WO2018133788A1 - 防水无源无线控制器和控制系统及其应用 - Google Patents

防水无源无线控制器和控制系统及其应用 Download PDF

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Publication number
WO2018133788A1
WO2018133788A1 PCT/CN2018/072929 CN2018072929W WO2018133788A1 WO 2018133788 A1 WO2018133788 A1 WO 2018133788A1 CN 2018072929 W CN2018072929 W CN 2018072929W WO 2018133788 A1 WO2018133788 A1 WO 2018133788A1
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WO
WIPO (PCT)
Prior art keywords
waterproof
passive wireless
wireless controller
cover
generating device
Prior art date
Application number
PCT/CN2018/072929
Other languages
English (en)
French (fr)
Inventor
刘远芳
Original Assignee
深圳市无电通科技有限公司
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by 深圳市无电通科技有限公司 filed Critical 深圳市无电通科技有限公司
Priority to EP18741817.3A priority Critical patent/EP3573437A4/en
Priority to US16/478,123 priority patent/US11259430B2/en
Publication of WO2018133788A1 publication Critical patent/WO2018133788A1/zh

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Classifications

    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02KDYNAMO-ELECTRIC MACHINES
    • H02K7/00Arrangements for handling mechanical energy structurally associated with dynamo-electric machines, e.g. structural association with mechanical driving motors or auxiliary dynamo-electric machines
    • H02K7/18Structural association of electric generators with mechanical driving motors, e.g. with turbines
    • H02K7/1892Generators with parts oscillating or vibrating about an axis
    • HELECTRICITY
    • H05ELECTRIC TECHNIQUES NOT OTHERWISE PROVIDED FOR
    • H05KPRINTED CIRCUITS; CASINGS OR CONSTRUCTIONAL DETAILS OF ELECTRIC APPARATUS; MANUFACTURE OF ASSEMBLAGES OF ELECTRICAL COMPONENTS
    • H05K5/00Casings, cabinets or drawers for electric apparatus
    • H05K5/06Hermetically-sealed casings
    • HELECTRICITY
    • H05ELECTRIC TECHNIQUES NOT OTHERWISE PROVIDED FOR
    • H05KPRINTED CIRCUITS; CASINGS OR CONSTRUCTIONAL DETAILS OF ELECTRIC APPARATUS; MANUFACTURE OF ASSEMBLAGES OF ELECTRICAL COMPONENTS
    • H05K5/00Casings, cabinets or drawers for electric apparatus
    • H05K5/06Hermetically-sealed casings
    • H05K5/069Other details of the casing, e.g. wall structure, passage for a connector, a cable, a shaft
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24HEATING; RANGES; VENTILATING
    • F24DDOMESTIC- OR SPACE-HEATING SYSTEMS, e.g. CENTRAL HEATING SYSTEMS; DOMESTIC HOT-WATER SUPPLY SYSTEMS; ELEMENTS OR COMPONENTS THEREFOR
    • F24D19/00Details
    • F24D19/10Arrangement or mounting of control or safety devices
    • GPHYSICS
    • G08SIGNALLING
    • G08CTRANSMISSION SYSTEMS FOR MEASURED VALUES, CONTROL OR SIMILAR SIGNALS
    • G08C17/00Arrangements for transmitting signals characterised by the use of a wireless electrical link
    • G08C17/02Arrangements for transmitting signals characterised by the use of a wireless electrical link using a radio link
    • GPHYSICS
    • G08SIGNALLING
    • G08CTRANSMISSION SYSTEMS FOR MEASURED VALUES, CONTROL OR SIMILAR SIGNALS
    • G08C23/00Non-electrical signal transmission systems, e.g. optical systems
    • G08C23/04Non-electrical signal transmission systems, e.g. optical systems using light waves, e.g. infrared
    • HELECTRICITY
    • H01ELECTRIC ELEMENTS
    • H01HELECTRIC SWITCHES; RELAYS; SELECTORS; EMERGENCY PROTECTIVE DEVICES
    • H01H13/00Switches having rectilinearly-movable operating part or parts adapted for pushing or pulling in one direction only, e.g. push-button switch
    • H01H13/02Details
    • H01H13/04Cases; Covers
    • H01H13/06Dustproof, splashproof, drip-proof, waterproof or flameproof casings
    • HELECTRICITY
    • H01ELECTRIC ELEMENTS
    • H01HELECTRIC SWITCHES; RELAYS; SELECTORS; EMERGENCY PROTECTIVE DEVICES
    • H01H9/00Details of switching devices, not covered by groups H01H1/00 - H01H7/00
    • H01H9/02Bases, casings, or covers
    • H01H9/04Dustproof, splashproof, drip-proof, waterproof, or flameproof casings
    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02NELECTRIC MACHINES NOT OTHERWISE PROVIDED FOR
    • H02N2/00Electric machines in general using piezoelectric effect, electrostriction or magnetostriction
    • H02N2/18Electric machines in general using piezoelectric effect, electrostriction or magnetostriction producing electrical output from mechanical input, e.g. generators
    • HELECTRICITY
    • H03ELECTRONIC CIRCUITRY
    • H03KPULSE TECHNIQUE
    • H03K17/00Electronic switching or gating, i.e. not by contact-making and –breaking
    • H03K17/94Electronic switching or gating, i.e. not by contact-making and –breaking characterised by the way in which the control signals are generated
    • GPHYSICS
    • G08SIGNALLING
    • G08CTRANSMISSION SYSTEMS FOR MEASURED VALUES, CONTROL OR SIMILAR SIGNALS
    • G08C2201/00Transmission systems of control signals via wireless link
    • G08C2201/10Power supply of remote control devices
    • G08C2201/11Energy harvesting
    • G08C2201/112Mechanical energy, e.g. vibration, piezoelectric

Definitions

  • the present invention relates to the field of control, and in particular to a waterproof passive wireless controller and control system and an application thereof, the waterproof passive wireless controller having good waterproof performance.
  • the existing passive wireless switch devices have different structures such as a rebound type and a rocker type.
  • the existing rebound type passive wireless switch is composed of a single generator, and the key command is generated by using conductive rubber to make the electrodes on the PCB conductive, so that the I/O port level of the single chip changes to generate the command code.
  • the method of using the conductive rubber short-circuit electrode to generate the code has many defects. First, the physical electrode will be oxidized due to the change of time, resulting in poor contact; secondly, the gradual aging of the conductive rubber makes the reliability of the button command become low; This way of coding with mechanical contacts cannot be used in some humid, high temperature environments, thus limiting the range of applications.
  • the rocker passive wireless switch can only generate a single command signal, that is, only one set of signals can be generated per press, so only Can control some simple electrical equipment, such as controlling the opening and closing of the light; in the intelligent control system, there are often variables that need to be adjusted, such as adjusting the brightness of the light bulb, and it is necessary to press the switch and generate two commands when resetting, thereby realizing the combined command. To achieve variable adjustment, the seesaw passive wireless switch obviously cannot produce two different commands when pressing and releasing the button, so the application range is limited.
  • the existing waterproof technology mostly applies a layer of waterproof paint on the circuit board and the line requiring waterproofing, which is not only complicated in process, high in production cost, but also difficult to repair after leakage, and makes the whole
  • the circuit part of the switch is a whole, which loses the meaning of modularity and is difficult to repair and replace.
  • the waterproof problem of the passive wireless switch device is not well solved in the prior art, and the application environment is also subject to many limitations.
  • Another object of the present invention is to provide a waterproof passive wireless controller and control system and application thereof, which can improve the reliability and service life of the passive wireless controller.
  • Another object of the present invention is to provide a waterproof passive wireless controller and control system and application thereof having a detachable structure for facilitating replacement of components of the passive wireless controller.
  • Another object of the present invention is to provide a waterproof passive wireless controller and control system and application thereof, which can generate control commands by means of pulse determination.
  • Another object of the present invention is to provide a waterproof passive wireless controller and control system and application thereof, including at least one power generation device, each of which independently operates without interference, thereby improving the service life.
  • Another object of the present invention is to provide a waterproof passive wireless controller and control system and an application thereof, which are both an energy generator and a command signal generator, thereby improving the control reliability of the signal transmitting circuit.
  • Another object of the present invention is to provide a waterproof passive wireless controller and control system and application thereof, including at least one waterproof assembly and at least one housing, the waterproof assembly and the housing forming a sealed at least one waterproof chamber
  • the power generating device and the at least one communication module are disposed in the waterproof cavity to improve waterproof performance.
  • Another object of the present invention is to provide a waterproof passive wireless controller and control system and an application thereof, the waterproof assembly further comprising at least one waterproof cover and at least one waterproof wall, the waterproof wall extending from the waterproof cover And the waterproof wall is disposed in close contact with at least one waterproof groove of the at least one bottom cover of the casing.
  • Another object of the present invention is to provide a waterproof passive wireless controller and control system and an application thereof, the waterproof assembly further comprising at least one set of outer body edges, the outer sleeve extending outwardly from the waterproof body The wall and the waterproof cover further improve the waterproof performance.
  • Another object of the present invention is to provide a waterproof passive wireless controller and control system and an application thereof, at least one driving portion of the passive wireless controller is provided with at least one driving portion pressing member, and the waterproof component
  • the waterproof sleeve is formed with at least one driving portion top card slot, and the driving portion pressing member is disposed in the driving portion top card slot, thereby improving stability of the passive wireless controller during use.
  • Another object of the present invention is to provide a waterproof passive wireless controller and control system and an application thereof, the passive wireless controller including at least one elastic acceleration element capable of accelerating the movement of the bioelectric device.
  • Another object of the present invention is to provide a waterproof passive wireless controller and control system and an application thereof, the passive wireless controller including at least one reset element to reset the drive assembly and the power generation device in time.
  • Another object of the present invention is to provide a waterproof passive wireless controller and control system and an application thereof, the passive wireless controller including at least one reset component enabling the wireless control switch to generate a combined control command.
  • Another object of the present invention is to provide a waterproof passive wireless controller and control system and application thereof, the drive unit including a plurality of combinable buttons for implementing multi-button operation.
  • Another object of the present invention is to provide a waterproof passive wireless controller and control system and application thereof, which can be applied to a smart home and have good waterproof performance.
  • the present invention provides a waterproof passive wireless controller including: at least one waterproof component, at least one driving portion, at least one power generating device, at least one communication module, and at least one housing, the waterproof The assembly and the housing form a sealed at least one waterproof cavity, the bioelectric device and the communication module are disposed in the waterproof cavity, the driving portion is movable in response to an external force, and is capable of interposing the waterproof component
  • Each of the generating devices is driven, each of the generating devices being electrically connected to the communication module and converting mechanical energy into electrical energy to power the communication module, the communication module issuing a control command for at least one radio signal.
  • the housing includes at least one top cover and at least one bottom cover, the top cover presses the edge of the waterproof assembly to the edge of the bottom cover, the waterproof assembly and the A sealed waterproof chamber is formed between the bottom covers, and the driving portion is disposed on the top cover.
  • the driving portion serves as at least one top cover of the housing
  • the housing further includes at least one bottom cover
  • the driving portion presses the edge of the waterproof assembly to the bottom
  • a rim of the cover forms a sealed waterproof cavity between the waterproof component and the bottom cover.
  • the waterproof assembly further includes at least one waterproof cover and at least one waterproof wall, the waterproof wall extending from the waterproof cover, and the waterproof wall is closely fitted to the casing At least one waterproof cover of the bottom cover.
  • the waterproof wall and the waterproof cover are integrally formed.
  • the bottom cover is provided with at least one waterproof groove forming member
  • the waterproof groove forming member includes at least one outer ring plate extending upwardly from the bottom cover and at least one inner ring plate, the outer side The waterproof groove is formed between the ring plate and the inner ring plate.
  • the bottom cover is recessed to form the waterproof groove.
  • the waterproof assembly further includes at least one outer sleeve extending outwardly from the outer wall and the waterproof sleeve.
  • the housing further includes at least one top cover, the top cover and the bottom cover are snap-fit connections, and the driving portion is disposed on the top cover.
  • the top cover includes a top cover main portion of at least one annular frame and at least one top cover bead, the top cover bead is coupled to the top cover main portion, and the outer cover edge is The cover is pressed tightly between the top cover and the bottom cover, and is disposed outside the waterproof cavity.
  • the driving portion is provided with at least one driving portion for preventing tripping, and the driving portion anti-tripping can be locked to the housing to prevent the driving portion from being detached.
  • the housing is provided with at least one shaft, and the driving portion is pivotally movable with the fulcrum as an axis.
  • the inner side of the driving portion is provided with at least one axle buckle, and the supporting shaft is clamped to the spindle buckle.
  • the driving portion is provided with at least one driving portion pressing member, and the waterproof sleeve of the waterproof assembly is formed with at least one driving portion top card slot, and the driving portion pressing member is disposed for driving Inside the top card slot.
  • the waterproof passive wireless controller further includes at least one reset element and at least one elastic acceleration member, the reset element and the elastic acceleration member are disposed in the sealed waterproof cavity, the driving Driving the elastic accelerating member via the waterproof assembly, the elastic accelerating member is coupled to the generating device and accelerating the movement of the generating device, and the resetting member resets the driving portion, the raw portion An electrical device and the elastic acceleration member.
  • At least one elastic accelerating member pressing member is disposed on a side of the waterproof sleeve of the waterproof component with respect to the waterproof cavity, and the elastic accelerating member pressing member presses the elastic acceleration The elastic acceleration member is driven to drive the power generating device.
  • the elastic accelerating member pressing member projects convexly from a surface of at least one inner side surface of the waterproof sleeve.
  • the power generating device includes at least one magnetic group, at least one coil, and at least one center pillar, wherein the coil is disposed around the center pillar, the magnetic group includes at least one permanent magnet and is located At least one top magnet and at least one bottom magnet on opposite sides of the permanent magnet, wherein the elastic accelerating member is coupled to the center pillar and capable of driving the center pillar to alternately contact the top guide
  • the magnet and the bottom conductor are magnetized such that a direction of magnetic induction through the coil changes to cause at least one induced current in the coil.
  • the housing is formed with at least one communication module slot and at least one power generation device mounting slot, the communication module is disposed in the communication module slot, and the power generation device is disposed in the The electrical device is installed in the slot.
  • the housing is provided with at least one bioelectric device mounting member, the bioelectric device mounting member including at least one set of bioelectric device mounting side plates, and each set of the bioelectric device mounting side plates is formed
  • the power generating device mounts a slot.
  • each of the bioelectric device mounts is snap-fitted with each of the bioelectric devices.
  • each of the power generating device mounting side plates is provided with at least one reset element mounting shaft, and both ends of the resetting element are respectively connected to the reset element mounting shaft, and the resetting element is A portion disposed between the two reset element mounting shafts abuts the elastic accelerating member.
  • the reset element is at least one spring and the elastic acceleration member is at least one elastic piece.
  • the driving portion is a plurality of buttons, and the buttons are detachably snap-fitted side by side.
  • the electrical device generates two electrical pulses each time the button responds to an external force, and the communication module transmits two control commands for the radio signal.
  • the waterproof assembly includes at least one waterproof cover and at least one waterproof ring, the waterproof ring is disposed at a bottom of the waterproof cover, and the waterproof ring is closely disposed to the casing.
  • the waterproof passive wireless controller further includes at least one reset component disposed in the waterproof cavity, wherein the drive section moves in response to the application of an external force, and is capable of driving the waterproof jacket The reset component, after the reset component drives the bioelectric device to generate a first electrical pulse, resets the bioelectric device and the electrical device generates an electrical pulse again.
  • each of the drive portions is coupled by a snap fit.
  • the waterproof passive wireless controller further includes at least one bottom cover, the power generating device and the communication module are disposed on the bottom cover, and each of the driving portions is used as the waterproof The top cover of the source wireless controller, the driving portion and the bottom cover are snap-fit connections.
  • the driving portion is provided with at least one shaft buckle
  • the waterproof sleeve is provided with at least one shaft
  • the supporting shaft is clamped to the supporting shaft buckle, so that the driving portion The pivoting movement can be performed with the fulcrum as an axis.
  • the resetting assembly includes at least one resetting element and at least one elastic accelerating member
  • the inner side of the driving portion is further provided with at least one driving portion pressing member, and the driving portion moves in response to the application of an external force.
  • the driving portion pressing member presses against one side of the at least one waterproof active portion of the waterproof sleeve, and at least one waterproof sleeve protrusion of the other surface of the waterproof movable portion presses the elastic acceleration member,
  • One end of the elastic accelerating member is connected to the bioelectric device, and the movement of the bioelectric device can be accelerated, the other end of the elastic accelerating member is pressed against the resetting member, and the resetting member resets the driving portion and the The electrical device and the elastic acceleration member are described.
  • the bottom cover is further formed with at least one bioelectric device mounting slot, the bottom cover is provided with at least one bioelectric device mounting member, and the bioelectric device mounting member includes at least one set of bioelectric device mounting side plates The bioelectric device mounting groove is formed between the sets of the power generating device mounting side plates of each group.
  • the power generating device mounting side plate is further provided with at least one power generating device buckle, and the power generating device is provided with at least one matching hook, so that each of the generating devices passes the The power generating device buckle and the hook are mounted in the power generating device mounting groove formed by the power generating device mounting side plate.
  • the elastic acceleration member is disposed between the reset element and the waterproof sleeve bump.
  • the power generating device includes at least one magnetic group, at least one coil, and at least one center pillar, wherein the coil is disposed around the center pillar, the magnetic group includes at least one permanent magnet and is located At least one top magnet and at least one bottom magnet on opposite sides of the permanent magnet, wherein the elastic accelerating member is coupled to the center pillar and capable of driving the center pillar to alternately contact the top guide
  • the magnet and the bottom conductor are magnetized such that a direction of magnetic induction through the coil changes to cause at least one induced current in the coil.
