocol, wherein the data information length of the control signal is less than 30 bytes.

32. The wireless control system of claim 31, wherein the wireless communication device of the terminal equipment is embedded with a short code decoding unit, and the short code data information of the control signal is received by the wireless communication device and analyzed by the short code decoding unit to obtain the control information of the wireless control switch.

33. The wireless control system of claim 32, wherein the short code decoding unit is stored on the wireless communication device in an OTA online upgrade.

34. The wireless control system of claim 32, wherein the short code decoding unit is stored in the wireless communication device in a burning manner.