Self-generating core module and application thereof

Abstract

A self-generating core module 10 comprises a base 11, a generator 12, a radio frequency (RF) circuit board 13, a reset member 15, and a helical antenna 14. The generator comprises a driving member 121

Description

The present invention relates to the field of passive technology, and in particular, to a selfgenerating core module and its application. BACKGROUND OF THE INVENTION With the development of the times, wireless technology has been widely used in different electronic devices because of its advantage of not requiring wiring. Although wireless technology meets people's needs and brings a lot of convenience to people's production and life, many existing the use of wireless devices can easily cause environmental pollution and waste of resources. The reason is that many existing wireless devices require power provided by batteries to maintain normal operation. Therefore, after the battery life cycle is over, users have to replace the batteries frequently. Most batteries are disposable and the batteries must be replaced frequently. A huge amount of waste batteries will be produced, which not only causes a waste of resources, but improper recycling of waste batteries can easily cause environmental pollution. In response to this, the emergence and application of passive technology has greatly promoted the development of wireless technology. Specifically, passive technology has broad development prospects because of its compliance with environmental protection concepts and ease of use, especially in the field of wireless switches. Technology is widely used and has gradually become a trend. Specifically, passive switches meet power supply needs by converting mechanical energy into electrical energy, and emit switch control signals to control an electrical device, thereby avoiding the wiring complexity caused by wired power supply solutions for switches., using battery power has the disadvantages of inconvenience and environmental disadvantages, so it is very popular. However, since passive switches are equipped with corresponding power generation modules, existing passive switches have obvious disadvantages in size. The thickness of current passive switches is generally set at about 14 to 17 mm, while ordinary passive switches The thickness of the wall socket is only about 9 mm, which means that the thickness of the passive switch is significantly higher than that of the ordinary wall socket. When the passive switch is set together with the ordinary wall socket, the visual effect will be very abrupt. It does not conform to the current aesthetic trend of pursuing simplicity and neatness, resulting in many users not choosing passive switches in the first place. In order to make the passive switch thinner, some manufacturers use a flat panel antenna as the communication antenna of the passive switch. The flat panel antenna is structurally presented as a plane layer, so the size in the thickness direction of the passive switch occupies a small space, which is beneficial to Reduce the overall thickness of the passive switch. However, the flat panel antenna has certain size requirements for the plane size perpendicular to the thickness direction of the passive switch. The corresponding circuit board area needs to be enlarged to meet the requirements. As a result, the passive switch needs to occupy a large area in actual installation. Installation area, in other words, the thinning solution of existing passive switches is achieved by increasing the plane size, resulting in the existing passive switches being unable to maintain or reduce the required installation area while being thinner. However, with the development trend of the times, the demand for miniaturized and miniaturized control equipment has greatly increased. People are eager to have portable control equipment to flexibly control electrical equipment through control equipment that can be carried around. However, as mentioned above, the size of the corresponding passive switch is difficult to reduce, and the thickness and plane size cannot be taken into consideration at the same time. It is understandable that whether it is too thick or too large in area, it is difficult for people to carry it. They are all very unfriendly. Take watch-shaped control equipment as an example. When the watch dial is too thick, the watch will protrude abruptly on the arm when people wear it. On the one hand, it is easy to block the normal movement of the arm, and on the other hand, it is easy to Collision occurs, and when the watch dial is too large, the size of the watch is larger than the size of the arm when people wear it, which will also hinder the movement of the arm and easily cause collision. Therefore, although passive technology has significant advantages in terms of environmental protection and use, it is limited in size. In the field of miniaturized and miniaturized control equipment, batteries are still widely used as a power source. In the existing technology, wearable portable calling devices require battery power due to size limitations; for example, portable wireless calling devices used to care for the elderly require regular battery replacement. If the elderly or people with mobility issues encounter an emergency, When calling for help, if the battery happens to be out of power, it may be life-threatening; therefore, it is necessary to develop a battery-free miniature watch-style wireless calling device that allows users to carry it on theirwrist. In the eventofan emergency, they can press a button to call for help at any time, regardless of the situation. There will never be a problem of insufficient power supply at any time. It can accompany users for a long time without maintenance and can save lives at critical moments.