  • the reset element is at least one spring and the elastic acceleration member is at least one elastic piece.
  • the waterproof cover of the waterproof component further includes a light ring portion, a waterproof cover main portion, and a shaft support portion, wherein the waterproof movable portion is convexly disposed on the main portion of the waterproof cover.
  • the light ring portion protrudes from the main portion of the waterproof cover and forms at least one indicator hole, the support shaft supports the support shaft, the waterproof cover main portion, the light ring portion, and the waterproof cover
  • the main portion and the support shaft support portion are integrally formed.
  • the housing includes at least one top cover, and at least one bottom cover, the driving portion is disposed on the top cover, and the waterproof assembly includes at least one waterproof cover and at least one waterproof wall, a waterproof wall is disposed on the edge of the bottom cover and closely fits the bottom of the waterproof cover, and the top cover presses and fixes the edge of the waterproof cover to the edge of the bottom cover, the waterproof cover and the The sealed waterproof chamber is formed between the bottom covers.
  • the top cover is formed with at least one driving cover hole, and each of the driving covers is disposed in each of the driving cover holes.
  • the waterproof passive wireless controller further includes at least one lever, at least one reset element, at least one elastic acceleration member, and at least one micro switch, the lever, the reset element, the elastic acceleration And the micro switch is disposed in the sealed waterproof cavity, the micro switch is electrically connected to the communication module, and the communication module is electrically connected in advance by the micro switch.
  • the driving portion presses the lever through the waterproof cover, the lever presses against the elastic accelerating member, and the elastic accelerating member is connected to the generating device and accelerates movement of the generating device.
  • the reset element resets the driving portion, the lever, the generating device, and the elastic accelerating member.
  • the lever includes at least one set of lever flank, at least one lever body, and at least one lever apex, the lever flank extending symmetrically to the lever body, the lever apex protruding from the lever body
  • the driving portion presses the lever main body via the waterproof cover, and the lever vertex synchronously presses the elastic accelerating member.
  • the bottom cover is provided with at least one lever stop that hooks the lever as a pivot point for the lever.
  • the power generating device includes at least one magnetic group, at least one coil, and at least one center pillar, wherein the coil is disposed around the center pillar, the magnetic group includes at least one permanent magnet and is located At least one top magnet and at least one bottom magnet on opposite sides of the permanent magnet, wherein the elastic accelerating member is coupled to the center pillar and capable of driving the center pillar to alternately contact the top guide
  • the magnet and the bottom conductor are magnetized such that a direction of magnetic induction through the coil changes to cause at least one induced current in the coil.
  • the reset element is at least one spring and the elastic acceleration member is at least one elastic piece.
  • each of the power generating devices generates an electrical pulse in response to respective driving and resetting of the driving portion.
  • a passive wireless control method for a waterproof passive wireless controller comprising the steps of: each waterproof passive wireless in response to a single driving operation
  • the controller self-generates to generate two electrical pulses and emits two wireless control signals corresponding to each of the driving operations in accordance with the generated electrical pulses.
  • the method further includes: in each of the driving operations, at least one driving portion of the waterproof passive wireless controller performs a pivotal motion in response to application of an external force.
  • the method further includes: the pivoting movement of the drive portion driving at least one of the power generating devices of the waterproof passive wireless controller to generate a first electrical pulse.
  • the method further includes: the external force applied by the driving portion disappears, the driving portion returns to the initial position, and the power generating device generates a second electrical pulse.
  • the driving part drives at least one elastic acceleration member connected to the power generating device, and the elastic acceleration member drives the power generating device to generate a first electrical pulse.
  • the method further includes: the external force applied by the driving portion disappears, at least one reset element resets the driving portion and the elastic acceleration member is reset, and the power generating device generates a second electrical pulse.
  • the method further includes: in each of the driving operations, the waterproof passive wireless controller generates two electrical pulses by self-generation, and is respectively transmitted to the waterproof passive wireless controller through two paths.
  • At least one communication module wherein one path is connected to at least one power input end of the wireless communication module to provide an operating power of the waterproof passive wireless controller; wherein the other path is connected to at least one of the wireless communication modules
  • the wireless communication module issues a predetermined data encoding according to the level change.
  • a waterproof passive wireless control system comprising the above-described waterproof passive wireless controller and at least one command executor, the command executor receiving the waterproof passive wireless controller Control commands and control functions that match other functional device execution and control commands.
  • a smart toilet comprising the above-described waterproof passive wireless controller and at least one toilet command actuator, the command actuator receiving a control command of the waterproof passive wireless controller And controlling other execution components of the smart toilet to perform functions that match the control commands.
  • a Yuba device comprising the above-described waterproof passive wireless controller and at least one Yuba command actuator, the Yuba command actuator receiving control of the waterproof passive wireless controller Commanding and controlling other execution components of the Yuba device to perform functions that match the control commands.
  • a water heater apparatus comprising: the waterproof passive wireless controller described above and at least one water heater command actuator, the water heater command actuator receiving the waterproof passive wireless The controller's control commands and control the other execution components of the water heater device to perform functions that match the control commands.
  • FIG. 1 is a perspective view of a waterproof passive wireless controller in accordance with a preferred embodiment of the present invention.
  • FIG. 2 is a perspective view of the waterproof passive wireless controller in accordance with the above-described preferred embodiment of the present invention.
  • FIG 3 is a perspective exploded view of the waterproof passive wireless controller in accordance with the above preferred embodiment of the present invention.
  • FIG. 4 is a perspective exploded view of the waterproof passive wireless controller in accordance with the above preferred embodiment of the present invention.
  • FIG. 5 is a perspective exploded view of the waterproof passive wireless controller in accordance with the above preferred embodiment of the present invention.
  • FIG. 6 is a perspective view of the waterproof passive wireless controller in accordance with the above preferred embodiment of the present invention.
  • FIG. 7 is a perspective view of the waterproof passive wireless controller in accordance with the above preferred embodiment of the present invention.
  • FIG. 8 is a cross-sectional view of the waterproof passive wireless controller in accordance with the above-described preferred embodiment of the present invention.
  • FIG. 9 is a block diagram of a waterproof passive wireless controller in accordance with the present invention.
  • Figure 10 is a perspective view of an embodiment of a power generating device of a waterproof passive wireless controller in accordance with the present invention.
  • FIGS 11 and 12 illustrate the schematic of the generation of the bioelectric device.
  • Figure 13 is a perspective view of a waterproof passive wireless controller in accordance with a second embodiment of the present invention.
  • FIG 14 is a perspective exploded view of the waterproof passive wireless controller in accordance with the above-described embodiments of the present invention.
  • FIG. 15 is a perspective exploded view of the waterproof passive wireless controller in accordance with the above-described embodiments of the present invention.
  • FIG 16 is a perspective exploded view of the waterproof passive wireless controller in accordance with the above-described embodiments of the present invention.
  • FIG 17 is a partial perspective view of the waterproof passive wireless controller in accordance with the above-described embodiments of the present invention.
  • FIG. 18 is a partially enlarged schematic view of the waterproof passive wireless controller in accordance with the above-described embodiments of the present invention.
  • Figure 19 is a perspective view of a waterproof passive wireless controller in accordance with a third embodiment of the present invention.
  • FIG. 20 is a perspective exploded view of the waterproof passive wireless controller in accordance with the above-described embodiments of the present invention.
  • 21 is a perspective exploded view of the waterproof passive wireless controller in accordance with the above-described embodiments of the present invention.
  • FIG 22 is a perspective exploded view of the waterproof passive wireless controller in accordance with the above-described embodiments of the present invention.
  • FIG. 23 is a schematic cross-sectional view of the waterproof passive wireless controller in accordance with the above-described embodiments of the present invention.
  • FIG. 24 is a schematic cross-sectional view of the waterproof passive wireless controller in accordance with the above-described embodiments of the present invention.
  • FIG. 25 is a simplified cross-sectional view of the waterproof passive wireless controller in accordance with the above-described embodiments of the present invention.
  • FIG. 26 is a block diagram of a module in accordance with the above embodiment of the present invention.
  • FIG. 27 is a schematic diagram of the waterproof passive wireless controller applied to a smart toilet, in accordance with various embodiments of the present invention.
  • FIG. 28 is a block diagram of a waterproof passive wireless controller applied to a smart toilet in accordance with various embodiments of the present invention.
  • 29 is a schematic diagram of the waterproof passive wireless controller applied to a Yuba device, in accordance with various embodiments of the present invention.
  • FIG. 30 is a schematic diagram of the waterproof passive wireless controller applied to a Yuba device, in accordance with various embodiments of the present invention.
  • FIG. 31 is a block diagram of a waterproof passive wireless controller applied to a Yuba device in accordance with various embodiments of the present invention.
  • 32 is a block diagram of a waterproof passive wireless controller applied to a water heater apparatus in accordance with various embodiments of the present invention.
  • the term “a” is understood to mean “at least one” or “one or more”, that is, in one embodiment, the number of one element may be one, and in other embodiments, the element The number can be multiple, and the term “a” cannot be construed as limiting the quantity.
  • the waterproof passive wireless controller includes a driving unit 11, a power generating device 12, a wireless communication module 13, and a reset unit 14.
  • the reset unit 14 includes a spring 15 and a spring 16.
  • the drive unit 11 has a point 17 so as to be pushed or pushed by an external force.
  • the wireless communication module 13 is electrically connected to the power generating device 12 through a power input terminal 18 and a level signal input terminal 19, the waterproof passive wireless controller system further comprising an electrical connection to the wireless communication An antenna 20 of the module 13 and a light emitting element 21. As shown in FIG.
  • the driving unit 11 can be implemented as a button, and the driving unit 12 implemented as a button is subjected to an external force, for example, when being pushed or pushed, the driving unit 11 is moved to drive the
  • the elastic piece 15 of the reset unit 14 drives the power generating device 12 to convert mechanical energy of kinetic energy into electrical energy, thereby supplying power to the wireless communication module 13.
  • the spring 16 is compressed to accumulate elastic potential energy.
  • the waterproof passive wireless controller system may be provided with a plurality of mutually independent of the power generating devices 12, each of the power generating devices 12 being independently driven by each of the driving units 12 for the wireless communication Module 13 is powered.
  • the wireless communication module 13 After the wireless communication module 13 is powered, signals are transmitted by radio waves or light waves via the antenna 20 and the light emitting element 21.
  • the spring 16 and the elastic piece 15 herein are merely by way of example, and may be other elements made of an elastic material, and the invention is not limited in this respect.
  • the driving unit 11 can generate a driving information in response to an external force, for example, the driving information may be opening other controlled devices or turning off other controlled devices, etc., and the wireless communication module 13 is powered according to the driving information.
  • a wireless control signal matching the driving information is then issued, so that other controlled devices can be controlled to receive the wireless control signal, and perform a function of matching the driving information, such as turning on or off the lighting device.
  • the manner in which the wireless communication module 13 transmits the wireless control signal is not limited to the antenna 20 and the light emitting element 21, that is, not limited to radio waves.
  • the wireless control signal may be transmitted in the form of light waves, and may be other reasonable transmission methods, and the present invention is not limited in this respect.
  • the driving unit 11 when the operator operates the waterproof passive wireless controller, pressing a button that is preset to “turn on the light” is implemented as the button
  • the driving unit 11 of the "turn on” button responds to the pressing force applied by the operator, and performs an oscillating motion centering on the fulcrum 17; the driving unit 11 touches the elastic piece 15 and moves downward; the elastic piece 15 Being driven to move downward with the top touch of the drive unit; the oscillation of the spring 15 causes the power generating device 12 to convert kinetic energy into electrical energy to generate a first electrical pulse; when the operator leaves the hand away from being driven
  • the button is pressed, that is, when the external force applied on the button disappears, the elastic piece 15 is pushed up and reset by the spring 16; during the process of resetting the elastic piece 15, the generating device 12 generates a second electrical pulse;
  • the electric pulse generated by the power generating device 12 is respectively connected to the wireless communication module 13 via two paths, as shown in FIG.
  • the control system of the waterproof passive wireless controller of the present invention uses a physical manner to generate a command signal compared to the prior art method of using conductive rubber or mechanical switch to generate and output commands; the present invention does not use mechanical means.
  • the pulse generation method is used to generate an instruction.
  • the driving element 11 implemented as a button is pressed, the power generating device 12 associated with the button generates a positive pulse; correspondingly, When the button is reset, the associated power generating device 12 generates a negative pulse; therefore, as long as the condition of the pulse generated by the generating device 12 is determined, it can be known that the button is pressed or bounced, so that
  • the wireless communication module 13, such as a single chip microcomputer, is caused to generate a corresponding key command. Therefore, the life and reliability of the waterproof passive wireless controller of the present invention can be greatly enhanced by physically replacing the conventional mechanical method.
  • the bioelectric device 12 can convert mechanical energy in the form of kinetic energy into electrical energy, and the structure can have many embodiments. In addition to the structure using conventional mechanical energy to generate electric energy, it can also be FIG. 10 to the present invention.
  • the structure shown in FIG. 12 (the specific structure will be described in detail later), and may also be other reasonable structures such as the structure disclosed by the inventors in the patent documents which have been previously filed or authorized, the present invention is hereby. On the one hand, it is not restricted by this.
  • the waterproof passive wireless controller has good waterproof performance and can be applied to a bathroom. , rain, water, kitchen, outdoor, etc.
  • the waterproof passive wireless controller includes a waterproof component 100, a power generation device 200, a communication module 300, a reset component 400, a housing 510, and a driving portion 520.
  • the waterproof component 100 and the housing The 510 forms a sealed waterproof chamber 1000, and the power generating device 200, the communication module 300, and the reset assembly 400 are disposed in the waterproof chamber 1000.
  • the driving portion 520 is disposed outside the casing 510 and is capable of driving the resetting assembly 400 in the waterproof chamber 1000 in response to an external force, and the resetting assembly 400 drives the generating device 200 to
  • the generating device 200 converts the mechanical energy in the form of kinetic energy into electrical energy, supplies power to the communication module 300, and generates an electric pulse at the same time. After the external force disappears, the resetting component 400 drives the generating device 200 to reset.
  • the electrical device 200 again produces an electrical pulse. Therefore, the waterproof passive wireless controller of the present invention not only has good waterproof performance, but also can realize a combined command by determining the electric pulse generated by each of the bioelectric devices 200, thereby implementing a waterproof passive wireless controller system. Variable adjustment in .
  • the waterproof passive wireless controller of this preferred embodiment of the present invention is disclosed from the perspective of a waterproof structure.
  • the waterproof assembly 100 includes a waterproof cover 101 and a waterproof wall 105.
  • the waterproof wall 105 and the waterproof cover 101 are integrally formed.
  • the waterproof wall 105 extends from the waterproof cover 101, and the waterproof wall
  • the cover 105 is disposed in a waterproof groove 104 of a bottom cover 512 of the housing 510 so that the waterproof sleeve 101 , the waterproof wall 105 and the housing 510 of the waterproof assembly 100
  • the waterproof cover 1000 is sealed between the bottom covers 512, and liquid such as water cannot enter the waterproof cavity 1000.
  • the bottom cover 512 includes a bottom cover main portion 5121 and a bottom cover side portion 5122, and the bottom cover side portion 5122 extends upwardly to the bottom cover main portion. Part 5121.
  • the bottom cover main portion 5121 is provided with the waterproof groove 104.
  • the bottom cover main portion 5121 is provided with a waterproof groove forming member 516.
  • the waterproof groove forming member 516 includes an outer ring plate 5161 extending upwardly from the bottom cover main portion 5121 and an inner ring plate 5162, the outer side.
  • the waterproof groove 104 is formed between the ring plate 5161 and the inner ring plate 5162.
  • the waterproof wall 105 of the waterproof assembly 100 is made of an elastic waterproof material, such as a rubber material or a silicone material, and the distance between the outer ring plate 5161 and the inner ring plate 5162 is the The width of the water tank 104 is slightly smaller than the thickness of the waterproof wall 105, so that the waterproof wall 105 is closely and seamlessly attached to the waterproof groove 104 due to its own elasticity, so that liquid such as water does not get from the water. A gap between the waterproof wall 105 and the bottom cover 512 enters the waterproof cavity 1000.
  • the waterproof groove 104 is formed by the waterproof groove forming member 516 protruding from the bottom cover 512, but only as for example, the waterproof groove 104 can be formed by other reasonable means.
  • the bottom cover main portion 5121 of the bottom cover 512 is outwardly recessed relative to the waterproof cavity 1000 to directly form the The water tank 104, the present invention is not limited in this respect.
  • the housing 510 further includes a top cover 511 connected to the bottom cover 512 by a top cover snap assembly, and tightly pressing the waterproof assembly 100 to prevent The waterproof assembly 100 is detached to enhance the sealing of the waterproof chamber 1000.
  • the top cover 511 includes a top cover main portion 5111 of an annular frame and a top cover bead 5112.
  • the top cover bead 5112 is annularly disposed at an inner side of the top cover main portion 5111.
  • the outer peripheral edge of the waterproof sleeve 101 extends outwardly from a set of outer edges 102, that is, the outer sleeve 102 extends outwardly from the waterproof wall 105 and the waterproof sleeve 101.
  • the outer sleeve edge 102, the waterproof wall 105 and the waterproof sleeve 101 are integrally formed.
  • the outer edge of the waterproof sleeve 101 of the waterproof assembly 1000, that is, the outer sleeve edge 102 is tightly pressed between a crimping main portion 5113 of the top cover bead 5112 and the bottom cover 512 And being disposed outside the waterproof chamber 1000, thereby further preventing liquid such as water from entering the waterproof chamber 1000.
  • the top and bottom snap fastener assemblies that connect the top cover 511 and the bottom cover 512 are implemented as a top cover buckle 5115 and a bottom cover buckle 5123.
