CN209823621U

CN209823621U - Balance driving power generation device

Info

Publication number: CN209823621U
Application number: CN201920052756.9U
Authority: CN
Inventors: 刘远芳
Original assignee: Shenzhen Yi Bailong Technology Co Ltd
Current assignee: Shenzhen Yi Bailong Technology Co Ltd
Priority date: 2019-01-11
Filing date: 2019-01-11
Publication date: 2019-12-20
Anticipated expiration: 2029-01-11

Abstract

The utility model discloses a balanced drive power generation facility, wherein balanced drive power generation facility includes a balanced seat and a power generation unit, wherein balanced seat has a balanced face, wherein balanced face is in be maintained parallel translation during balanced seat motion, wherein the power generation unit is coupled in balanced seat, in order to work as in the free position drive of balanced face during balanced seat, the power generation unit can by balanced seat drive and produce the electric energy.

Description

Balance driving power generation device

Technical Field

The utility model relates to a signalling field especially relates to a balanced drive power generation facility and many keys are with form passive transmitter, with make each when balanced drive power generation facility is laid a plurality of buttons the button can have same stroke, and can touch arbitrary the button ground electricity generation and for the transmission of the corresponding signal of this button that is touched provides the electric energy.

Background

In recent years, the development of technology is increasingly reflected in the pursuit of environmental protection, and the development is as large as the popularization of electric vehicles, and as small as signal transmitting devices in the field of signal transmission without battery power supply. Like the passive switch which is popular at present, the passive switch is provided with electric energy output by converting mechanical energy into electric energy, so that the passive switch can send control signals in a wired or wireless mode and is widely applied to doorbell switches and lamp switches. However, in the remote control widely used in the field of signal transmission, even though the power saving technology of the current remote control has achieved a battery replacement cycle acceptable to the user under the condition of using only one button battery for power supply, the current remote control still has difficulty in getting rid of the dependence on the battery, mainly because the current generator for converting mechanical energy into electric energy is difficult to match with the remote control with a plurality of keys.

Specifically, as shown in fig. 1A and 1B of the drawings, a present self-generating remote controller 10P is mainly illustrated, wherein the self-generating remote controller 10P includes a generator 11P, a housing 12P, a driving plate 13P and a plurality of keys 14P disposed on the driving plate 13P, wherein the generator 11P is disposed in the housing 12P, wherein the generator 11P includes a driving rod 111P for driving the driving rod 111P to generate electric energy from the generator 11P, and the driving plate 13P is coupled to the driving rod 111P, so as to be able to drive the keys 14P by applying force. It is understood that the structural configuration of driving the generator 11P by the driving rod 111P makes the effective mechanical energy bearing surface of the generator 11P small, that is, the effective force application surface is concentrated on the driving rod 111P when the generator 11P is applied with force for generating electricity. Further, the self-generating remote controller 10P is provided with a plurality of the buttons 14P, that is, the buttons 14P of the self-generating remote controller 10P are not concentrated, unlike the generator 11P in which effective force application surfaces are concentrated, so that it is difficult to uniformly apply force to the driving lever 111P when applying force to different buttons 14P of the self-generating remote controller 10P. Therefore, when any one of the keys 14P is forced to drive the self-generating remote controller 10P, the driving board 13P may incline to different degrees, that is, the strokes of the keys 14P are different, so that the self-generating remote controller 10P is difficult to obtain a good control hand feeling.

In order to maintain the same stroke of each key of the remote controller and provide electric energy output for the remote controller through the generator, the invention with the publication number of CN107852080A discloses another embodiment of the self-generating remote controller, in which the force application driving of the generator of the self-generating remote controller and the pressing of the key are operated separately, i.e. the user presses any key on the front side of the self-generating remote controller where the key is arranged and presses the back side of the self-generating remote controller to drive the generator. That is to say, the user holds the self-generating remote controller, and when the key on the front side of the self-generating remote controller is pressed by a thumb in the operation mode of the traditional remote controller, two sections of pressing are needed to form the movement of the back side of the self-generating remote controller relative to the front side of the self-generating remote controller, so that the generator is driven. Therefore, although the keys of the self-generating remote controller can be maintained in the same stroke by adopting the arrangement mode of the keys of the traditional remote controller, the operation mode of the self-generating remote controller is different from that of the traditional remote controller, and good control hand feeling is difficult to obtain.

In summary, even though the current power saving technology of the remote controller has achieved a battery replacement cycle acceptable to the user under the condition of using only one button battery for power supply, the battery requirement of the widely used remote controller is still huge and is not friendly to the environment. The power generator with relatively concentrated effective force application surface is difficult to match with the remote controller with a plurality of keys, and the current self-generating remote controller is difficult to conform to the operation mode of the traditional remote controller while maintaining the same stroke of each key, so the power generator is difficult to popularize to reduce the use of batteries.

SUMMERY OF THE UTILITY MODEL

An object of the present invention is to provide a balanced driving power generation device and a multi-key same-type passive transmitter thereof, wherein the multi-key same-type passive transmitter includes a power generation unit to provide energy output for signal transmission of the multi-key same-type passive transmitter without an additional battery or an external power source, thereby protecting environment and saving energy.

Another object of the present invention is to provide a balanced driving power generation device and a multi-key same-stroke passive transmitter thereof, wherein the multi-key same-stroke passive transmitter is provided with a plurality of keys, each of which is maintained at the same stroke to obtain a good control feeling.

Another object of the present invention is to provide a balanced driving power generation device and the passive transmitter with multiple keys and the same program, wherein the passive transmitter with multiple keys and the same program is provided with multiple keys, and by the power generation unit supplies power and can press different keys to transmit different control signals, so as to meet the requirement of controlling multiple keys of the conventional remote controller.

Another object of the present invention is to provide a balanced driving power generating device and a multi-key same-stroke passive transmitter thereof, wherein the power generating unit is driven by pressing any one of the keys, so as to make the operation of the multi-key same-stroke passive transmitter conform to the operation mode of the conventional remote controller without additional pressing operation.

Another object of the present invention is to provide a balanced driving power generating device and a multi-key same-stroke passive transmitter thereof, wherein each of the keys is maintained at the same stroke, and the power generating unit is driven by any one of the pressing operations of the keys, so that when pressing the keys differently, the uniform driving of the power generating unit can be formed to make the power generating amount of the power generating unit can be maintained stably, thereby having better stability.

Another object of the present invention is to provide a balanced driving power generator and a multi-key same-stroke passive transmitter thereof, wherein the operation of the multi-key same-stroke passive transmitter conforms to the operation mode of a conventional remote controller, so as to reduce the use of battery by replacing the conventional remote controller.

Another object of the present invention is to provide a balanced driving power generation device and a passive transmitter with multiple keys and the same stroke, wherein the passive transmitter with multiple keys and the same stroke includes a balance seat to form a balance surface, and when any point of the balance surface is stressed, the parallel movement of the balance surface is formed.

Another object of the present invention is to provide a balanced driving power generation device and a passive transmitter with multiple keys and the same stroke, wherein each of the keys is coupled to the balance plane and the balance seat, so as to maintain each of the keys on the same stroke.

Another object of the present invention is to provide a balanced driving power generation device and a passive transmitter with multiple keys and the same stroke, wherein each of the keys is coupled to the balance seat and the balance seat, so as to press the keys to form the balance seat for parallel movement of the balance seat.

Another object of the present invention is to provide a balanced driving power generation device and a passive transmitter with multiple keys and the same stroke, wherein the power generation unit is coupled to the balance seat to operate arbitrarily by pressing the key, the power generation unit is driven by the motion of the balance seat.

Another object of the present invention is to provide a balanced driving power generation device and a multi-key same-stroke passive transmitter thereof, wherein the multi-key same-stroke passive transmitter includes a key-distributing plate, wherein the key-distributing plate is parallel to the balance surface and is disposed on the balance seat, so as to maintain the parallel movement of the key-distributing plate by the balance surface.

Another object of the present invention is to provide a balanced driving power generation device and a multi-key same-stroke passive transmitter thereof, wherein each of the keys is disposed on the key distribution plate, so that the keys are maintained on the same stroke by the parallel movement of the key distribution plate.

Another object of the present invention is to provide a balanced driving power generation device and a multi-key same-stroke passive transmitter thereof, wherein the power generation unit is set to be capable of generating an electric energy in the process of pressing and resetting the key respectively to transmit two control signals by supplying power respectively twice with the electric energy.

Another object of the present invention is to provide a balanced driving power generation device and a multi-key same-stroke passive transmitter thereof, wherein the key is pressed and the reset process can transmit a control signal respectively to realize continuous variable control by two control signals, such as stepless volume adjustment, brightness adjustment, temperature setting and other continuous variables.

Another object of the present invention is to provide a balanced driving power generation device and a passive transmitter with multiple keys and the same stroke, wherein the balanced driving power generation device comprises the balanced base and the power generation unit, so as to be able to drive at any position of the balanced surface the power generation unit, and make at any position of the balanced surface right the driving of the balanced base has the same stroke, namely, the balanced driving power generation device can be driven by the balanced at any position of the balanced surface to generate electric energy.

Another object of the present invention is to provide a balanced driving power generation device and a passive transmitter with multiple keys and the same stroke, wherein the balanced driving power generation device can generate electric energy by balanced driving at any position of the balanced surface, and has a larger operation area and a balanced operation experience.

To achieve at least one of the above objects, the present invention provides a passive transmitter with multiple keys and a same program, including:

a plurality of keys;

a balance seat, wherein the balance seat comprises two pivoting members, each of which has a pivoting portion, a linkage portion and a balance end, wherein the two pivoting members are respectively pivotally disposed at the pivoting portions and coupled at the linkage portion, so that when any one of the pivoting members is pivoted, the other pivoting member is pivoted in a linkage manner, wherein a connecting line of the two pivoting portions of the two pivoting members is parallel to a connecting line of the two balance ends, so that a balance plane is formed on a plane where the two balance ends are located, and further when any one of the pivoting members is pivoted, the balance plane can be maintained to move in parallel;

the key distribution plate is arranged on the key distribution plate, wherein the key distribution plate is maintained at two balance ends on the balance surface, so that when any key is pressed, the parallel movement of the key distribution plate is maintained, and further, each key is maintained in the same stroke;

the power generation unit is coupled to the balance seat so as to be driven by the balance seat to generate electric energy when any key is pressed; and

and the signal transmitting unit is electrically connected with the power generation unit, and when at least one key is pressed to drive the power generation unit, the signal transmitting unit transmits at least one control signal matched with the pressed key under the power supply of the power generation unit.