[0007] In other words, the existing passive switches are bulky and difficult to apply to some smallvolume products and cannot be installed in a space the size of a watch. However, miniaturization will be an inevitable trend in the field of passive technology. In other words, if the size of the power generation module is made small enough, there will be a larger application market, such as embedding it in the space of a watch to make a portable wireless calling device the size of a watch, or designing a tiny power generation module embedded in a mobile phone selfie stick. A durable selfie stick that does not require battery power will have very broad market prospects, and these applications all rely on the miniaturization of power generation modules. SUMMARY OF THE INVENTION An object of the present invention is to provide a self-power generation core module and its application, wherein the self-power generation core module can be made thinner and smaller, so that when the self-power generation core module is applied to corresponding self-power generation control When the device is installed, the thickness and plane size of the self-generated power control device can be reduced, thereby providing a miniaturized and miniaturized self-generated power control device. An object of the present invention is to provide a self-power generation core module and its application, wherein the self-power generation core module can be made thinner and smaller, thereby enabling miniaturization and miniaturization of self-power generation control equipment, wherein the self-power generation core module can be made thinner and smaller, thereby miniaturizing the self-power generation control equipment. The power generation core module can convert mechanical energy into electrical energy without the need for additional battery power supply. This provides a self-power generation solution for the field of miniaturized and miniaturized control equipment, avoiding the environmental problems and frequent replacement or replacement caused by battery power supply. Inconvenience of charging. An object of the present invention is to provide a self-generating core module and its application, wherein the self-generating core module makes full use of the objectively existing thickness, has a reasonable structural arrangement and design, and has a more compact structure. Therefore, in the self-generating core module, When the group is applied to corresponding self-power generation control equipment, the thickness and plane size of the self-power generation control equipment can be reduced to meet the needs of miniaturization and miniaturization. An object of the present invention is to provide a self-generating core module and its application, wherein the self-generating core module includes a base, a generator, a radio frequency circuit board and a helical antenna, wherein the generator, the radio frequency circuit board and the helical antenna are accommodated in the base, wherein the generator has a driving member, and the generator is forced by the driving member in the thickness direction of the self-generating core module. When swinging, electric energy is generated to power the radio frequency circuit board, wherein the helical antenna is feed-connected to the radio frequency circuit board and is configured to transmit and / or receive corresponding signals in a state where the radio frequency circuit board is powered, The self-generating core module includes a reset element, which is coupled to the drive element of the generator and resets the movement of the drive element through elastic reset performance, wherein the reset element The space required to produce deformation due to force is the deformation movement space. The helical antenna is placed flat on the base in a state of misalignment with the deformation movement space in the thickness direction of the selfgenerating core module, thereby avoiding the movement space of the reset member and the helical antenna overlap in the thickness direction of the self-power core module, thereby effectively reducing the thickness of the self-power core module. An object of the present invention is to provide a self-generating core module and its application, wherein the self-generating core module adopts a helical antenna, and the helical antenna is placed horizontally in a state of being spatially misaligned with the deformation motion. The base is so that the space required for the deformation of the helical antenna and the reset member is misaligned with each other in the thickness direction of the self-generating core module, thereby preventing the movement space of the reset member from being in contact with the helical antenna. The self-generating core modules are stacked in the thickness direction, breaking through the common ideas and solutions in the prior art of using flat-panel antennas to reduce the thickness, and avoiding the expansion of the plane size caused by the use of flat-panel antennas, thus reducing the size of the self-generating core. While reducing the thickness of the module, the self-generated core module can be made smaller. An object of the present invention is to provide a self-generating core module and its application, wherein the helical antenna can be optionally replaced with a wire antenna, the wire antenna is a metal wire, and the wire antenna surrounds the self-generating core module is distributed and embedded / stuck in a beam column or beam slot to prevent the wire antenna from scattering. Since the wire antenna avoids the thickness of the generator, it avoids being damaged in the selfgenerating core module. The stacks are stacked in the thickness direction, thereby effectively reducing the thickness of the self-generated core module. An object of the present invention is to provide a self-generating core module and its application, wherein the base accommodates the generator, and the thickness of the generator is objectively present in the self-generating core module, wherein The helical antenna is placed flat on the base in a state of being misaligned with the deformation movement space, thereby preventing the movement space of the reset member and the helical antenna from overlapping in the thickness direction of the self-generating core module. In this way, the objectively existing thickness of the self-generating core module is effectively utilized based on the movement space misalignment of the helical antenna and the reset member, thereby avoiding an additional increase in the thickness of the self-generating core module, so that the self-generating core module can the power generation core module can be made thin. An object of the present invention is to provide a self-generating core module and its application, wherein the self-generating core module includes a guide arm, wherein the guide arm is pivotably installed on the base, so The drive member of the generator is coupled to the guide arm, wherein the guide arm pivots in a state where the self-generated core module is operated by an external force to link the drive member to swing, so The operation driving force of the self-generating core module is reduced based on the linkage of the force guide arm to the driving member, so the user only needs to apply a small driving force to drive the generator to generate electricity, which is easy to operate. The force guide arm has a rotation axis and a force guide plate extending in a radial direction of the rotation axis, wherein the force guide arm is pivotably mounted on the base at its rotation axis, wherein the force guide arm Preferably, the force guide plate is arranged in a state opposite to the driving member, that is, the force guide plate has a pivoting movement direction opposite to that of the driving member, so that the force guide plate and the driving member are opposite to each other. The driving member improves the driving effect of the force-guiding arm on the driving member, and is conducive to avoiding direct superposition of thicknesses of the forceguiding arm and the generator, which is conducive to making the self-generating core module thin. An object of the present invention is to provide a self-generating core module and its application, in which the guide arm has a lever effect to reduce the driving force by about 50% in a very small space. When driving the guide arm When the force guide plate of the arm is installed, it has a very labor-saving and significant effect, which is conducive to the user to achieve light-touch driving when operating the power generation core module. An object of the present invention is to provide a self-generated power core module and its application, wherein the extension direction of the force guide plate of the force guide arm is preferably toward the direction of the generator, and the force guide arm is directed toward the generator is placed close to the generator to reduce the tile space occupied by the base, which is conducive to making the self-generated core module smaller. An object of the present invention is to provide a self-generated power core module and its application, wherein when the force guide plate of the force guide arm is pressed, it is stopped by a stopper device, and the stopper device can be any The upper casing of the generator, or a pillar provided on the base, can also be provided on the side of the generator or below the guide arm, when operating the self-generating core module , the pressing stroke ends at the generator to ensure that the generator is not damaged by over-driving, so the stop device can play a role in protecting the driving member. An object of the present invention is to provide a self-generated power core module and its application, wherein the force guide arm has a folded edge, wherein the folded edge approaches from the side of the force guide plate facing the driving member. If the direction of the driving member extends, the folding edge is located above the driving member. When the guide arm is driven, the folding edge performs a micro-sliding movement on the surface of the driving member, resulting in It is beneficial to reduce the thickness of the driving mechanism while ensuring the driving effect of the driving part, and improve the life of the self-generating core module. At the same time, the folded edges slide on the surface of the driving part at a macro distance, and cooperate with the elasticity of the driving member buffers the step force when pressing, effectively solving the problem of a stiff feel when pressing, thereby improving the driving effect of the guide arm on the driving member and ensuring the safety of the self-generating core module. Operation feel. An object of the present invention is to provide a self-generating core module and its application, wherein the helical antenna is preferably accommodated in a state of being disposed under the rotating shaft along the pivoting force-bearing direction of the force guide plate. The base can effectively utilize the objectively existing thickness of the self-generating core module while realizing the movement space misalignment of the helical antenna and the reset member, and avoid the thickness of the self-generating core module. The additional addition enables the selfgenerating core module to be made thin. An object of the present invention is to provide a self-generating core module and its application, wherein the helical antenna is preferably accommodated in a state of being disposed under the rotating shaft along the pivoting force-bearing direction of the force guide plate. The base, in other words, the helical antenna is disposed under the force-guiding arm, wherein the thickness of the generator is objectively present in the self-generating core module, wherein the force-guiding arm The arm is to link the driving member, and the height of the guide arm in the self-generating core module is higher than the driving member, then the helical antenna is arranged under the guide arm, which will effectively utilize all the objective thickness produced by the generator in the selfpower core module avoids an additional increase in the thickness of the self-power core module, so that the self-power core module can be made thin. An object of the present invention is to provide a self-generated power core module and its application, wherein the force guide plate is arranged opposite to the driving member, so the base has an empty space below the rotating shaft of the force guide arm. The space forms an antenna chamber capable of accommodating the helical antenna, so that the driving effect of the force guide arm on the driving member is improved based on the relative arrangement of the force guide plate and the driving member and the automatic movement of the helical antenna is reduced. In addition to the size of the power generation core module, the structural design of the self-power generation core module has been further optimized, making the structure of the self-power generation core module more compact, which further facilitates the miniaturization of the selfpower generation core module, change. An object of the present invention is to provide a self-generating core module and its application, wherein the return member is preferably implemented as a double torsion spring, and the return member includes a first spring body, a second spring body and a connecting rod., wherein the two ends of the connecting rod are connected to the first spring body and the second spring body respectively, and the connecting rod has two longitudinal rods extending in the same direction from its two ends and connected to the two longitudinal rods, transverse rods between the rods, the transverse rods are linked to the driving member, and the extending direction of the two longitudinal rods is opposite to the extending direction of the force guide plate to ensure that the reset member has a positive effect on the driving member. It improves the reset performance of the components, and is conducive to the more compact structural design of the self-generating core module, and is conducive to the miniaturization and miniaturization of the self-generating core module. An object of the present invention is to provide a self-generated power core module and its application, wherein the base includes a bottom plate and a side wall disposed on the periphery of the bottom plate, the bottom plate has a positioning tongue, and the positioning tongue It includes a tongue body installed on the bottom plate, a tongue tip extending away from the tongue body at one end of the tongue body, and a tongue tip extending away from the tongue body at the other end of the tongue body. A tongue base extends in the direction of the bottom plate, and the end where the driving member is located is the front end of the generator. The generator is installed on the positioning tongue with its front end facing the tongue tip and is mounted on the positioning tongue. The tongue tip and the tongue base are limited, thereby being limited by the positioning tongue and the side wall and accommodated in the base, so that the tongue tip and the tongue base of the positioning tongue, and the side walls interact with each other to fix the generator in position, ensuring the structural compactness of the self-power generation core module and the structural stability of the self-power generation core module. An object of the present invention is to provide a self-power generation core module and its application, wherein the self-power generation core module can be made small and thin, thereby enabling miniaturization and miniaturization of self-power generation control equipment, so as to be suitable for In various small and micro application scenarios, such as being embedded in a selfie stick to form a self-powered selfie stick device, when the user presses the photo button of the self-powered selfie stick device, the self-generating core is driven The module generates electricity to provide power and send corresponding photography instructions, avoiding the environmental problems caused by using battery power and the inconvenience of frequent replacement or charging. At the same time, the requirements for the use environment are significantly reduced, ensuring that most application scenarios of the selfie stick are in It is safe to use outdoors, and based on the maintenance-free feature of the self-powered selfie stick device, there is an embarrassing situation when the battery runs out when used outdoors. According to one aspect of the present invention, the present invention provides a self-generating core module, wherein the self-generating core module includes: A generator, wherein the generator has a driving member, and the generator generates electrical energy when the driving member is forced to swing in the thickness direction of the self-generating core module; a radio frequency circuit board, wherein the radio frequency circuit board is powered and connected to the generator; a helical antenna, wherein the helical antenna is connected to the radio frequency circuit board; A reset member, wherein the reset member is coupled to the driving member of the generator and resets the movement of the driving memberthrough elastic return performance; and A base, wherein the generator, the radio frequency circuit board, the helical antenna and the reset member are accommodated in the base, wherein the space required for the reset member to deform due to force is Deformation movement space, the helical antenna is placed flat on the base in a state of misalignment with the deformation movement space in the thickness direction of the self-generating core module, thereby avoiding the deformation movement space of the reset member The helical antenna is superposed in the thickness direction of the self-power core module, thereby effectively reducing the thickness of the self-power core module. In an embodiment of the present invention, the self-generated power core module includes a force guide arm, wherein the force guide arm has a rotating shaft and a force guide plate extending in a radial direction of the rotating shaft, wherein the force guide arm is pivotably mounted on the base on its rotation axis, and the driving member of the generator is coupled to the force guide plate, wherein the force guide arm is in the self-generating core. The module pivots when operated by an external force to swing in conjunction with the driving member, wherein the force guide plate has a pivoting movement direction opposite to that of the driving member. In an embodiment of the present invention, the helical antenna is accommodated in the base in a state of being disposed below the rotating shaft along the pivoting force-bearing direction of the force guide plate. In an embodiment of the present invention, the base includes a bottom plate and a side wall disposed on a periphery of the bottom plate, the bottom plate has a positioning tongue, and the positioning tongue includes a A tongue body, a tongue tip extending from the tongue body in a direction away from the bottom plate at one end of the tongue body, and a tongue tip extending from the tongue body in a direction away from the bottom plate at the other end of the tongue body. The tongue base, where the end where the driving member is located is the front end of the generator, and the generator is installed on the positioning tongue with its front end facing the tongue tip and is limited by the tongue tip and the tongue base, thereby being limited by the positioning tongue and the side wall and accommodated in the base. In one embodiment of the present invention, the side wall is disposed on the periphery of the bottom plate along the length direction of the base, and the side wall disposed in the length direction of the base is correspondingly named a longitudinal side wall. , wherein the two longitudinal side walls each have a mounting piece designed in the form of an axis hole or an axis arm, and the guide arm is pivotable in a state where its rotating shaft is mounted on the mounting piece of the two longitudinal side walls. Rotately mounted on the base. In an embodiment of the present invention, the length of the helical antenna is set so that the straight-line distance between the two ends of the helical antenna is equal to the distance between the two longitudinal side walls, and the two ends of the helical antenna are respectively abutted on the two longitudinal side walls are accommodated in the base. In an embodiment of the present invention, the positioning tongue is disposed in a state where the tongue base is disposed at one end of the base in the length direction. In an embodiment of the present invention, the base further includes the side wall disposed along the width direction of the base plate, and the corresponding side walls disposed along the width direction of the base are transverse walls. The side wall, wherein the other end of the tongue body of the positioning tongue is abutted against the transverse side wall so that the transverse side wall constitutes the tongue base of the positioning tongue. In one embodiment of the present invention, the tongue tip and the tongue base extend from the bottom plate so that the bottom plate equivalently constitutes the tongue body. In one embodiment of the present invention, the return member is a double torsion spring, and the return member includes a first spring body, a second spring body and a connecting rod, wherein both ends of the connecting rod are respectively Connected to the first spring body and the second spring body, the connecting rod has two longitudinal rods extending in the same direction from its two ends and a transverse rod connected between the two longitudinal rods. The transverse rod Coupled to the driving member in a linkage manner, the extension direction of the two longitudinal rods is opposite to the extension direction of the force guide plate. In an embodiment of the present invention, the two side walls located in the length direction of the base are longitudinal side walls of the base, and the two longitudinal side walls each have a protruding column, and the reset The first spring body and the second spring body of the component are respectively placed on the protruding columns of the two longitudinal side walls, wherein the two protruding columns are respectively located on the two longitudinal side walls opposite to the power generation positions on both sides of the machine. In an embodiment of the present invention, the force guide arm has a flange, wherein the flange extends from a side of the force guide plate facing the driving member toward a direction close to the driving member. In an embodiment of the present invention, the force guide arm has a reflective edge, wherein the reflective edge extends from a side of the force guide plate facing away from the driving member to a side away from the driving member, direction extension. In one embodiment of the present invention, the return member is a torsion spring, a double torsion spring, a round spring, a dome piece, a phosphor bronze piece or an elastic piece. In an embodiment of the present invention, the self-generated power core module includes a force guide arm, wherein the force guide arm has a rotating shaft and a force guide plate extending in a radial direction of the rotating shaft, wherein the force guide arm is pivotably mounted on the base on its rotation axis, and the driving member of the generator is coupled to the force guide plate, wherein the force guide arm is in the self-generating core. The module pivots when operated by an external force to swing in conjunction with the driving member, wherein the force guide plate has a pivoting movement direction in the same direction as the driving member. In one embodiment of the present