  • the top cover buckle 5115 is disposed on an inner side surface of the top cover main portion 5111 of the top cover 511
  • the bottom cover buckle 5123 is disposed on the bottom cover main portion 5121 of the bottom cover 512
  • the outer side surface so that the bottom cover 512 and the top cover 511 are connected, and further enhances the sealing property of the waterproof assembly 100 and the housing 510, and is also easy to disassemble by a snap-fit connection and installation.
  • the waterproof wall 105 disposed on the waterproof rubber sleeve 101 is inserted into the waterproof groove 104 of the bottom cover 512 to form a tight fit, and the top cover bead 5112 is pressed outside the sleeve A portion of each of the power generating device 200 and the communication module 300 is housed in the sealed waterproof chamber 1000 along the circumference of the 102.
  • the outer cover edge 102 has a waterproof component fixing hole 103.
  • the bottom cover main portion 5121 of the bottom cover 512 is formed with a bottom cover fixing hole 513.
  • the top cover 511 is correspondingly formed with a fixing hole.
  • the cover fixing hole 513, the waterproof assembly fixing hole 103, and the top cover 511 can be passed by a fastener to further strengthen the tightness of the waterproof assembly 100 and the housing 510, thereby further preventing water The liquid enters the waterproof chamber 1000.
  • the driving part 520 is disposed outside the waterproof cavity 1000, and the driving part 520 drives the resetting component 400 and the raw by driving the waterproof sleeve 101 of the waterproof component 100 in response to an external force.
  • the electrical device 200 is moved such that the bioelectric device 200 converts mechanical energy in the form of kinetic energy into electrical energy without affecting water resistance, powering the communication module 300. Therefore, the waterproof passive wireless controller of the present invention is further disclosed from this perspective.
  • the driving portion 520 is implemented as three buttons arranged side by side, and accordingly, the waterproof cover 101 of the waterproof assembly 100 is Implemented to shape match the shape of the button.
  • the driving portion 520 is implemented as a button and the number of the buttons and the shape of the waterproof jacket 101 are merely exemplified in this preferred embodiment of the invention, and the invention is not limited in this respect. .
  • the driving portion 520 includes a driving portion base portion 521 and a driving portion side portion 522 extending from the driving portion base portion 521 .
  • the driving portion side portion 522 is provided with a driving portion anti-trip 523, and the driving portion anti-tripping 523 can be engaged with the casing 510 to prevent the driving portion 520 from being detached.
  • the bottom cover 512 is provided with a shaft 530.
  • the inner side of the driving portion 520 is provided with a shaft buckle 527.
  • the top cover flange 5112 of the top cover 511 is provided with a crimping hole 5116 at a corresponding position.
  • the support shaft 530 is clamped to the support buckle 527 through the crimping through hole 5116, so that the driving portion 520 can pivotally move with the support shaft 530 as an axis.
  • the driving portion base portion 521 of the driving portion 520 is provided with a driving portion pressing member 525.
  • the waterproof sleeve 101 of the waterproof component 100 is provided with a driving portion with respect to a side surface of the driving portion 520.
  • the top card slot 524 is provided in the driving portion top card slot 524.
  • the reset assembly 400 includes a resetting member 410 and an elastic accelerating member. 420.
  • the elastic accelerating member 420 is formed directly by thickening the thickness of the waterproof sleeve 101, and of course, other reasonable formation manners are also possible.
  • the elastic accelerating member 420 is connected to the bioelectric device 200, and is capable of accumulating an elastic potential energy to accelerate the movement of the bioelectric device 200.
  • the reset element 410 can accumulate elastic potential energy during the application of an external force, and the external force disappears. At this time, the driving portion 520, the electricity generating device 200, and the elastic accelerating member 420 are reset by releasing the elastic potential energy.
  • the waterproof cover 101 moves, the elastic acceleration member pressing member 106 presses against the elastic acceleration member 420, and the elastic acceleration member 420 is driven to drive the power generating device 200.
  • the bottom cover 512 is further formed with a communication module slot 5124 and a bioelectric device mounting slot 5125.
  • the communication module slot 5124 and the bioelectric device mounting slot 5125 are disposed in the waterproof cavity 1000.
  • the bottom cover 512 is provided with a bioelectric device mounting member 517, and the bioelectric device mounting member 517 includes a set of bioelectric device mounting side plates 5171, each set of said bioelectric devices
  • the bioelectric device mounting groove 5125 is formed between the mounting side plates 5171, and the bioelectric device mounting side plate 5171 is further provided with a bioelectric device buckle 5172, and the external device 200 is also provided with a corresponding buckle.
  • each of the bioelectric devices 200 is mounted in the bioelectric device mounting groove 5125.
  • Each of the power generating device mounting side plates 5171 is further provided with a reset component fixing shaft 518 for fixing the resetting component 410.
  • the bottom cover 512 is further provided with a reset component stop member 515, and two of the resetting component 410 The end is fixed to the reset element stop 515.
  • the elastic accelerating member 420 is disposed between the restoring member 410 and the elastic accelerating member pressing member 106 such that the elastic accelerating member 420 can be reset when the resetting member 410 releases the accumulated elastic potential energy.
  • the reset element 410 is implemented as a reset torsion spring
  • the elastic acceleration member 420 is implemented as a spring piece, of course, as will be understood by those skilled in the art.
  • the restoring element 410 and the elastic accelerating member may also be implemented in other embodiments in other embodiments, and the invention is not limited in this respect.
  • the power generating device 200 employs a closed magnetic conductive structure to increase the magnetic density of the coil.
  • the power generating device 200 includes a center pillar 210, a magnetic group 220, and a coil group 230.
  • the magnetic group 220 includes a top magnetic conductive cover 221, a bottom magnetic conductive cover 222, a permanent magnet member 223, and a magnetic group clip 224.
  • the magnetic group clip 224 fixes the top magnetic cover 221 and the bottom magnetic cover 222, and a magnetic conductive cavity is formed between the top magnetic cover 221 and the bottom magnetic cover 222, and A relatively small gap is left between the top magnetic cover 221 and each end of the bottom magnetic cover 222 as at least one magnetic gap, so that both ends of the center pillar 210 are a first abutting end 211 and A second abutting end 212 alternately abuts the top magnetic cover 221 and the bottom magnetic cover 222 in the magnetic gap.
  • the permanent magnet 223 is disposed in the magnetic conductive cavity to provide a magnetic field.
  • the permanent magnet 223 is disposed in a conforming manner on the top magnetic cover 221 and the An inner side wall of the bottom magnetic cover 222 is described without affecting the movement of the center pillar 210.
  • the permanent magnet 223 is made of a permanent magnet material such as a magnet, an aluminum-nickel-cobalt-based permanent magnet alloy, an iron-chromium-cobalt-based permanent magnet alloy, a permanent magnet ferrite, a rare earth permanent magnet material, and a composite permanent magnet material.
  • the coil assembly 230 includes a coil 231 and a bobbin 232.
  • the coil 231 is disposed in the magnetic conductive cavity and surrounds the middle pillar 210.
  • the coil bobbin 232 is disposed on the center pillar 210 and the coil bobbin 232 The coil 231 is sleeved.
  • the power generating device 200 adopts a method of vertically covering the magnetic conductive material, and the magnetic conductive material is respectively formed into the top magnetic conductive cover 221 and the bottom magnetic conductive cover 222, and the permanent magnet 223 and the coil are respectively
  • the power generation components such as the group 230 and the center pillar 210 are wrapped to achieve maximum magnetic energy utilization and obtain a minimum volume.
  • the permanent magnet 223 is clamped by the top magnetic cover 221 and the bottom magnetic cover 222, so that the top magnetic cover 221 and the bottom magnetic cover 222 function in the permanent magnet 223 Underneath NS, or SN two magnetic pole distribution.
  • the dotted line with arrows in FIGS. 11 and 12 indicates the direction of conduction of the magnetic line.
  • the assumed initial state, the abutment state of the center pillar 210 and the top magnetic cover 221 and the bottom magnetic cover 222 is: the left side of the middle pillar 210
  • the first abutting end 211 abuts against the top magnetic cover 221
  • the second abutting end 212 on the right side of the center pillar 210 abuts against the abutting end of the bottom magnetic cover 222 .
  • the direction of the magnetic line of influence passes through the coil 231 from left to right, the center pillar 210 is kept stationary, and no induced current is generated in the coil 231. .
  • the waterproof sleeve 101 drives the elastic acceleration member 420, so that the elastic acceleration member 420 Being pushed in the direction of the arrow, the abutment state of the center pillar 210 and the top magnetic cover 221 and the bottom magnetic cover 222 is changed, and the abutment state in FIG. 12 is: the middle pillar 210 The first abutting end 211 on the left side abuts against the bottom magnetic conductive cover 222 , and the second abutting end 212 on the right side of the middle post 210 abuts against the top magnetic conductive cover 221 .
  • the elastic accelerating member 420 herein is also capable of accelerating the swinging speed of the center pillar 210, thereby making the induced energy larger. It will be appreciated that during this process, the reset element 410 accumulates the elastic potential energy.
  • E is the induced electromotive force
  • n is the number of turns of the coil
  • ⁇ / ⁇ t is the rate of change of the magnetic flux.
  • the resetting element 410 which is implemented as a reset torsion spring, releases the accumulated elastic potential energy to reset the elastic accelerating member 420, and the center pillar 210
  • the direction of the magnetic line of inductance changes again, causing the coil 231 to generate another induced current.
  • the power generating device pin 240 of the power generating device 200 is abutted to the communication module 300 and is electrically connected. After the generating device 200 converts mechanical energy in the form of kinetic energy into electrical energy, Power is output to the AC terminal of the communication module 300.
  • the waterproof passive wireless controller further includes a light indicating component 591 capable of indicating status information of the waterproof passive wireless controller through display of light, the light indicating component 591 being disposed at the
  • the waterproof cavity 1000 is electrically connected to the communication module 300.
  • the waterproof cover 101 of the waterproof component 100 is provided with a light transmitting portion 190 through which the light emitted by the light indicating component 591 can pass without affecting the waterproof performance. 190.
  • the corresponding position of the driving portion 530 is further formed with a light transmission hole 526, which facilitates the emission of light emitted by the light indicating element 591.
  • the waterproof passive wireless controller of the present invention is both waterproof and capable of passively transmitting signals with a good pressing feel.
  • the waterproof passive wireless controller includes a waterproof component 100A, a power generating device 200A, a communication module 300A, a reset component 410A, an elastic acceleration component 420A, a bottom cover 512A, and a driving portion 520A.
  • the driving portion 520A can be implemented as a top cover 511A in the embodiment of the present invention. That is, in this embodiment of the invention, the top cover 511A is implemented as four keys arranged in a square shape, is movable independently of each other, and is capable of driving the waterproof assembly 100A in response to application of an external force.
  • each of the driving portions 520A implemented as the top cover 511A is movable in response to an external force to drive the waterproof assembly 100A, and the waterproof assembly 100A is driven to drive the elastic acceleration member 420A and the The resetting element 410A, the elastic accelerating member 420A drives the generating device 200A, so that the generating device 200A converts mechanical energy in the form of kinetic energy into electrical energy, supplies power to the communication module 300A, and generates an electric pulse at the same time.
  • the resetting element 410A drives the elastic accelerating member 420A and the generating device 200A to be reset, and the generating device 200A generates an electric pulse again.
  • the waterproof assembly 100 and the bottom cover 512A form a sealed waterproof chamber 1000A, and the power generating device 200A, the communication module 300A, the elastic acceleration member 420A, and the reset assembly 400A are disposed in a sealed chamber.
  • the waterproof passive wireless controller of the present invention not only has good waterproof performance, but also can realize a combined command by determining the electric pulse generated by each of the bioelectric devices 200A. Variable adjustments in the waterproof passive wireless controller system can also be implemented in the environment.
  • the driving portion 520A and the bottom cover 512A are snap-fitted.
  • a driving portion buckle 5115A disposed on the inner side of the driving portion 520A is implemented. buckle.
  • the driving portion buckle 5115A is disposed on an inner side surface of the driving portion 520A, and the driving portion buckle 5115A can be locked on an inner side surface of the bottom cover 512A, so that the bottom cover 512A and the driving The portion 520A is connected, and in addition to preventing the drive portion 520A from slipping off, it is also easy to be detached and mounted by a snap-fit connection.
  • the waterproof component 100A includes a waterproof cover 101A and a waterproof ring 105A, and the waterproof ring 105A is disposed at the bottom of the waterproof cover 101A.
  • the waterproof ring 105A is disposed in a waterproof groove 104A of the bottom cover 512A, so that the waterproof cover 101A, the waterproof ring 105A, and the bottom cover 512 of the waterproof component 100A
  • the sealed waterproof chamber 1000A is formed, and liquid such as water cannot enter the waterproof chamber 1000A, and the waterproof passive wireless switch of the present invention can be placed in a humid environment and can operate normally.
  • the waterproof case 101A and the waterproof ring 105A are preferably integrally formed, so that waterproof performance can be more effectively achieved.
  • the waterproof ring 105A of the waterproof component 100A is made of an elastic waterproof material, such as a rubber material or a silicone material, so that the waterproof ring 105A is closely and seamlessly adhered due to its own elasticity.
  • liquid such as water does not enter the waterproof chamber 1000A from the gap between the waterproof ring 105A and the bottom cover 512A.
  • the shape of the waterproof ring 105A of the present invention is merely an example, and may be a circular ring, a square ring or the like, and the present invention is not limited thereto in this respect.
  • the bottom cover 512A includes a bottom cover main portion 5121A and a bottom cover side portion 5122A, and the bottom cover side portion 5122A extends upwardly from the bottom cover main portion 5121A.
  • the bottom cover main portion 5121A is provided with the waterproof groove 104A.
  • the bottom cover main portion 5121A is provided with a waterproof groove forming member 516A.
  • the waterproof groove forming member 516A includes an outer ring plate 5161A extending upwardly from the bottom cover main portion 5121A and an inner ring plate 5162A, the outer side.
  • the waterproof groove 104A is formed between the ring plate 5161A and the inner ring plate 5162A.
  • the waterproof component 100A is provided with a mounting hole 107A and a fixing hole 108A.
  • the mounting hole 107A of the waterproof component 100A corresponding to the bottom cover 512A is provided with a mounting hole 587A corresponding to the waterproof component.
  • a fixing hole 588A is disposed at a position of the fixing hole 108A of the 100A.
  • the mounting hole 107A of the waterproof assembly 100A and the mounting hole 587A of the bottom cover 512A are fixed by fasteners such as screws, the fixing hole 108A of the waterproof assembly 100A and the bottom cover 512A
  • the fixing hole 588A can also be fixed by a fastener such as a screw, so that the waterproof assembly 100A and the bottom cover 512A can be sealingly connected, and the power generating device 200A is sealingly disposed in the waterproof chamber 1000A.
  • the waterproof cover 101A of the waterproof component 100A includes a waterproof active portion 110A, a light ring portion 120A, a waterproof cover main portion 130A, and a shaft support portion 140A.
  • the waterproof active portion 110A is provided to the waterproof case main portion 130A in such a manner that the shape and the number of the driving portions 520A are matched.
  • the bottom surface of each of the waterproof active portions 110A can press against each of the elastic accelerating members 420A.
  • the driving portion 520A can drive the waterproof active portion 110A of the waterproof case 101A of the corresponding waterproof assembly 100A, the waterproofing
  • the bottom surface of the active portion 110A can be pressed against the corresponding elastic acceleration member 420A.
  • the bottom surface of the waterproof active portion 110A is provided with a waterproof cover bump 111A.
  • the waterproof sleeve bump 111A protrudes from the bottom surface of the waterproof active portion 110A, and can resist the corresponding elastic acceleration member 420A, so that the elastic acceleration member 420A drives the bioelectric device 200A to convert mechanical energy into electrical energy. .
  • the bottom cover 512A is further provided with an indicator light 591A.
  • the indicator light 591A is responsive to the driving of the driving portion 520A. For example, when the driving portion 520A is pressed by an external force and the power generating device 200A generates electric energy, the indicator light 591A emits light as feedback.
  • the function of the indicator light 591A described herein is merely an example.
  • the waterproof cover 101A of the waterproof component 100A is further formed with an indicator hole 190A. Specifically, the indicator hole is disposed at a corresponding position corresponding to the indicator 591A of the bottom cover 512A. 190A.
  • the light ring portion 120A is convexly disposed around the indicator light hole 190A, so that the light ring portion 120A is closely attached to the driving portion 520A, when the waterproof assembly 100A and the bottom cover After the 512A is mounted together, water does not enter the waterproof chamber 1000A from the indicator hole 190A, so that the waterproof passive wireless switch of the present invention can have excellent waterproof performance.
  • the support shaft 140A of the waterproof cover 101A of the waterproof assembly 100A is provided with a shaft 530A
  • the drive portion 520A is correspondingly provided with a shaft buckle 527A
  • the support shaft 530A is The driving portion 520A is pivotally moved with the support shaft 530A as an axis.
  • the waterproof cover 101A is provided with eight of the support shafts 530A, four of which are disposed on the waterproof cover main portion 130A, four of which are disposed on the support shaft support portion 140A,
  • the driving portion 520A is correspondingly provided with eight of the pivotal buckles 527A, so that the buttons of the driving portion 520A and the driving portion 520A and the waterproof sleeve 101A can be movable. Ground connection. It will be understood by those skilled in the art that the number and arrangement of the support shaft 140A, the support buckle 527A and the support shaft 530A herein are merely by way of example, and the present invention Not subject to this restriction.
  • the driving portion 520A is implemented as four buttons, and the buttons are connected by a buckle structure having the same structure as the spindle buckle 527A.
  • the combination can be simultaneously pressed and reciprocated to bounce, and any button can be pressed at the same time to generate a combined command.
  • the waterproof passive wireless controller of the present invention can be defined as a reciprocating type.