In one embodiment, the power generating unit comprises a driving arm, wherein the power generating unit is coupled to the balance base through the driving arm so as to form uniform driving of the driving arm when different keys are pressed.

In an embodiment, the balance seat further includes a balance member, wherein the two pivot members are disposed parallel to each other and pivotally disposed on the balance member at the linkage portion, respectively, so as to form a structural relationship in which the two pivot members are coupled at the linkage portion by the balance member.

In an embodiment, the linkage portion is integrally formed at the balance end, and the balance surface is formed on a plane where the balance member is located, wherein the key distribution plate is disposed on the balance member to form a positional relationship where the key distribution plate is maintained at the two balance ends on the balance surface, and further, when any one of the keys is pressed, the key distribution plate can be maintained to move in parallel by the balance member.

In one embodiment, the linkage portion of one of the pivoting members is pivotally disposed on the linkage portion of the other pivoting member, so that when any one of the pivoting members is pivoted, the other pivoting member is pivoted in a linkage manner, thereby forming a structural relationship in which the two pivoting members are coupled at the linkage portion.

In one embodiment, the two balance ends are respectively formed on each pivoting member in a manner of extending from the pivoting portion to the direction of the linkage portion, so that when a connecting line of the two pivoting portions is parallel to a connecting line of the two balance ends, the balance surfaces can move in parallel when any pivoting member is pivoted.

In one embodiment, the two balance ends are respectively arranged to extend from the linkage part to the pivot part and formed on each pivot part, so that when a connecting line of the two pivot parts is parallel to a connecting line of the two balance ends, the balance surfaces can move in parallel when any one pivot part is pivoted.

In an embodiment, the balance seat further includes a balance member, wherein the balance ends of the two pivot members are respectively maintained at the balance member, and the balance surface is formed on a plane where the balance member is located.

In one embodiment, the key arrangement plate is disposed on the balance member to form a positional relationship in which the key arrangement plate is maintained at two balance ends on the balance surface, and the key arrangement plate can be maintained by the balance member to move in parallel when any one of the keys is pressed.

In one embodiment, the power generation unit further comprises a coil assembly and a magnet assembly, wherein the magnet assembly is maintained stationary, wherein the coil assembly is movably maintained at the drive arm to provide movement of the coil assembly relative to the magnet assembly when the drive arm is driven, thereby generating electrical energy.

According to the utility model discloses an on the other hand, this practical novel balanced drive power generation facility that still provides, include:

a balance seat, wherein the balance seat comprises two pivoting members, each of which has a pivoting portion, a linkage portion and a balance end, wherein the two pivoting members are respectively pivotally disposed at the pivoting portions and coupled at the linkage portion, so that when any one of the pivoting members is pivoted, the other pivoting member is pivoted in a linkage manner, wherein a connecting line of the two pivoting portions of the two pivoting members is parallel to a connecting line of the two balance ends, so that a balance plane is formed on a plane where the two balance ends are located, and further when any one of the pivoting members is pivoted, the balance plane can be maintained to move in parallel; and

the power generation unit is coupled to the balance seat, so that when the balance seat is driven at any position of the balance surface, the power generation unit can be driven by the balance seat to generate electric energy.

In one embodiment, the balance driving power generation device further comprises a balance member, wherein the balance ends of the two pivot members are respectively maintained at the balance member, and the balance surface is formed on the plane of the balance member.

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

Drawings

Fig. 1A is a schematic structural diagram of a conventional self-generating remote controller.

Fig. 1B is a schematic structural diagram of the self-generating remote controller in a use state.

Fig. 2A is a schematic structural diagram of a multi-key same-stroke passive transmitter according to an embodiment of the present invention.

Fig. 2B is a schematic structural diagram of the multi-key same-stroke passive transmitter according to the above embodiment of the present invention in a pressed state.

Fig. 3A is a schematic structural diagram of a multi-key same-stroke passive transmitter according to another embodiment of the present invention.

Fig. 3B is a schematic structural diagram of the multi-key same-stroke passive transmitter according to the above embodiment of the present invention in a pressed state.

Fig. 4 is a partial exploded view of a three-dimensional structure of a multi-key co-stroke passive radiator according to another embodiment of the present invention.

Fig. 5 is an exploded view of the three-dimensional structure of the multi-key homodyne passive radiator according to the above embodiment of the present invention.

Fig. 6A and 6B are structural views of the multi-key same-stroke passive radiator according to the above embodiment of the present invention at different viewing angles in a normal state.

Fig. 6C and 6D are structural views of the multi-key same-stroke passive transmitter according to the above embodiment of the present invention at different viewing angles during the pressing process.

Fig. 6E and 6F are structural views of the multi-key same-stroke passive radiator according to the above embodiment of the present invention at different viewing angles in a pressed state.

Fig. 6G and 6H are structural views of the passive transmitter with the same stroke and multiple keys at different viewing angles after being released from being pressed according to the above embodiment of the present invention.

Fig. 7A and 7B are structural views of a multi-key co-stroke passive radiator at different viewing angles in a normal state according to another embodiment of the present invention.

Fig. 7C and 7D are structural views of the multi-key homomorphic passive radiator according to the above embodiment of the invention at different viewing angles in a pressed state.

Fig. 8A is a partially exploded view of a three-dimensional structure of the multi-key homodyne passive radiator according to a variant embodiment of the above-described embodiment of the present invention.

Fig. 8B is an exploded view of the three-dimensional structure of the multi-key homodyne passive radiator according to the above-described modified 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. 2A and 2B of the drawings of the present disclosure, a multi-key same-stroke passive transmitter 100 according to an embodiment of the present disclosure is illustrated, which mainly shows a structural schematic diagram of the multi-key same-stroke passive transmitter 100 in different states. The multi-key stroke-identical passive transmitter 100 comprises a plurality of keys 110, a balance seat 120, a key distribution plate 130, a power generation unit 140 and a signal transmission unit 150, wherein the balance seat 120 comprises two pivoting members 121, each pivoting member 121 has a pivoting portion 1211, a linkage portion 1212 and a balance end 1213, wherein the two pivoting members 121 are respectively pivotally disposed at the pivoting portions 1211 and coupled to the linkage portion 1212, such that when any pivoting member 121 is pivoted, the other pivoting member 121 is pivotally linked, wherein a connecting line of the two pivoting portions 1211 of the two pivoting members 121 is parallel to a connecting line of the two balance ends 1213, such that a balance plane 122 is formed at a plane where the two balance ends 1213 are located, such that when any pivoting member 121 is pivoted, the balance plane 122 can be maintained to move in parallel, wherein each key 110 is disposed on the key distribution plate 130, the key arrangement board 130 is maintained at the two balance ends 1213 on the balance surface 122, so as to maintain the parallel movement of the key arrangement board 130 when any one of the keys 110 is pressed, and further maintain the keys 110 in the same stroke, wherein the power generation unit 140 is coupled to the balance base 120 so as to be driven by the balance base 120 to generate electric energy, wherein the signal transmission unit 150 is electrically connected to the power generation unit 140, and when at least one of the keys 110 is pressed to drive the power generation unit 140, the signal transmission unit 150 transmits at least one control signal matched with the pressed key 110 under the power supply of the power generation unit 140.

Specifically, in this embodiment of the present invention, the balance base 120 further includes a balance member 123, wherein the two pivot members 121 are pivotally disposed on the balance member 123 respectively at the linking portion 1212, so as to form a structural relationship that the two pivot members 121 are coupled to the linking portion 1212 through the balance member 123.

In particular, the two pivoting members 121 are disposed in parallel with each other, and the linkage portion 1212 is integrally formed at the balance end 1213, so that the balance surface 122 is formed on the plane where the balance member 123 is located, wherein the key distribution plate 130 is disposed on the balance member 123 to form a positional relationship where the key distribution plate 130 is maintained at the balance end 1213 on the balance surface 122, and further, when any one of the keys 110 is pressed, the key distribution plate 130 can be maintained in parallel movement by the balance member 123.

Further, the multi-key and one-stroke passive transmitter 100 further includes a housing 160, wherein the pivot portions 1211 of the two pivot members 121 are respectively pivotally disposed on the housing 160, so as to form a structural relationship that the two pivot members 121 are respectively pivotally disposed on the pivot portions 1211 thereof.

It is understood that the two pivoting members 121 are disposed parallel to each other, i.e., the connecting line of the pivot portion 1211 and the balance end 1213 of each pivoting member 121 is parallel to each other, rather than limiting the shape of the pivoting member 121, for example, the two pivoting members 121 may be disposed to extend from the pivot portion 1211 to the balance end 1213 in a bending manner, as long as the connecting line of the pivot portion 1211 and the balance end 1213 of each pivoting member 121 is parallel to each other, i.e., the two pivoting members 121 are disposed in a parallel relationship with each other.

It can be further understood that the linkage portion 1212 of each pivoting member 121 is integrally formed at the balance end 1213, and a connecting line of the two pivot portions 1211 of the two pivoting members 121 is parallel to a connecting line of the two balance ends 1213, that is, a connecting line of the pivot portion 1211 of each pivoting member 121 and the balance end 1213, a connecting line of the two balance ends 1213 of the two pivoting members 121, and a connecting line of the two pivot portions 1211 of each pivoting member 121 form a parallelogram, so that when any one of the pivoting members 121 is pivoted, the balance surface 122 can be maintained to move in parallel, and thus the keys 110 can be maintained to move in the same stroke.