invention, the return member is a double torsion spring, and the return member includes a first spring body, a second spring body and a connecting rod, wherein both ends of the connecting rod are respectively connected to the first spring body and the second spring body, the connecting rod has two longitudinal rods extending in the same direction from its two ends and a transverse rod connected between the two longitudinal rods. The transverse rod Coupled to the driving member in a linkage manner, the extension direction of the two longitudinal rods is opposite to the extension direction of the force guide plate. In an embodiment of the present invention, the helical antenna is arranged below a line connecting the first spring body and the second spring body along the pivoting force-bearing direction of the force guide plate, housed in the base. In an embodiment of the present invention, the base includes a bottom plate and a side wall disposed on a periphery of the bottom plate, the bottom plate has a positioning tongue, and the positioning tongue includes a tongue body, a tongue tip extending from the tongue body in a direction away from the bottom plate at one end of the tongue body, and a tongue tip extending from the tongue body in a direction away from the bottom plate at the other end of the tongue body. The tongue base, where the end where the driving member is located is the front end of the generator, and the generator is installed on the positioning tongue with its front end facing the tongue tip and is limited by the tongue tip and the tongue base. , thereby being limited by the positioning tongue and the side wall and accommodated in the base. In one embodiment of the present invention, the side wall is disposed on the periphery of the bottom plate along the length direction of the base, and the side wall disposed in the length direction of the base is correspondingly named a longitudinal side wall. , wherein the two longitudinal side walls each have a mounting piece designed in the form of an axis hole or an axis arm, and the guide arm is pivotable in a state where its rotating shaft is mounted on the mounting piece of the two longitudinal side walls. Rotately mounted on the base. In an embodiment of the present invention, the length of the helical antenna is set so that the straight-line distance between the two ends of the helical antenna is equal to the distance between the two longitudinal side walls, and the two ends of the helical antenna are respectively abutted on the two longitudinal side walls are accommodated in the base. In an embodiment of the present invention, the positioning tongue is disposed in a state where the tongue base is disposed at one end of the base in the length direction. In an embodiment of the present invention, the base further includes the side wall disposed along the width direction of the base plate, and the corresponding side walls disposed along the width direction of the base are transverse walls. The side wall, wherein the other end of the tongue body of the positioning tongue is abutted against the transverse side wall so that the transverse side wall constitutes the tongue base of the positioning tongue. In one embodiment of the present invention, the tongue tip and the tongue base extend from the bottom plate so that the bottom plate equivalently constitutes the tongue body. In an embodiment of the present invention, the force guide arm has a flange, wherein the flange extends from a side of the force guide plate facing the driving member toward a direction close to the driving member. In an embodiment of the present invention, the force guide arm has a reflective edge, wherein the reflective edge extends from a side of the force guide plate facing away from the driving member to a side away from the driving member, direction extension. In one embodiment of the present invention, the return member is a torsion spring, a double torsion spring, a round spring, a dome piece, a phosphor bronze piece or an elastic piece. According to another aspect of the present invention, the present invention provides a watch-type self-power generation control device, wherein the watch-type self-power generation control device includes: A dial, wherein the dial includes an upper dial and a lower dial, and the upper dial is installed on the lower dial to form an accommodation space between the upper dial and the lower dial; a watch strap, wherein the watch strap is connected to the dial; and A self-generating core module, wherein the self-generating core module is disposed in the accommodation space, and the upper dial is provided with at least one button. When the button is pressed, all parts of the accommodation space are disposed. The self-generating core module is triggered by the button linkage to generate electric energy and sends a radio signal to the corresponding terminal device to realize the function of the wearable watch-type self-generating control device to control the corresponding terminal device without batteries. In an embodiment of the present invention, the self-generating core module includes a generator, a radio frequency circuit board, a helical antenna, a reset component and a base, wherein the generator, the radio frequency circuit board , the helical antenna and the reset member are accommodated in the base. In an embodiment of the present invention, the base is installed on the lower dial to form a state in which the self-generated core module is accommodated in the accommodation space of the dial, and the generator has A driving member, the driving member is coupled to the button and is forced to swing when the button is operated, and the generator generates electrical energy when the driving member is forced to swing, wherein the radio frequency circuit The board is electrically connected to the generator. In an embodiment of the present invention, the helical antenna is connected to the radio frequency circuit board, and the reset member is linked to the driving member of the generator and resets the reset member through elastic reset performance. The movement of the driving member, wherein the space occupied by the reset member required to deform due to force is the deformation movement space, and the helical antenna is in a state of misalignment with the deformation movement space in the thickness direction of the self-generating core module is placed flat on the base, thereby preventing the deformation movement space of the reset member and the helical antenna from overlapping in the thickness direction of the self-generating core module, thus effectively reducing the self-generating core module. The thickness of the group. According to another aspect of this aspect, the present invention provides a small button type selfgenerating power control device, wherein the small button type self-generating power control device includes: A housing, wherein the housing includes a base and a panel, the base has a receiving cavity, and the panel is installed on the base to cover the receiving cavity; and A self-generating core module, wherein the self-generating core module includes a generator, a radio frequency circuit board, a helical antenna, a reset component and a base, wherein the generator, the radio frequency circuit board, the helical antenna and the reset member are accommodated in the base, wherein the self-generating core module is accommodated in the accommodation cavity of the housing, and the panel is provided with at least one button, wherein the generator has a driving member, the driving member is coupled to the button and is forced to swing when the button is operated, and the generator generates electrical energy when the driving member is forced to swing, wherein The radio frequency circuit board is powered and connected to the generator, wherein the helical antenna is connected to the radio frequency circuit board, and the reset component is linked to the driving component of the generator and elastically coupled to the driving component of the generator. The reset function resets the movement of the driving member, wherein the space occupied by the reset member required to deform due to force is the deformation movement space, and the helical antenna is located between the self-generating core module and the deformation movement space. The state of misalignment in the thickness direction is placed flat on the base, thereby avoiding the superposition of the deformation movement space of the reset member and the helical antenna in the thickness direction of the self-generating core module, thus effectively reducing the Describe the thickness of the self-generated core module. According to one aspect of the present invention, this aspect provides a self-generating core module, wherein the self-generating core module includes: A generator, wherein the generator has a driving member, and the generator generates electrical energy when the driving member is forced to swing in the thickness direction of the self-generating core module; A force guide arm, wherein the force guide arm is configured as a lever, and the force guide arm drives the driving member when pressed by force, wherein the force guide arm includes a force guide plate, and the force guide plate has a force guide plate. Folding, wherein the folding edge extends from the side of the force guide plate facing the driving member in a direction close to the driving member; when the force guide arm is pressed by force, the folding edge The end performs micro-sliding movement on the surface of the driving member to increase the life of the driving mechanism; a radio frequency circuit board, wherein the radio frequency circuit board is powered and connected to the generator; A reset member, wherein the reset member is coupled to the driving member of the generator and resets the movement of the driving memberthrough elastic return performance; and A base, wherein the generator, the radio frequency circuit board and the reset component are disposed on the base. In an embodiment of the present invention, the force guide arm has a rotating shaft, the force guide plate extends from a radial direction of the rotation axis, the force guide plate is arranged in a direction toward the generator and covers the driving member. In one embodiment of the present invention, the force guide arm has a rotating shaft, the force guide plate extends from the radial direction of the rotating shaft, and the force guide plate forms a lever in the self-generated core module. In one embodiment of the present invention, the force guide arm has a flange, wherein the flange extends from a side of the force guide plate facing the driving member toward a direction close to the driving member. Located above the driving member. In an embodiment of the present invention, an end of the force guide plate away from the rotating shaft is located above the generator to form a pressing space between the force guide plate and the generator. In an embodiment of the present invention, the movement stroke of the guide arm is less than or equal to 1.5 mm. In an embodiment of the present invention, one end of the force guide plate away from the rotating shaft is designed in the form of a button. In an embodiment of the present invention, the force guiding arm extends in a direction opposite to the extending direction of the driving member. In an embodiment of the present invention, the radio frequency circuit board is disposed below the force guide arm. In an embodiment of the present invention, when the force guide plate of the force guide arm is pressed, it is stopped by a stopping device to prevent the force guide arm from being over-pressed. In an embodiment of the present invention, there is a vacant space below the force guiding arm to form an antenna chamber capable of accommodating the helical antenna. In one embodiment of the present invention, there are receiving grooves on both sides of the base, and the reset member further includes two fixed ends, and the two fixed ends respectively extend into the receiving grooves on both sides of the base, To stabilize the two fixed ends. According to one aspect of the present invention, the present invention provides a self-powered selfie stick, wherein the self-powered selfie stick includes: a clamping part; a handle portion, wherein the clamping portion is mounted to the handle portion; and A self-power core module, wherein the self-power core module is accommodated in the handle portion, wherein the self-power core module includes a generator, a force arm, a radio frequency circuit board and a reset component, The force-guiding arm is connected to the generator to drive the generator when subjected to external force, and can be reset by the reset member when the external force is removed. When the external force presses the force-guiding arm, The generator supplies power to the radio frequency circuit board, so that the radio frequency circuit board can wirelessly control a mobile terminal device held by the clamping part to photograph. In an embodiment of the present invention, the self-generated power core module includes a base, wherein the generator, the guide arm, the reset component and the radio frequency circuit board are accommodated in the base, wherein the force guide arm has a rotation shaft and a force guide plate extending from the radial direction of the rotation shaft, wherein one end of the force guide plate away from the rotation axis is designed in a key shape and is disposed on the base. The handle surface, wherein the generator has a driving member, the driving member is coupled to the force guide arm and is forced to swing when the button of the force guide plate is pressed, the generator Electric energy is generated when the driving member is forced to swing. Further objects and advantages of the present invention will be fully realized through an understanding of the following description and drawings. DESCRIPTION OF THE DRAWINGS: FIG. 1 is a schematic structural diagram of a self-generated power core module according to a first embodiment of the present invention. FIG. 2 is a schematic diagram of the disassembled structure of the self-generated core module according to the first embodiment of the present invention. FIG. 3 is a schematic cross-sectional structural diagram of the self-generated core module according to the first embodiment of the present invention. FIG. 4 is a schematic structural diagram of a base of the self-generated core module according to the first embodiment of the present invention. FIG. 5A is a schematic structural diagram of the self-power generation core module according to the first embodiment of the present invention applied to a watch-type self-power generation control device. FIG. 5B is a schematic structural diagram of the self-power generation core module applied to the watch-type self-power generation control device according to the first embodiment of the present invention. Figure 5C is a partially enlarged schematic diagram of Figure 5B. Figure 5D is a schematic cross-sectional structural diagram of the watch-type self-generating power control device. FIG. 6 is a schematic structural diagram of a self-generated power core module according to a second embodiment of the present invention. FIG. 7 is a schematic diagram of the disassembled structure of the self-generated core module according to the second embodiment of the present invention. FIG. 8 is a schematic cross-sectional structural diagram of the self-generated core module according to the second embodiment of the present invention. FIG. 9 is a schematic structural diagram of a base of the self-generated core module according to the second embodiment of the present invention. FIG. 10A is a schematic structural diagram of the self-power generation core module used in a small button type self-power generation control device according to the second embodiment of the present invention. FIG. 10B is a schematic structural diagram of a self-power control device when the self-power core module according to the second embodiment of the present invention is applied to the small button. FIG. 11 is a schematic structural diagram of a self-generated power core module according to a third embodiment of the present invention. FIG. 12 is a schematic diagram of the disassembled structure of the self-generated power core module according to the third embodiment of the present invention. FIG. 13 is a schematic cross-sectional structural diagram of the self-generated core module according to the third embodiment of the present invention. FIG. 14 is a schematic structural diagram of a base of the self-generated core module according to the third embodiment of the present invention. FIG. 15 is a schematic structural diagram of a modified embodiment of the self-generated core module according to the first embodiment of the present invention. Figure 16 is a schematic structural diagram of a self-generating selfie stick including the selfgenerating core module. DETAILED DESCRIPTION: The following description is provided to disclose the invention to enable those skilled in the art to practice the invention. The preferred embodiments in the following description are only examples, and other obvious modifications may occur to those skilled in the art. The basic principles of the invention defined in the following description may be applied to other embodiments, variations, improvements, equivalents and other technical solutions without departing from the spirit and scope of the invention. Those skilled in the art will understand that in the disclosure of the present invention, the terms "vertical", "horizontal", "upper", "lower", "front", "back", "left", "right", The orientations or positional relationships indicated by "vertical", "horizontal", "top", "bottom", "inner", "outer", etc. are based on the orientations or positional relationships shown in the drawings and are only for the convenience of describing this document. The invention and simplified description are not intended to indicate or imply that the device or element referred to must have a specific orientation, be constructed and operate in a specific orientation, and therefore the above terms are not to be construed as limitations of the present invention. It should be understood that the term "a" should be understood as "at least one" or "one or more", that is, in one embodiment, the number of an element may be one, while in other embodiments, the number of the element may be the number may be multiple, and the term "one" shall not be understood as a limitation on the number. In the description of the present invention, it should be noted that, unless otherwise clearly stated and limited, the terms "installation", "connection" and "connection" should be understood in a broad sense. For example, it can be a fixed connection or a detachable connection. Connection, or integral connection; it can be mechanical connection, electrical connection or mutual communication; it can be direct connection, or indirect connection through an intermediary, it can be internal connection of two elements orinteraction of two elements relation. Forthose of ordinary skill in the art, the specific meanings of the above terms in the present invention can be understood according to specific circumstances. The present invention provides a self-power generation core module, wherein the self-power generation core module can be made thinner and smaller, so that when the self-power generation core module is applied to corresponding self-power generation control equipment, the self-power generation control equipment The thickness and plane size can be reduced, thereby providing a miniaturized and miniaturized self-power generation control device based on the application of the self-power generation core module, and adapting to today's demand for miniaturization and miniaturization of control equipment. With specific reference to Figures 1 to 4 of the accompanying drawings of the present invention, a self-generating core module 10 according to a first embodiment of the present invention is schematically illustrated, wherein the self-generating core module 10 includes a base 11, a A generator 12, a radio frequency circuit board 13 and a helical antenna 14 are accommodated in the base 11, wherein the generator 12 The generator 12 has a driving member 121. When the driving member 121 is forced to swing in the thickness direction of the self-generating core module 10, the generator 12 generates electrical energy to supply power to the radio frequency circuit board 13, wherein the helical antenna 14 is fed and connected to the radio frequency circuit board 13 and is configured to transmit and / or receive corresponding signals when the radio frequency circuit board 13 is powered, in order to control or match the corresponding equipment, wherein the automatic The power generation core module 10 includes a reset member 15, which is coupled to the driving member 121 of the generator 12 and resets the movement of the driving member 121 through elastic reset performance, wherein the space required for the reset member 15 to deform under force is the deformation movement space 150. The helical antenna 14 is placed flat in a state of misalignment with the deformation movement space 150 in the thickness direction of the self-generating core module 10. The base 11 prevents the deformation movement space 150 of the reset member 15 and the helical antenna 14 from overlapping in the thickness direction of the self-generating core module 10, thus effectively reducing the risk of the self-generating core. Thickness of module 10. In particular, the present invention is based on the structural characteristics of the helical antenna 14 itself, that is, the structural characteristics of the helical antenna. The helical antenna 14 is placed flat on the base 11 in a state of being misaligned with the deformation movement space 150. In this way, the space required for deformation of the helical antenna 14 and the reset member 15 is offset from each other in the thickness direction of the self-generated core module 10, thereby avoiding the deformation movement space 150 of the reset member 15 and the space required for deformation of the reset member 15. The helical antenna 14 is superimposed in the thickness direction of the self-generating core module 10, breaking through the common ideas and solutions in the prior art of using flat-panel antennas to reduce the thickness, and avoiding the expansion of the plane size caused by the use of flat-panel antennas. At the same time, all the helical antenna 14 is placed flat on the base 11, that is, the helical antenna 14 is accommodated on the base in a state where its length direction is perpendicular or tends to be perpendicular to the thickness direction of the self-generating core module 10. The base 11 avoids the increase in the thickness of the self-power core module 10 caused by the helical antenna 14 standing on the base 11, so that the thickness of the self-power core module 10 can be reduced while reducing the thickness of the self-power core module 10. The self-generated power core module 10 is made smaller. Optionally, in some embodiments, the helical antenna 14 is optionally replaced by a wire antenna, the wire antenna is a metal wire, and the wire antenna surrounds the self-generating core module 10 Distributed and embedded / stuck into a beam column or beam slot to prevent the wire antenna from scattering, because the wire antenna avoids the thickness of the generator 12 and avoids the thickness of the self-generating core module 10 The thickness of the self-generated core module 10 is effectively reduced. It is worth mentioning that the self-power generation core module 10 can be made thinner and smaller, thereby enabling miniaturization and miniaturization of the corresponding self-power generation control equipment, wherein the self-power generation core module 10 is based on the mechanical energy of the generator 12 is converted into electrical energy without using an additional battery for power supply. This provides a self-generated power generation solution for the field of miniaturized and miniaturized control equipment, and avoids the environmental problems and frequent replacement or charging caused by battery power supply. Therefore, based on the solution of the present invention, a portable passive control device with self-generating capability and miniaturization that meets market expectations can be provided. In particular, the structural design of the self-power core module 10 makes full use of the objectively existing thickness, the structural arrangement is reasonable, and the structure is more compact. Therefore, when the self-power core module 10 is used in the corresponding self-power control When installed, the thickness and plane size of the self-generated power control equipment can be reduced to meet the needs of miniaturization and miniaturization. Specifically, the base 11 accommodates the generator 12, the thickness of the generator 12 is objectively present in the self-generated core module 10, and the helical antenna 14 is in a shape consistent with the deformation. The movement space 150 is placed flat on the base 11 in a misaligned state, thereby preventing the deformation movement space 150 of the reset member 15 and the helical antenna 14 from overlapping in the thickness direction of the self-generating core module 10 , so that the objectively existing thickness of the self-generated core module 10 is effectively utilized based on the misalignment of the deformation movement space 150 of the helical antenna 14 and the reset member 15, that is, the deformation movement space 150 utilizes the self-generated core module 10 . The objectively existing thickness of the self-generating core module 10 is configured, and the helical antenna 14 is also placed flat on the base 11 using the objectively existing thickness of the self-generating core module 10, thereby effectively avoiding the self-generating core module 10. On the basis of the objectively existing thickness of the group 10, due to the superposition of the deformation movement space 150 of the reset member 15 and the helical antenna 14, the additional increase in the thickness of the self-generated core module 10 is fully utilized. The objectively existing thickness enables the self-power core module 10 to be made thin. It is worth mentioning that while ensuring that the self-power generation core module 10 is made thin and small, it also further ensures that the self-power generation core module 10 can have sufficient mechanical strength to improve the power of the generator. 