  • the number of buttons included in the driving portion 520A implemented as a button is merely exemplified herein, and the present invention is not limited in this respect.
  • the inner side surface of the driving portion 520A is further provided with a driving portion pressing member 525A.
  • the driving portion pressing member 525A presses the corresponding waterproof portion.
  • One end of the elastic accelerating member 420A is connected to the bioelectric device 200A, and is capable of accumulating elastic potential energy to accelerate the movement of the bioelectric device 200A, and the other end of the elastic accelerating member 420A presses the reset element 410A.
  • the reset element 410A can accumulate the elastic potential energy during the application of the external force, and resets the driving portion 520A, the electricity generating device 200A, and the elastic accelerating member 420A by releasing the elastic potential energy when the external force disappears.
  • the waterproof component 100A is made of a hard plastic and a soft rubber, preferably integrally injection molded.
  • a portion in which a support and a fixed position are required for example, a portion where the waterproof jacket main portion 130A forms the mounting hole 107A and the fixing hole 108A, and the support shaft portion 140A, the support shaft 530A, and the like are hard plastic materials.
  • the portion where the movement and the waterproof position are required, for example, the waterproof active portion 110A, the lamp ring portion 120A, the waterproof ring 105A, and the like are made of a soft rubber material.
  • the entire waterproof assembly 100A is entirely made of a rubber material, and supports and supports the support shaft 530A of the drive shaft 527A. It may be provided to the bottom cover 512A as in the preferred embodiment. It will be understood by those skilled in the art that the materials of the various components of the present invention are by way of example only, and other variations are possible in other embodiments, and the invention is not limited in this respect.
  • the bottom cover 512A is further formed with a power generation device mounting groove 5125A
  • the bottom cover 512A is provided with a power generation device mounting member 517A
  • the power generation device mounting member 517A includes a group of power generation device mounting side plates 5171A.
  • the bioelectric device mounting groove 5125A is formed between the set of the power generating device mounting side plates 5171A, and the generating device mounting side plate 5171A is further provided with a generating device buckle 5172A, so that each of the generating devices 200A is installed in the bioelectric device mounting groove 5125A.
  • the reset element 410A is implemented as a reset torsion spring
  • the elastic acceleration member 420A is implemented as a spring piece
  • the reset element 410A and The elastic acceleration member may also be implemented in other embodiments in other embodiments, and the invention is not limited in this respect.
  • the bottom cover 512A further has a reset component limiting plate extending therefrom.
  • the reset component limiting plate is provided with a reset component fixing shaft 518A for fixing the reset component 410A, and the bottom cover 512A is further provided with a reset.
  • the component stopper is fixed at both ends of the reset component 410A to the reset component stopper.
  • the elastic accelerating member 420A is disposed between the reset element 410A and the waterproof jacket bump 111A, so that the elastic accelerating member 420 can be reset when the resetting element 410A releases the accumulated elastic potential energy.
  • the power generating device pin 240A of the power generating device 200A is abutted to the communication module 300A and is electrically connected. After the generating device 200 converts mechanical energy in the form of kinetic energy into electrical energy, the electrical energy is output. To the AC end of the communication module 300. That is, the bioelectric device 200A of the waterproof passive wireless controller of the present embodiment has the same structure as the bioelectric device 200 of the preferred embodiment. It can be understood by those skilled in the art that in other modified embodiments, the power generating device 200A may also be a structure that generates electrical energy using conventional mechanical energy, or may be other reasonable structures, such as the inventors have applied for before. Or the structure and the like which have been disclosed in the authorized patent documents, the invention is not limited in this respect. It is worth mentioning that, according to different needs, the position and the number of the bioelectric device 200A can be arbitrarily arranged. The waterproof passive wireless controller of the present invention is more designed and economically enhanced.
  • the waterproof passive wireless controller includes a waterproof component 100B, a power generation device 200B, a communication module 300B, a reset component 400B, a housing 510B, a lever 600, and a driving portion 520B. Further included is a top cover 511B and a bottom cover 512B.
  • the waterproof assembly 100B and the top cover 512B of the housing 510B form a sealed waterproof chamber 1000B, and the power generating device 200B, the communication module 300B, and the reset assembly 400 are disposed in the waterproof chamber Within 1000B.
  • the waterproof assembly 100B and the top cover 511B of the housing 510B form a tolerance chamber 2000B, and the tolerance chamber 2000B can communicate with the outside.
  • the top cover 511B has a driving portion hole 5110B for mounting each of the driving portions 520B.
  • the driving portion 520B can be implemented as a plurality of independently moving buttons and disposed on the top cover 511B, and the other end can move in the tolerance chamber 2000B in response to an external force.
  • the driving portion 520B is capable of pressing the waterproof assembly 100B in response to an external force, the waterproof assembly 100B further pressing against the lever 600B in the waterproof chamber 1000B, and the lever 600 moves and drives the reset assembly 400B.
  • the reset component 400B drives the power generating device 200B to cause the power generating device 200B to convert mechanical energy in the form of kinetic energy into electrical energy to supply power to the communication module 300B.
  • the lever 600B is pre-compressed to generate an instruction or a logic level generating command.
  • the waterproof component 100B includes a waterproof cover 101B and a waterproof wall 105B.
  • the bottom cover 512B includes a bottom cover main portion 5121B and a bottom cover side portion 5122B.
  • the bottom cover side portion 5122B extends upward.
  • the bottom cover main portion 5121B is provided with the waterproof wall 105B.
  • the top cover 511B is sleeved around the bottom cover 512B and fastened to a bottom cover buckle 5123B of the bottom cover 512B.
  • 5123B may be disposed on the outer side wall of the bottom cover side portion 5122B, or may be disposed on the inner side wall of the bottom cover side portion 5122B in other embodiments, of course, in other embodiments, the bottom cover may be disposed on the bottom cover.
  • the main portion 5121B is not limited in this respect as long as the top cover 511B and the bottom cover 512B can be firmly and detachably connected and does not affect the sealing property of the waterproof chamber 1000B.
  • the waterproof cover 101B of the waterproof component 100B is made of a soft rubber material, and is disposed on the waterproof wall 105B of the bottom cover 512B, the top cover 511B.
  • the cover 511B is snap-fitted to the bottom cover buckle 5123B of the bottom cover 512B, and the waterproof cover 101B of the waterproof component 100B is pressed against the periphery of the waterproof cover 101B.
  • the sealed waterproof chamber 1000B is formed between the bottom cover 512B to prevent rainwater and dust from entering, thereby achieving the effect of waterproofing and dustproof.
  • the driving portion 520B implemented as a button is disposed on the waterproof case 101B of the waterproof component 100B, across the waterproof component 100B.
  • the waterproof cover 101B is pressed against the lever 600B to achieve the function of operation and waterproof and dustproof.
  • the resetting assembly 400B includes a resetting element 410B and an elastic accelerating member 420B.
  • the elastic accelerating member 420B is coupled to the generating device 200B, and is capable of accumulating elastic potential energy to accelerate the movement of the generating device 200B.
  • the element 410B is capable of accumulating the elastic potential energy during the application of the external force, and resets the driving portion 520B, the electricity generating device 200B, and the elastic accelerating member 420B by releasing the elastic potential energy when the external force disappears.
  • the waterproof cover 101B moves, the elastic acceleration member pressing member 106B presses the elastic acceleration member 420B, and the elastic acceleration member 420B is driven to drive the power generating device 200B.
  • the driving portion 520B is implemented as six two-row type of buttons arranged side by side, but the driving portion 520B is implemented as a button and a
  • the number and shape of the keys are merely exemplary in this preferred embodiment of the invention, and the invention is not limited in this respect.
  • the bottom cover main portion 5121B of the bottom cover 512B is provided with a bioelectric device mounting member 517B, and the bioelectric device mounting member 517B includes a set of bioelectric device mounting side plates 5171B.
  • a bioelectric device mounting groove 5125B is formed between each set of the power generating device mounting side plates 5171B, and the generating device mounting side plate 5171B is further provided with a generating device buckle 5172B, and the outside of the generating device 200B is also disposed.
  • Each of the power generating device mounting side plates 5171B is further provided with a reset element fixing shaft 518B for fixing the resetting element 410B.
  • the elastic acceleration member 420B is disposed between the reset element 410B and the lever 600B such that the elastic acceleration member 420B can be reset when the reset element 410B releases the accumulated elastic potential energy.
  • the lever 600B includes a first lever side wing 610B, a second lever side wing 620B, a lever body 630B, and a lever apex 640B.
  • the first lever side flap 610B and the second lever side flap 620B extend respectively at opposite ends of the lever body 630B, preferably axially symmetric with respect to the lever body 630B.
  • the bottom cover 512B is provided with a lever stop 5124B to stop the movement of the lever 600B.
  • the lever stop 5124B hooks the lever 600B as a pivot point for the movement of the lever 600B.
  • the lever apex 640B is disposed on a surface of the lever main body 630B facing the elastic accelerating member 420B.
  • the lever apex 640B may be integrally protruded from the lever body 630B, or may be connected to the lever body 630B after being formed, and the present invention is not limited in this respect.
  • the waterproof cover 101B is disposed on a top surface of the bottom cover 512B or a waterproof wall surface, and the top cover 511B and the waterproof cover 101B are pressed against the edge, so that the waterproof cover 101B and The sealed waterproof chamber 1000B is formed between the bottom covers 512B.
  • the power generating device 200B, the resetting component 400B, the communication module 300B, a switch 700B electrically connected to the communication module 300B, and the lever 600B are disposed on the waterproof cover 101B and the bottom cover Between 512B and placed in the waterproof chamber 1000B.
  • An operating member such as the driving portion 520B that is implemented as a button is disposed on the other side of the waterproof case 101B, that is, the tolerance chamber 2000B, so that the driving portion 520B implemented as a button is moved in response to an external force. .
  • the driving portion 520B implemented as a button presses the lever 600B in the waterproof chamber 1000B via the waterproof jacket 101B, and the lever 600B drives the power generating device 200B to generate electricity.
  • the communication module 300B can emit a radio signal in an environment where liquid is immersed in water or the like.
  • the power generating device 200B of the present invention may be a magnetoelectric conversion mechanical power generating device, or a piezoelectrically transducing piezoelectric crystal element.
  • a piezoelectrically transducing piezoelectric crystal element is employed, the piezoelectric crystal element is placed below the lever apex 640B in Fig. 23, so that the lever apex 640B can press the piezoelectric crystal element to generate electricity.
  • the waterproof case 101B of the waterproof component 100B is elastically deformed, and the lever 600B starts to descend toward the position in the figure.
  • the switch 700B provided under the driving portion 520B is pressed and turned on in advance.
  • the lever 600B continues to descend, the lever apex 640B has a downward amplitude, the lever apex 640B presses the elastic acceleration member 410B down to a predetermined position, and the elastic acceleration member 410B accelerates the generation of the power generation.
  • the core of the device 200B moves so that the generating device 200B generates electricity. Further, the communication module 300B obtains the electric energy.
  • the switch 700B Since the switch 700B is previously turned on, the I/O interface of an encoder of the communication module 300B is turned on, so the communication module 300B obtains the electric energy. An encoded wireless signal corresponding to the switch 700B that is pre-conducted is issued. Further, when the driving portion 520B implemented as a button is released, the power generating device 200B generates another electric energy due to the resetting action of the resetting element 410B, and the communication module 300B sends a wireless signal again. . Further, the driving portion 520B implemented as a button, the lever 600B, the waterproof cover 101B of the waterproof component 100B, and the switch 700B are all reset under the reset function of the reset element 410B, and return to the initial state. status.
  • FIG. 25 is simplified. In order to more intuitively disclose the operation of the lever 600B, FIG. 25 is simplified. In order to make the description of the operation of the lever 600B more concise, other components are omitted, and only the action of the portion of the lever 600B will be described.
  • the reset element 410B is embodied as a spring. Specifically, when the driving portion 520B that is implemented as a button is not pressed, since both ends of the lever 600B, that is, the first lever side wing 610B and the second lever side wing 620B are subjected to the lever stop position 5124B Restricted, and in the middle, that is, the lever body 630B has a force that is pushed up by the resetting element 410B of the spring, the lever 600B is in a balanced state.
  • the step of pushing the power generating device 200B to generate power by the lever 600B is as follows: the driving portion 520B implemented as a button moves, for example, in the direction of FIG. 25; The lever 600B is synchronized downward; the switch 700B is pre-stressed; and the lever apex 640B moves, for example, downwardly against the elastic acceleration member 420B, and the power generating device 200B generates power.
  • the driving portion 520B when the driving portion 520B receives an external force of pressing or pushing, the driving portion 520B is pressed or pushed to generate displacement, thereby generating mechanical energy.
  • the driving portion 520B pushes the lever 600B, and the movement of the lever 600B causes the electric energy generating device 230 to convert mechanical energy into electric energy to supply power to the communication module 300B.
  • the preload of the lever 600B generates a control command or generates a control command through a logic level.
  • the present invention can be widely used as a waterproof passive wireless controller in a bathroom, a kitchen, an outdoor, and the like where water and rain forests are used, and the application is safer and more convenient.
  • a waterproof passive wireless control system comprising the waterproof passive wireless controller disclosed above and an instruction executor, the instruction executor receiving the waterproof passive wireless control The control commands of the device and control functions of other functional devices such as smart home facility execution and control commands.
  • the waterproof passive wireless controller of the present invention is used in a smart toilet, although it can of course be used in a smart toilet cover in other embodiments.
  • the waterproof passive wireless controller can control the smart toilet in a humid environment such as a bath room. For example, controlling the temperature rise of the toilet, controlling the electric cleaning head to perform different water spray cleaning operations, controlling the automatic opening and closing of the toilet cover, and controlling the opening of the ventilation fan.
  • the smart toilet includes a toilet command actuator 10C and a waterproof passive wireless controller 20C.
  • the waterproof passive wireless controller 20C is communicably coupled to the toilet command actuator 10C.
  • the toilet command actuator 10C is configured to perform functions such as heating the toilet of the smart toilet, performing a water jet cleaning operation of different strengths and weaknesses, automatically opening and closing the toilet cover, and opening a ventilation fan.
  • the wireless controller 20C completes various functional controls to the toilet command actuator 10C through a communicable connection with the toilet command actuator 10C, so that the toilet command actuator 10C performs various actions in accordance with a preset function.
  • the waterproof passive wireless controller 20C does not need to install an additional power source, and converts itself into a form of electric energy to supply power to itself, thereby controlling the toilet command actuator 10C to perform various functions.
  • a block diagram of the smart toilet is shown in Fig. 28, illustrating the various components of the toilet command actuator 10C and the manner of connection between the toilet command actuator 10C and the waterproof passive wireless controller 20C.
  • the waterproof passive wireless controller 20C converts mechanical energy into electrical energy to power itself to control the toilet command actuator 10C.
  • the communication module of the waterproof passive wireless controller 20C is powered, and wirelessly communicates the control command to a wireless receiving circuit 11C of the toilet command actuator 10C to receive the transmitted control command through the toilet command actuator 10C.
  • a decoding and driving circuit 12C decodes and drives the toilet command actuator 10C to implement the functions of the smart toilet.
  • the toilet command actuator 10C further includes a control power source 18C for supplying power to the wireless receiving circuit 11C and the decoding and driving circuit 12C.
  • the toilet command actuator 10C further includes an upper cover opening and closing actuator 13C, a heating device 14C, an illumination lamp 15C, a cleaning and disinfecting actuator 16C, and a spray control actuator 17C.
  • the upper cover opening and closing actuator 13C is for opening and closing the upper cover of the smart toilet
  • the heating device 14C is for raising the temperature of the toilet
  • the illumination lamp 15C is used for illumination
  • the cleaning and disinfecting actuator 16C is used for cleaning and disinfection
  • the spray control actuator 17C is used for spraying.
  • the upper cover opening and closing actuator 13C, the heating device 14C, the illumination lamp 15C, the cleaning and disinfecting actuator 16C, and the shower control actuator 17C are herein.
  • other corresponding actuators of the toilet house 10C may also be provided in accordance with other functions of the smart toilet, and the invention is not limited in this respect.
  • waterproof passive wireless controller 20C in FIG. 27 is the waterproof passive wireless controller in the third embodiment of the present invention
  • the waterproof passive wireless controller 20C can also be implemented as the structure in the first two embodiments of the present invention, and the present invention is not limited in this respect.
  • the waterproof passive wireless controller of the present invention is used in a bathroom device in a bathroom.
  • the bath device includes a Yuba command actuator 10D and a waterproof passive wireless controller 20D.
  • the waterproof passive wireless controller 20D is communicably coupled to the Yuba command actuator 10D.
  • the Yuba command actuator 10D is configured to perform functions such as turning on a heater, a ventilating fan, a illuminating lamp, a heater, and the like, and the waterproof passive wireless controller 20 is configured to be coupled to the Yuba command actuator 10D.
  • the communication connection completes various function control of the Yuba command actuator 10D, so that the Yuba command actuator 10D performs various actions in accordance with a preset function.
  • the waterproof passive wireless controller 20D does not need to install an additional power source, and converts itself into a form of electric energy to supply power to itself, thereby controlling the bath commander 10D to implement various functions.
  • the Yuba command actuator 10D includes a control main board 19D, a heater fan 14D, a ventilating fan 13D, an illuminating lamp 15D, and a heating unit 16D.
  • the control main board 19D receives the control command issued by the waterproof passive wireless controller 20D, and correspondingly executes the heater fan 14D, the ventilating fan 13D, the illumination lamp 15D, and the heating component 16D according to the control instruction.
  • the heater fan 14D can provide warm air
  • the ventilation fan 13D can realize circulation of air inside and outside the bathroom
  • the illumination lamp 15D can realize illumination
  • the heating assembly 16D provides a heating function, and the like.