Further, in this embodiment of the present invention, the power generating unit 140 includes a driving arm 141, wherein the power generating unit 140 is configured to generate power when the driving arm 141 is driven, and wherein the driving arm 141 is coupled to the balance member 123, so that the balance member 123 can move in parallel to drive the driving arm 141 when any one of the buttons 110 is pressed.

It should be noted that the balance member 123 can be maintained to move in parallel when any one of the keys 110 is pressed, and when different keys 110 are pressed, the balance member 123 can be maintained to move in parallel uniformly, that is, each key 110 is maintained to have the same stroke, so that when different keys 110 are pressed, uniform driving of the driving arm 141 can be formed, so that the power generation amount of the power generation unit 140 can be maintained to be stable, and further, the multi-key same-stroke passive transmitter 100 has better stability.

Further, the multi-key same-stroke passive transmitter 100 further includes a reset unit 170, wherein the reset unit 170 is configured to restore the key distribution plate 130 and the driving arm 141 to a state before the key 110 is pressed after releasing the pressing of the key 110, and further restore the key 110 arranged on the key distribution plate 130 to a state before the key 110 is pressed.

Specifically, in this embodiment of the present invention, the reset unit 170 is disposed between the driving arm 141 and the housing 160, so that when the button 110 is pressed, the reset unit 170 can be driven by the driving arm 141 to store potential energy, and after the button 110 is released from being pressed, the reset unit 170 can restore the button plate 130 and the driving arm 141 to a state before the button 110 is pressed, and thus restore the button 110 disposed on the button plate 130 to a state before the button 110 is pressed, by releasing the stored potential energy.

It should be noted that, in this embodiment of the present invention, the reset unit 170 is configured as a spring 171 and is disposed between the driving arm 141 and the housing 160, wherein since the driving arm 141 is coupled to the balance member 123 of the balance base 120, in some embodiments of the present invention, the reset unit 170 may also be disposed between the housing 160 and the balance base 120, which is not limited by the present invention.

In addition, it can be understood that the reset unit 170 may also be configured as an element with elastic characteristics, such as a torsion spring, a spring plate, and a rubber band, or as a magnetic element capable of attracting or repelling each other, which is not limited by the present invention.

It should be noted that, the arrangement of the balance seat 120 of the present invention enables the keys 110 arranged on the key arrangement board 130 to be maintained in the same stroke, that is, when pressing different keys 110, on the premise that the strokes of the keys 110 themselves are consistent, since the key arrangement board 130 can be maintained in parallel movement without tilting, the pressing strokes of the keys 110 can be maintained consistently, so that the operation of the multi-key same-stroke passive transmitter 100 can have good hand feeling.

In particular, the power generating unit 140 can be driven by a pressing operation of any one of the keys 110 to conform the operation of the multi-key active transmitter 100 to the operation of a conventional remote controller without additional pressing operations, wherein in order to further conform the operation of the multi-key active transmitter 100 to the operation of a conventional remote controller, in this embodiment of the present invention, the keys 110 are elastically maintained between the housing 160 and the key distribution plate 130, such as the portions of the keys 110 between the housing 160 and the key distribution plate 130 can be compressively disposed, so that when any one of the keys 110 is pressed, even if the key distribution plate 130 moves in parallel in the direction in which the key 110 is pressed, the compressed portions of the other non-pressed keys 110 between the housing 160 and the key distribution plate 130 can be expanded, further, the button 110 which is not pressed is kept protruding from the housing 160, so that the operation of the multi-button co-program passive transmitter 100 can completely conform to the operation mode of the conventional remote controller, and therefore, the multi-button co-program passive transmitter is suitable for replacing the conventional remote controller to reduce the use of batteries, thereby being beneficial to environmental protection and energy saving.

Specifically, the portion of the key 110 between the housing 160 and the key distribution plate 130 may be disposed in a compressed manner, that is, the portion of the key 110 between the housing 160 and the key distribution plate 130 may be disposed in a resilient material or structure, for example, a barrel-shaped structure made of a rubber material, and disposed in a compressed manner when the key 110 is not pressed, or a compressed spring is disposed between each of the key 110 and the key distribution plate 130. Thus, when any one of the keys 110 is pressed, the key arrangement plate 130 moves in parallel in the direction in which the key 110 is pressed, and at the same time, other non-pressed keys 110 are extended between the housing 160 and the key arrangement plate 130, so that the non-pressed keys 110 are maintained to protrude from the housing 160.

In particular, in this embodiment of the present invention, the key board 130 is configured as a circuit board integrated with a circuit, wherein the keys 110 are configured as conductive silicone keys or keys that are pressed to be able to drive a micro switch disposed on the circuit board in a force conduction manner, which is not limited by the present invention. In some embodiments of the present invention, the circuit portion of the multi-key same-stroke passive transmitter 100 is disposed on a circuit board fixedly disposed, such as a circuit board fixedly disposed on the housing 160, wherein the key 110 is disposed on the key distribution board 130, so that the key 110 is linked with the key distribution board 130, and when any one of the keys 110 is pressed, the key distribution board 130 can be linked to drive the balance seat 120, so as to drive the power generation unit 140 through the balance seat 120, and switch on the control signal circuit corresponding to the key 110 on the circuit board through the pressed key 110, which is not limited by the present invention.

That is, the key distribution plate 130 is disposed on the balance surface 122 to be capable of linking the keys 110 with the balance base 120, so that when any one of the keys 110 is pressed, the balance base 120 is driven by the key distribution plate 130 in a linked manner, wherein the key distribution plate 130 can be disposed as a circuit board integrated with a circuit, wherein the keys 110 can be disposed as conductive silicone keys or keys that drive corresponding switches (such as micro switches and conductive silicone key switches) through force conduction, which is not limited by the present invention.

It should be noted that, in this embodiment of the present invention, the balance base 120 and the power generating unit 140 further form a balance driving power generating device 200, so as to drive the power generating unit 140 at any position of the balance surface 122, and make the driving of the balance base 120 at any position of the balance surface 122 have the same stroke, that is, the balance driving power generating device 200 can be driven in a balanced manner at any position of the balance surface 122 to generate electric energy.

It can be understood that the balance-driven power generation device 200 has a balanced operation experience and a larger driving area relative to the power generation unit 140, so that the balance-driven power generation device 200 can be applied to a remote controller, a multi-key and single-key switch, and other passive control devices in the field of passive control as a separate product or module to provide power output through balanced driving in a larger area range.

Referring to fig. 3A and 3B of the drawings of the present disclosure, a multi-key same-stroke passive transmitter 100A according to another embodiment of the present disclosure is illustrated, which mainly shows a structural schematic diagram of the multi-key same-stroke passive transmitter 100A in different states. The multi-key stroke passive transmitter 100A includes a plurality of keys 110A, a balance seat 120A, a key distribution plate 130A, a power generation unit 140A and a signal transmission unit 150A, wherein the balance seat 120A includes two pivoting members 121A, each of the pivoting members 121A has a pivoting portion 1211A, a linking portion 1212A and a balance end 1213A, wherein the two pivoting members 121A are respectively pivotally disposed at the pivoting portions 1211A and coupled to the linking portion 1212A such that when any one of the pivoting members 121A is pivoted, the other pivoting member 121A is pivotally linked, wherein a connecting line of the two pivoting portions 1211A of the two pivoting members 121A is parallel to a connecting line of the two balance ends 1213A, a balance surface 122A is formed on a plane where the two balance ends 1213A are located, and when any one of the pivoting members 121A is pivoted, the balance surface 122A can be maintained to move in parallel, wherein each of the keys 110A is arranged on the arrangement plate 130A, wherein the key plate 130A is maintained at the two balance ends 1213A at the balance surface 122A, so as to maintain the parallel movement of the key arrangement board 130A when any one of the keys 110A is pressed, thereby maintaining each of the keys 110A in the same stroke, wherein the power generation unit 140A is coupled to the balance base 120A to be capable of being driven by the balance base 120A to generate electric power, wherein the signal emitting unit 150A is electrically connected to the power generating unit 140A, wherein when at least one of the keys 110A is pressed to drive the power generating unit 140A, the signal transmitting unit 150A transmits at least one control signal matched with the pressed key 110A under the power supply of the power generating unit 140A.

Unlike the previous embodiment, in this embodiment of the present invention, the linkage portions 1212A of the two pivoting members 121A are pivotally coupled, that is, one of the linkage portions 1212A is pivotally disposed on the other linkage portion 1212A, so that when any one of the pivoting members 1212A is pivoted, the other pivoting member 1212A is pivotally linked, thereby forming a structural relationship in which the two pivoting members 121A are coupled to the linkage portion 1212A.

Further, in this embodiment of the present invention, the two balance ends 1213A are respectively configured to extend from the pivot portion 1211A to the direction of the linkage portion 1212A and are formed on the pivot member 121A, so that when the connecting line of the two pivot portions 1211A is parallel to the connecting line of the two balance ends 1213A, the balance surface 122A can move in parallel when any one of the pivot members 121A is pivoted.

It should be noted that, while the pivoting portion 1211A of one of the pivoting members 121A is pivotally disposed, it is movably disposed in a certain space in a direction of a connecting line of the two pivoting portions 1211A, so that under the condition that the two pivoting members 121A are pivotally coupled to the two linking portions 1212A, any one of the pivoting members 121A can still be pivotally driven.

Specifically, the multi-key and one-stroke passive transmitter 100A further includes a housing 160A, wherein the pivot portions 1211A of the two pivot members 121A are respectively pivotally disposed on the housing 160A to form a structural relationship that the two pivot members 121A are respectively pivotally disposed on the pivot portions 1211A, wherein one of the two pivot members 121A is further movably disposed on the housing 160A in a certain space in a connecting direction of the two pivot portions 1211A, so that the two pivot members 121A can still be pivotally driven when the two linking portions 1212A are pivotally coupled.