12 driving effects. In detail, the self-generated power core module 10 includes a force guide arm 16, wherein the force guide arm 16 is pivotably installed on the base 11, and the driving member 121 of the generator 12 is linked to the guide arm 16, wherein the guide arm 16 pivots when the selfgenerated core module 10 is operated by an external force to link the swing of the driving member 121, so that based on the linkage of the force guide arm 16 on the driving member 121 reduces the operating driving force of the self-generated core module 10 , that is, the force guide arm 16 exerts a leverage effect on the driving member 121 , so the user only needs to exert The smaller driving force can drive the generator 12 to generate electricity, which is easy to operate. In particular, in this embodiment of the present invention, by setting the pivoting direction of the guide arm 16 to be opposite to the pivoting direction of the driving member 121 of the generator 12, that is, when the generator 12 When the driving member 121 swings clockwise, the guiding arm 16 pivots counterclockwise, thereby realizing the linkage driving of the driving member 121 by the guiding arm 16 and simultaneously increasing the 16 exerts a leverage effect on the driving member 121 to reduce the operating driving force of the self-generated core module 10 . Specifically, the guide arm 16 has a rotating shaft 161 and a guide plate 162 extending from the radial direction of the rotating shaft 161, wherein the guide arm 16 is pivotably mounted on the rotating shaft. Base 11 , wherein the force guide arm 16 is preferably disposed in a state where the force guide plate 162 is opposite to the driving member 121 , so that the pivot direction of the force guide arm 16 is consistent with the generator 12 The pivoting directions of the driving member 121 are opposite, thereby improving the driving effect of the guide arm 16 on the driving member 121 based on the opposite force guide plate 162 and the driving member 121, and helping to avoid The thickness of the force-guiding arm 16 and the generator 12 are directly superimposed, that is, the force-guiding arm 16 and the generator 12 are arranged oppositely, so the force-guiding arm 16 will not be simply superimposed on the generator 12 . Above the generator 12, the direct superposition of the thicknesses of the force guide arm 16 and the generator 12 is avoided, which is conducive to making the self-generated core module 10 thin. Preferably, the helical antenna 14 is accommodated in the base 11 in a state of being arranged below the rotating shaft 161 along the pivoting force-bearing direction of the force guide plate 162, so as to achieve the helical antenna 14. While the antenna 14 and the deformation movement space 150 of the reset member 15 are dislocated, the objectively existing thickness of the selfpower core module 10 is effectively utilized to avoid an additional increase in the thickness of the self-power core module 10. This enables the self-generated core module to be made thin. In detail, the helical antenna 14 is accommodated in the base 11 in a state of being arranged below the rotating shaft 161 along the pivoting force-bearing direction of the force guide plate 162. In other words, the helical antenna 14 is disposed under the force guide arm 16 , specifically under the rotation axis 161 of the force guide arm 16 , wherein the thickness of the generator 12 in the self-generated core module 10 is Objectively speaking, in order to be able to drive the driving member 121 in a coordinated manner, the force guide arm 16 needs to be set slightly higher than the driving member 121 at the height of the self-generated core module 10 . Therefore, the force guide arm 16 The arrangement will create an empty space under the force guide arm 16, then the helical antenna 14 is arranged under the force guide arm 16, which will effectively utilize the power of the generator 12 in the self-generating core mode. The objective thickness produced by the group 10 avoids an additional increase in the thickness of the self-generating core module 10 so that the self-generating core module 10 can be made thin. It is worth mentioning that the guide arm 16 forms a lever in the self-generated core module 10 to reduce the driving force by about 50% in a very small space. When driving the guide arm 16 When the force guide plate 162 of the arm 16 is used, it has a very labor-saving and significant effect, which is conducive to the user to achieve light-touch driving when operating the power generation core module. Correspondingly, in this embodiment, the force guide arm 16 The extension direction of the force guide plate 162 is preferably toward the direction of the generator 12 , wherein the force guide arm 16 is toward the generator 12 and close to the generator 12 to reduce the occupation of the base 11 The tiled space is conducive to the self-power core module 10 being made small. In particular, the force-guiding arm 16 extends toward the generator 12 and preferably extends to cover a portion of the generator 12 , wherein the force-guiding arm 16 extends to cover a portion of the generator 12 such that the lever effect played by the guide arm 16 is more obvious because in a small space, the guide arm 16 needs to obtain a labor-saving lever installation area, and the guide arm 16 extends to the generator 12 The upper part makes the lever effect of the force guide arm 16 more obvious, and the operation of the self-generated core module 10 is more labor-saving. Based on the structural design of the present invention, when the force guide plate 162 of the force guide arm 16 is pressed, it is stopped by a stopper device. In this embodiment, the stopper device is the power generator. It can be understood that in some embodiments, the stop device can also be a pillar provided on the base 11, or can be provided on the side or other side of the generator 12. Below the force guide arm 16, when operating the self-generated core module 10, the pressing stroke of the force guide arm 16 stops at the generator 12 to ensure that the driving member of the generator 12 121 is not damaged by overdrive. It is worth mentioning that since the guide arm 16 has a leverage effect, while reducing the beneficial effect of the driving force, the swing amplitude of the guide arm 16 is also increased. However, in a miniaturized and miniaturized Within the space, if the swing amplitude is too large, for example, greater than 3 mm, the pressing stroke is too large, and there is a feeling of a large virtual position during operation, similar to pressing a piano key with too large a stroke. In order to solve this problem, the present invention improves it by further reducing the movement stroke of the iron core of the generator 12, that is, optimizing the moving distance of the iron core of the generator in the magnetic gap, from the existing generally 1 mm The moving distance is optimized to be less than or equal to 0.5 mm. In this way, the moving distance of the iron core in the magnetic gap is reduced by 50%, and the corresponding stroke of the guide arm 16 is reduced by 50%. The stroke of the guide arm 16 Being kept less than or equal to 1.5 mm, it not only has light-touch operation, but also has the beneficial effect of macro and micro-motion. The application scenarios are greatly enhanced, and the use experience is improved. Those skilled in the art should understand that in a small and micro device, shortening the moving distance of the iron core in the magnetic gap is by no means a simple digital setting change, because after the movement stroke of the iron core is shortened, the power generation energy will significantly decrease; Therefore, in the structure of the generator, important parameters such as the magnetic saturation amount, the coil BL value, and the proportion of the magnetically conductive alloy must be redesigned to achieve the beneficial effects of light touch and macro distance of the present invention. Strong energy drives the wireless signal emitted by the radio frequency circuit board 13 to be transmitted up to 50 meters away. That is to say, the present invention improves the driving effect of the guide arm 16 on the driving member 121 through the relative arrangement of the guide arm 16 and the driving member 121, while also improving the driving effect of the guide arm 16 on the driving member 121. A vacant space is formed below that can accommodate the helical antenna 14, thereby effectively utilizing the objective thickness of the self-power core module 10, and conducive to a more compact structure of the self-power core module 10, achieving The technical effect of killing two birds with one stone is conducive to realizing the miniaturization and miniaturization of the self-power generation core module 10 and ensuring the performance of the self-power generation core module 10 . It can be understood that the reason why the force guide arm 16 is slightly higher than the driving member 121 at the height of the self-generating core module 10 is based on the direction offeree exerted by the user on the self-generating core module 10 . is defined from top to bottom, that is, the pivoting force direction of the force guide plate 162 is from top to bottom. In the actual installation and application of the self-generated core module 10, the force guide arm 16 may be in the actual physical level is below the driving member 121, and those skilled in the art will understand. In particular, the force guide arm 16 has a flange 163, wherein the flange 163 extends from the side of the force guide plate 162 facing the driving member 121 in a direction close to the driving member 121, Then the folding edge 163 is located above the driving member 121. When the force guide arm 16 is driven, the folding edge 163 performs a micro-sliding movement on the surface of the driving member 121, which is beneficial to ensuring the safety of the driver. It not only improves the driving effect of the driving member 121 but also reduces the thickness of the driving mechanism and improves the life of the self-generated core module 10. At the same time, the folding edge 163 slides on the surface of the driving member 121 at a macro distance to cooperate with the required the elasticity of the driving member 121 buffers the step force when pressing, effectively solving the problem of a stiff feel when pressing, thereby improving the driving effect of the force guide arm 16 on the driving member 121 and ensuring the self-generated power. The operating feel of kernel module 10. The reset member 15 can be implemented as a torsion spring, a double torsion spring, a round spring, a dome piece, a phosphor bronze piece or an elastic piece, or other elements with elastic properties, which the present invention is not limited to. Preferably, in this embodiment of the invention, the return member 15 is implemented as a double torsion spring and includes a first spring body 151, a second spring body 152 and a connecting rod 153, wherein the connecting rod The two ends of 153 are connected to the first spring body 151 and the second spring body 152 respectively. The connecting rod 153 has two longitudinal rods 1531 extending in the same direction from its two ends and is connected to the two longitudinal rods. 1531 between the transverse rods 1532, the transverse rods 1532 are coupled to the driving member 121, specifically, the transverse rods 1532 are provided below the driving member 121, when the reset member 15 is reset , the transverse rods 1532 push the driving member 121 to move upward to reset the generator 12. The extension direction of the two longitudinal rods 1531 is opposite to the extension direction of the force guide plate 162, ensuring that the resetting performance of the reset component 15 on the driving component 121 is beneficial to the more compact structural design of the self-power core module 10 and the miniaturization of the self-power core module 10 . Further, the reset member 15 further includes two fixed ends 154 and 155, which respectively extend from the first spring body 151 and the second spring body 152. The base 11 There are receiving grooves 1125 on both sides, which further ensures that the first spring body 151 and the second spring body 152 of the return member 15 are stabilized and not easy to fall off. Compared with other types of stabilization methods, the width of the base 11 can be significantly reduced by providing the receiving grooves 1125 on both sides of the base 11 to stabilize the reset member 15 . Specifically, in order to be able to reset the movement of the driving member 121, the transverse rod 1532 of the reset member 15 needs to be disposed under the driving member 121, or be directly connected to the driving member 121, or be disposed the driving member 121 is linked to the force guide arm 16 by resetting the force guide arm 16. That is to say, the height of the transverse rod 1532 in the self-generated core module 10 is slightly lower than the height of the force guide arm 16. The driving member 121 or the height of the driving member 121 tends to be consistent, so the reset member 15 is disposed in a state where the extending direction of the two longitudinal rods 1531 is opposite to the extending direction of the force guide plate 162, so that the arrangement of the reset member 15 on the base 11 can also make full use of the objective thickness of the self-generated core module 10, that is, the first spring body 151 and the second spring body of the reset member 15 152 is provided on both sides of the generator 12, and at the same time, based on the relative arrangement of the relative reset member 15 and the guide arm 16, it ensures the reset performance of the reset member 15 on the driving member 121, and plays a role The effect of killing two birds with one stone. Further, referring to Figure 4 of the accompanying drawings of the present invention, the base 11 includes a bottom plate 111 and a side wall 112 provided on the periphery of the bottom plate 111, wherein the generator 12 is installed on the bottom plate 111 And is limited by the side wall 112, with reference to Figures 1, 2 and 4, in which the return member 15 and the force guide arm 16 are installed by means of the side wall 112, where in this embodiment, The side walls 112 are disposed on the periphery of the bottom plate 111 along the length direction of the base 11. The side walls 112 disposed in the length direction of the base 11 are correspondingly named longitudinal side walls 1121, two of which are vertical side walls 1121. The longitudinal side walls 1121 each have a mounting piece 1123 designed in the form of an axis hole or an axis arm, and the guide arm 16 is installed in a state in which its rotating shaft 161 is mounted on the mounting pieces 1123 of the two longitudinal side walls 1121. Pivotably installed on the base 11 , the two longitudinal side walls 1121 also have a protruding column 1124 respectively. The first spring body 151 and the second spring body 152 of the reset member 15 are respectively the protruding posts 1124 that are placed on the two longitudinal side walls 1121 are installed on the base 11. Specifically, in this embodiment of the invention, the two protruding posts 1124 are respectively located on the two longitudinal side walls. The position of the side wall 1121 relative to both sides of the generator 12 enables the arrangement of the reset member 15 on the base 11 to fully utilize the objective thickness of the self-generating core module 10 . Particularly, in this embodiment of the present invention, the length of the helical antenna 14 is set so that the straight-line distance between the two ends of the helical antenna 14 is equal to the distance between the two longitudinal side walls 1121. Furthermore, in this embodiment , the helical antenna 14 is accommodated in the base 11 with its two ends abutting against the two longitudinal side walls 1121 respectively, which is conducive to improving the structural compactness of the self-generated core module 10 , wherein the guide arm 16 and the driving member 121 are arranged relative to each other. When the guide arm 16 is installed on the base 11 based on the mounting member 1123, the base 11 is in the guide position. There is an empty space below the rotating shaft 161 of the lever arm 16 to form an antenna compartment 113 that can accommodate the helical antenna 14. The two ends of the helical antenna 14 are respectively in contact with the two longitudinal side walls 1121. is accommodated in the antenna compartment 113, so that the driving effect of the force guide arm 16 on the driving member 121 is improved based on the relative arrangement of the force guide plate 162 and the driving member 121 and the self-generated power is reduced. In addition to the size of the core module 10, the structural design of the self-power core module 10 is further optimized, making the structure of the self-power core module 10 more compact, which further facilitates the operation of the self-power core module 10. Miniaturization and miniaturization. It is worth mentioning that in this embodiment of the present invention, the radio frequency circuit board 13 is placed on the bottom plate 111 and accommodated in the base 11. Preferably, the radio frequency circuit board 13 is The size of the circuit board 13 is designed such that the distance between two opposite sides of the radio frequency circuit board 13 is equal to the distance between the two longitudinal side walls 1121, and then when the radio frequency circuit board 13 is accommodated in the base 11 , can be limited by the two longitudinal side walls 1121 to ensure the structural stability of the self-generated core module 10 . Furthermore, in order to further ensure the structural stability of the self-generated core module 10, the bottom plate 111 is provided with a positioning tongue 114, wherein the positioning tongue 114 includes a tongue body 1141 and a tongue body 1141. A tongue tip 1142 and a tongue base 1143 extend respectively from both ends, wherein the tongue body 1141 is installed on the bottom plate 111, and the tongue tip 1142 is at one end of the tongue body 1141 and moves away from the tongue body 1141. The tongue base 1143 extends in the direction away from the bottom plate 111 at the other end of the tongue body 1141 , and the end where the driving member 121 is located is the generator. 12, the generator 12 is installed on the positioning tongue 114 with its front end facing the tongue tip 1142 and is limited by the tongue tip 1142 and the tongue base 1143, thereby being controlled by the positioning tongue 114 and the tongue base 1143. The side wall 112 is limited and accommodated in the base 11 , so that the tongue tip 1142 and the tongue base 1143 of the positioning tongue 114 and the side wall 112 interact with each other to limit and fix the generator. 