  • the heater fan 14D, the ventilating fan 13D, the illuminating lamp 15D, and the heating component 16D are merely by way of example, and in other embodiments, Other functions of the device provide for other corresponding actuators of the bath device, and the invention is not limited in this respect.
  • the waterproof passive wireless controller 20D converts mechanical energy into electrical energy to power itself to control the Yuba command actuator 10D.
  • the communication module of the waterproof passive wireless controller 20D is powered, and wirelessly communicates the control command to a wireless receiving circuit 11D of the control board 19D of the Yuba command actuator 10D to receive the transmitted control command.
  • a decoding and driving circuit 12D of the control board 19D of the Yuba command actuator 10D decodes and drives the Yuba command actuator 10D to implement the functions of the bath device.
  • the Yuba command actuator 10D further includes a control power source 18 for supplying power to the wireless receiving circuit 11D and the decoding and driving circuit 12D of the control board 19D.
  • the structure and power generation principle of the waterproof passive wireless controller in the three embodiments of the present invention can be applied to the waterproof passive wireless controller 20D of the Yuba device. This aspect is not subject to this limitation.
  • the waterproof passive wireless controller of the present invention is used for a water heater device in a bathroom.
  • the water heater apparatus includes a water heater command actuator 10E and a waterproof passive wireless controller 20E.
  • the waterproof passive wireless controller 20E is communicably coupled to the water heater command actuator 10E.
  • the water heater command actuator 10E is configured to perform functions such as fire regulation, water flow adjustment, timing control, preheating, and gas valve control of the water heater apparatus, and the waterproof passive wireless controller 20E passes the instruction with the water heater
  • Actuator 10E is a communicable connection that performs various functional controls on water heater command actuator 10E such that water heater command actuator 10E performs various actions in accordance with a predetermined function.
  • the waterproof passive wireless controller 20E does not need to install an additional power source, and converts itself into a form of electrical energy to supply power to itself by power generation, thereby controlling the water heater command actuator 10E to implement various functions.
  • the water heater command actuator 10E includes a control main board 19E, a fire regulating member 13E, a water flow regulating member 14E, a timing control member 15E, a preheating member 16E, and a combustion valve member 17E.
  • the control main board 19E receives the control command issued by the waterproof passive wireless controller 20E, and correspondingly causes the thermal power adjusting member 13E, the water flow regulating member 14E, the timing control member 15E, and the The preheating member 16E and the combustion valve member 17E perform corresponding functions or stop performing corresponding functions.
  • the fire regulating member 13E is capable of adjusting the heating power
  • the water flow regulating member 14E is capable of regulating the flow of water
  • the timing control member 15E effects timing control
  • the preheating member 16E provides a preheating function
  • the combustion valve member 17E controls the gas valve and many more.
  • the fire regulating member 13E, the water flow regulating member 14E, the timing control member 15E, the preheating member 16E, and the combustion valve member 17E are merely by way of example.
  • other corresponding actuators of the water heater device may also be provided in accordance with other functions of the water heater device, and the invention is not limited in this respect.
  • FIG 32 also illustrates the manner of connection between the water heater command actuator 10E and the waterproof passive wireless controller 20E.
  • the waterproof passive wireless controller 20E converts mechanical energy into electrical energy to power itself to control the water heater command actuator 10E.
  • the communication module of the waterproof passive wireless controller 20E is powered, and wirelessly communicates the control command to a wireless receiving circuit 11E of the control board 19E of the water heater command actuator 10E to receive the received control command.
  • a decoding and driving circuit 12E of the control board 19E of the water heater command actuator 10E decodes and drives the water heater command actuator 10E to implement the functions of the water heater device.
  • the water heater command actuator 10E further includes a control power source 18E for supplying power to the wireless receiving circuit 11E and the decoding and driving circuit 12E of the control board 19E.
  • the structure and power generation principle of the waterproof passive wireless controller in the three embodiments of the present invention can be applied to the waterproof passive wireless controller 20E of the water heater device. This aspect is not subject to this limitation.
  • the three waterproof passive wireless controllers disclosed above are applied to smart toilets, bath dam devices and water heaters in bathrooms, and in other embodiments can also be used to control kitchen equipment.
  • a pulverizer and a sterilizer can also be used to control kitchen equipment.

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Abstract

本发明提供了一种防水无源无线控制器和控制系统及其应用,所述防水无源无线控制器包括:至少一防水组件、至少一驱动部、至少一生电装置、至少一通信模块以及至少一壳体,所述防水组件以及所述壳体形成密闭的至少一防水腔,所述生电装置以及所述通信模块被设置于所述防水腔内,所述驱动部能够响应外力运动,且能够隔着所述防水组件驱动各所述生电装置,各所述生电装置被电气性连接于所述通信模块并且将机械能转化为电能为所述通信模块供电,所述通信模块发出至少一无线电信号的控制指令。

Description

防水无源无线控制器和控制系统及其应用 技术领域
本发明涉及控制领域,特别地涉及一种防水无源无线控制器和控制系统及其应用,所述防水无源无线控制器具备良好的防水性能。
背景技术
现有的无源无线开关装置有回弹式和翘板式等不同的结构。其中现有的回弹式无源无线开关采用单个发电机构成,其按键指令的产生方式是采用导电橡胶使PCB上电极导通,从而使单片机的I/O口电平发生变化来产生指令编码;这种利用导电橡胶短接电极产生编码的方法缺陷较多,首先,物理电极会因时间的变化而氧化,导致接触不良;其次是导电橡胶逐渐老化使得产生按键指令的可靠性变低;再者,这种用机械触点产生编码的方式不能用于一些潮湿、高温的环境当中,从而限制了应用范围。
现有的翘板式无源无线开关虽然采用多个发电机来产生能量及控制指令,但是翘板式无源无线开关只能产生单一的指令信号,即每按一次只能产生一组信号,因而只能控制一些简单的电气设备,比如控制电灯的开与关;在智能控制系统中常常有变量需要调整,例如调整灯泡的亮度,需要按下开关及复位时产生两次指令,从而实现组合命令,实现变量调整,翘板式无源无线开关显然在按下及松开按键时不能产生两次不同的指令,因此应用范围有限。
此外,在防水性能中,现有的防水技术多为在电路板和需要防水的线路上整体涂上一层防水漆,不仅工艺复杂,生产成本高,而且出现渗漏后难以维修,且使得整个开关的电路部分为一整体,失去了模块化的意义,难以维修更换。无源无线开关装置的防水问题在现有技术中也没有得到很好的解决,应用环境也受很多的限制。
发明内容
本发明的目的在于提供一种防水无源无线控制器和控制系统及其应用,具有 良好的防水性能。
本发明的另一目的在于提供一种防水无源无线控制器和控制系统及其应用,能够提高所述无源无线控制器的可靠性和使用寿命。
本发明的另一目的在于提供一种防水无源无线控制器和控制系统及其应用,具有可拆卸结构,便于所述无源无线控制器的各组件的更换。
本发明的另一目的在于提供一种防水无源无线控制器和控制系统及其应用,能够通过脉冲判断的方法产生控制指令。
本发明的另一目的在于提供一种防水无源无线控制器和控制系统及其应用,包括至少一生电装置,各生电装置各自独立工作互不干扰,提高了使用寿命。
本发明的另一目的在于提供一种防水无源无线控制器和控制系统及其应用,所述生电装置既是能量产生器也是指令信号产生器,从而使信号发送电路的控制可靠性提高。
本发明的另一目的在于提供一种防水无源无线控制器和控制系统及其应用,包括至少一防水组件以及至少一壳体,所述防水组件以及所述壳体形成密闭的至少一防水腔,所述生电装置以及至少一通信模块被设置于所述防水腔,提高了防水性能。
本发明的另一目的在于提供一种防水无源无线控制器和控制系统及其应用,所述防水组件还包括至少一防水套以及至少一防水墙,所述防水墙延伸于所述防水套,且所述防水墙被紧密贴合地设置于所述壳体的至少一底盖的至少一防水槽内。
本发明的另一目的在于提供一种防水无源无线控制器和控制系统及其应用,所述防水组件还包括至少一套体外沿,所述套体外沿向外凸出地延伸于所述防水墙以及所述防水套,进一步提高防水性能。
本发明的另一目的在于提供一种防水无源无线控制器和控制系统及其应用,所述无源无线控制器的至少一驱动部设置有至少一驱动部顶压件,所述防水组件的所述防水套形成有至少一驱动部顶端卡槽,所述驱动部顶压件被设置于驱动部顶端卡槽内,从而提高所述无源无线控制器使用过程的稳定性。
本发明的另一目的在于提供一种防水无源无线控制器和控制系统及其应用,所述无源无线控制器包括至少一弹性加速元件,能够加速所述生电装置的运动。
本发明的另一目的在于提供一种防水无源无线控制器和控制系统及其应用, 所述无源无线控制器包括至少一复位元件,及时复位所述驱动组件以及所述生电装置。
本发明的另一目的在于提供一种防水无源无线控制器和控制系统及其应用,所述无源无线控制器包括至少一复位元件,能够使所述无线控制开关产生组合控制指令。
本发明的另一目的在于提供一种防水无源无线控制器和控制系统及其应用,所述驱动部包括多个可组合式按键,实现多按键操作。
本发明的另一目的在于提供一种防水无源无线控制器和控制系统及其应用,能够应用于智能家居中,具有良好的防水性能。
为了实现上述至少一个目的,本发明提供了一种防水无源无线控制器,包括:至少一防水组件、至少一驱动部、至少一生电装置、至少一通信模块以及至少一壳体,所述防水组件以及所述壳体形成密闭的至少一防水腔,所述生电装置以及所述通信模块被设置于所述防水腔内,所述驱动部能够响应外力运动,且能够隔着所述防水组件驱动各所述生电装置,各所述生电装置被电气性连接于所述通信模块并且将机械能转化为电能为所述通信模块供电,所述通信模块发出至少一无线电信号的控制指令。
在一些实施例中,所述壳体包括至少一顶盖和至少一底盖,所述顶盖将所述防水组件的边沿抵压固定于所述底盖的边沿,所述防水组件以及所述底盖之间形成密闭的所述防水腔,所述驱动部设置于所述顶盖。
在一些实施例中,所述驱动部作为所述壳体的至少一顶盖,所述壳体还包括至少一底盖,所述驱动部将所述防水组件的边沿抵压固定于所述底盖的边沿,所述防水组件以及所述底盖之间形成密闭的所述防水腔。
在一些实施例中,所述防水组件还包括至少一防水套以及至少一防水墙,所述防水墙延伸于所述防水套,且所述防水墙被紧密贴合地设置于所述壳体的至少一底盖的至少一防水槽内。
在一些实施例中,所述防水墙和所述防水套为一体地成型。