In detail, in this embodiment of the present invention, the housing 160A is provided with a pivot hole 161A and a pivot groove 162A extending in a direction of connecting the two pivot portions 1211A, one of the two pivoting members 121A is pivotally disposed in the pivot hole 161A at the pivot portion 1211A, and the other pivoting member 121A is pivotally disposed in the pivoting groove 162A at the pivoting portion 1211A, wherein since the pivoting groove 162A extends in a direction of a line connecting the two pivoting portions 1211A, the pivoting portion 1211A disposed in the pivoting groove 162A is also movable in the pivoting groove 162A in a line direction connecting the two pivoting portions 1211A, and thus, even if the two pivoting members 121A are pivotably coupled to the linkage portion 1212A, the two pivoting members 121A can be driven to pivot.

In particular, in this embodiment of the present invention, the two balance ends 1213A are respectively disposed to extend from the pivot portion 1211A to the direction of the linkage portion 1212A, and forms a relationship in which the line connecting the two pivot portions 1211A is parallel to the line connecting the two balance ends 1213A, namely, the ratio of the distance from the balance end 1213A of one of the pivoting members 121A to the linkage portion 1212A to the distance from the linkage portion 1212A to the pivoting portion 1211A is equal to the ratio of the distance from the balance end 1213A of the other pivoting member 121A to the linkage portion 1212A to the distance from the linkage portion 1212A to the pivoting portion 1211A, so that when any one of the pivoting members 121A is pivotally driven, the line connecting the two balance ends 1213A can be maintained parallel to the line connecting the two pivoting portions 1211A, that is, the balance surface 122A can be maintained to be parallel to the line connecting the two pivot portions 1211A and be maintained to be parallel.

Similarly, in this embodiment of the present invention, the balance seat 120A further includes a balance member 123A, wherein the balance ends 1213A of the two pivot members 121A are respectively maintained at the balance member 123A, and the balance surface 122A is formed on the plane of the balance member 123A, that is, when any one of the pivot members 121A is pivotally driven, the balance member 123A can be maintained to move in parallel.

Specifically, the two balance ends 1213A are pivotally disposed on the balance member 123A, respectively, and are movably disposed in a certain space in a direction of a line connecting the two balance ends 1213A. Specifically, the balance member 123A is provided with two balance grooves 1231A extending in the direction of the connecting line of the two balance ends 1213A, wherein the two balance ends 1213A are respectively pivotably provided to the two balance grooves 1231A, wherein since the two balance grooves 1231A extend in the direction of the connecting line of the two balance ends 1213A, the two balance ends provided to the two balance grooves 1231A are also movable in the direction of the connecting line of the two balance ends 1213A with respect to the corresponding balance grooves 1231A, such that the two balance ends 1213A are respectively maintained at the balance member 123A and the pivot members 121A can be pivotally driven, and the balance member 123A can maintain parallel movement when any one of the pivot members 121A is pivoted.

Further, the key arrangement plate 130A is disposed on the balance member 123A to form a positional relationship in which the key arrangement plate 130A is maintained at the two balance ends 1213A on the balance surface 122A, and thus when any one of the keys 110A is pressed, the key arrangement plate 130A can be maintained to move in parallel by the balance member 123A.

Also, in this embodiment of the present invention, the power generating unit 140A includes a driving arm 141A, wherein the power generating unit 140A is configured to generate power when the driving arm 141A is driven, and wherein the driving arm 141A is coupled to the balance member 123A, so that the balance member 123A can move in parallel to drive the driving arm 141A when any one of the buttons 110A is pressed.

It should be noted that the balance member 123A can be maintained to move in parallel when any one of the keys 110A is pressed, and when different keys 110A are pressed, the balance member 123A can be maintained to move in parallel uniformly, that is, each key 110A is maintained to have the same stroke, so that when different keys 110A are pressed, uniform driving of the driving arm 141A can be formed so that the power generation amount of the power generation unit 140A can be maintained to be stable, and further, the multi-key same-stroke passive transmitter 100A has better stability.

Further, the multi-key same-stroke passive transmitter 100A further includes a reset unit 170A, wherein the reset unit 170A is configured to be able to restore the key arrangement board 130A and the driving arm 141A to a state before the key 110A is pressed after the key 110A is released from being pressed, and further restore the key 110A arranged on the key arrangement board 130A to a state before the key 110A is pressed.

Specifically, in this embodiment of the present invention, the reset unit 170A is disposed between the driving arm 141A and the housing 160A, so that when the button 110A is pressed, the reset unit 170A can be driven by the driving arm 141A to store potential energy, and then after the button 110A is released from being pressed, the reset unit 170A can restore the cloth key plate 130A and the driving arm 141A to the state before the button 110A is pressed, and then restore the state before the button 110A arranged on the cloth key plate 130A is pressed, by releasing the stored potential energy.

It can be understood that the reset unit 170A may be configured as an element with elastic characteristics, such as a torsion spring, a spring, and a rubber band, or as a magnetic element capable of attracting or repelling each other, which is not limited by the present invention.

It should be noted that, in this embodiment of the present invention, the reset unit 170A is configured as a spring 171A and is disposed between the driving arm 141A and the housing 160A, wherein since the driving arm 141A is coupled to the balance member 123A of the balance seat 120A, in some embodiments of the present invention, the reset unit 170A may also be disposed between the housing 160A and the balance seat 120A, and further, in other embodiments of the present invention, the reset unit 170A may also be configured as a torsion spring and disposed between two of the linkage portions 1212A pivotally coupled to each other, which is not limited by the present invention.

Also, the power generating unit 140A can be driven by a pressing operation of any one of the keys 110A to conform the operation of the multi-key active passive radiator 100A to the operation of a conventional remote controller without additional pressing operation, wherein in order to further conform the operation of the multi-key active passive radiator 100A to the operation of a conventional remote controller, in this embodiment of the present invention, the keys 110A are elastically maintained between the housing 160A and the key distribution plate 130A, as the portions of the keys 110A between the housing 160A and the key distribution plate 130A can be compressively disposed, so that when any one of the keys 110A is pressed, even if the key distribution plate 130A moves in parallel in the direction in which the key 110A is pressed, the compressed portions of the other non-pressed keys 110A between the housing 160A and the key distribution plate 130A can be expanded, further, the button 110A which is not pressed is kept protruding from the housing 160A, so that the operation of the multi-button co-program passive transmitter 100A can completely conform to the operation mode of the conventional remote controller, and therefore, the multi-button co-program passive transmitter is suitable for replacing the conventional remote controller to reduce the use of batteries, thereby being beneficial to environmental protection and energy saving.

Specifically, the portion of the key 110A between the housing 160A and the key arrangement plate 130A may be disposed in a compressed manner, that is, the portion of the key 110A between the housing 160A and the key arrangement plate 130A may be disposed in a resilient material or structure, such as a barrel-shaped structure made of a rubber material, and disposed in a compressed manner when the key 110A is not pressed, or a compressed spring may be disposed between each of the key 110A and the key arrangement plate 130A. Thus, when any one of the keys 110A is pressed, the key arrangement plate 130A moves in parallel in the direction in which the key 110A is pressed, and at the same time, other keys 110A that are not pressed extend between the housing 160A and the key arrangement plate 130A, so that the keys 110A that are not pressed can be maintained to protrude from the housing 160A.

Similarly, in this embodiment of the present invention, the balance seat 120A and the power generating unit 140A further constitute a balance driving power generating device 200A, so as to drive the power generating unit 140A at any position of the balance surface 122A, and make the driving of the balance seat 120A at any position of the balance surface 122A have the same stroke, that is, the balance driving power generating device 200A can be driven in a balance manner at any position of the balance surface 122A to generate electric energy.

Referring to fig. 4 and 5 of the drawings of the present application, a multi-key same-stroke passive radiator 100B according to another embodiment of the present invention is illustrated, which shows a partial explosion view and a three-dimensional explosion view of a three-dimensional structure of the multi-key same-stroke passive radiator 100B, respectively, wherein the multi-key same-stroke passive radiator 100B includes a plurality of keys 110B, a balance base 120B, a key-distribution plate 130B, a power generation unit 140B, and a signal transmission unit 150B, wherein the balance base 120B includes two pivoting members 121B, each of the pivoting members 121B has a pivoting portion 1211B, a linking portion 1212B, and a balance end 1213B, wherein the two pivoting members 121B are pivotally disposed at the pivoting portion 1211B thereof, respectively, and are coupled to the linking portion 1212B, so that when any one of the pivoting members 121B is pivoted, the other pivoting member 121B is pivoted in an interlocking manner, wherein a connecting line of the two pivoting portions 1211B of the two pivoting members 121B is parallel to a connecting line of the two balance ends 1213B, so as to form a balance surface 122B on a plane where the two balance ends 1213B are located, and when any pivoting member 121B is pivoted, the balance surface 122B can be maintained to move in parallel, wherein each key 110B is disposed on the key-disposing plate 130B, wherein the key-disposing plate 130B is maintained at the two balance ends 1213B on the balance surface 122B, so as to maintain the parallel movement of the key-disposing plate 130B when any key 110B is pressed, and further maintain each key 110B in the same stroke, wherein the power generation unit 140B is coupled to the balance seat 120B so as to be driven by the balance seat 120B to generate electric energy, wherein the signal emission unit 150B is electrically connected to the power generation unit 140B, when at least one of the keys 110B is pressed to drive the power generation unit 140B, the signal transmission unit 150B transmits at least one control signal matched with the pressed key 110B under the power supply of the power generation unit 140B.

Similarly, in this embodiment of the present invention, the two linking portions 1212B of the two pivoting members 121B are pivotally coupled, that is, one linking portion 1212B is pivotally disposed on the other linking portion 1212B, so that when any one of the pivoting members 1212B is pivoted, the other pivoting member 1212B is pivoted in a linking manner, thereby forming a structural relationship that the two pivoting members 121B are coupled to the linking portion 1212B.