12. While ensuring the structural compactness of the self-power generation core module 10, the structural stability of the self-power generation core module 10 is ensured. In particular, in order to ensure the structural compactness of the self-generated core module 10, the positioning tongue 114 is provided in a state where the tongue base 1143 is close to one end of the base 11 in the length direction, preferably, The tongue base 1143 of the positioning tongue 114 is disposed at one end of the base 11 in the length direction, thereby ensuring the compact structure of the self-generated power core module 10 . Optionally, in some embodiments, the side walls 112 are also provided in the width direction of the base 11 , and the side walls 112 provided along the width direction of the base 11 are correspondingly named transverse side walls., wherein the other end of the tongue body 1141 of the positioning tongue 114 is abutted against the transverse side wall so that the transverse side wall constitutes the tongue base 1143 of the positioning tongue 114, thus ensuring that the positioning tongue 114 is secured. While the compact structure of the self-power generation core module 10 is described, it is also conducive to simplifying the structural design of the self-power generation core module 10 . In particular, in some embodiments, the positioning tongue 114 may be configured such that the tongue tip 1142 and the tongue base 1143 extend directly from the bottom plate 111 so that the bottom plate 111 equivalently constitutes the tongue body 1141, This is beneficial to simplifying the structural design of the self-generated core module 10 . It is worth mentioning that the generator 12 can generate electricity by using a coil group and a magnetic group to move relative to each other, or by using an air-core coil to move in a magnetic gap. The energy generated is an instantaneous pulse, not a continuous pulse, of available energy. Specifically in the present invention, the generator 12 is configured to adopt a bidirectional power generation mode, that is, when the self-generation core module 10 is driven by an external force, the driving member 121 of the generator 12 is forced. Swing, the generator 12 generates electricity once, and when the reset member 15 resets the driving member 121, the driving member 121 resets and swings, and the generator 12 generates electricity again. That is to say, when the user When the self-power generation core module 10 is driven and operated once, the generator 12 can generate electricity twice, thereby improving the power generation efficiency of the self-power generation core module 10 and ensuring the stable performance of the self-power generation core module 10 sex. In particular, the driving member 121 of the generator 12 is disposed at one end of the generator 12 , that is, the generator 12 uses a single-sided trigger to generate electricity, which is beneficial to the miniaturization of the generator 12 The design facilitates the generator 12 to be compactly housed in the base 11 . Further, with reference to FIG. 3 in detail, the generator 12 includes a magnet assembly 122 and an iron core 123 . The magnet assembly 122 includes a top magnet 1221 and a bottom magnet 1222 . The top magnet 1221 A magnetic gap 1223 is formed between the bottom magnetic member 1222 and the iron core 123 is provided with a coil. When the driving member 121 is forced to swing, the magnetic group 122 and the iron core 123 undergo relative displacement, causing the direction of the magnetic flux lines passing through the coil to change, thereby generating an induced current. Preferably, in the present invention In this embodiment, the iron core 123 is linked to the driving member 121, and when the driving member 121 is forced to swing, the magnetic group 122 remains stationary, and the iron core 123 The driving member 121 is linked to cause relative displacement with the magnet group 122 , wherein the magnet group 122 remains stationary, which is conducive to the miniaturization design of the generator 12 , so that the generator 12 can be based on the miniaturization of the generator 12 . The miniaturized design further enhances the miniaturization advantage of the self-generated power core module 10, and the magnetic group 122 remains stationary, and the structural design of the movement ofthe iron core 123 is conducive to reducing the required movement of the generator 12 The space is conducive to the compact design ofthe self-generating core module 10. It can be understood that in some embodiments, the generator 12 can also adopt a power generation method in which the magnet group 122 moves and the iron core 123 remains stationary. Specifically, that is, the magnet group 122 is linked and coupled to the When the driving member 121 is forced to swing, the iron core 123 remains stationary, and the magnetic group 122 is linked by the driving member 121 so that the top magnetic member 1221 ofthe magnetic group 122 and the bottom magnetic part 1222 alternately contacts the iron core 123. This structural design will affect the miniaturization and miniaturization design of the self-generated core module 10 to a certain extent, and is only an option ofthe present invention, implementation plan. It is worth mentioning that according to the disclosure ofthe present invention, the self-power core module 10 can be made thinner and smaller, so the self-power core module 10 can be applied in various small and micro control devices. , to provide a miniaturized and miniaturized self-power generation control device, and to provide a miniaturized and portable passive control device with self-power generation capability that meets market expectations. With specific reference to FIGS. 5Aand 5B of the accompanying drawings of the present invention, a watch-type self-power control device 20 based on the application of the self-power core module 10 of the first embodiment of the present invention is schematically illustrated, wherein the watch The automatic power generation control device 20 includes a dial 21, a watch strap 22 and the self-power core module 10. The dial 21 includes an upper dial 211 and a lower dial 212. The upper dial 211 is installed on the lower dial. The dial 212 forms a receiving space 213 between the upper dial 211 and the lower dial 212 , wherein the watch band 22 is connected to the dial 21 , so that the watch-type self-generating control device 20 is suitable for Portable and worn by the user, wherein the base 11 of the self-power core module 10 is installed on the lower dial 212 to form the accommodation space in which the self-power core module 10 is accommodated in the dial 21 213, the upper dial 211 is provided with at least one button 2111, the driver 121 of the selfgenerating core module 10 is linked to the button 211 and is in a state where the button 2111 is operated. Swing under force. It is worth mentioning that the self-power core module 10 can be made thin and small, so that the self-power core module 10 can take into account both thickness and plane size, and thus can be applied to the watch-type automatic watch. On the power generation control device 20, and when the self-power generation core module 10 is applied to the watch-type self-power generation control device 20, the size of the dial 21 of the watch-type self-power generation control device 20 is the same as that of a conventional watch. The size of the dial tends to be consistent. When the user wears the watch-type self-generating control device 20, the dial 21 will not protrude abruptly on the user's arm and will not hinder the user's movement and is not prone to collisions, which satisfies the market The demand for miniaturized and miniaturized control equipment enables users to flexibly control electrical equipment through control equipment that can be carried around. At the same time, the watch-type self-generating control equipment 20 is self-generating and does not need to be powered by batteries. It has significant advantages in terms of environmental protection and use. In particular, based on the technical solution of the present invention, the self-generating core module 10 is made extremely thin and small, and the plane size of the self-generating core module 10 is made smaller than the dial size of a conventional watch. , therefore, in order to ensure that the size of the watch-type self-power generation control device 20 can be consistent with that of a conventional watch, the present invention also needs to increase the planar size of the self-power generation core module 10 so that the self-power generation core The module 10 can be installed in the dial 21. Specifically, the base 11 further includes a side wall 115 extending outward from the side wall 112 to increase the self-generating core module. Regarding the planar size of the group 10, specifically in this application, the secondary side wall 115 extends outward from the longitudinal side wall 1121, thereby increasing the size of the self-generating core module 10 in its width direction. It is worth mentioning that the watch-type self-power generation control device 20 further includes a waterproof silicone ring 23, wherein the waterproof silicone ring 23 is placed on the base 11 of the self-power generation core module 10 to Improve the waterproof performance of the watchtype self-power generation control device 20, wherein the watch-type self-power generation control device 20 can reach IP67 waterproof level to ensure the performance stability of the watch-type self-power generation control device 20 and enrich the usage scenario of the watch-type automatic power generation control device 20 is convenient for users to wear the watch-type automatic power generation control device 20 with them. In particular, the present invention provides a technical solution for a watch-type self-generated power control device 20. The mechanical push-type self-generated core module 10 is embedded in the watch and can control wireless receiving equipment within a range of about 100 meters, so that Some elderly people or people with mobility impairments carry the watch-type self-generating power control device 20 with them so that when encountering an emergency, they do not have to look for mobile phones and other communication devices, but can quickly connect by pressing the watch-type self-generating power control device 20 The mobile terminal equipment or network equipment bound to it sends out a distress signal in the shortest time to protect life safety. Therefore, the technical solution provided by the present invention has important value and significance. It is understandable that as a communication device in emergency situations, it can save lives at critical moments. If it is powered by batteries, it may not be usable at critical moments due to factors such as insufficient battery power, delaying precious rescue opportunities. Therefore, the watch-type self-generated power control device 20 adopts a self-generated power method, which can effectively send out distress signals at critical moments. This is the long-term and reliable application basis of the watch-type self-generated power control device 20 and is also the basis for receiving this type of power in the market, key factors of the product. It can be understood that, based on the disclosure of the present invention, if the internal space of the watchtype self-power generation control device 20 allows, other mechanical push-type power generation devices can also be installed in the watch-type self-power generation control device 20, such as The self-generating core module 10 disclosed in the present invention can be upgraded in subsequent models, etc., and can send out wireless control signals after being pressed, which also belongs to the protection scope of the present invention. Furthermore, based on the disclosure of the present invention, the self-generating core module provided by the present invention has the advantages of miniaturization and can be applied in miniaturized and miniaturized control equipment, providing miniaturized and miniaturized control equipment capable of self-generating power. , it can be understood that within the disclosure limitations of the present invention, the structural design of the self-generated core module is not limited to the disclosure of the first embodiment of the present invention. Therefore, in order to facilitate understanding of the present invention, the present invention further provides A second embodiment. With specific reference to Figures 6 to 9 of the accompanying drawings of the present invention, a self-generating core module 10A according to a second embodiment of the present invention is schematically illustrated, wherein the self-generating core module 10A includes a base 11 A, a generator 12A, a radio frequency circuit board 13Aand a helical antenna 14A, wherein the generator 12A, the radio frequency circuit board 13A and the helical antenna 14A are accommodated in the base 11 A, The generator 12A has a driving member 121 A. When the driving member 121A is forced to swing in the thickness direction of the self-generating core module 10A, the generator 12A generates electrical energy to supply power to the radio frequency circuit board 13A. The helical antenna 14Ais fed and connected to the radio frequency circuit board 13Aand is configured to transmit and / or receive corresponding signals when the radio frequency circuit board 13A is powered, so as to control the corresponding equipment or Matching, wherein the selfgenerating core module 10A includes a reset member 15A, the reset member 15A is linked to the driving member 121Aof the generator 12Aand resets the driving member 121A through elastic reset performance. Movement, in which the space occupied by the reset member 15A required to deform under force is the deformation movement space 150A, and the helical antenna 14A is misaligned with the deformation movement space 150A in the thickness direction of the selfgenerating core module 10A. The state is placed flat on the base 11 A, thereby preventing the deformation movement space 150A of the reset member 15A and the helical antenna 14A from overlapping in the thickness direction of the self-generated core module 10A, so as to effectively Reduce the thickness of the self-generated core module 10A. In particular, the present invention is based on the structural characteristics of the helical antenna 14A itself, that is, the structural characteristics of the helical antenna. The helical antenna 14Ais placed flat on the base 11A in a state of being misaligned with the deformation movement space 150A. The space required for deformation of the helical antenna 14A and the reset member 15A is misaligned with each other in the thickness direction of the self-generated core module 10A, thereby avoiding the deformation movement space 150Aof the reset member 15Aand the space required for deformation of the reset member 15A. The helical antenna 14A is stacked in the thickness direction of the self-generating core module 10A, breaking through the common ideas and solutions in the prior art of using flat-panel antennas to reduce the thickness, and avoiding the expansion of the plane size caused by the use of flat-panel antennas. At the same time, all The helical antenna 14A is placed flat on the base 11A, that is, the helical antenna 14A is accommodated on the base in a state where its length direction is perpendicular or tends to be perpendicular to the thickness direction of the self-generating core module 10A. The base 11A avoids the increase in the thickness of the self-power core module 10A caused by the helical antenna 14A standing on the base 11 A, so that the thickness of the self-power core module 10A can be reduced while reducing the thickness of the self-power core module 10A. The selfgenerated power core module 10A is made smaller. It is worth mentioning that the self-power generation core module 10A can be made thinner and smaller, thereby enabling miniaturization and miniaturization of the corresponding self-power generation control equipment, wherein the self-power generation core module 10A is based on the 12A mechanical energy of the generator is converted into electrical energy without the need for additional battery power supply. This provides a self-generated power generation solution for the field of miniaturized and miniaturized control equipment and avoids the environmental problems and frequent replacement or charging caused by battery power supply. Therefore, based on the solution of the present invention, a portable passive control device with self-generating capability and miniaturization that meets market expectations can be provided. In particular, the structural design of the self-power core module 10A makes full use of the objectively existing thickness, the structural arrangement is reasonable, and the structure is more compact. Therefore, the self-power core module 10A is used in the corresponding self-power control. When installed, the thickness and plane size of the self-generated power control equipment can be reduced to meet the needs of miniaturization and miniaturization. Specifically, where the base 11A accommodates the generator 12A, the thickness of the generator 12A is objectively present in the self-generated core module 10A, and the helical antenna 14Ais designed to match the deformation The misaligned movement space 150A is placed flat on the base 11 A, thereby preventing the deformation movement space 150Aofthe reset member 15A and the helical antenna 14Afrom overlapping in the thickness direction of the self-generated core module 10A. In this way, the objectively existing thickness of the self-generated core module 10A is effectively utilized based on the misalignment of the deformation movement space 150Aofthe helical antenna 14A and the reset member 15A, that is, the deformation movement space 150A utilizes the selfgenerated core module 10A. The objective thickness of the power generation core module 10A is configured, and the helical antenna 14A is also placed flat on the base 11A using the objective thickness of the self-power generation core module 10A, thereby effectively avoiding the selfpowergeneration core module 10A. On the basis of the objectively existing thickness of the group 10A, due to the superposition of the deformation movement space 150Aof the reset member 15A and the helical antenna 14A, an additional increase in the thickness of the self-generating core module 10A is fully utilized. The objectively existing thickness enables the self-power core module 10Ato be made thin. It is worth mentioning that while ensuring that the self-power generation core module 10A is made thin and small, it also further ensures that the self-power generation core module 10A can have sufficient mechanical strength to improve the power of the generator. 12A driving effect. In detail, the self-generated power core module 10A includes a force guide arm 16A, wherein the force guide arm 16Ais pivotably installed on the base 11 A, and the driving member 121A of the generator 12A is coupled to the guide arm 16A, wherein the guide arm 16A pivots in a state where the selfgenerated core module 10A is operated by an external force to link the driving member 121A to swing, so that based on the linkage of the force guide arm 16Ato the driving member 121A reduces the operating driving force of the self-generated core module 10A, that is, the force guide arm 16A exerts a leverage effect on the driving member 121 A, so the user only needs to exert The smaller driving force can drive the generator 12A to generate electricity, which is easy to operate. In particular, in this embodiment of the present invention, by arranging the pivoting direction of the guide arm 16Ato be opposite to the pivoting direction of the driving member 121Aof the generator 12A, that is, when the generator 12A When the driving member 121A swings clockwise, the guiding arm 16A pivots counterclockwise, thereby realizing the linkage driving of the driving member 121A by the guiding arm 16Aand improving the lever effect of 16Aon the driving member 121A reduces the operating driving force of the self-generated core module 10A. Specifically, the guide arm 16A has a rotation shaft 161A and a guide plate 162A extending from the radial direction of the rotation shaft 161A, wherein the guide arm 16A is pivotably mounted on the rotation shaft. Base 11 A, wherein the guide arm 16A is preferably disposed in a state where the guide plate 162A is opposite to the driving member 121 A, so that the pivot direction of the guide arm 16A is consistent with the generator 12A. The pivoting directions of the driving member 121A are opposite, thereby improving the driving effect of the guide arm 16A on the driving member 121A based on the opposite force guide plate 162Aand the driving member 121 A, and helping to avoid the thicknesses of the force guide arm 16Aand the generator 12A are directly superimposed, that is, the force guide arm 16Aand the generator 12A are arranged oppositely, so the force guide arm 16A will not be simply superimposed on the generator 12A. Above the generator 12A, the direct superposition of the thicknesses of the force guide arm 16A and the generator 12A is avoided, which is conducive to making the self-power generation core module 10A thin. Preferably, the helical antenna 14Ais accommodated in the base 11A in a state of being disposed below the rotating shaft 161A along the pivoting force-bearing direction of the force guide plate 162A, so that the helical antenna 14A is realized. While the antenna 14A and the deformation movement space 150Aof the reset member 15Aare dislocated, the objectively existing thickness of the self-generating core module 10A is effectively utilized to avoid an additional increase in the thickness of the self-generating core module 10A. This enables the self-generated core module to be made thin. In detail, the helical antenna 14A is accommodated in the base 11A in a state of being arranged below the rotating shaft 161A along the pivoting force-bearing direction of the force guide plate 162A. In other words, the helical antenna 14Ais disposed under the guide arm 16A, specifically underthe rotation axis 161Aof the guide arm 16A, where the thickness of the generator 12Ain the self-generated core module 10A is Objectively speaking, in order to be able to drive the driving member 121A in conjunction, the force guide arm 16A needs to be set slightly higher than the driving member 121Aat the height of the self-generated core module 10A. Therefore, the force guide arm 16AThe arrangement will create an empty space underthe guide arm 16A, then the helical antenna 14Ais arranged underthe guide arm 16A, which will effectively utilize the generator 12A in the self-generated core mode. The objective thickness produced by the group 10A avoids an additional increase in the thickness of the self-power core module 10A, so that the self-power core module 10Acan be made thin. That is to say, the present invention improves the driving effect of the guide arm 16Aon the driving member 121A through the relative arrangement of the guide arm 16A and the driving member 121 A, while also improving the driving effect of the guide arm 16A. An empty space is formed below that can accommodate the helical antenna 14A, thereby effectively utilizing the objectively existing thickness of the self-power core module 10A, and conducive to a more compact structure of the self-power core module 10A. The technical effect of killing two birds with one stone is conducive to realizing the miniaturization and miniaturization of the self-power generation core module 10A, and ensuring the performance of the self-power generation core module 10A. In particular, the force guide arm 16A has a flange 163A, wherein the flange 163A extends from the side of the force guide plate 162A facing the driving member 121A in a direction close to the driving member 121A, in this way, the movement intensity of the guide arm 16A is increased, and the driving effect of the guide arm 16Aon the driving member 121Ais improved. It is worth mentioning that the force guide arm 16A has a reflective edge 164A, and the reflective edge 164A extends from the side of the force guide plate 162A away from the driving member 121A and away from the driving member 121A. Extending in the direction of the member 121, the folded edge 164A is preferably provided on a side of the force guide plate 162A away from the rotating shaft 161A, so as to increase the movement intensity of the force guide arm 16A and improve the force guide. The driving effect of the arm 16Aon the driving member 121 A. It can be understood that the reason why the guide arm 16A is slightly higher than the driving member 121A at the height of the self-generated core module 10A is based on the direction of force exerted by the user on the self-generated core module 10A. is defined from top to bottom, that is, the pivoting force direction of the force guide plate 162 is from top to bottom. In the actual installation and application of the self-generated core module 10A, the force guide arm 16Amay be in the actual physical level is below the driving member 121 A, as those skilled in the art will understand. The reset member 15Acan be implemented as a torsion spring, a double torsion spring, a circular spring, a dome piece, a phosphor bronze piece or an elastic piece, or other elements with elastic properties, and the present invention is not limited thereto. Preferably, in this embodiment of the invention, the return member 15A is implemented as a double torsion spring and includes a first spring body 151 A, a second spring body 152Aand a connecting rod 153A, wherein the connecting rod The two ends of 153A are connected to the first spring body 151A and the second spring body 152A respectively. The connecting rod 153Ahas two longitudinal rods 1531A extending in the same direction from its two ends and connected to the two longitudinal rods. The transverse rods 1532A between 1531A are linked and coupled to the driving member 121 A. The extension direction of the two longitudinal rods 1531A is opposite to the extension direction of the force guide plate 162Ato ensure the reset. The reset performance of the component 15Aon the driving component 121A is conducive to a more compact structural design of the selfgenerating core module 10A, and is conducive to the miniaturization and miniaturization of the selfgenerating core module 10A. Further, the reset member 15A further includes two fixed ends 154Aand 155A, the two fixed ends 154A and 155A respectively extend from the first spring body 151A and the second spring body 152A, and the base 11A There are receiving grooves 1125Aon both sides, and the two fixed ends 154Aand 155A respectively extend into the receiving grooves 1125Aon both sides of the base 11A to be stabilized by the receiving grooves 1125A, further making all the parts of the reset member 15AThe first spring body 151A and the second spring body 152A are stabilized and not easy to fall off. Compared with other types of stabilization methods, the receiving grooves 1125A are provided on both sides of the base 11A to stabilize the method of the return member 15Acan significantly reduce the width of the base 11 A, and also reduce the length of the protrusions 1124A on both sides, so that the return member 15Acan be arranged in an extremely narrow width, while preventing the two fixed ends from being 154Aand 155A fall off during the operation of the selfgenerating core module 10A. Specifically, in order to be able to reset the movement of the driving member 121 A, the transverse rod 1532A of the reset member 15A needs to be disposed under the driving member 121 A, or be directly connected to the driving member 121A, or be disposed the driving member 121A is reset by resetting the guiding arm 16A. That is to say, the height of the transverse rod 1532A in the selfgenerating core module 10A is slightly lower than the heights of the driving member 121A and the driving member 121Atend to be consistent, so the return member 15A is disposed in a state where the extending direction of the two longitudinal rods 1531A is opposite to the extending direction of the force guide plate 162A, so that The arrangement of the return member 15Aon the base 11A can also make full use of the objective thickness of the self-generated core module 10A, that is, the first spring body 151A and the second spring of the return member 15A. The body 152A is arranged on both sides of the generator 12A, and at the same time, based on the relative arrangement of the relative reset member 15A and the guide arm 16A, it ensures the reset performance of the reset member 15Ato the driving member 121A. To achieve the effect of killing two birds with one stone. Further, with reference to Figure 9 of the accompanying drawings of the present invention, the base 11A includes a bottom plate 111A and side walls 112A arranged around the periphery of the bottom plate 111 A, wherein the generator 12Ais installed on the bottom plate. 