在一些实施例中,所述底盖设置有至少一防水槽成形件,所述防水槽成形件包括向上地延伸于所述底盖的至少一外侧环板以及至少一内侧环板,所述外侧环板和所述内侧环板之间形成所述防水槽。
在一些实施例中,所述底盖凹陷地形成所述防水槽。
在一些实施例中,所述防水组件还包括至少一套体外沿,所述套体外沿向外凸出地延伸于所述防水墙以及所述防水套。
在一些实施例中,所述壳体还包括至少一顶盖,所述顶盖和所述底盖为卡扣式连接,所述驱动部设置于所述顶盖。
在一些实施例中,所述顶盖包括至少一环形框架的顶盖主部以及至少一顶盖压边,所述顶盖压边被连接于所述顶盖主部,所述套体外沿被紧密地压设于所述顶盖压边以及所述底盖之间,且被设置于所述防水腔的外侧。
在一些实施例中,所述驱动部设置有至少一驱动部防脱扣,所述驱动部防脱扣能够被卡设于所述壳体,防止所述驱动部脱离。
在一些实施例中,所述壳体设置有至少一支轴,所述驱动部能够以所述支轴为轴作枢转运动。
在一些实施例中,所述驱动部的内侧面设置有至少一支轴卡扣,所述支轴被卡设于所述支轴卡扣。
在一些实施例中,所述驱动部设置有至少一驱动部顶压件,所述防水组件的所述防水套形成有至少一驱动部顶端卡槽,所述驱动部顶压件被设置于驱动部顶端卡槽内。
在一些实施例中,所述防水无源无线控制器还包括至少一复位元件以及至少一弹性加速件,所述复位元件以及所述弹性加速件设置于密闭的所述防水腔内,所述驱动部隔着所述防水组件驱动所述弹性加速件,所述弹性加速件被连接于所述生电装置且加速所述生电装置的运动,所述复位元件复位所述驱动部、所述生电装置以及所述弹性加速件。
在一些实施例中,所述防水组件的所述防水套的相对于所述防水腔的一侧面设置有至少一弹性加速件顶压件,所述弹性加速件顶压件抵压所述弹性加速件,所述弹性加速件被驱动而带动所述生电装置。
在一些实施例中,所述弹性加速件顶压件凸出地延伸于所述防水套的至少一内侧面的表面。
在一些实施例中,所述生电装置包括至少一磁组,至少一线圈,以及至少一中柱,其中所述线圈设置在所述中柱周围,所述磁组包括至少一永磁体和位于所述永磁体相反两侧的至少一顶导磁体和至少一底导磁体,其中在所述弹性加速件被连接于所述中柱,且能够驱动所述中柱同步交替地接触所述顶导磁体和所述底 导磁体,从而穿过所述线圈的磁感线方向发生改变,使所述线圈中产生至少一感生电流。
在一些实施例中,所述壳体形成有至少一通信模块槽以及至少一生电装置安装槽,所述通信模块被设置于所述通信模块槽内,所述生电装置被设置于所述生电装置安装槽内。
在一些实施例中,所述壳体设置有至少一生电装置安装件,所述生电装置安装件包括至少一组生电装置安装侧板,各组所述生电装置安装侧板之间形成所述生电装置安装槽。
在一些实施例中,各所述生电装置安装件与各所述生电装置为卡扣式连接。
在一些实施例中,各生电装置安装侧板的外侧面设置有至少一复位元件安装轴,所述复位元件的两端部被分别连接于所述复位元件安装轴,所述复位元件的被设置于两所述复位元件安装轴之间的部分抵接所述弹性加速件。
在一些实施例中,所述复位元件为至少一弹簧,所述弹性加速件为至少一弹片。
在一些实施例中,所述驱动部为多个按键,各按键之间为并排地可拆卸地卡扣式连接。
在一些实施例中,所述按键每响应一次外力,所述生电装置产生两次电脉冲,所述通信模块发射两次所述无线电信号的控制指令。
在一些实施例中,所述防水组件包括至少一防水套以及至少一防水圈,所述防水圈设置于所述防水套的底部,所述防水圈被紧密贴合地设置于所述壳体的至少一防水槽内,所述防水无源无线控制器还包括设置于所述防水腔内的至少一复位组件,所述驱动部响应于外力的施加而运动,能够隔着所述防水套驱动所述复位组件,所述复位组件带动所述生电装置产生第一次电脉冲之后,复位所述生电装置且所述生电装置再次产生电脉冲。
在一些实施例中,各所述驱动部之间通过卡扣方式连接。
在一些实施例中,所述防水无源无线控制器还包括至少一底盖,所述生电装置以及所述通信模块被设置于所述底盖,各所述驱动部被作为所述防水无源无线控制器的顶盖,所述驱动部以及所述底盖为卡扣式连接。
在一些实施例中,所述驱动部设置有至少一支轴卡扣,所述防水套设置有至少一支轴,所述支轴被卡设于所述支轴卡扣,从而所述驱动部能够以所述支轴为 轴作枢转运动。
在一些实施例中,所述复位组件包括至少一复位元件以及至少一弹性加速件,所述驱动部的内侧面还设置有至少一驱动部顶压件,所述驱动部响应外力的施加而运动的时候,所述驱动部顶压件抵压所述防水套的至少一防水能动部的一面,所述防水能动部的另一面的至少一防水套凸点抵压所述弹性加速件,所述弹性加速件的一端被连接于所述生电装置,能够加速所述生电装置的运动,所述弹性加速件的另一端抵压所述复位元件,所述复位元件复位所述驱动部、所述生电装置以及所述弹性加速件。
在一些实施例中,所述底盖还形成有至少一生电装置安装槽,所述底盖设置有至少一生电装置安装件,所述生电装置安装件包括至少一组生电装置安装侧板,各组所述生电装置安装侧板之间形成所述生电装置安装槽。
在一些实施例中,所述生电装置安装侧板还设置有至少一生电装置卡扣,所述生电装置的设置有相匹配的至少一卡钩,从而各所述生电装置通过所述生电装置卡扣以及所述卡钩被安装于所述生电装置安装侧板形成的所述生电装置安装槽内。
在一些实施例中,所述弹性加速件被设置于所述复位元件与所述防水套凸点之间。
在一些实施例中,所述生电装置包括至少一磁组,至少一线圈,以及至少一中柱,其中所述线圈设置在所述中柱周围,所述磁组包括至少一永磁体和位于所述永磁体相反两侧的至少一顶导磁体和至少一底导磁体,其中在所述弹性加速件被连接于所述中柱,且能够驱动所述中柱同步交替地接触所述顶导磁体和所述底导磁体,从而穿过所述线圈的磁感线方向发生改变,使所述线圈中产生至少一感生电流。
在一些实施例中,所述复位元件为至少一弹簧,所述弹性加速件为至少一弹片。
在一些实施例中,防水组件的所述防水套还包括一灯圈部、一防水套主部以及一支轴支撑部,所述防水能动部凸出地设置于所述防水套主部,所述灯圈部凸出于所述防水套主部并形成至少一指示灯孔,所述支轴支撑部支撑所述支轴,所述防水套主部、所述灯圈部、所述防水套主部以及所述支轴支撑部为一体化成型。
在一些实施例中,所述壳体包括至少一顶盖,以及至少一底盖,所述驱动部 设置于所述顶盖,所述防水组件包括至少一防水套以及至少一防水墙,所述防水墙设置于所述底盖的边沿并紧密地贴合所述防水套的底部,所述顶盖将所述防水套的边沿抵压固定于所述底盖的边沿,所述防水套以及所述底盖之间形成密闭的所述防水腔。
在一些实施例中,所述顶盖形成有至少一驱动盖孔,各所述驱动盖设置于各所述驱动盖孔内。
在一些实施例中,所述防水无源无线控制器还包括至少一杠杆、至少一复位元件、至少一弹性加速件以及至少一微动开关,所述杠杆、所述复位元件、所述弹性加速件以及所述微动开关被设置于密闭的所述防水腔内,所述微动开关被电气性连接于所述通信模块,所述通信模块被所述微动开关预先电性接通,所述驱动部隔着所述防水套抵压所述杠杆,所述杠杆抵压所述弹性加速件,所述弹性加速件被连接于所述生电装置且加速所述生电装置的运动,所述复位元件复位所述驱动部、所述杠杆、所述生电装置以及所述弹性加速件。
在一些实施例中,所述杠杆包括至少一组杠杆侧翼、至少一杠杆主体以及至少一杠杆顶点,所述杠杆侧翼对称地延伸于所述杠杆主体,所述杠杆顶点凸出于所述杠杆主体,所述驱动部隔着所述防水套抵压所述杠杆主体,所述杠杆顶点同步地抵压所述弹性加速件。
在一些实施例中,所述底盖设置有至少一杠杆止位,所述杠杆止位勾住所述杠杆,作为所述杠杆的运动支点。
在一些实施例中,所述生电装置包括至少一磁组,至少一线圈,以及至少一中柱,其中所述线圈设置在所述中柱周围,所述磁组包括至少一永磁体和位于所述永磁体相反两侧的至少一顶导磁体和至少一底导磁体,其中在所述弹性加速件被连接于所述中柱,且能够驱动所述中柱同步交替地接触所述顶导磁体和所述底导磁体,从而穿过所述线圈的磁感线方向发生改变,使所述线圈中产生至少一感生电流。
在一些实施例中,所述复位元件为至少一弹簧,所述弹性加速件为至少一弹片。
在一些实施例中,各所述生电装置响应于相应的所述驱动部的驱动和复位各产生一次电脉冲。
根据本发明的另一方面,还提供了一种防水无源无线控制器的无源无线控制 方法,所述无源无线控制方法包括以下步骤:每响应于一次驱动操作,所述防水无源无线控制器自发电产生两次电脉冲,并根据产生的所述电脉冲发射出对应于每所述驱动操作的两次无线控制信号。
在一些实施例中,进一步包括:在每次的所述驱动操作中,所述防水无源无线控制器的至少一驱动部响应于外力的施加而进行枢转运动。
在一些实施例中,进一步包括:所述驱动部的所述枢转运动驱动所述防水无源无线控制器的至少一生电装置产生第一次电脉冲。
在一些实施例中,进一步包括:所述驱动部被施加的外力消失,所述驱动部回复至初始位置,所述生电装置产生第二次电脉冲。
在一些实施例中,进一步包括:所述驱动部带动连接于所述生电装置的至少一弹性加速件,所述弹性加速件带动所述生电装置产生第一次电脉冲。
在一些实施例中,进一步包括:所述驱动部被施加的外力消失,至少一复位元件复位所述驱动部以及所述弹性加速件复位,所述生电装置产生第二次电脉冲。
在一些实施例中,进一步包括:在每次的所述驱动操作中,所述防水无源无线控制器自发电产生两次电脉冲经两路分别被传递至所述防水无源无线控制器的至少一通信模块,其中一路被连接至所述无线通信模块的至少一电源输入端,提供所述防水无源无线控制器的工作电源;其中另一路被连接至所述无线通信模块的至少一电平信号输入端,所述无线通信模块根据电平变化发出预先设定的数据编码。
根据本发明的另一方面,还提供了一种防水无源无线控制系统,包括上述的防水无源无线控制器以及至少一指令执行器,所述指令执行器接收所述防水无源无线控制器的控制指令并控制其他功能设备执行和控制指令相匹配的功能。
根据本发明的另一方面,还提供了一种智能马桶,包括上述的防水无源无线控制器以及至少一马桶指令执行器,所述指令执行器接收所述防水无源无线控制器的控制指令并控制所述智能马桶的其他执行部件执行和控制指令相匹配的功能。
根据本发明的另一方面,还提供了一种浴霸装置,包括上述的防水无源无线控制器以及至少一浴霸指令执行器,所述浴霸指令执行器接收所述防水无源无线控制器的控制指令并控制所述浴霸装置的其他执行部件执行和控制指令相匹配 的功能。
根据本发明的另一方面,还提供了一种热水器装置,其特征在于,包括上述的防水无源无线控制器以及至少一热水器指令执行器,所述热水器指令执行器接收所述防水无源无线控制器的控制指令并控制所述热水器装置的其他执行部件执行和控制指令相匹配的功能。
附图说明
图1是根据本发明的一个优选实施例的一防水无源无线控制器的立体示意图。
图2是根据本发明的上述优选实施例的所述防水无源无线控制器的立体示意图。
图3是根据本发明的上述优选实施例的所述防水无源无线控制器的立体分解示意图。
图4是根据本发明的上述优选实施例的所述防水无源无线控制器的立体分解示意图。
图5是根据本发明的上述优选实施例的所述防水无源无线控制器的立体分解示意图。
图6是根据本发明的上述优选实施例的所述防水无源无线控制器的立体示意图。
图7是根据本发明的上述优选实施例的所述防水无源无线控制器的立体示意图。
图8是根据本发明的上述优选实施例的所述防水无源无线控制器的剖视示意图。
图9是根据本发明的一防水无源无线控制器的模块示意图。
图10是根据本发明的一防水无源无线控制器的一生电装置的一实施方式的立体示意图。
图11和图12阐释了所述生电装置的生电原理图。
图13是根据本发明的第二个实施例的一防水无源无线控制器的立体示意图。
图14是根据本发明的上述实施例的所述防水无源无线控制器的立体分解示意图。
图15是根据本发明的上述实施例的所述防水无源无线控制器的立体分解示意图。
图16是根据本发明的上述实施例的所述防水无源无线控制器的立体分解示意图。
图17是根据本发明的上述实施例的所述防水无源无线控制器的部分立体示意图。
图18是根据本发明的上述实施例的所述防水无源无线控制器的部分放大示意图。
图19是根据本发明的第三个实施例的一防水无源无线控制器的立体示意图。
图20是根据本发明的上述实施例的所述防水无源无线控制器的立体分解示意图。
图21是根据本发明的上述实施例的所述防水无源无线控制器的立体分解示意图。
图22是根据本发明的上述实施例的所述防水无源无线控制器的立体分解示意图。
图23是根据本发明的上述实施例的所述防水无源无线控制器的截面示意图。
图24是根据本发明的上述实施例的所述防水无源无线控制器的截面示意图。
图25是根据本发明的上述实施例的所述防水无源无线控制器的简化后的截面示意图。
图26是根据本发明的上述实施例的模块示意图。
图27是根据本发明的各实施例的所述防水无源无线控制器应用在智能马桶的示意图。
图28是根据本发明的各实施例的所述防水无源无线控制器应用在智能马桶的模块示意图。
图29是根据本发明的各实施例的所述防水无源无线控制器应用在浴霸装置的示意图。
图30是根据本发明的各实施例的所述防水无源无线控制器应用在浴霸装置的示意图。
图31是根据本发明的各实施例的所述防水无源无线控制器应用在浴霸装置的模块示意图。
图32是根据本发明的各实施例的所述防水无源无线控制器应用在热水器装置的模块示意图。
具体实施方式
以下描述用于揭露本发明以使本领域技术人员能够实现本发明。以下描述中的优选实施例只作为举例,本领域技术人员可以想到其他显而易见的变型。在以下描述中界定的本发明的基本原理可以应用于其他实施方案、变形方案、改进方案、等同方案以及没有背离本发明的精神和范围的其他技术方案。
本领域技术人员应理解的是,在本发明的揭露中,术语“纵向”、“横向”、“上”、“下”、“前”、“后”、“左”、“右”、“竖直”、“水平”、“顶”、“底”“内”、“外”等指示的方位或位置关系是基于附图所示的方位或位置关系,其仅是为了便于描述本发明和简化描述,而不是指示或暗示所指的装置或元件必须具有特定的方位、以特定的方位构造和操作,因此上述术语不能理解为对本发明的限制。
可以理解的是,术语“一”应理解为“至少一”或“一个或多个”,即在一个实施例中,一个元件的数量可以为一个,而在另外的实施例中,该元件的数量可以为多个,术语“一”不能理解为对数量的限制。
为了更好地揭露和理解本发明的防水无源无线控制器,参考附图中图9所示,本发明的防水无源无线控制器的基本控制系统原理图被阐释。其中所述防水无源无线控制器包括一驱动单元11、一生电装置12、一无线通信模块13以及一复位单元14。所述复位单元14包括一弹片15以及一弹簧16。所述驱动单元11具有一支点17,从而能够被外力按动或者推动。所述无线通信模块13通过一电源输入端18以及一电平信号输入端19和所述生电装置12电气性连接,所述防水无源无线控制器系统还包括电气性连接于所述无线通信模块13的一天线20以及一光发射元件21。如图14所示,所述驱动单元11能够被实施为按键,被实施为按键的所述驱动单元12受到外力的作用,例如被推动或者按动的时候,所述驱动单元11运动而带动所述复位单元14的所述弹片15,带动所述生电装置12将动能的机械能转化为电能,从而为所述无线通信模块13供电。在这个过程中,所述弹簧16被压缩而积蓄弹性势能。当外力消失的时候,所述复位单元14的所述弹簧16释放弹性势能将所述驱动单元11以及所述弹片14复位。所述防水无源无线控制器系统可以被设置有多个相互独立的所述生电装置12,各所述生电 装置12能够独立地被各所述驱动单元12所驱动,为所述无线通信模块13供电。所述无线通信模块13被供电后,经由所述天线20以及所述光发射元件21以无线电波或者光波传送信号。本领域的技术人员可以理解的是,这里的所述弹簧16以及所述弹片15仅仅作为举例,还可以是其他弹性材料制成的元件,本发明在这一方面并不受此限制。此外,所述驱动单元11能够响应外力而产生一驱动信息,例如所述驱动信息可以是打开其他被控设备或者关闭其他被控设备等,所述无线通信模块13根据所述驱动信息在被供电后发出匹配所述驱动信息的一无线控制信号,从而能够控制其他被控设备接收所述无线控制信号,并执行匹配所述驱动信息的功能,例如打开或者关闭照明设备等。本领域的技术人员可以理解的是,这里的所述无线通信模块13发射所述无线控制信号的方式不仅仅局限于所述天线20以及所述光发射元件21,即不仅仅局限于以无线电波或者光波的形式传送所述无线控制信号,还可以是其他合理的传送方式,本发明在这一方面并不受此限制。
具体地,举例来说,当所述驱动单元11被实施为多个按键,操作者操作所述防水无源无线控制器的时候,按压被预设为“开灯”的按键,被实施为该“开灯”按键的所述驱动单元11响应操作者施加的按压力,以所述支点17为中心做摆动运动;所述驱动单元11顶触所述弹片15并向下运动;所述弹片15被带动而随着所述驱动单元的顶触向下运动;所述弹片15的摆动使所述生电装置12将动能转化为电能产生第一次电脉冲;当操作者将手离开被驱动的按键,即按键上施加的外力消失时,所述弹片15被所述弹簧16向上推动复位;所述弹片15被复位的过程中导致所述生电装置12产生第二次电脉冲;各所述生电装置12产生的电脉冲经两路分别连接至所述无线通信模块13,如图9所示,其中一路被连接至所述无线通信模块13的所述电源输入端18,与所述无线通信模块13的AC接口相连接,为本发明的所述防水无源无线控制器提供工作电源;其中另一路被连接至所述无线通信模块13的所述电平信号输入端19,与所述无线通信模块13的I/O口相连接,所述无线通信模块13根据I/O口的电平变化发出预先设定的数据编码,这里的数据编码和被驱动的按键所预先设定的驱动信息相匹配;所述无线通信模块13获得电能以及电平指令后,以无线电波或者光波的形式发出控制信息控制其他被控设备执行例如照明设备的开启等的功能。
本领域的技术人员可以理解的是,前述举例中的按键被预设为“开启”仅仅 作为举例,本发明在这一方面并不受此限制。
因此,对比于现有技术中利用导电橡胶或者机械开关通断产生指令的方法,本发明的所述防水无源无线控制器的控制系统采用物理的方式来产生指令信号;本发明不采用机械方式来产生指令,而是采用脉冲判断的方法产生指令,当被实施为按键的所述驱动元件11被按下去时,与该按键联动的所述生电装置12会产生一个正脉冲;相应的,当这个按键复位时,联动的所述生电装置12会产生一个负脉冲;因此只要判断所述生电装置12产生脉冲的状况,就能知道是按键按下去了,还是弹起来了,从而可以使所述无线通信模块13例如单片机产生相应的按键指令。因此,用物理的方法替代传统机械的方法,本发明的所述防水无源无线控制器的寿命及可靠性会被大大增强。
值得一提的是,所述生电装置12能够将动能形式的机械能转化为电能,其结构可以有很多实施方式,除了采用传统的机械能产生电能的结构,还可以是本发明的图10至图12中所示的结构(具体的结构在之后会有详述),也可以是其他合理的结构例如本发明人在之前已经申请或者授权的专利文件中已经揭露过的结构等,本发明在这一方面并不受此限制。