Unlike the previous embodiment, in this embodiment of the present invention, the two balance ends 1213B are respectively configured to extend from the linkage portion 1212B to the pivot portion 1211B to form on the pivot member 121B, that is, the pivot portion 1211B is formed between the linkage portion 1212B and the balance ends 1213B, so that when the connecting line of the two pivot portions 1211B is parallel to the connecting line of the two balance ends 1213B, the balance surface 122B can move in parallel when any one of the pivot members 121B is pivoted.

It should be noted that the two linking portions 1212B are pivotally disposed and movably disposed in a certain space, so that even though the pivoting portion 1211B formed between the linking portion 1212B and the balancing end 1213B of each pivoting member 121B is pivotally fixed, and the two linking portions 1212B of the two pivoting members 121B are pivotally coupled, any one of the pivoting members 121A can be driven to pivot.

Specifically, the multi-key and one-stroke passive transmitter 100B further includes a housing 160B, wherein the pivot portions 1211B of the two pivot members 121B are pivotally fixed to the housing 160B, respectively, so as to form a structural relationship that the two pivot members 121B are pivotally disposed at the pivot portions 1211B thereof, respectively. In addition, the linking portion 1212B of one of the pivoting members 121B is provided with a linking groove 12121B, and the linking portion 1212B of the other pivoting member 121B is provided with a linking tooth 12122B, wherein the linking tooth 12122B is embedded in the linking groove 12121B to form a structural relationship in which the two linking portions 1212B are pivotally disposed and movably disposed in a certain space with respect to each other. This enables the pivoting members 121B to be pivotally driven, and when any one of the pivoting members 121B is pivotally driven, the other pivoting member 121B is pivotally linked.

It is understood that, in this embodiment of the present invention, each of the linking portions 1212B may be further configured as a tooth shape with the corresponding pivot portion 1211B as an axis, and the linking portions 1212B configured as the tooth shape are engaged with each other to form a structure relationship in which the two linking portions 1212B are coupled, so that the pivot member 121B can be pivotally driven, and when any one of the pivot members 121B is pivotally driven, the other pivot member 121B is pivotally driven in a linked manner, which is not limited by the present invention.

In particular, in this embodiment of the present invention, the balance ends 1213B are disposed to extend from the linkage portion 1212B to the pivot portion 1211B, and form a relationship that a connection line of the two pivot portions 1211B is parallel to a connection line of the two balance ends 1213B, that is, a distance from the balance end 1213B of one of the pivot members 121B to the pivot portion 1211B is equal to a distance from the balance end 1213B of the other pivot member 121B to the pivot portion 1211B, so that when any one of the pivot members 121B is pivotally driven, the connection line of the two balance ends 1213B can be maintained parallel to the connection line of the two pivot portions 1211B, that is, the balance surface 122B can be maintained parallel to the connection line of the two pivot portions 1211B to maintain parallel movement.

Similarly, in this embodiment of the present invention, the balance base 120B further includes a balance member 123B, wherein the balance ends 1213B of the two pivot members 121B are respectively maintained at the balance member 123B, and the balance surface 122B is formed on the plane of the balance member 123B.

Specifically, the two balance ends 1213B are pivotally provided to the balance members 123B, and is movably disposed in a certain space in a direction of a line connecting both the balance ends 1213B, wherein the balance member 123B is provided with two balance grooves 1231B extending in the direction of the line connecting the two balance ends 1213B, wherein the two balancing ends 1213B are pivotally provided to the two balancing grooves 1231B, wherein since the two balance grooves 1231B extend in the direction of the line connecting the two balance ends 1213B, the two balance ends provided to the two balance grooves 1231B can also move in the direction of the line connecting the two balance ends 1213B with the corresponding balance groove 1231B, so that the two balance ends 1213B are respectively maintained at the balance members 123B, and so that the pivot member 121B can be pivotally driven, the balance member 123B can maintain the parallel movement when any one of the pivot members 121B is pivoted.

Further, the key arrangement plate 130B is disposed on the balance member 123B to form a positional relationship in which the key arrangement plate 130B is maintained at the two balance ends 1213B on the balance surface 122B, and thus when any one of the keys 110B is pressed, the key arrangement plate 130B can be maintained to move in parallel by the balance member 123B.

In particular, in this embodiment of the present invention, the power generating unit 140B includes a driving arm 141B, wherein the power generating unit 140B is configured to generate power when the driving arm 141B is driven, and specifically, the driving arm 141B is pivotally configured and coupled to the balance member 123B, so that when any one of the buttons 110B is pressed, the balance member 123B can move in parallel to pivotally drive the driving arm 141B.

Further, the multi-key same-stroke passive transmitter 100B further includes a reset unit 170B, wherein the reset unit 170B is configured to restore the key distribution plate 130B and the driving arm 141B to a state before the key 110B is pressed after releasing the pressing of the key 110B, and further restore the key 110B arranged on the key distribution plate 130B to a state before the key 110B is pressed.

Specifically, in this embodiment of the present invention, the reset unit 170B is configured as a torsion spring and is disposed between the driving arm 141B and the housing 160B, so that when the button 110B is pressed, the reset unit 170B can be driven by the driving arm 141B to store potential energy, and then after the button 110B is released from being pressed, the reset unit 170B can release the stored potential energy to restore the cloth key plate 130B and the driving arm 141B to the state before the button 110B is pressed, and further restore the button 110B disposed on the cloth key plate 130B to the state before being pressed.

It is understood that the reset unit 170B may be configured as an element having elastic characteristics, such as a spring, a spring plate, and a rubber band, or configured as a magnetic element capable of attracting or repelling each other, which is not limited by the present invention.

It should be noted that, in this embodiment of the present invention, the reset unit 170B is disposed between the driving arm 141B and the housing 160B, wherein since the driving arm 141B is coupled to the balance member 123B of the balance seat 120B, in some embodiments of the present invention, the reset unit 170B can also be disposed between the housing 160B and the balance seat 120B, which is not limited by the present invention.

Also, the power generating unit 140B can be driven by pressing any one of the keys 110B to conform the operation of the multi-key active transmitter 100B to the operation of a conventional remote controller without additional pressing operation, wherein in order to further conform the operation of the multi-key active transmitter 100B to the operation of a conventional remote controller, in this embodiment of the present invention, the keys 110B are elastically maintained between the housing 160B and the key distribution plate 130B, as the portions of the keys 110B between the housing 160B and the key distribution plate 130B can be compressively disposed, so that when any one of the keys 110B is pressed, even if the key distribution plate 130B moves in parallel in the direction in which the key 110B is pressed, the compressed portions of the other non-pressed keys 110B between the housing 160B and the key distribution plate 130B can be expanded, further, the button 110B which is not pressed is kept protruding from the housing 160B, so that the operation of the multi-button co-program passive transmitter 100B can completely conform to the operation mode of the conventional remote controller, and therefore, the multi-button co-program passive transmitter is suitable for replacing the conventional remote controller to reduce the use of batteries, thereby being beneficial to environmental protection and energy saving.

Specifically, the portion of the key 110B between the housing 160B and the key distribution plate 130B may be disposed in a compressed manner, that is, the portion of the key 110B between the housing 160B and the key distribution plate 130B may be disposed in a resilient material or structure, such as a barrel-shaped structure made of a rubber material, and disposed in a compressed manner when the key 110B is not pressed, or a compressed spring may be disposed between each of the keys 110B and the key distribution plate 130B. Thus, when any one of the keys 110B is pressed, the key arrangement plate 130B moves in parallel in the direction in which the key 110B is pressed, and at the same time, other non-pressed keys 110B are extended between the housing 160B and the key arrangement plate 130B, so that the non-pressed keys 110B can be maintained to protrude from the housing 160B.

It should be noted that in fig. 4 and 5 of the drawings accompanying the present invention, the structure of the power generation unit 140B is further illustrated to disclose and illustrate the contents and features of the present invention, but it is only an example and should not be considered as limiting the contents and scope of the present invention.

Specifically, in this embodiment of the present invention, the power generating unit 140B further includes a coil component 142B and a magnet component 143B, wherein the magnet component 143B is disposed on the housing 160B and is maintained static relative to the coil component 142B, wherein the magnet component 143B is configured to provide an environment with a magnetic field, wherein the coil component 142B is movably maintained on the driving arm 141B to form a movement of the coil component 142B relative to the magnet component 143B when the driving arm 141B is driven, thereby generating electric energy in the coil component 142B.

Further, the coil assembly 142B is configured to be made of a material capable of avoiding being magnetically attracted, so as to reduce the magnetic force applied to the coil assembly 142B in the magnetic field environment provided by the magnet assembly 143B when the coil assembly 142B is driven, and then when the movement of the coil assembly 142B relative to the magnet assembly 143B is controlled by the driving arm 141B, the pressing of the key 110B tends to be linear, so as to optimize the operation experience of the multi-key stroke passive transmitter 100B.

In particular, in order to enhance the power generation efficiency of the power generation unit 140B, in this embodiment of the present invention, the magnet assembly 143B is configured to have an annular magnetic groove 1431B adapted to the coil assembly 142B, wherein two sides of the annular magnetic groove 1431B have different magnetic polarities, respectively, so as to form a strengthened magnetic field in the radial direction of the magnetic groove 1431B, thereby improving the power generation efficiency of the power generation unit 140B.

In other words, the annular magnetic groove 1431B has a first annular sidewall 14311B and a second annular sidewall 14312B, wherein when the first annular sidewall 14311B has N-pole magnetism and the second annular sidewall 14312B has S-pole magnetism, a magnetic field from the first annular sidewall 14311B to the second annular sidewall 14312B can be formed between the first annular sidewall 14311B and the second annular sidewall 14312B, and when the first annular sidewall 14311B has S-pole magnetism and the second annular sidewall 14312B has N-pole magnetism, a magnetic field from the second annular sidewall 14312B to the first annular sidewall 14311B can be formed between the first annular sidewall 14311B and the second annular sidewall 14312B, wherein since the magnetic groove 1431B is configured to be compatible with the coil assembly 142B, the first annular sidewall 14311B and the second annular sidewall 14312B have a small distance therebetween and can be configured to be within the magnetic groove 1431B An intensified magnetic field is formed, thereby improving the power generation efficiency of the power generation unit 140B.