111A and is limited by the side wall 112A. Refer to Figures 6, 7 and 9, in which the reset member 15Aand the guide arm 16Aare installed by means of the side wall 112A, with the base located at The two side walls 112A in the length direction of the base 11Aare the longitudinal side walls 1121Aof the base 11A, and the two side walls 112A in the width direction of the base 11A are the transverse side walls 1122Aof the base 11A., wherein the two longitudinal side walls 1121Aeach have a mounting piece 1123A designed in the form of a shaft hole or an axis arm, and the guide arm 16Ais mounted on the mounting piece of the two longitudinal side walls 1121A with its rotation axis 161A. 1123A is pivotably mounted on the base 11 A, in which the two longitudinal side walls 1121A are respectively provided with the protrusions 1124A, the first spring body 151A of the return member 15Aand the second spring body 152A is respectively placed on the protruding pillars 1124A of the two longitudinal side walls 1121A and is installed on the base 11 A. Specifically, in this embodiment of the present invention, the two protruding pillars 1124A are respectively The position of the two longitudinal side walls 1121A relative to both sides of the generator 12A enables the arrangement of the reset member 15A on the base 11A to fully utilize the objective thickness of the selfgenerating core module 10A. In particular, in this embodiment of the present invention, the length of the helical antenna 14A is set so that the straight-line distance between the two ends of the helical antenna 14A is equal to the distance between the two longitudinal side walls 1121 A. In this embodiment, , the helical antenna 14A is accommodated in the base 11A with its two ends respectively abutting the two longitudinal side walls 1121 A, which is conducive to improving the structural compactness of the self-generated core module 10A. , wherein the guide arm 16Aand the driving member 121Aare arranged relative to each other. When the guide arm 16A is installed on the base 11A based on the mounting member 1123A, the base 11A is in the guide position. There is a vacant space below the rotating shaft 161A of the lever arm 16A to form an antenna compartment 113A that can accommodate the helical antenna 14A. The two ends of the helical antenna 14Aare respectively in contact with the two longitudinal side walls 1121 A. is accommodated in the antenna compartment 113A, so as to improve the driving effect of the force guide arm 16A on the driving member 121A and reduce the self-generated power based on the relatively arranged force guide plate 162A and the driving member 121 A. In addition to the size of the core module 10A, the structural design of the self-power core module 10A is further optimized, making the structure of the self-power core module 10A more compact, which further facilitates the performance of the self-power core module 10 Miniaturization and miniaturization. It is worth mentioning that in this embodiment of the present invention, the size of the radio frequency circuit board 13A is designed to satisfy that the distance between two opposite sides of the radio frequency circuit board 13A is equal to the distance between the two transverse side walls 1122A. , furthermore, when the radio frequency circuit board 13A is accommodated in the base 11 A, it can be clamped and limited by the two transverse side walls 1122A, where the distance between the other two opposite sides of the radio frequency circuit board 13A is designed When the radio frequency circuit board 13A is accommodated in the base 11 A, it can be clamped and limited by the two longitudinal side walls 1121A to ensure the structural stability of the self-generated core module 10. In the present invention, in this embodiment, since the radio frequency circuit board 13A is clamped and limited by the side wall 112A, the radio frequency circuit board 13Acan be accommodated in a state of being disposed under the bottom plate 111A. The base 11A is used to facilitate optimization of the design of the bottom plate 111A to meet the load bearing capacity of the bottom plate 111A for other components, thereby improving the structural compactness of the self-generated core module 10A. Further, according to the disclosure of the present invention, in order to reduce the volume of the self-generated core module 10A, the radio frequency circuit board 13Acan be disposed below the guide arm 16A, so that the radio frequency circuit board 13A does not need to occupy additional space. Due to the spatial arrangement, the force guide arm 16A will not touch the radio frequency circuit board 13Awhen it moves. Furthermore, in order to further ensure the structural stability of the self-power generation core module 10A, the bottom plate 111A is provided with a positioning tongue 114A, wherein the positioning tongue 114A includes a tongue body 1141A and a tongue body 1141A. A tongue tip 1142A and a tongue base 1143A extend respectively from both ends, wherein the tongue body 1141A is installed on the bottom plate 111 A, and the tongue tip 1142A is at one end of the tongue body 1141A away from the tongue body 1141A. The tongue base 1143A extends in the direction away from the bottom plate 111Afrom the tongue body 1141Aatthe other end of the tongue body 1141 A, where the end where the driving member 121A is located is the generator. 12A, the generator 12A is mounted on the positioning tongue 114A with its front end facing the tongue tip 1142Aand is limited by the tongue tip 1142Aand the tongue base 1143A, thereby being held by the positioning tongue 114A and the tongue base 1143A. The side wall 112A is limited and accommodated in the base 11, so that the generator is limited and fixed under the interaction between the tongue tip 1142Aand the tongue base 1143Aofthe positioning tongue 114Aandthe side wall 112A. 12A, while ensuring the structural compactness of the self-power generation core module 10A, the structural stability of the self-power generation core module 10A is ensured. In particular, in order to ensure the structural compactness of the self-power generation core module 10A, the positioning tongue 114A is disposed in a state where the tongue base 1143A is close to one of the transverse side walls 1122A. Preferably, the positioning tongue The tongue base 1143A of 114A is in contact with one of the lateral side walls 1122A, thereby ensuring the compact structure of the self-power generation core module 10A. It is worth mentioning that in this embodiment of the present invention, the other end of the tongue body 1141A of the positioning tongue 114A is abutted against one of the lateral side walls 1122A so that the lateral side wall The wall 1122A forms the tongue base 1143A of the positioning tongue 114A, which helps to simplify the structural design of the self-power core module 10A while ensuring the compactness of the self-power core module 10A. Particularly, in some embodiments, the positioning tongue 114A may be configured such that the tongue tip 1142Aand the tongue base 1143A directly extend from the bottom plate 111 so that the bottom plate 111A equivalently constitutes the tongue body 1141 A, this is beneficial to simplifying the structural design of the self-power generation core module 10A. It is worth mentioning that the generator 12A is configured to adopt a bidirectional power generation mode, that is, when the self-generation core module 10A is driven by an external force, the driving member 121A of the generator 12A is forced to swing. , the generator 12A generates electricity once, and when the reset member 15A resets the driving member 121 A, the driving member 121A resets and swings, and the generator 12A generates electricity again, that is to say, when the user once When driving and operating the self-power generation core module 10A, the generator 12A can generate electricity twice, thereby improving the power generation efficiency of the self-power generation core module 10A and ensuring the performance stability of the self-power generation core module 10 . In particular, the driving member 121A of the generator 12A is disposed atone end of the generator 12A, that is, the generator 12A uses a single-sided trigger to generate electricity, which is beneficial to the miniaturization of the generator 12A. The design facilitates the generator 12A to be compactly housed in the base 11 A. Further, referring to FIG. 8 in detail, the generator 12A includes a magnet group 122Aand an iron core 123A. The magnet group 122A includes a top magnet 1221Aand a bottom magnet 1222A. The top magnet 1221A A magnetic gap 1223A is formed between the bottom magnetic member 1222A, wherein the iron core 123A is provided with a coil, and the iron core 123A is provided in the magnetic gap 1223A, wherein all parts of the generator 12A When the driving member 121A is forced to swing, the magnetic group 122Aand the iron core 123A undergo relative displacement, causing the direction of the magnetic flux lines passing through the coil to change, thereby generating an induced current. It is preferable in the present invention In this embodiment, the iron core 123Ais coupled to the driving member 121 A, and when the driving member 121A is forced to swing, the magnetic group 122A remains stationary, and the iron core 123AThe driving member 121A is linked to cause relative displacement with the magnet group 122A, and the magnet group 122A remains stationary, which is conducive to the miniaturization design of the generator 12A, so that the generator 12Acan be based on the miniaturization of the generator 12A. The miniaturized design further enhances the miniaturization advantage of the self-generated core module 10A, and the magnetic group 122A remains stationary, and the structural design of the movement of the iron core 123A is conducive to reducing the movement required by the generator 12A. The space is conducive to the compact design of the self-power generation core module 10A. It can be understood that in some embodiments, the generator 12A can also adopt a power generation method in which the magnet group 122A moves and the iron core 123A remains stationary. Specifically, that is, the magnet group 122A is linked and coupled to the driving member 121 A, when the driving member 121A is forced to swing, the iron core 123A remains stationary, and the magnetic group 122A is linked by the driving member 121A so that the top magnetic member 1221A of the magnetic group 122A and the bottom magnetic part 1222A alternately contacts the iron core 123A. This structural design will affect the miniaturization and miniaturization design of the self-generated core module 10A to a certain extent, and is only an option of the present invention, implementation plan. It can be understood that the detailed structure of the generator 12 disclosed in the embodiment is not intended to limit the present invention. According to specific needs, the specific structure of the generator 12 can be selectively implemented, and the present invention does not make any changes in this regard, limit. It is worth mentioning that according to the disclosure of the present invention, the self-power core module 10Acan be made thinner and smaller, so the self-power core module 10Acan be used in various small and micro control devices. , to provide a miniaturized and miniaturized self-power generation control device, and to provide a miniaturized and portable passive control device with self-power generation capability that meets market expectations. With specific reference to Figures 10A and 10B of the accompanying drawings of the present invention, a small button type self-power generation control device 30 based on the application of the self-power generation core module 10Aof the second embodiment of the present invention is schematically illustrated, wherein the small button type self-power generation control device 30 includes a housing 31 and the self-power generation core module 10A. The housing 31 includes a base 311 and a panel 312. The base 311 has a receiving cavity 3111. The panel 312 is installed on the base 311 to cover the accommodation cavity 3111, in which the self-generated power core module 10Ais accommodated in the accommodation cavity 3111 of the housing 31. The panel 312 is provided with There is at least one button 3121. The driving member 121A is coupled to the button 3121 and is forced to swing when the button 3121 is operated. It is worth mentioning that the self-power core module 10A can be made thinner and smaller, so that the self-power core module 10A can take into account both thickness and plane size, so it can be applied to the small button. On the power generation control device 30, and when the selfpower generation core module 10A is applied to the small button type self-power generation control device 30, the size of the small button type self-power generation control device 30 can also be reduced, so that the small button type self-generating control device 30 can be flexibly installed or carried to meet the market demand for miniaturized and miniaturized control devices. Furthermore, in order to facilitate understanding of the present invention, the present invention also provides a third embodiment. Specifically, with reference to Figures 11 to 14 of the accompanying drawings of the present invention, a self-generating core module 10B of a third embodiment of the present invention is shown, is illustrated, wherein the self-generated core module 10B includes a base 11B, a generator 12B, a radio frequency circuit board 13B and a helical antenna 14B, wherein the generator 12B, the radio frequency circuit board 13B and the helical antenna 14B is accommodated in the base 11B, wherein the generator 12B has a driving member 121B, and the generator 12B is forced by the driving member 121B in the thickness direction of the self-generating core module 10B. When swinging, electric energy is generated to power the radio frequency circuit board 13B, wherein the helical antenna 14B is feed-connected to the radio frequency circuit board 13B and is configured to transmit and / or receive in a state where the radio frequency circuit board 13B is powered. Corresponding signals are used to control or match the corresponding equipment, wherein the self-generated power core module 10B includes a reset component 15B, and the reset component 15B is coupled to the driving component of the generator 12B. 121B and resets the movement of the driving member 121B through elastic reset performance, wherein the space occupied by the reset member 15B required to deform due to force is the deformation movement space 150B, and the helical antenna 14B is in the selfgenerating core mode. The group 10B and the deformation movement space 150B are placed flat on the base 11B in a state of misalignment in the thickness direction, thereby preventing the deformation movement space 150B of the reset member 15B and the helical antenna 14B from generating electricity in the self-generated state. The core modules 10B are stacked in the thickness direction, thereby effectively reducing the thickness of the self-generating core module 10B. In particular, the present invention is based on the structural characteristics of the helical antenna 14B itself, that is, the structural characteristics of the helical antenna. The helical antenna 14B is placed flat on the base 11B in a state of being misaligned with the deformation movement space 150B. In this way, the spaces required for deformation of the helical antenna 14B and the reset member 15B are misaligned with each other in the thickness direction of the self-generated core module 10B, thereby avoiding the deformation movement space 150B of the reset member 15B and the space required for deformation of the reset member 15B. The helical antenna 14B is superimposed in the thickness direction of the self-generating core module 10B, breaking through the common ideas and solutions in the prior art of using flat-panel antennas to reduce the thickness, and avoiding the expansion of the plane size caused by the use of flat-panel antennas. At the same time, all the helical antenna 14B is placed flat on the base 11B, that is, the helical antenna 14B is accommodated on the base in a state where its length direction is perpendicular or tends to be perpendicular to the thickness direction of the self-generating core module 10B. The base 11B avoids the increase in the thickness of the self-power core module 10B caused by the helical antenna 14B standing on the base 11B, so that the thickness of the self-power core module 10B can be reduced while reducing the thickness of the self-power core module 10B. The selfgenerated power core module 10B is made smaller. It is worth mentioning that the self-power generation core module 10B can be made thinner and smaller, thereby enabling miniaturization and miniaturization of the corresponding self-power generation control equipment. The self-power generation core module 10B is based on the Generator 12B converts mechanical energy into electrical energy without the need for additional battery power. This provides a self-generated power generation solution for the field of miniaturized and miniaturized control equipment and avoids the environmental problems and frequent replacement or charging caused by battery power supply. Therefore, based on the solution of the present invention, a portable passive control device with self-generating capability and miniaturization that meets market expectations can be provided. In particular, the structural design of the self-power core module 10B makes full use of the objectively existing thickness, the structural arrangement is reasonable, and the structure is more compact. Therefore, when the self-power core module 10B is used in the corresponding self-power control When installed, the thickness and plane size of the self-generated power control equipment can be reduced to meet the needs of miniaturization and miniaturization. Specifically, the base 11B accommodates the generator 12B, the thickness of the generator 12B is objectively present in the self-generated core module 10B, and the helical antenna 14B is in a manner consistent with the deformation. The misaligned movement space 150B is placed flat on the base 11B, thereby preventing the deformation movement space 150B of the reset member 15B and the helical antenna 14B from overlapping in the thickness direction of the self-generated core module 10B. In this way, the objectively existing thickness of the self-generated core module 10B is effectively utilized based on the misalignment of the deformation movement space 150B of the helical antenna 14B and the reset member 15B, that is, the deformation movement space 150B utilizes the self-generated core module 10B. The objectively existing thickness of the power generation core module 10B is configured, and the helical antenna 14B is also placed flat on the base 11B using the objectively existing thickness of the self-power generation core module 10B, thereby effectively avoiding the self-power generation core module 11B. On the basis of the objectively existing thickness of group 10B, due to the superposition of the deformation movement space 150B of the reset member 15B and the helical antenna 14B, the additional increase in the thickness of the self-generating core module 10B is fully utilized. The objectively existing thickness enables the self-power core module 10B to be made thin. It is worth mentioning that while ensuring that the self-power generation core module 10B is made thin and small, it also further ensures that the self-power generation core module 10B can have sufficient mechanical strength to improve the power of the generator. 