参考附图中图1至图8所示,基于本发明的一优选实施例的一防水无源无线控制器被阐释,所述防水无源无线控制器具备良好的防水性能,能够被应用于浴室、厨房、户外等有雨水的场所。其中所述防水无源无线控制器包括一防水组件100、一生电装置200、一通信模块300、一复位组件400、一壳体510以及一驱动部520,所述防水组件100以及所述壳体510形成密闭的一防水腔1000,所述生电装置200、所述通信模块300以及所述复位组件400被设置于所述防水腔1000内。所述驱动部520被设置于所述壳体510的外部,且能够响应外力而驱动所述防水腔1000内的所述复位组件400,所述复位组件400带动所述生电装置200,使所述生电装置200将动能形式的机械能转化为电能,为所述通信模块300供电,同时产生一次电脉冲,当外力消失后,所述复位组件400带动所述生电装置200复位,所述生电装置200再次产生一次电脉冲。因此,本发明的所述防水无源无线控制器不仅具有良好的防水性能,而且能够通过判断各所述生电装置200产生的电脉冲的情况,实现组合命令,实现防水无源无线控制器系统中的变量调整。
具体地,从防水结构的角度揭露本发明的这个优选实施例的所述防水无源无 线控制器。所述防水组件100包括一防水套101以及一防水墙105,所述防水墙105和所述防水套101为一体地成型,所述防水墙105延伸于所述防水套101,且所述防水墙105被紧密贴合地设置于所述壳体510的一底盖512的一防水槽104内,从而所述防水组件100的所述防水套101、所述防水墙105以及所述壳体510的所述底盖512之间形成密闭的所述防水腔1000,水等液体不能进入到所述防水腔1000内。
更具体地,在本发明的这个优选实施例中,所述底盖512包括一底盖主部5121以及一底盖侧部5122,所述底盖侧部5122向上地延伸于所述底盖主部5121。所述底盖主部5121设置有所述防水槽104。所述底盖主部5121设置有一防水槽成形件516,所述防水槽成形件516包括向上地延伸于所述底盖主部5121的一外侧环板5161以及一内侧环板5162,所述外侧环板5161和所述内侧环板5162之间形成所述防水槽104。优选地,所述防水组件100的所述防水墙105为弹性防水材料制成,例如橡胶材料或者硅胶材料制成,所述外侧环板5161以及所述内侧环板5162之间的距离即所述防水槽104的宽度略小于所述防水墙105的厚度,从而所述防水墙105由于自身的弹性而被紧密地且无缝隙地贴合于所述防水槽104,从而水等液体不会从所述防水墙105以及所述底盖512之间的缝隙进入所述防水腔1000。
本领域的技术人员可以理解的是,在本发明的这个优选实施例中,所述防水槽104是通过凸出于所述底盖512的所述防水槽成形件516所形成的,但是仅仅作为举例,还可以通过其他合理的方式形成所述防水槽104,例如在其他实施例中,所述底盖512的所述底盖主部5121相对于所述防水腔1000向外地凹陷直接形成所述防水槽104,本发明在这一方面并不受此限制。
进一步地,所述壳体510还包括一顶盖511,所述顶盖511通过一顶底盖卡扣组件被连接于所述底盖512,并紧密地压住所述防水组件100,防止所述防水组件100脱落下来,以增强所述防水腔1000的密封性。所述顶盖511包括一环形框架的顶盖主部5111以及一顶盖压边5112,所述顶盖压边5112被环设于所述顶盖主部5111的内侧部。所述防水套101的外周边缘向外延伸有一套体外沿102,也就是说,所述套体外沿102向外凸出地延伸于所述防水墙105以及所述防水套101。优选地,所述套体外沿102、所述防水墙105和所述防水套101为一体成型。所述防水组件1000的所述防水套101的外边缘处即所述套体外沿102被紧 密地压设于所述顶盖压边5112的一压边主部5113以及所述底盖512之间,且被设置于所述防水腔1000的外侧,从而进一步防止水等液体进入所述防水腔1000。
在本发明的这个优选实施例中,连接所述顶盖511以及所述底盖512的所述顶底盖卡扣组件被实施为一顶盖卡扣5115以及一底盖卡扣5123。所述顶盖卡扣5115被设置于所述顶盖511的所述顶盖主部5111的内侧面,所述底盖卡扣5123被设置于所述底盖512的所述底盖主部5121的外侧面,从而所述底盖512以及所述顶盖511被连接起来,且进一步增强了所述防水组件100和所述壳体510的密封性,而且通过卡扣式连接方式也易于拆卸以及安装。
设置于所述防水橡胶套101的所述防水墙105被插入设置于所述底盖512的所述防水槽104中,形成紧配合,且所述顶盖压边5112被压在所述套体外沿102的四周,使各所述生电装置200与所述通信模块300的部分被容纳于密封的所述防水腔1000内。
所述套体外沿102具有一防水组件固定孔103,所述底盖512的所述底盖主部5121形成有一底盖固定孔513,所述顶盖511相应地形成有一固定孔,所述底盖固定孔513、所述防水组件固定孔103以及所述顶盖511能够被一紧固件穿过,从而进一步加强所述防水组件100以及所述壳体510连接的紧密性,进而进一步防止水等液体进入所述防水腔1000。
进一步地,所述驱动部520被设置于所述防水腔1000的外部,所述驱动部520响应外力而通过驱动所述防水组件100的所述防水套101带动所述复位组件400以及所述生电装置200运动,从而在不影响防水性能的情况下,所述生电装置200将动能形式的机械能转化为电能,为所述通信模块300供电。因此,从这一角度进一步揭露本发明的所述防水无源无线控制器。
本领域的技术人员可以理解的是,在本发明的这个优选实施例中,所述驱动部520被实施为三个并列设置的按键,相应地,所述防水组件100的所述防水套101被实施为形状匹配所述按键的形状。但是,所述驱动部520被实施为按键以及所述按键的数量还有所述防水套101的形状在本发明的这个优选实施例中仅仅作为举例,本发明在这一方面并不受此限制。
具体地,所述驱动部520包括一驱动部基部521以及一驱动部侧部522,所述驱动部侧部522延伸于所述驱动部基部521。所述驱动部侧部522设置有一驱动部防脱扣523,所述驱动部防脱扣523能够被卡设于所述壳体510,防止所述 驱动部520脱离。所述底盖512设置有一支轴530,所述驱动部520的内侧面设置有一支轴卡扣527,所述顶盖511的所述顶盖压边5112设置有相应位置的一压边穿孔5116,所述支轴530穿过所述压边穿孔5116被卡设于所述支轴卡扣527,从而所述驱动部520能够以所述支轴530为轴作枢转运动。
进一步地,所述驱动部520的所述驱动部基部521设置有一驱动部顶压件525,所述防水组件100的所述防水套101的相对于所述驱动部520的一侧面设置有一驱动部顶端卡槽524,所述驱动部顶压件525被设置于驱动部顶端卡槽524内。所述驱动部520响应外力的施加而运动的时候,所述驱动部顶压件525抵压所述防水套101,所述防水套101随着所述驱动部520运动。
进一步地,所述防水组件100的所述防水套101的相对于所述防水腔100的一侧面设置有一弹性加速件顶压件106,所述复位组件400包括一复位元件410以及一弹性加速件420,优选地,所述弹性加速件420直接通过增厚该处所述防水套101的厚度形成,当然也可以有其他合理的形成方式。所述弹性加速件420被连接于所述生电装置200,能够积蓄弹性势能加速所述生电装置200的运动,所述复位元件410能够在外力施加的过程中积蓄弹性势能,在外力消失的时候,通过释放弹性势能复位所述驱动部520、所述生电装置200以及所述弹性加速件420。
所述防水套101运动,所述弹性加速件顶压件106抵压所述弹性加速件420,所述弹性加速件420被驱动而带动所述生电装置200。
进一步地,所述底盖512还形成有一通信模块槽5124以及一生电装置安装槽5125,所述通信模块槽5124以及所述生电装置安装槽5125被设置于所述防水腔1000内。在本发明的这个优选实施例中,所述底盖512设置有一生电装置安装件517,所述生电装置安装件517包括一组生电装置安装侧板5171,各组所述生电装置安装侧板5171之间形成所述生电装置安装槽5125,所述生电装置安装侧板5171还设置有一生电装置卡扣5172,所述生电装置200的外部也设置有相应的卡扣,从而各所述生电装置200被安装于所述生电装置安装槽5125内。
各所述生电装置安装侧板5171还设置有一复位元件固定轴518,用于固定所述复位元件410,所述底盖512还设置有一复位元件止位件515,所述复位元件410的两端部被固定于所述复位元件止位件515。所述弹性加速件420被设置于所述复位元件410与所述弹性加速件顶压件106之间,从而所述复位元件410释 放积蓄的弹性势能时能够复位所述弹性加速件420。
值得一提的是,在本发明的这个优选实施例中,所述复位元件410被实施为复位扭簧,所述弹性加速件420被实施为弹片,当然,本领域的技术人员可以理解的是,所述复位元件410以及所述弹性加速件在其他实施例中还可以被实施为其他合理的结构,本发明在这一方面并不受此限制。
如图10至图12所示为本发明的所述生电装置200的一种实施方式以及生电原理。所述生电装置200采用了封闭式导磁结构,来提高线圈的磁感密度。所述生电装置200包括一中柱210、一磁组220以及一线圈组230。所述磁组220包括一顶导磁盖221、一底导磁盖222、一永磁件223以及一磁组夹片224。所述磁组夹片224固定所述顶导磁盖221以及所述底导磁盖222,所述顶导磁盖221以及所述底导磁盖222之间形成一导磁腔,且所述顶导磁盖221以及所述底导磁盖222的各端部之间留有相对较小的间隙作为至少一磁隙,从而所述中柱210的两端即一第一抵接端211以及一第二抵接端212在所述磁隙内交替同步抵接所述顶导磁盖221以及所述底导磁盖222。所述永磁体223被设置于所述导磁腔内以提供磁场,优选地,在本发明的这个优选实施例中所述永磁体223被贴合地设置于所述顶导磁盖221以及所述底导磁盖222的一内侧壁,且不会影响所述中柱210的运动。所述永磁体223由永磁性材料制成,如磁铁、铝镍钴系永磁合金、铁铬钴系永磁合金、永磁铁氧体、稀土永磁材料和复合永磁材料等。所述线圈组230包括一线圈231以及一线圈骨架232。所述线圈231设置于所述导磁腔内,并环绕于所述中柱210,在本发明的这个优选实施例中为所述线圈骨架232设于所述中柱210并且所述线圈骨架232套设有所述线圈231。
所述生电装置200采用导磁材料上下合盖式的方法,把导磁材料分别做成所述顶导磁盖221以及所述底导磁盖222,将所述永磁体223、所述线圈组230及所述中柱210等发电部件包裹,以达到最大的磁能利用率及获得最小的体积。所述永磁件223被所述顶导磁盖221以及所述底导磁盖222夹持,使所述顶导磁盖221以及所述底导磁盖222在所述永磁件223的作用下形成N-S,或者S-N两磁极分布。
其中图11和图12中的带有箭头的虚线表示为磁感线的传导方向。具体地,如图11所示为假定的初始状态,所述中柱210与所述顶导磁盖221以及所述底导磁盖222的抵接状态为:所述中柱210左侧的所述第一抵接端211与所述顶导 磁盖221抵接,所述中柱210右侧的所述第二抵接端212与所述底导磁盖222抵接端抵接。此时,如图11中的箭头方向所示,磁感线的方向为由左至右穿过所述线圈231,所述中柱210为保持静止状态,所述线圈231中没有产生感生电流。
进一步地,如图12所示,当所述驱动部520的运动带动所述防水组件100的所述防水套101,所述防水套101带动所述弹性加速件420,从而所述弹性加速件420被沿箭头方向推动,使所述中柱210与所述顶导磁盖221以及所述底导磁盖222的抵接状态发生改变,图12中的抵接状态为:所述中柱210的左侧的所述第一抵接端211与所述底导磁盖222相抵接,所述中柱210的右侧的所述第二抵接端212与所述顶导磁盖221相抵接。如箭头方向,磁感线的方向变为由右至左穿过所述线圈231,磁感线的方向发生反向,在磁感线突变的过程中使所述线圈231产生感生电流。这里的所述弹性加速件420的还能够加速所述中柱210的摆动速度,从而使感生能量更大些。可以理解的是,在这个过程中,所述复位元件410积蓄弹性势能。
感生电动势的计算公式如下:
E=-n*ΔΦ/Δt
式中:E为感应电动势,n为线圈的匝数,ΔΦ/Δt为磁通量的变化率。
可以理解的是,当施加在所述驱动部520的外力消失时,被实施为复位扭簧的所述复位元件410释放积蓄的弹性势能,使所述弹性加速件420复位,所述中柱210从图12的位置复位到图11的位置时,磁感线的方向再次产生改变,从而使所述线圈231产生另外一次感生电流。
进一步地,所述生电装置200的所述生电装置引脚240被抵接于所述通信模块300,且为电气性连接,所述生电装置200将动能形式的机械能转化为电能之后,输出电能至所述通信模块300的AC端。
值得一提的是,所述防水无源无线控制器还包括一光指示元件591,能够通过光的显示指示所述防水无源无线控制器的状态信息,所述光指示元件591被设置于所述防水腔1000内,且被电气性连接于所述通信模块300。值得一提的是,所述防水组件100的所述防水套101上设置有透光部190,在不影响防水性能的情况下,所述光指示元件591发出的光能够通过所述透光部190。所述驱动部530的相应位置还形成有一透光孔526,所述透光孔526便于所述光指示元件591发出的光线的发射。
因此,综上,本发明的所述防水无源无线控制器既防水又能以较好的按压手感实现无源无线传送信号的目的。
参照附图之图13至图18所示,基于本发明的另一实施例的防水无源无线控制器被阐释。其中所述防水无源无线控制器包括一防水组件100A、一生电装置200A、一通信模块300A、一复位元件410A、一弹性加速件420A、一底盖512A以及一驱动部520A。所述驱动部520A在本发明的实施例中能够被实施为一顶盖511A。也就是说,在本发明的这个实施例中,所述顶盖511A被实施为田字形排列的四个按键,能够相互独立地运动,并且能够响应于外力的施加而带动所述防水组件100A。当然,所述顶盖511A被实施为田字形排列的四个按键在这实施例中仅仅作为举例,也可以被实施为其他形状以及数量的按键,本发明在这一方面并不受此限制。进一步地,被实施为所述顶盖511A的各所述驱动部520A能够响应外力而运动,从而带动所述防水组件100A,所述防水组件100A被带动而驱动所述弹性加速件420A以及所述复位元件410A,所述弹性加速件420A带动所述生电装置200A,使所述生电装置200A将动能形式的机械能转化为电能,为所述通信模块300A供电,同时产生一次电脉冲,当外力消失后,所述复位元件410A带动所述弹性加速件420A以及所述生电装置200A复位,所述生电装置200A再次产生一次电脉冲。所述防水组件100以及所述底盖512A形成密闭的一防水腔1000A,所述生电装置200A、所述通信模块300A、所述弹性加速件420A以及所述复位组件400A被设置于密封的所述防水腔1000A内,因此,本发明的所述防水无源无线控制器不仅具有良好的防水性能,而且能够通过判断各所述生电装置200A产生的电脉冲的情况,实现组合命令,在潮湿环境中同样能够实现防水无源无线控制器系统中的变量调整。
所述驱动部520A以及所述底盖512A的为卡扣式连接,在本发明的这个实施例中被实施为设置于所述驱动部520A的内侧的一驱动部卡扣5115A,所述驱动卡扣。所述驱动部卡扣5115A被设置于所述驱动部520A的内侧面,所述驱动部卡扣5115A能够被卡设于所述底盖512A的内侧面,从而所述底盖512A以及所述驱动部520A被连接起来,除了防止所述驱动部520A滑脱以外,还通过卡扣式连接方式易于拆卸以及安装。
进一步地,所述防水组件100A包括一防水套101A以及一防水圈105A,所述防水圈105A设置于所述防水套101A的底部。且所述防水圈105A被紧密贴 合地设置于所述底盖512A的一防水槽104A内,从而所述防水组件100A的所述防水套101A、所述防水圈105A以及所述底盖512之间形成密闭的所述防水腔1000A,水等液体不能够进入到所述防水腔1000A内,进而本发明的所述防水无源无线开关能够被放置于潮湿的环境并能够正常工作。
值得一提的是,所述防水套101A以及所述防水圈105A优选地为一体成型,从而能够更有效地实现防水性能。优选地,所述防水组件100A的所述防水圈105A为弹性防水材料制成,例如橡胶材料或者硅胶材料制成,从而所述防水圈105A由于自身的弹性而被紧密地且无缝隙地贴合于所述防水槽104A,从而水等液体不会从所述防水圈105A以及所述底盖512A之间的缝隙进入所述防水腔1000A。可以理解的是,本发明的所述防水圈105A的形状仅仅作为举例,可以是圆形圈、方形圈等,本发明在这一方面并不受此限制。
在本发明的这个实施例中,所述底盖512A包括一底盖主部5121A以及一底盖侧部5122A,所述底盖侧部5122A向上地延伸于所述底盖主部5121A。所述底盖主部5121A设置有所述防水槽104A。所述底盖主部5121A设置有一防水槽成形件516A,所述防水槽成形件516A包括向上地延伸于所述底盖主部5121A的一外侧环板5161A以及一内侧环板5162A,所述外侧环板5161A和所述内侧环板5162A之间形成所述防水槽104A。
进一步地,所述防水组件100A设置有一安装孔107A以及一固定孔108A,所述底盖512A对应的所述防水组件100A的所述安装孔107A的位置设置有一安装孔587A,对应所述防水组件100A的所述固定孔108A的位置设置有一固定孔588A。所述防水组件100A的所述安装孔107A以及所述底盖512A的所述安装孔587A通过紧固件例如螺丝固定,所述防水组件100A的所述固定孔108A以及所述底盖512A的所述固定孔588A也能够通过紧固件例如螺丝固定,从而所述防水组件100A以及所述底盖512A能够密封地连接,所述生电装置200A被密封地设置于所述防水腔1000A内。
进一步地,所述防水组件100A的所述防水套101A包括一防水能动部110A、一灯圈部120A、一防水套主部130A以及一支轴支撑部140A。所述防水能动部110A匹配各所述驱动部520A的形状以及数量设置于所述防水套主部130A。各所述防水能动部110A的底面能够抵压各所述弹性加速件420A。换句话说,当各所述驱动部520A相应于外力而被驱动时,所述驱动部520A能够带动相应的 所述防水组件100A的所述防水套101A的所述防水能动部110A,所述防水能动部110A的底面能够抵压相应的所述弹性加速件420A,更具体地,所述防水能动部110A的底面设置有一防水套凸点111A。所述防水套凸点111A凸出于所述防水能动部110A的底面,能够抵压相应的所述弹性加速件420A,从而所述弹性加速件420A带动所述生电装置200A将机械能转化为电能。
值得一提的是,所述底盖512A还设置有一指示灯591A。所述指示灯591A能够响应所述驱动部520A的驱动。举例来说,当所述驱动部520A被外力按动且所述生电装置200A产生电能,所述指示灯591A发光以作为反馈。当然,这里所述指示灯591A的功能仅仅作为举例。进一步地,所述防水组件100A的所述防水套101A还形成有一指示灯孔190A,具体地,在对应于所述底盖512A的所述指示灯591A的相应的位置设置有所述指示灯孔190A。所述灯圈部120A凸起地设置于所述指示灯孔190A的周围,从而所述灯圈部120A被紧密地贴合于所述驱动部520A,当所述防水组件100A和所述底盖512A被安装在一起后,水不会从所述指示灯孔190A进入所述防水腔1000A,从而本发明的所述防水无源无线开关能够具有优良的防水性能。