Specifically, in this embodiment of the present invention, the magnet assembly 143B includes a magnetic conducting basin 1432B, a permanent magnet 1433B and a magnetic conducting plate 1434B, wherein the magnetic conducting basin 1432B includes a magnetic conducting basin bottom 14321B and a magnetic conducting basin wall 14322B integrally extending from the magnetic conducting basin bottom 14321B so as to form a magnetic cavity 1435B by the magnetic conducting basin bottom 14321B and the magnetic conducting basin wall 14322B, wherein the permanent magnet 1433B is magnetically connected between the magnetic conducting basin bottom 14321B and the magnetic conducting plate 1434B in the magnetic cavity 1435B, so that the magnetic conducting basin bottom 14321B and the magnetic conducting plate 1434B are respectively magnetically connected to different magnetic poles of the permanent magnet 1433B, thereby forming the magnetic groove 1431B between the side wall of the magnetic conducting plate 1434B and the magnetic conducting basin wall 14322B corresponding thereto.

It is noted that the coil assembly 142B includes a coil 1421B and a coil support 1422B, wherein the coil 1421B is disposed on the coil support 1422B, and wherein the coil support 1422B and the driving arm 141B are pivotally disposed to form a connection relationship in which the coil assembly 142B is movably maintained on the driving arm 141B. In particular, in this embodiment of the present invention, the mass of the coil assembly 142B is set to be smaller than that of the magnet assembly 143B, so as to obtain a larger initial acceleration when the coil assembly 142B is driven by the driving arm 141B coupled thereto, thereby improving the power generation efficiency of the power generation unit 140B.

Specifically, in this embodiment of the present invention, the coil support 1422B is provided with at least one guiding block 14221B, wherein the housing 160B is provided with at least one guiding groove 163B adapted to the guiding block 14221B, so as to form a state that the coil assembly 142B is movably disposed in the housing 160B when the guiding block 14221B is disposed in the guiding groove 163B, i.e., so that the magnet assembly 143B disposed in the housing 160B is maintained static with respect to the coil assembly 142B.

It should be understood by those skilled in the art that the structure between the guiding groove 163B and the guiding block 14221B can be reversely deformed, that is, the guiding groove 163B is configured as a convex guiding block, and the guiding block 14221B is configured as a concave guiding groove, which is not limited by the present invention.

Further, the coil support 1422B is further provided with at least one driving shaft 14222B, wherein the driving arm 141B is provided with at least one driving slot 1411B corresponding to the driving shaft 14222B, so that when the driving shaft 14222B is coupled with the driving slot 1411B, the coil assembly 142B is pivotally maintained in the structural relationship of the driving arm 141B. In particular, the driving groove 1411B is configured to have a certain space when receiving the driving shaft 14222B, so that the driving shaft 14222B can be further movably disposed outside the pivoting manner of the driving groove 1411B, i.e., the connection relationship that the coil assembly 142B is movably maintained in the driving arm 141B is formed, and when the driving arm 141B is pivotally driven, the coil assembly 142B can move linearly along the direction of the guiding groove 163B and can avoid being blocked by the driving arm 141B.

It should be understood by those skilled in the art that the structure between the driving groove 1411B and the driving shaft 14222B can also be reversely deformed, i.e., the driving groove 1411B is configured as a convex driving shaft, and the driving shaft 14222B is configured as a concave driving groove, which is not limited by the present invention.

It is worth mentioning that, in this embodiment of the present invention, the driving shaft 14222B is integrally extended from the guiding block 14221B, so as to be capable of being restricted by the guiding groove 163B while the coil support 1422B is pivotally driven by the driving arm 141B to maintain the linear motion of the coil assembly 142B perpendicular to the magnetic field direction of the magnetic groove 1431B.

Further, the power generation unit 140B further includes an energy storage member 144B, wherein the energy storage member 144B is disposed between the driving arm 141B and the housing 160B, when any one of the buttons 110B is pressed, the energy storage member 144B can be driven by the driving arm 141B to store potential energy, and when the button 110B is pressed to a certain stroke, the driving arm 141B disengages from the balance member 123B so that the energy storage member 144B releases the stored potential energy to rapidly drive the driving arm 141B, and the coil assembly 142B can be rapidly driven by the driving arm 141B to generate large electric energy.

Specifically, a portion of the driving arm 141B coupled to the balancing member 123B is movably disposed, and during the driving arm 141B is driven by the balancing member 123B in a pivoting manner, the portion of the driving arm 141B coupled to the balancing member 123B can gradually slide away from the balancing member 123B under the action of the housing 160B, so that when any one of the buttons 110B is pressed to a certain stroke, the portion of the driving arm 141B slides away from the balancing member 123B, so that the energy storage member 144B releases the stored potential energy to drive the coil assembly 142B, and the coil assembly 142B can obtain a large initial acceleration to move rapidly relative to the magnet assembly 143B, thereby obtaining a large electric energy from the coil assembly.

It should be understood by those skilled in the art that, in the structural design of the housing 160B corresponding to the portion of the driving arm 141B coupled to the balancing member 123B and the motion track of the portion, the structural design of the portion of the driving arm 141B gradually sliding away from the balancing member 123B under the action of the corresponding housing 160 during the driving process of the balancing member 123B is various, and the driving arm 141B can be easily implemented by those skilled in the art without limiting the present invention.

With further reference to fig. 6A to 6H of the drawings of the utility model, the schematic structural diagram of the multi-key same-stroke passive radiator 100B according to the embodiment of the present invention is mainly shown, wherein in the initial state of the multi-key same-stroke passive radiator 100B, when any one of the keys 110B is pressed, for example, when the key 110B deviating from the physical center of the key distribution plate 130B is pressed, the position of the key distribution plate 130B corresponding to the pressed key 110B is stressed, so that the key distribution plate 130B is driven, and at least one of the pivoting members 121B of the key distribution plate 130B is maintained to be pivotally driven, wherein due to the mutual coupling and the linkage pivoting of the pivoting members 121B, the key distribution plate 130B is maintained to be moved in parallel by the pivoting members 121B.

During the movement of the key distribution plate 130B, the driving arm 141B coupled to the key distribution plate 130B via the balance member 123B is pivotally driven, so that the coil component 142B is driven by the driving arm 141B to move away from the magnet component 143B, and the energy storage component 144B is driven by the driving arm 141B to store potential energy.

When the key 110B is pressed to a certain stroke, the energy storage member 144B stores a certain potential energy, and at the same time, the portion of the driving arm 141B coupled to the balance member 123B slides away from the balance member 123B under the action of the corresponding housing 160B, so that the energy storage member 144B releases the stored potential energy to enable the coil component 142B to obtain a larger initial acceleration and move rapidly relative to the magnet component 143B, thereby generating a larger electric energy in the coil component 142B.

It should be noted that, in this embodiment of the present invention, each of the keys 110B is maintained at the same stroke, and the pressing of the different keys 110B can form the parallel motion of the key distribution plate 130B, so that the pressing of the different keys 110B can make the driving arm 141B separate from the balance member 123B when the energy storage member 144B stores a certain potential energy, that is, when the driving arm 141B separates from the balance member 123B, the pressed keys 110B can be pressed to the same stroke and the energy storage member 144 stores the same potential energy to drive the power generation unit 140B to generate stable electric energy no matter which key 110B is pressed. Therefore, the multi-key co-stroke passive transmitter 100B of the present invention has better operation stability.

When the pressing of the button 110B is released, the balance member 123B is restored by the reset unit 170B, and the key distribution plate 130 moves in parallel under the maintaining of the pivot member 121B, so that each button 110B can be restored to the state when not pressed, and meanwhile, since the portion of the driving arm 141B coupled with the balance member 123B is movably disposed, the portion of the driving arm 141B can be triggered by the balance member 123B to be restored to the state coupled with the balance member 123B during the restoration of the balance member 123B.

Similarly, in this embodiment of the present invention, the balance seat 120B and the power generating unit 140B further form a balance driving power generating device 200B to drive the power generating unit 140B at any position of the balance surface 122B, and to make the driving of the balance seat 120B at any position of the balance surface 122B have the same stroke, that is, the balance driving power generating device 200B can be driven in balance at any position of the balance surface 122B to generate electric energy.

Referring further to fig. 7A to 7D of the drawings accompanying the present application, a multi-key same-program passive radiator 100C according to another embodiment of the present invention is illustrated, which respectively shows a schematic structural view of the multi-key same-program passive radiator 100C in different states, wherein the multi-key same-program passive radiator 100C includes a plurality of keys 110C, a balance base 120C, a key distribution plate 130C, a power generation unit 140C and a signal emission unit 150C, wherein the balance base 120C includes two pivoting members 121C, each of the pivoting members 121C has a pivoting portion 1211C, a linking portion 1212C and a balance end 1213C, wherein the two pivoting members 121C are pivotally disposed at the pivoting portion 1211C and coupled to the linking portion 1212C, respectively, so that when any one of the pivoting members 121C is pivoted, the other pivoting member 121C is pivoted in an interlocking manner, wherein a connecting line of the two pivoting portions 1211C of the two pivoting members 121C is parallel to a connecting line of the two balance ends 1213C, so as to form a balance surface 122C on a plane where the two balance ends 1213C are located, and further when any pivoting member 121C is pivoted, the balance surface 122C can be maintained to move in parallel, wherein each key 110C is arranged on the key arrangement plate 130C, wherein the key arrangement plate 130C is maintained at the two balance ends 1213C on the balance surface 122C, so as to maintain the parallel movement of the key arrangement plate 130C when any key 110C is pressed, and further maintain each key 110C in the same stroke, wherein the power generation unit 140C is coupled to the balance seat 120C so as to be driven by the balance seat 120C to generate electric energy, wherein the signal emission unit 150C is electrically connected to the power generation unit 140C, when at least one of the keys 110C is pressed to drive the power generating unit 140C, the signal transmitting unit 150C transmits at least one control signal matched with the pressed key 110C under the power supply of the power generating unit 140C.