12B driving effect. In detail, the self-generated power core module 10B includes a force guide arm 16B, wherein the force guide arm 16B is pivotably installed on the base 11B, and the driving member 121B of the generator 12B is coupled to the guide arm 16B, wherein the guide arm 16B pivots in a state where the selfgenerated power core module 10B is operated by an external force to link the swing of the driving member 121B, so that based on the linkage of the force guide arm 16B on the driving member 121B reduces the operating driving force of the self-generated core module 10B, that is, the force guide arm 16B exerts a leverage effect on the driving member 121B, so the user only needs to exert The generator 12B can be driven in conjunction with a smaller driving force to generate electricity, which is easy to operate. In particular, different from the first and second embodiments of the present invention, in the third embodiment of the present invention, the pivot direction of the guide arm 16B is consistent with the driving member 121B of the generator 12B. The pivoting direction is the same, that is, when the driving member 121B of the generator 12B swings clockwise, the guide arm 16B also pivots clockwise, which is beneficial to utilizing the objective existence of the generator 12B. The guide arm 16B is arranged in plan dimensions. Specifically, the guide arm 16B has a rotation shaft 161B and a guide plate 162B extending from the radial direction of the rotation shaft 161B, wherein the guide arm 16B is pivotably mounted on the rotation shaft. Base 11B, wherein the guide arm 16B is disposed in a state where the guide plate 162B is in the same direction as the driving member 121B, so that the pivoting direction of the guide arm 16B is consistent with the generator 12B The pivoting directions of the driving member 121B are in the same direction. Although this design method causes the thickness of the guide arm 16B and the generator 12B to directly overlap, it allows the arrangement of the guide arm 16B to be fully Utilizing the objectively existing plane size of the generator 12B, the plane size of the self-generating core module 10B can be further optimized and reduced, and because the present invention connects the helical antenna 14B to the deformation movement space 150B The misaligned state is placed flat on the base 11B to make full use of the objective thickness of the generator 12B, so that the self-generated power core module 10B is made thin, even if the force guide arm 16B and the generator 12B The thickness of the self-generating core module 10B is superimposed. The thickness of the self-generating core module 10B still has significant advantages over the existing technology. At the same time, based on the full utilization of the objectively existing plane size of the generator 12B, the self-generating core module 10B still has significant advantages over the existing technology. 10B has advantages in plane size, so it can meet specific use needs and meet the market's demand for miniaturized and miniaturized control equipment. In particular, the force guide arm 16B has a flange 163B, wherein the flange 163B extends from the side of the force guide plate 162B facing the driving member 121B in a direction close to the driving member 121B, in this way, the movement intensity of the guide arm 16B is increased, and the driving effect of the guide arm 16B on the driving member 121B is improved. That is to say, the guide arm 16B is disposed above the generator 12B and covers the driving member 121B, so as to facilitate the arrangement of the guide arm using the objective plane size of the generator 12B. 16B, reducing the space occupied by the guide arm 16B. One end of the guide arm 16B is pivotably connected to the base 11B, that is, the rotating shaft 161B of the guide arm 16B is disposed on the base 11B. The base 11B, and the other end pushes the driving member 121B through the end of the flange 163B; the position where the end of the flange 163B contacts the driving member 121B is set in a round head shape. Taper, or a vertical plate with a width less than 2 mm, to reduce the friction between the flange 163B and the driving member 121B, thereby significantly extending the service life. Furthermore, the driving member 121B can also be connected to the driving member 121B. The contact surface of the end of the flange 163B is provided as a smooth surface to reduce wear of the end of the flange 163B. It is worth mentioning that when the force guide arm 16B is driven, the end of the flange 163B makes a micro-sliding movement on the surface of the driving member 121B, so as to simplify the structure of the driving mechanism and improve the driving efficiency. At the same time, the end of the flange 163B of the force guide arm 16B slides at a micro distance on the surface of the driving member 121B, and cooperates with the mechanical elasticity of the driving member 121B to buffer the pressure during pressing. The stepped intensity effectively solves the problem of stiffness when pressing and improves the operating feel of the self-generating core module 10 . In this embodiment, the force guide arm 16B is arranged opposite to the radio frequency circuit board 13B, the force guide arm 16B is disposed above the generator 12B, and the radio frequency circuit board 13B is disposed above the generator 12B. below the generator 12B to make full use of the objectively existing plane size of the generator 12B to further reduce the plane size of the self-generated core module 10 . That is to say, in the overall structure of the self-generated core module 10, the force guide arm 16B, the generator 12B, and the radio frequency circuit board 13B are respectively arranged as an upper, middle, and lower three-layer stack, structure, the outer periphery or bottom is stabilized by the base 11B, ensuring the structural stability of the selfgenerated core module 10 while miniaturizing it. The reset member 15B can be implemented as a torsion spring, a double torsion spring, a circular spring, a dome piece, a phosphor bronze piece or an elastic piece, or other elements with elastic properties, and the present invention is not limited thereto. Preferably, in this embodiment of the invention, the return member 15B is implemented as a double torsion spring and includes a first spring body 151B, a second spring body 152B and a connecting rod 153B, wherein the connecting rod The two ends of 153B are connected to the first spring body 151B and the second spring body 152B respectively. The connecting rod 153B has two longitudinal rods 1531B extending in the same direction from its two ends and is connected to the two longitudinal rods. The transverse rods 1532B between the two longitudinal rods 1531B are linked to the driving member 121B, and the extension direction of the two longitudinal rods 1531B is opposite to the extension direction of the force guide plate 162B to ensure the reset. The resetting performance of the component 15B on the driving component 121B is conducive to a more compact structural design of the self-generating core module 10B, and is conducive to the miniaturization and miniaturization of the self-generating core module 10B. Initially, the two longitudinal rods 1531B of the reset member 15B are connected to the driving member 121B at an angle greater than 180 degrees through the connecting rod 153B, and due to the abutment above the driving member 121B, there is a certain the folding edge 163B, therefore, has a star-shaped connection relationship between the two longitudinal rods 1531B, the driving member 121B and the folding edge 163B. Preferably, the helical antenna 14B is disposed on the connection line of the first spring body 151B and the second spring body 152B of the reset member 15B along the pivoting force-bearing direction of the force guide plate 162B. The state below is accommodated in the base 11B, thereby realizing the offset arrangement of the helical antenna 14B and the deformation movement space 150B of the reset member 15B, and effectively utilizing the self-generated core module 10B. The objectively existing thickness avoids an additional increase in the thickness of the self-power core module 10B, so that the self-power core module can be made thin. In detail, the helical antenna 14B is arranged on the connection line of the first spring body 151B and the second spring body 152B of the reset member 15B along the pivoting force-bearing direction of the force guide plate 162B. The state below is accommodated in the base 11B. In other words, the helical antenna 14B is disposed under the reset member 15B and will not be in the thickness direction of the self-power core module 10B. Superimposed on the deformation movement space 150B of the reset member 15B, since the guide plate 162B of the guide arm 16B has the same pivot movement direction as the driving member 121B, the guide arm 16B is disposed above the generator 12B. The extension direction of the two longitudinal rods 1531B of the reset member 15B is opposite to the extension direction of the force guide plate 162B. Therefore, the reset member 15B is arranged on the If there is an empty space under the reset member 15B, the helical antenna 14B is arranged under the reset member 15B, which will effectively utilize the objective thickness of the generator 12B in the self-generated core module 10B to avoid The additional increase in the thickness of the self-power core module 10B enables the self-power core module 10B to be made thinner, while the helical antenna 14B is disposed between the first spring body 151B and the second spring body. Under the connection of body 152B, the helical antenna 14B and the deformation movement space 150B of the reset member 15B are also dislocated, which ensures that the self-power core module 10B can be made thin and is conducive to improvement. The self-generated power core module 10B has a compact structure. That is to say, the present invention improves the resetting effect of the reset member 15B on the driving member 121B through the relative arrangement of the reset member 15B and the driving member 121B, while also forming a The vacant space that can accommodate the helical antenna 14B can effectively utilize the objective thickness of the self-power core module 10B, and is conducive to a more compact structure of the self-power core module 10B, which is a technology that kills two birds with one stone. The effect is conducive to realizing the miniaturization and miniaturization of the self-power generation core module 10B, and ensuring the performance of the self-power generation core module 10B. Further, referring to Figure 14 of the accompanying drawings of the present invention, the base 11B includes a bottom plate 111B and side walls 112B arranged around the periphery of the bottom plate 111B, wherein the generator 12B is installed on the bottom plate. 111B and is limited by the side wall 112B. Refer to Figures 11,12 and 14, in which the reset member 15B and the guide arm 16B are installed with the aid of the side wall 112B, with the base located at The two side walls 112B in the length direction of the base 11B are the longitudinal side walls 1121B of the base 11B, and the two side walls 112B in the width direction of the base 11B are the transverse side walls 1122B of the base 11B. , wherein the two longitudinal side walls 1121B each have a mounting piece 1123B designed in the form of an axis hole or an axis arm, and the guide arm 16B is mounted on the mounting piece of the two longitudinal side walls 1121B with its rotating shaft 161B. 1123B is pivotably mounted on the base 11B. Specifically, in this embodiment of the invention, the two mounting members 1123B are respectively located on both sides of the two longitudinal side walls 1121B opposite to the generator 12B. On the side, the arrangement of the reset member 15B on the base 11B can make full use of the objectively existing plane size of the self-generated core module 10B, in which the two longitudinal side walls 1121B each also have a convex Column 1124B, the first spring body 151B and the second spring body 152B of the return member 15B are respectively placed on the protruding columns 1124B of the two longitudinal side walls 1121B and are installed on the base 11B . In particular, in this embodiment of the present invention, the length of the helical antenna 14B is set so that the straight-line distance between the two ends of the helical antenna 14B is equal to the distance between the two longitudinal side walls 1121B. In this embodiment, , the helical antenna 14B is accommodated in the base 11B in a state where its two ends are respectively in contact with the two longitudinal side walls 1121B, which is conducive to improving the structural compactness of the self-generated core module 10B. , wherein the reset member 15B and the driving member 121B are arranged relative to each other. When the reset member 15B is installed on the base 11B based on the boss 1124B, the base 11B is in the reset member 15B. There is an empty space below the connection line between the first spring body 151B and the second spring body 152B that does not overlap with the deformation movement space of the reset member 15B to form a space capable of accommodating the helical antenna 14B. An antenna compartment 113B. The helical antenna 14B is accommodated in the antenna compartment 113B with its two ends respectively abutting against the two longitudinal side walls 1121B. In this way, based on the relative arrangement of the reset member 15B and the driving member 121B not only improves the resetting effect of the reset member 15B and the driving member 121B and reduces the size of the self-power core module 10B, but also further optimizes the structural design of the selfpowercore module 10B, so that the structure of the self-power core module 10B is more compact, which further facilitates the miniaturization of the self-power core module 10 . It is worth mentioning that in this embodiment of the present invention, the size of the radio frequency circuit board 13B is designed to satisfy that the distance between two opposite sides of the radio frequency circuit board 13B is equal to the distance between the two transverse side walls 1122B. , furthermore, when the radio frequency circuit board 13B is accommodated in the base 11B, it can be clamped and limited by the two transverse side walls 1122 B, where the distance between the other two opposite sides of the radio frequency circuit board 13B is designed It is satisfied that when the radio frequency circuit board 13B is accommodated in the base 11B, it can be clamped and limited by the two longitudinal side walls 1121B to ensure the structural stability of the self-generated core module 10. In the present invention In this embodiment, since the radio frequency circuit board 13B is clamped and limited by the side wall 112B, the radio frequency circuit board 13B can be accommodated in a state of being disposed under the bottom plate 111B. The base 11B is used to facilitate optimization of the design of the bottom plate 111B to meet the load bearing capacity of the bottom plate 111B for other components, thereby improving the structural compactness of the self-power core module 10B. Furthermore, in order to further ensure the structural stability of the self-generated core module 10B, the bottom plate 111B is provided with a positioning tongue 114B, wherein the positioning tongue 114B includes a tongue body 1141B and a tongue body 1141B. A tongue tip 1142B and a tongue base 1143B extend respectively from both ends, wherein the tongue body 1141B is installed on the bottom plate 111B, and the tongue tip 1142B is at one end of the tongue body 1141B and moves away from the tongue body 1141B. The tongue base 1143B extends from the tongue body 1141B in the direction away from the bottom plate 111B at the other end of the tongue body 1141B. The end where the driving member 121B is located is the generator. 12B, the generator 12B is installed on the positioning tongue 114B with its front end facing the tongue tip 1142B and is limited by the tongue tip 1142B and the tongue base 1143B, thereby being held by the positioning tongue 114B and the tongue base 1143B. The side wall 112B is limited and accommodated in the base 11, so that the tongue tip 1142B and the tongue base 1143B of the positioning tongue 114B and the side wall 112B interact to limit and fix the generator. 12B, while ensuring the structural compactness of the self-power generation core module 10B, the structural stability of the selfpowergeneration core module 10B is ensured. In particular, in order to ensure the structural compactness of the self-power generation core module 10B, the positioning tongue 114B is disposed in a state where the tongue base 1143B is close to one of the transverse side walls 1122B. Preferably, the positioning tongue The tongue base 1143B of 114B is in contact with one of the lateral side walls 1122B, thereby ensuring the compact structure of the self-generated core module 10B. Optionally, in some embodiments, the other end of the tongue body 1141B of the positioning tongue 114B is abutted against one of the transverse side walls 1122B so that the transverse side wall 1122B forms the positioning The tongue base 1143B of the tongue 114B is thus conducive to simplifying the structural design of the self-power core module 10B while ensuring the compactness of the self-power core module 10B. Particularly, in this embodiment of the present invention, the positioning tongue 114B is configured such that the tongue tip 1142B and the tongue base 1143B directly extend from the bottom plate 111B, so that the bottom plate 111B equivalently constitutes the tongue. The body 1141B is conducive to simplifying the structural design of the self-generated core module 10B. It is worth mentioning that the generator 12B is set to adopt a bidirectional power generation mode, that is, when the self-generation core module 10B is driven by an external force, the driving member 121B of the generator 12B is forced to swing. , the generator 12B generates electricity once, and when the reset member 15B resets the driving member 121B, the driving member 121B resets and swings, and the generator 12B generates electricity again. That is to say, when the user once When the self-power generation core module 10B is driven and operated, the generator 12B can generate electricity twice, thereby improving the power generation efficiency of the self-power generation core module 10B and ensuring the performance stability of the self-power generation core module 10 . In particular, the driving member 121B of the generator 12B is arranged atone end of the generator 12B, that is, the generator 12B uses a single-sided trigger to generate electricity, which is beneficial to the miniaturization of the generator 12B. The design facilitates the generator 12B to be compactly housed in the base 11B. Further, referring to FIG. 13 in detail, the generator 12B includes a magnet group 122B and an iron core 123B, wherein the magnet group 122B includes a top magnet 1221B and a bottom magnet 1222B. The top magnet 1221B A magnetic gap 1223B is formed between the bottom magnetic member 1222B, wherein the iron core 123B is provided with a coil, and the iron core 123B is provided in the magnetic gap 1223B. When the driving member 121B is forced to swing, the magnetic group 122B and the iron core 123B undergo relative displacement, causing the direction of the magnetic flux lines passing through the coil to change, thereby generating an induced current. Preferably, in the present invention In this embodiment, the iron core 123B is coupled to the driving member 121B, and when the driving member 121B is forced to swing, the magnetic group 122B remains stationary, and the iron core 123BThe driving member 121B is linked to cause relative displacement with the magnet group 122B, and the magnet group 122B remains stationary, which is conducive to the miniaturization design of the generator 12B, so that the generator 12B can be based on the miniaturization of the generator 12B. The miniaturized design further enhances the miniaturization advantage of the self-generating core module 10B, and the magnetic group 122B remains stationary, and the structural design of the movement of the iron core 123B is conducive to reducing the movement required by the generator 12B. The space is conducive to the compact design of the self-power core module 10B. It can be understood that in some embodiments, the generator 12B can also adopt a power generation method in which the magnetic group 122B moves and the iron core 123B remains stationary. Specifically, that is, the magnetic group 122B is linked and coupled to the driving member 121B, when the driving member 121B is forced to swing, the iron core 123B remains stationary, and the magnetic group 122B is linked by the driving member 121B so that the top magnetic member 1221B of the magnetic group 122B and the bottom magnetic part 1222B alternately contacts the iron core 123B. This structural design will affect the miniaturization and miniaturization design of the self-generated core module 10B to a certain extent, and is only an option of the present invention, implementation plan. It is worth mentioning that according to the disclosure of the present invention, the self-power core module 10B can be made thinner and smaller, so the self-power core module 10B can be used in various small and micro control devices. , to provide a miniaturized and miniaturized self-power generation control device, and to provide a miniaturized and portable passive control device with self-power generation capability that meets market expectations. Further, for the purpose of improving the pressing feel of the self-generating core module 10, the first embodiment of the present invention is taken as an example to make a modification. Refer to Figure 15 of the accompanying drawings of the present invention, in which the force guide plate 162 The end far away from the rotating shaft 161 is designed in the form of a button, and is correspondingly named a guide arm button. In this way, as long as a shell is put on the outer periphery of the self-generating core module 10, an ultra-small self-generating wireless microbutton device can be formed. , the volume can be reduced very small. For example, after ultra miniaturization, it can be applied to various micro wireless button products. The end of the force guide plate 162 of the force guide arm 16 away from the rotating shaft 161 is set as a button. Then, reliable pressing can be achieved without increasing the complexity and cost of the mechanical structure, thereby improving the practicality of the present invention. One end of the guide arm button can be pivoted at a fulcrum, such as pivoting along one side of the base 11, and the depressible end of the guide arm button can pass through the corresponding housing. The guide arm button can be pressed and driven by the user through the housing. The guide arm button extends in a direction away from the generator 12 and is disposed close to the generator 12 so as to Further save space and reduce the size. That is to say, the force-guiding arm 16 has multiple functions of a button, a lever, and pivotability, and is disposed in a small space. Referring furtherto FIG. 16 of the accompanying drawings of the present invention, a self-powered selfie stick 40 including the self-powered core module 10 is shown, wherein the self-powered selfie stick 40 also includes a clamping portion 42 and a handle, part 41, wherein the clamping part 42 is installed on the handle part 41, where the self-generating core module 10 is built into the handle part 41, where the force guide plate 162 is linked to the handle The corresponding control keys on the clamping part 41 are linked when the corresponding control keys are pressed, thereby generating electric energy to control the corresponding electronic equipment clamped on the clamping part 42 to execute corresponding instructions. Those skilled in the art should understand that the embodiments of the present invention shown in the above description and drawings are only examples and do not limit the present invention. The object of the present invention has been completely and effectively achieved. The functional and structural principles of the present invention have been shown and described in the embodiments, and the implementation of the present invention may have any variations or modifications without departing from the principles.