Similarly, in this embodiment of the present invention, the two linking portions 1212C of the two pivoting members 121C are pivotally coupled, that is, one linking portion 1212C is pivotally disposed on the other linking portion 1212C, so that when any one of the pivoting members 1212C is pivoted, the other pivoting member 1212C is pivoted in a linking manner, thereby forming a structural relationship in which the two pivoting members 121C are coupled to the linking portion 1212C.

Further, the two balance ends 1213C are respectively disposed to extend from the linkage portion 1212C to the pivot portion 1211C to be formed on the pivoting member 121C, that is, the pivot portion 1211C is formed between the linkage portion 1212C and the balance ends 1213C, so that when a line connecting the two pivot portions 1211C is parallel to a line connecting the two balance ends 1213C, the balance surface 122C can move in parallel when any one of the pivoting members 121C is pivoted.

In particular, the multi-key and one-stroke passive transmitter 100C further includes a housing 160C, wherein the pivot portions 1211C of the two pivot members 121C are pivotally fixed to the housing 160C, respectively, so as to form a structural relationship that the two pivot members 121C are pivotally disposed at the pivot portions 1211C thereof, respectively. In addition, the linking portion 1212C of one of the pivoting members 121C is provided with a linking groove 12121C, and the linking portion 1212C of the other pivoting member 121C is provided with a linking tooth 12122C, wherein the linking tooth 12122C is embedded in the linking groove 12121C, so as to form a structural relationship in which the two linking portions 1212C are pivotally disposed and movably disposed in a certain space with respect to each other. This enables the pivoting members 121C to be pivotally driven, and when any one of the pivoting members 121C is pivotally driven, the other pivoting member 121C is pivotally linked.

Further, the balance ends 1213C are disposed to extend from the linkage portion 1212C to the pivot portion 1211C, and form a relationship that a connection line of the two pivot portions 1211C is parallel to a connection line of the two balance ends 1213C, that is, a distance from the balance end 1213C of one of the pivot members 121C to the pivot portion 1211C is equal to a distance from the balance end 1213C of the other pivot member 121C to the pivot portion 1211C, so that when any one of the pivot members 121C is pivotally driven, the connection line of the two balance ends 1213C can be maintained parallel to the connection line of the two pivot portions 1211C, that is, the balance surface 122C can be maintained parallel to the connection line of the two pivot portions 1211C and maintained parallel movement.

Similarly, in this embodiment of the present invention, the balance base 120C further includes a balance member 123C, wherein the balance ends 1213C of the two pivot members 121C are respectively maintained at the balance member 123C, and the balance surface 122C is formed on the plane of the balance member 123C.

Specifically, the two balance ends 1213C are pivotally provided to the balance members 123C, respectively, and is movably disposed in a certain space in a direction of a line connecting both the balance ends 1213C, wherein the balance member 123C is provided with two balance grooves 1231C extending in the direction of the line connecting the two balance ends 1213C, wherein the two balancing ends 1213C are pivotally provided to the two balancing grooves 1231C, wherein since the two balancing grooves 1231C extend in the direction of the line connecting the two balancing ends 1213C, both the balance ends provided to both the balance grooves 1231C can also move in the direction of the line connecting both the balance ends 1213C with the corresponding balance groove 1231C, so that the two balance ends 1213C are respectively maintained at the balance members 123C, and so that the pivot member 121C can be pivotally driven, the balance member 123C can maintain the parallel movement when any one of the pivot members 121C is pivoted.

Further, the key arrangement plate 130C is disposed on the balance member 123C to form a positional relationship in which the key arrangement plate 130C is maintained at the two balance ends 1213C on the balance surface 122C, and thus when any one of the keys 110C is pressed, the key arrangement plate 130C can be maintained to move in parallel by the balance member 123C.

Also, in this embodiment of the present invention, the power generating unit 140C includes a driving arm 141C, wherein the power generating unit 140C is configured to generate power when the driving arm 141C is driven, and specifically, the driving arm 141C is pivotally configured and coupled to the balance member 123C, so that when any one of the buttons 110C is pressed, the balance member 123C can move in parallel to pivotally drive the driving arm 141C.

Further, the multi-key same-stroke passive transmitter 100C further includes a reset unit 170C, wherein the reset unit 170C is configured to be able to restore the key distribution plate 130C and the driving arm 141C to a state before the key 110C is pressed after the key 110C is released from being pressed, and further restore the key 110C arranged on the key distribution plate 130C to a state before the key 110C is pressed.

Similarly, the power generation unit 140C further includes a coil component 142C and a magnet component 143C, wherein the magnet component 143C is disposed on the housing 160C and is maintained static with respect to the coil component 142C, wherein the magnet component 143C is configured to provide an environment having a magnetic field, wherein the coil component 142C is movably maintained on the driving arm 141C to form a movement of the coil component 142C with respect to the magnet component 143C when the driving arm 141C is driven, thereby generating electric energy in the coil component 142C.

Different from the previous embodiment, in this embodiment of the present invention, the power generating unit 140C is configured to generate one time of power when any of the keys 110C is pressed and reset, respectively, so that the multi-key same-stroke passive transmitter 100C can respectively transmit one time of control signal when the key 110C is pressed and reset, respectively, thereby realizing continuous variable control, such as stepless volume adjustment, brightness, temperature setting, and the like, by two times of control signal.

Specifically, the power generation unit 140C further includes a stopper 145C and an energy storage member 144C, wherein the energy storage member 144C is disposed on the driving arm 141C and coupled to the balance member 123C, that is, the driving arm 141C is coupled to the balance member 123C via the energy storage member 144C, wherein the stopper 145C is configured to limit the movement of the energy storage member 144C, so that when any one of the keys 110C is pressed, the energy storage member 144C can be driven by the balance member 123C to store potential energy while being limited by the stopper 145C, and when the key 110C is pressed to a certain stroke, the potential energy stored in the energy storage member 144C is sufficient to make the energy storage member 144C separate from the limit of the stopper 145C, the energy storage member 144C can release the stored potential energy to drive the driving arm 141C, thereby generating a secondary power at the coil assembly 142C, wherein the signal transmitting unit 150C transmits a control signal corresponding to the pressed key 110C under the supply of the secondary power.

After the energy accumulation member 144C releases the accumulated potential energy, the energy accumulation member 144C is restricted again by the stopper 145C, so that during the process that the pressed key 110C is reset by the reset unit 170C, the energy storage member 144C can be reversely driven by the balance member 123C to store potential energy again while being restricted by the stopper 145C, and in the process of resetting the key 110C, the energy storage part 144C can store enough potential energy to be separated from the limit of the limit stopper 145C, the energy storage member 144C can release the stored potential energy to reversely drive the driving arm 141C, so as to generate electric energy again in the coil assembly 142C, wherein the signal transmitting unit 150C transmits the control signal corresponding to the pressed key 110C again under the supply of the electric power.

That is, in this embodiment of the present invention, the multi-key same-stroke passive transmitter 100C can transmit the control signal corresponding to any one of the keys 110C once during the pressing and resetting of the key 110C, so as to realize continuous variable control, such as stepless volume adjustment, brightness adjustment, temperature setting and the like, by two control signals.

Specifically, the energy storage member 144C is configured as an elastic element, such as a spring or an elastic sheet, wherein the stopper 145C has two limit ends 1451C, the two limit ends 1451C are configured as a magnetic element, wherein the driving arm 141C has a magnetic portion 1412C, wherein the magnetic portion 1412C is disposed between the two limit ends 1451C and configured to be magnetically attracted, so that when the energy storage member 144C is driven and the stored elastic potential energy is enough to make the magnetic portion 1412C separate from the magnetic attraction of the limit ends 1451C, the energy storage member 144C releases the stored potential energy to rapidly drive the driving arm 141C.

It is understood that the magnetic portion 1412C is configured to be made of a material capable of being magnetically attracted, and is disposed on the driving arm 141C between the two limiting ends 1451C or integrally formed with the driving arm 141C, which is not limited by the present invention.

It should be mentioned that, the magnetic attraction between the magnetic part 1412C and any one of the limit ends 1451C is maintained stable, and then the energy storage member 144C enables the magnetic part 1412C to be separated from the limit of the magnetic attraction of the limit end 1451C only when a certain potential energy is stored, so that the power generation amount of the power generation unit 140C can be maintained stable and the multi-key same-stroke passive transmitter 100C of the present invention has better operation stability.

Further, in this embodiment of the present invention, the two limiting ends 1451C are preferably configured to have different magnetic polarities, that is, when one of the limiting ends 1451C is a magnetic polarity of N-pole, the other limiting end 1451C is a magnetic polarity of S-pole, so that the limiter 145C can be formed by a simple configuration of a magnet.

Specifically, in the embodiment of the present invention, the stopper 145C includes a magnet 1452C and two magnetic conductive plates 1453C, wherein the two magnetic conductive plates 1453C are respectively disposed at two magnetic poles of the magnet 1452C in a magnetically attracted manner, so that the two magnetic conductive plates 1453C can have different magnetic poles, and thus two limit ends 1451C are respectively formed at the two magnetic conductive plates 1453C.

Also, in this embodiment of the present invention, the key arrangement board 130C is configured as a circuit board integrated with a circuit, wherein the keys 110C are configured as conductive silicone keys or keys pressed to be able to drive force-conductively a micro switch disposed on the circuit board, which is not limited by the present invention. In some embodiments of the invention, the circuit portion of the multi-key active passive transmitter 100C is disposed on a circuit board that is fixedly disposed, such as a circuit board that is fixedly disposed on the housing 160C, wherein the key distribution board 130C is disposed with the keys 110C, so that the keys 110C and the key distribution board 130C are linked, and when any one of the keys 110C is pressed, the key distribution board 130C can be linked to drive the balance base 120C, further drive the power generation unit 140C through the balance base 120C, and switch on a control signal circuit corresponding to the key 110C on the circuit board through the pressed key 110C, which is not limited in the invention.

That is, the key distribution plate 130C is disposed on the balance surface 122C to be capable of linking the keys 110C and the balance base 120C, so that when any one of the keys 110C is pressed, the balance base 120C is driven by the key distribution plate 130C in a linking manner, wherein the key distribution plate 130C may be disposed as a circuit board integrated with a circuit, and the key 110C may be disposed as a conductive silicone key or a key for driving a corresponding switch (such as a micro switch or a conductive silicone key switch) by force conduction, which is not limited in the present invention.

Specifically, referring to fig. 8A and 8B of the drawings of the present specification, the multi-key same-stroke passive transmitter 100C according to a modified embodiment of the present invention is illustrated, wherein in this modified embodiment of the present invention, the circuit portion of the multi-key same-stroke passive transmitter 100C is disposed on a circuit board 180C that is fixedly disposed, in detail, the circuit board 180C is fixedly disposed on the housing 160C and is disposed with a plurality of micro switches 181C corresponding to the keys 110C, and likewise, the key sheet 130C is disposed with the keys 110C such that the keys 110C are linked with the key sheet 130C, and when any one of the keys 110C is pressed, the key sheet 130C can be linked to drive the balance base 120C, and further, the power generation unit 140C is driven by the balance base 120C, and the microswitch 181C corresponding to the pressed key 110C on the circuit board 180C is driven by the pressed key 110C to switch on the corresponding control signal circuit.

In particular, in this variant embodiment of the present invention, the multi-key same-stroke passive radiator 100C is provided with a plurality of the key arrangement plates 130C, wherein the number of the key arrangement plates 130C corresponds to the number of the keys 110C, wherein each of the key arrangement plates 130C is respectively maintained at the two balance ends 1213C of the two pivoting members 121C, wherein each of the keys 110C is respectively disposed at one of the key arrangement plates 130C, such that when any one of the keys 110C is pressed, the corresponding key arrangement plate 130C can be driven and maintained to move in parallel by the two pivoting members 121C of the balance seat 120C, and each of the keys 110C disposed at each of the key arrangement plates 130C can be maintained at the same stroke, that is, when different keys 110C are pressed, since the key arrangement plates 130C can be maintained to move in parallel without tilting on the same balance surface 122C, the pressing strokes of the keys 110C can be maintained to be uniform, so that the operation of the multi-key homodyne passive transmitter 100C can have a good feeling.

Further, in this modified embodiment of the present invention, when any one of the keys 110C is pressed, the corresponding key arrangement plate 130C is maintained to move in parallel by the balance base 120C in the direction in which the key 110C is pressed, and at the same time, other keys 110C that are not pressed can also be maintained to protrude from the housing 160C.

Specifically, each of the key arrangement plates 130C is elastically maintained between the circuit board 180C and the housing 160C, that is, the portion between the key arrangement plate 130C and the circuit board 180C is configured to be made of an elastic material or structure, for example, a spring is disposed between each of the key arrangement plates 130C and the circuit board 180C, or each of the key arrangement plates 130C is elastically maintained by the microswitch 181C capable of being elastically reset while being maintained by the balance seat 120C on the balance surface 122C, when any one of the keys 110C is pressed, the corresponding key arrangement plate 130C is maintained by the balance seat 120C in the direction in which the key 110C is pressed to move in parallel, and other non-pressed keys 110C can also be maintained to protrude from the housing 160C, so as to have the operation experience of a conventional remote controller.

Further, in this embodiment of the present invention, the driving arm 141C of the power generation unit 140C is coupled to the balance seat 120C, specifically, the driving arm 141C is embedded in the linkage portion 1212C of one of the pivoting members 121C, the reset unit 170C is provided as a torsion spring and is coupled to the balance end 1213C of one of the pivoting members 121C, such that when any one of the keys 110C is pressed, the key plate 130C integrally formed with the key 110C is maintained by the balance seat 120C to drive the pivoting member 121C in a parallel movement, the pivoting member 121C is pivotally driven to drive the driving arm 141C embedded in the linkage portion 1212C, the power generation unit 140C is driven to generate electric energy, and the reset unit 170C is driven by the balance end 1213C of the pivoting member 121C to store potential energy, and after the push of the button 110C is released, the reset unit 170C releases the stored potential energy to reset and drive the pivoting member 121C, and the button 110C and the key distribution plate 130C integrally formed therewith are reset by the pivoting member 121C, and simultaneously the driving arm 141C is reversely driven so that the power generation unit 140C generates power again.

That is, in this modified embodiment of the present invention, the power generating unit 140C generates power once during the pressing and resetting of any one of the keys 110C, respectively, so as to transmit the control signal twice by supplying power twice by the power twice, thereby implementing continuous variable control, such as stepless adjustment of continuous variables of volume, brightness, set temperature, etc., by the control signal twice, or extending the power supply time by combining the power twice.

Similarly, in this embodiment and its modified embodiments of the present invention, the balance base 120C and the power generation unit 140C further constitute a balance driving power generation device 200C, so as to be able to drive the power generation unit 140C at any position of the balance surface 122C, and to make the driving of the balance base 120C at any position of the balance surface 122C have the same stroke, that is, the balance driving power generation device 200C can be driven in a balance manner at any position of the balance surface 122C to generate electric energy.

It will be appreciated by persons skilled in the art that the above embodiments are only examples, wherein features of different embodiments may be combined with each other to obtain embodiments which are easily imaginable in accordance with the disclosure of the invention, but which are not explicitly indicated in the drawings.

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 balance drive power generation device, comprising:

2. The balance driven power generation device according to claim 1, further comprising a balance member, wherein the balance ends of the two pivot members are respectively maintained at the balance member, so that the balance surface is formed on a plane where the balance member is located.

3. The balanced drive power generation assembly of claim 2, wherein the power generation unit comprises a coil assembly, a magnet assembly and a drive arm, wherein the magnet assembly is maintained stationary relative to the coil assembly, wherein the magnet assembly is configured to provide a magnetic field environment, wherein the coil assembly is movably disposed and maintained on the drive arm, wherein the drive arm is coupled to the gimbal to form a structural relationship between the power generation unit and the gimbal, such that when the drive arm is driven, movement of the coil assembly relative to the magnet assembly is formed, thereby generating electrical energy in the coil assembly.

4. The balanced drive power generation device according to claim 3, wherein the linkage portions of the pivot members are integrally formed at the balance end, wherein the two pivot members are pivotally disposed at the balance members at the linkage portions, respectively, so as to form a structural relationship in which the two pivot members are coupled at the linkage portions by the balance members, and wherein a connecting line between the pivot portion and the linkage portion of one of the pivot members is parallel to a connecting line between the pivot portion and the linkage portion of the other of the pivot members, so that the pivot members can be pivotally driven, and when any one of the pivot members is pivoted, the balance members can be maintained to move in parallel.

5. The balanced drive power generation device according to claim 3, wherein the two pivoting members are pivotally coupled at the two linkage portions, that is, the linkage portion of one of the pivoting members is pivotally disposed at the linkage portion of the other pivoting member, so as to form a structural relationship that the two pivoting members are coupled at the linkage portion.

6. The balance drive power generation device according to claim 5, further comprising a housing, wherein the housing is provided with a pivot hole and a pivot groove extending in a direction of a line connecting the two pivot portions, wherein one of the two pivot members is pivotably provided at the pivot hole at the pivot portion, and the other pivot member is pivotably provided at the pivot groove at the pivot portion, so that one of the two pivot members is movably provided in the direction of the line connecting the two pivot portions at the pivot portion, wherein the balance end of each of the pivot members is respectively provided to extend from the pivot portion in a direction of the linkage portion, so that when the two pivot members are pivotably provided at the pivot portions, respectively, and are pivotably coupled at the linkage portion, the two pivoting pieces can still be driven by pivoting, and when the connecting line of the two pivoting parts is parallel to the connecting line of the two balancing ends, the balancing surfaces can move in parallel when any pivoting piece is pivoted.

7. The balanced driving power generation device according to claim 3, wherein the balanced end of each of the pivot members is respectively configured to extend from the linkage portion to the direction of the pivot portion, one of the two pivot members is configured with a linkage groove at the linkage portion, and the other pivot member is configured with a linkage tooth at the linkage portion, wherein the linkage tooth is embedded in the linkage groove, so that the two linkage portions can move in a certain space while being pivotally configured with respect to each other, thereby forming a structural relationship that the two pivot members are coupled with the linkage portion, and enabling the two pivot members to be pivotally driven while being coupled with each other.

8. The balance driving power generation device according to claim 7, wherein the power generation unit further comprises a stopper and an energy storage member, wherein the energy storage member is disposed on the driving arm and coupled to the balance seat, wherein the stopper is configured to limit the movement of the energy storage member, such that when the balance seat is driven and reset, the energy storage member can be driven by the balance seat to store potential energy while being limited by the stopper, and when the energy storage member stores potential energy such that the energy storage member is out of the limit of the stopper, the energy storage member can release the stored potential energy to drive the driving arm, thereby generating primary electric energy to the coil assembly during the driving and resetting of the balance seat, respectively.

9. The balance driven power generation device according to claim 8, wherein the position limiter has two position limiting ends, wherein the two position limiting ends are configured to be magnetic, wherein the driving arm has a magnetic attraction portion, wherein the magnetic attraction portion is disposed between the two position limiting ends and configured to be magnetically attracted, so that when the energy storage member disposed on the driving arm is driven and the stored potential energy is sufficient to cause the magnetic attraction portion to be disengaged from the magnetic attraction of the position limiting ends, the energy storage member is disengaged from the limit of the position limiter to allow the driving arm to be rapidly driven by releasing the stored potential energy.

10. The balanced drive power generation apparatus according to claim 9, wherein the position limiter comprises a magnet and two magnetic conductive plates, wherein the two magnetic conductive plates are respectively magnetically attracted to the two magnetic poles of the magnet, so that the two magnetic conductive plates can have different magnetic poles, thereby respectively forming the two position limiting ends on the two magnetic conductive plates.