Claims

1. A self-generated core module comprising:a generator, wherein the generator has a driving member, and the generator generates electrical energy when the driving member is forced to swing in the thickness direction of the selfgenerating core module;a radio frequency circuit board, wherein the radio frequency circuit board is powered and connected to the generator;a helical antenna, wherein the helical antenna is connected to the radio frequency circuit board;a reset member, wherein the reset member is coupled to the driving member of the generator and resets the movement of the driving memberthrough elastic return performance; anda base, wherein the generator, the radio frequency circuit board, the helical antenna and the reset member are accommodated in the base, wherein the space required for the reset member to deform due to force is deformation movement space, the helical antenna is placed flat on the base in a state of misalignment with the deformation movement space in the thickness direction of the self-generating core module, thereby avoiding the deformation movement space of the reset member, the helical antenna is superposed in the thickness direction of the self-power core module, thereby effectively reducing the thickness of the self-power core module.

2. The self-generated core module according to claim 1, wherein the self-generated core module includes a force guide arm, wherein the force guide arm has a rotating shaft and a guide extending in a radial direction of the rotating shaft, a force plate, wherein the force guide arm is pivotably mounted on the base at its rotation axis, and the driving member of the generator is coupled to the force guide plate, wherein the force guide arm when the self-generating core module is operated by an external force, it pivots to swing in conjunction with the driving member, wherein the force guide plate has a pivoting movement direction opposite to that of the driving member.

3. The self-generated core module according to claim 2, wherein the helical antenna is accommodated on the base in a state of being disposed below the rotating shaft along the pivoting force-bearing direction of the force guide plate, seat.

4. The self-generating core module according to claim 2, wherein the base includes a bottom plate and side walls disposed on the periphery of the bottom plate, the bottom plate has a positioning tongue, the positioning tongue includes a mounting a tongue body on the bottom plate, a tongue tip extending from the tongue body in a direction away from the bottom plate at one end of the tongue body, and a tongue tip extending from the tongue body in a direction away from the bottom plate at the other end of the tongue body, a tongue base extends in the direction of the bottom plate, with the end where the driving member is located being the front end of the generator, wherein the generator is installed on the positioning tongue with its front end facing the tongue tip and is supported by the tongue tip. and the tongue base is limited, so that it is limited by the positioning tongue and the side wall and is accommodated in the base.

5. The self-generating core module according to claim 4, wherein the side walls are arranged on the periphery of the bottom plate along the length direction of the base, corresponding to the names of the side walls arranged in the length direction of the base, wherein the side walls are longitudinal side walls, in which the two longitudinal side walls respectively have installation pieces designed in the form of shaft holes or shaft arms, and the guide arm is mounted on the installation of the two longitudinal side walls with its rotation axis, wherein the piece is pivotably mounted to the base.

6. The self-generating core module according to claim 5, wherein the length of the helical antenna is set such that the straight-line distance between the two ends of the helical antenna is equal to the distance between the two longitudinal side walls, wherein the helical antenna is the two ends are accommodated in the base in a state of abutting against the two longitudinal side walls respectively.

7. The self-generating core module according to claim 4, wherein the positioning tongue is disposed in a state where the tongue base is disposed at one end of the base in the length direction.

8. The self-generating core module according to claim 4, wherein the base further includes the side walls disposed along the width direction of the base plate, correspondingly naming the side walls disposed along the width direction of the base; wherein the side wall is a transverse side wall, wherein the other end of the tongue body of the positioning tongue is abutted against the transverse side wall so that the transverse side wall constitutes the tongue base of the positioning tongue.

9. The self-generating core module according to claim 4, wherein the tongue tip and the tongue base extend from the bottom plate so that the bottom plate equivalently forms the tongue body.

10. The self-generated power core module according to claim 4, wherein the return member is a double torsion spring, the return member includes a first spring body, a second spring body and a connecting rod, wherein the connecting rod both ends of the rod are connected to the first spring body and the second spring body respectively; wherein the connecting rod has two longitudinal rods extending in the same direction from its two ends and a transverse rod connected between the two longitudinal rods , the rods, the transverse rods are linked to the driving member, and the extension direction of the two longitudinal rods is opposite to the extension direction of the force guide plate.

11. The self-generating core module according to claim 10, wherein the two side walls located in the length direction of the base are longitudinal side walls of the base, and the two longitudinal side walls respectively have a protruding columns, the first spring body and the second spring body of the reset member are respectively placed on the protruding columns of the two longitudinal side walls, wherein the two protruding columns are respectively located on the two longitudinal side walls; wherein the position of the side walls relative to both sides of the generator.

12. The self-generated power core module according to claim 4, wherein the force guide arm has a folded edge, wherein the folded edge moves from a side of the force guide plate facing the driving member toward the driver, wherein the direction of the drive element extends.

13. The self-generated power core module according to claim 12, wherein the force guide arm has a folded edge, wherein the folded edge faces from the side of the force guide plate facing away from the driving member; extending away from the driving member.

14. The self-generating core module according to claim 4, wherein the reset member is a torsion spring, a double torsion spring, a round spring, a dome piece, a phosphor bronze piece or a spring piece.

15. The self-generating core module according to claim 1, wherein the self-generating core module includes a force guide arm, wherein the force guide arm has a rotating shaft and a guide extending in a radial direction of the rotating shaft; a force plate, wherein the force guide arm is pivotably mounted on the base at its rotation axis, and the driving member of the generator is coupled to the force guide plate, wherein the force guide arm when the self-generating core module is operated by an external force, it pivots to swing in conjunction with the driving member, wherein the force guide plate has a pivoting movement direction in the same direction as the driving member.

16. The self-generating core module according to claim 15, wherein the return member is a double torsion spring, the return member includes a first spring body, a second spring body and a connecting rod, wherein the connecting rod Both ends of the rod are connected to the first spring body and the second spring body respectively ;wherein the connecting rod has two longitudinal rods extending in the same direction from its two ends and a transverse rod connected between the two longitudinal rods; wherein the rods, the transverse rods are linked to the driving member, and the extension direction of the two longitudinal rods is opposite to the extension direction of the force guide plate.

17. The self-generated core module according to claim 16, wherein the helical antenna is disposed on the first spring body and the second spring body along the pivoting force-bearing direction of the force guide plate; wherein the state below the wires is housed in the base.

18. The self-generating core module according to claim 15, wherein the base includes a bottom plate and side walls disposed on the periphery of the bottom plate, the bottom plate has a positioning tongue, the positioning tongue includes a mounting the tongue body on the bottom plate, a tongue tip extending from the tongue body in a direction away from the bottom plate at one end of the tongue body, and a tongue tip extending from the tongue body in a direction away from the bottom plate at the other end of the tongue body; the tongue base extends in the direction of the bottom plate, with the end where the driving member is located being the front end of the generator; wherein the generator is installed on the positioning tongue with its front end facing the tongue tip and is supported by the tongue tip. and the tongue base is limited, so that it is limited by the positioning tongue and the side wall and is accommodated in the base.

19. The self-generating core module according to claim 18, wherein the side wall is disposed on the periphery of the bottom plate along the length direction of the base, corresponding to the name of the side wall disposed in the length direction of the base , wherein the side walls are longitudinal side walls, in which the two longitudinal side walls respectively have installation pieces designed in the form of shaft holes or shaft arms, and the guide arm is mounted on the installation of the two longitudinal side walls with its rotation axis; wherein the piece is pivotably mounted to the base.

20. The self-generating core module according to claim 19, wherein the length of the helical antenna is set so that the straight-line distance between the two ends of the helical antenna is equal to the distance between the two longitudinal side walls, wherein the helical antenna is the two ends are accommodated in the base in a state of abutting against the two longitudinal side walls respectively.

21. The self-generating core module according to claim 18, wherein the positioning tongue is disposed in a state where the tongue base is disposed at one end of the base in the length direction.

22. The self-generating core module according to claim 18, wherein the base further includes the side walls disposed along the width direction of the base plate, correspondingly naming the side walls disposed along the width direction of the base ;wherein the side wall is a transverse side wall, wherein the other end of the tongue body of the positioning tongue is abutted against the transverse side wall so that the transverse side wall constitutes the tongue base of the positioning tongue.

23. The self-generating core module according to claim 18, wherein the tongue tip and the tongue base extend from the bottom plate so that the bottom plate equivalently constitutes the tongue body.

24. The self-generated power core module according to claim 15, wherein the force guide arm has a folded edge, wherein the folded edge moves from a side of the force guide plate facing the driving member toward the driving member; wherein the direction of the drive element extends.

25. The self-generated power core module according to claim 24, wherein the force guide arm has a folded edge, wherein the folded edge faces from the side of the force guide plate facing away from the driving member; extending away from the driving member; andwherein the reset member is a torsion spring, a double torsion spring, a round spring, a dome piece, a phosphor bronze piece ora spring piece.

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