进一步地,所述防水组件100A的所述防水套101A的所述支轴支撑部140A设置有一支轴530A,所述驱动部520A的相应地设置有一支轴卡扣527A,所述支轴530A被卡设于所述支轴卡扣527A,从而所述驱动部520A能够以所述支轴530A为轴作枢转运动。在本发明的这个实施例中,所述防水套101A设置有八个所述支轴530A,其中四个被设置于防水套主部130A,其中四个被设置于所述支轴支撑部140A,相应地,所述驱动部520A相应地设置有八个所述支轴卡扣527A,从而所述驱动部520A的各按键之间以及所述驱动部520A和所述防水套101A之间能够可活动地连接。本领域的技术人员可以理解的是,这里的所述支轴支撑部140A、所述支轴卡扣527A以及所述支轴530A的数量和排布方式仅仅作为举例,本发明在这一方面并不受此限制。
值得一提的是,在本发明的这个实施例中,所述驱动部520A被实施为四个按键,各按键之间通过结构和所述支轴卡扣527A相同结构的卡扣方式连接,能够可组合地同时按下以及弹起地往复运动,在同一时间可以按下任何按键,从而产生组合命令。本发明的所述防水无源无线控制器能够被定义为往复式类型。但是,本领域的技术人员可以理解的是,被实施为按键的所述驱动部520A包括的 按键的数量在这里仅仅作为举例,本发明在这一方面并不受此限制。
进一步地,所述驱动部520A的内侧面还设置有一驱动部顶压件525A,所述驱动部520A响应外力的施加而运动的时候,所述驱动部顶压件525A抵压相应的所述防水组件100A的所述防水套101A的所述防水能动套110A,所述防水能动套110A的底面的所述弹性加速件420A,使所述弹性加速件420A随之运动。所述弹性加速件420A的一端被连接于所述生电装置200A,能够积蓄弹性势能加速所述生电装置200A的运动,所述弹性加速件420A的另一端抵压所述复位元件410A,所述复位元件410A能够在外力施加的过程中积蓄弹性势能,在外力消失的时候,通过释放弹性势能复位所述驱动部520A、所述生电装置200A以及所述弹性加速件420A。
值得一提的是,优选地,所述防水组件100A由硬塑胶与软橡胶合注而成,优选地为一体注塑成型。其中需要支撑与固定的位置的部位例如所述防水套主部130A形成所述安装孔107A以及所述固定孔108A的部位以及所述支轴支撑部140A、所述支轴530A等为硬塑胶材料制成,而需要运动以及防水的位置的部位例如所述防水能动部110A、所述灯圈部120A以及所述防水圈105A等为软橡胶材料制成。另外,在其他实施例中,整个的所述防水组件100A全部用橡胶材料制成,支撑并和所述驱动部512A的所述支轴卡扣527A相匹配卡扣式连接的所述支轴530A可以像优选实施例中的设置于所述底盖512A。本领域的技术人员可以理解的是,本发明的各部件的材料仅仅作为举例,在其他实施例中还可以有其他变形,本发明在这一方面并不受此限制。
进一步地,所述底盖512A还形成有一生电装置安装槽5125A,所述底盖512A设置有一生电装置安装件517A,所述生电装置安装件517A包括一组生电装置安装侧板5171A,各组所述生电装置安装侧板5171A之间形成所述生电装置安装槽5125A,所述生电装置安装侧板5171A还设置有一生电装置卡扣5172A,从而各所述生电装置200A被安装于所述生电装置安装槽5125A内。
在本发明的这个实施例中,所述复位元件410A被实施为复位扭簧,所述弹性加速件420A被实施为弹片,当然,本领域的技术人员可以理解的是,所述复位元件410A以及所述弹性加速件在其他实施例中还可以被实施为其他合理的结构,本发明在这一方面并不受此限制。
所述底盖512A还凸起地延伸有复位元件限位板,所述复位元件限位板设置 有一复位元件固定轴518A,用于固定所述复位元件410A,所述底盖512A还设置有一复位元件止位件,所述复位元件410A的两端部被固定于所述复位元件止位件。所述弹性加速件420A被设置于所述复位元件410A与所述防水套凸点111A之间,从而所述复位元件410A释放积蓄的弹性势能时能够复位所述弹性加速件420。
进一步地,所述生电装置200A的生电装置引脚240A被抵接于所述通信模块300A,且为电气性连接,所述生电装置200将动能形式的机械能转化为电能之后,输出电能至所述通信模块300的AC端。也就是说,本实施例的所述防水无源无线控制器的所述生电装置200A和优选实施例中的所述生电装置200的结构相同。本领域的技术人员可以理解的是,在其他变形实施方式中,所述生电装置200A还可以是采用传统的机械能产生电能的结构,也可以是其他合理的结构例如本发明人在之前已经申请或者授权的专利文件中已经揭露过的结构等,本发明在这一方面并不受此限制。值得一提的是,根据不同的需要,可以任意排列组合所述生电装置200A的位置及数量,本发明的所述防水无源无线控制器设计性更强,经济效益明显增强。
参考附图中图19至图26所示,基于本发明的另一实施例的一防水无源无线控制器被阐释。其中所述防水无源无线控制器包括一防水组件100B、一生电装置200B、一通信模块300B、一复位组件400B、一壳体510B、一杠杆600、以及一驱动部520B,所述壳体510B进一步包括一顶盖511B以及一底盖512B。所述防水组件100B以及所述壳体510B的所述顶盖512B形成密闭的一防水腔1000B,所述生电装置200B、所述通信模块300B以及所述复位组件400被设置于所述防水腔1000B内。所述防水组件100B以及所述壳体510B的所述顶盖511B形成一容动腔2000B,所述容动腔2000B能够与外界连通。所述顶盖511B具有一驱动部孔5110B,以供安装各所述驱动部520B。所述驱动部520B能够被实施为多个独立运动的按键并设置于所述顶盖511B,并且另一端能够响应外力在所述容动腔2000B内运动。所述驱动部520B能够响应外力抵压所述防水组件100B,所述防水组件100B进一步抵压所述防水腔1000B内的所述杠杆600B,所述杠杆600运动并带动所述复位组件400B,所述复位组件400B带动所述生电装置200B,使所述生电装置200B将动能形式的机械能转化为电能,为所述通信模块300B供电。所述生电装置200B产生电能之后,所述杠杆600B预压产生指令或 逻辑电平产生指令。
具体地,所述防水组件100B包括一防水套101B以及一防水墙105B,所述底盖512B包括一底盖主部5121B以及一底盖侧部5122B,所述底盖侧部5122B向上地延伸于所述底盖主部5121B。所述底盖主部5121B设置有所述防水墙105B。
在本发明的这个实施例中,所述顶盖511B是套设在所述底盖512B的四周,并扣在所述底盖512B的一底盖卡扣5123B上的,所述底盖卡扣5123B可以设置在所述底盖侧部5122B的外侧壁,也可以在其他实施例中被设置于所述底盖侧部5122B的内侧壁,当然也可以在其他实施例中设置于所述底盖主部5121B,只要能够使所述顶盖511B以及所述底盖512B稳固可拆卸连接并且不影响所述防水腔1000B的封闭性即可,本发明在这一方面并不受此限制。
在本发明的这个实施例中,所述防水组件100B的所述防水套101B被实施为软橡胶材料制成,盖设于所述底盖512B的所述防水墙105B上,所述顶盖511B压紧所述防水套101B的四周,并将所述顶盖511B卡扣式连接于所述底盖512B的所述底盖卡扣5123B上,所述防水组件100B的所述防水套101B与所述底盖512B之间形成所述密闭的防水腔1000B,防止雨水及粉尘进入,从而达到防水防尘的效果。
值得一提的是,在本发明的这个实施例中,被实施为按键的所述驱动部520B设置于在所述防水组件100B的所述防水套101B的上面,隔着所述防水组件100B的所述防水套101B来抵压所述杠杆600B,达到及可实现功能操作,又能防水防尘的目的。
所述复位组件400B包括一复位元件410B以及一弹性加速件420B,所述弹性加速件420B被连接于所述生电装置200B,能够积蓄弹性势能加速所述生电装置200B的运动,所述复位元件410B能够在外力施加的过程中积蓄弹性势能,在外力消失的时候,通过释放弹性势能复位所述驱动部520B、所述生电装置200B以及所述弹性加速件420B。所述防水套101B运动,所述弹性加速件顶压件106B抵压所述弹性加速件420B,所述弹性加速件420B被驱动而带动所述生电装置200B。
本领域的技术人员可以理解的是,在本发明的这个实施例中,所述驱动部520B被实施为六个两排式并列设置的按键,但是,所述驱动部520B被实施为按 键以及所述按键的数量以及形状在本发明的这个优选实施例中仅仅作为举例,本发明在这一方面并不受此限制。
在本发明的这个实施例中,所述底盖512B的所述底盖主部5121B设置有一生电装置安装件517B,所述生电装置安装件517B包括一组生电装置安装侧板5171B,各组所述生电装置安装侧板5171B之间形成一生电装置安装槽5125B,所述生电装置安装侧板5171B还设置有一生电装置卡扣5172B,所述生电装置200B的外部也设置有相应的卡扣,从而各所述生电装置200B被安装于所述生电装置安装槽5125B内。各所述生电装置安装侧板5171B还设置有一复位元件固定轴518B,用于固定所述复位元件410B。所述弹性加速件420B被设置于所述复位元件410B与所述杠杆600B之间,从而所述复位元件410B释放积蓄的弹性势能时能够复位所述弹性加速件420B。
进一步地,所述杠杆600B包括一第一杠杆侧翼610B、一第二杠杆侧翼620B、一杠杆主体630B以及一杠杆顶点640B。所述第一杠杆侧翼610B和所述第二杠杆侧翼620B分别延伸于所述杠杆主体630B的两端,优选地,轴对称于所述杠杆主体630B。所述底盖512B设置有一杠杆止位5124B,止位所述杠杆600B的运动。所述杠杆止位5124B勾住所述杠杆600B,作为所述杠杆600B的运动支点。所述杠杆顶点640B设置于所述杠杆主体630B朝向所述弹性加速件420B的表面。所述杠杆顶点640B可以是一体地凸出于所述杠杆主体630B,也可以是形成之后连接于所述杠杆主体630B,本发明在这一方面并不受此限制。
参照附图之图23和图24所示,基于本发明的这个实施例的防水原理被阐释。如图23所示,所述防水套101B设置于所述底盖512B的顶端平面或者一防水墙面,所述顶盖511B和所述防水套101B为边沿压紧,从而所述防水套101B与所述底盖512B之间形成密闭的所述防水腔1000B。所述生电装置200B、所述复位组件400B、所述通信模块300B、与所述通信模块300B电气性连接的一开关700B、所述杠杆600B被设置于所述防水套101B与所述底盖512B之间,且置于所述防水腔1000B中。被实施为按键的所述驱动部520B等操作部件被设置于所述防水套101B的另一侧,也就是所述容动腔2000B,便于被实施为按键的所述驱动部520B响应外力而运动。
值得一提的是,被实施为按键的所述驱动部520B隔着所述防水套101B,抵压所述防水腔1000B中的所述杠杆600B,所述杠杆600B驱动所述生电装置200B 发电,从而使所述通信模块300B能在有水等液体浸没的环境中发出无线电信号。
值得一提的是,本发明的所述生电装置200B可以为磁电转换的机械发电装置,也可以采用压电换能的压电晶体元件。当采用压电换能的压电晶体元件时,将压电晶体元件置于图23中所述杠杆顶点640B的下方,使所述杠杆顶点640B可压迫压电晶体元件发电即可。
如图24所示,当按下任意一个被实施为按键的所述驱动部520B时,所述防水组件100B的所述防水套101B发生弹性形变,所述杠杆600B开始向图示中位置下行,首先抵压设置于所述驱动部520B下方的所述开关700B并预先导通。进一步地,所述杠杆600B继续下行,所述杠杆顶点640B下行幅度变大,所述杠杆顶点640B抵压所述弹性加速件410B下行到预定位置,所述弹性加速件410B加速带动所述生电装置200B的铁芯运动从而所述生电装置200B发电。进一步地,所述通信模块300B获得电能,由于之前有所述开关700B被预先导通,接通了所述通信模块300B的一个编码器的I/O接口,因此所述通信模块300B获得电能后会发出与预先导通的所述开关700B相对应的编码无线信号。进一步地,当松开被实施为按键的所述驱动部520B时,由于所述复位元件410B的复位作用,所述生电装置200B会再产生一次电能,所述通信模块300B再发出一次无线信号。进一步地,被实施为按键的所述驱动部520B、所述杠杆600B、所述防水组件100B的所述防水套101B、所述开关700B在所述复位元件410B复位作用下全部复位,回到初始状态。
为了更加直观的揭露所述杠杆600B的工作过程,图25做了简化,为了使所述杠杆600B的工作描述更加简洁,隐去了其它部件,仅对所述杠杆600B部分的动作加以描述。所述复位元件410B被实施为弹簧。具体地,当没有按压被实施为按键的所述驱动部520B时,由于所述杠杆600B的两端即所述第一杠杆侧翼610B以及所述第二杠杆侧翼620B受所述杠杆止位5124B的限制,且在中部即所述杠杆主体630B有被实施为弹簧的所述复位元件410B向上推的力的作用下,所述杠杆600B是保持平衡状态的。
当外力按动被实施为按键的所述驱动部520B时,所述杠杆600B推动所述生电装置200B发电的步骤如下:被实施为按键的所述驱动部520B运动例如图25中方向下行;所述杠杆600B同步下行;所述开关700B被预压导通;以及所述杠杆顶点640B运动例如下行抵压所述弹性加速件420B,所述生电装置200B发 电。
如图26所示,当所述驱动部520B受到一按压或者推动的外力的时候,所述驱动部520B被按压或者被推动产生位移,从而产生机械能。所述驱动部520B推动所述杠杆600B,所述杠杆600B运动使所述电能产生装置230将机械能转化为电能,为所述通信模块300B进行供电。同步地,所述杠杆600B的预压产生控制指令或者通过逻辑电平产生控制指令。
因此,本发明作为防水的无源无线控制器,可广泛应用于浴室、厨房、户外等有水及雨林的场合,应用更加安全方便。
根据本发明的另一方面,还提供了一防水无源无线控制系统,包括前述揭露的所述防水无源无线控制器以及一指令执行器,所述指令执行器接收所述防水无源无线控制器的控制指令并控制其他功能设备例如智能家居设施执行和控制指令相匹配的功能。
如图27至图28所示,本发明的所述防水无源无线控制器被用于智能马桶,当然在其他实施例中也可以被用于智能马桶盖。所述防水无源无线控制器可在洗浴间等潮湿环境对智能马桶进行控制。例如控制坐便器升温、控制电动清洗头进行不同强弱的喷水清洗动作、控制马桶上盖自动开闭以及控制打开换气扇等功能。
具体地,如图27所示,其中所述智能马桶包括一马桶指令执行器10C以及一防水无源无线控制器20C。所述防水无源无线控制器20C可通信地被连接于所述马桶指令执行器10C。所述马桶指令执行器10C用于执行所述智能马桶的例如坐便器升温、电动清洗头进行不同强弱的喷水清洗动作、马桶上盖自动开闭以及打开换气扇等功能,所述防水无源无线控制器20C通过与所述马桶指令执行器10C的可通信的连接,完成对马桶指令执行器10C的各种功能控制,使得马桶指令执行器10C按照预设的功能完成各项动作。所述防水无源无线控制器20C不需要安装额外的电源,通过机械能转化为电能的形式而自发电为自身提供电源,从而控制所述马桶指令执行器10C实现各种功能。
如图28所示为所述智能马桶的模块示意图,阐释了所述马桶指令执行器10C的各部件以及所述马桶指令执行器10C和所述防水无源无线控制器20C之间的连接方式。所述防水无源无线控制器20C将机械能转化为电能为自身供电以控制所述马桶指令执行器10C。当所述防水无源无线控制器20C受到一按压或者推 动的外力的时候,将机械能转化为电能,为自身进行供电。所述防水无源无线控制器20C的通信模块由于被供电,将控制指令无线地通信传递至马桶指令执行器10C的一无线接收电路11C接收传来的控制指令,通过所述马桶指令执行器10C的一解码及驱动电路12C进行解码,并驱动所述马桶指令执行器10C实现所述智能马桶的各功能。
所述马桶指令执行器10C还包括一控制电源18C用于为所述无线接收电路11C以及所述解码及驱动电路12C供电。所述马桶指令执行器10C还包括一上盖开闭执行件13C、一加热装置14C、一照明灯15C、一清洗消毒执行件16C以及一喷淋控制执行件17C。所述上盖开闭执行件13C用于开闭所述智能马桶的上盖,所述加热装置14C用于升高坐便器的温度,所述照明灯15C用于照明,所述清洗消毒执行件16C用于清洗和消毒,所述喷淋控制执行件17C用于喷淋。本领域的技术人员可以理解的是,这里的所述上盖开闭执行件13C、所述加热装置14C、所述照明灯15C、所述清洗消毒执行件16C以及所述喷淋控制执行件17C仅仅作为举例,在其他实施例中,还可以根据所述智能马桶其他的功能设置所述马桶住家10C的其他相应的执行件,本发明在这一方面并不受此限制。
值得一提的是,虽然图27中的所述防水无源无线控制器20C的结构和发电原理采用的是本发明的第三个实施例中的所述防水无源无线控制器,但是所述防水无源无线控制器20C也可以被实施为本发明的前两个实施例中的结构,本发明在这一方面并不受此限制。
如图29至图31所示,本发明的所述防水无源无线控制器被用于浴室中的浴霸装置。
具体地,如图29所示,其中所述浴霸装置包括一浴霸指令执行器10D以及一防水无源无线控制器20D。所述防水无源无线控制器20D可通信地被连接于所述浴霸指令执行器10D。所述浴霸指令执行器10D用于执行所述浴霸装置的例如开启暖风机、换气扇、照明灯、加热器等功能,所述防水无源无线控制器20通过与所述浴霸指令执行器10D为可通信的连接,完成对浴霸指令执行器10D的各种功能控制,使得浴霸指令执行器10D按照预设的功能完成各项动作。所述防水无源无线控制器20D不需要安装额外的电源,通过机械能转化为电能的形式而自发电为自身提供电源,从而控制所述浴霸指令执行器10D实现各种功能。
如图30所示,所述浴霸指令执行器10D包括一控制主板19D、一暖风机14D、一换气扇13D、一照明灯15D以及一加热组件16D。所述控制主板19D接收所述防水无源无线控制器20D发出的控制指令,并根据控制指令相应地使所述暖风机14D、所述换气扇13D、所述照明灯15D以及所述加热组件16D执行相应的功能或者停止执行相应的功能。所述暖风机14D能够提供暖风,所述换气扇13D能够实现浴室内外空气的流通,所述照明灯15D能够实现照明,所述加热组件16D提供加热功能等等。本领域的技术人员可以理解的是,这里的所述暖风机14D、所述换气扇13D、所述照明灯15D以及所述加热组件16D仅仅作为举例,在其他实施例中,还可以根据所述浴霸装置其他的功能设置所述浴霸装置的其他相应的执行件,本发明在这一方面并不受此限制。
如图31所示为所述浴霸装置的模块示意图,阐释了所述浴霸指令执行器10D的各部件以及所述浴霸指令执行器10D和所述防水无源无线控制器20D之间的连接方式。所述防水无源无线控制器20D将机械能转化为电能为自身供电以控制所述浴霸指令执行器10D。当所述防水无源无线控制器20D受到一按压或者推动的外力的时候,将机械能转化为电能,为自身进行供电。所述防水无源无线控制器20D的通信模块由于被供电,将控制指令无线地通信传递至浴霸指令执行器10D的所述控制主板19D的一无线接收电路11D接收传来的控制指令,通过所述浴霸指令执行器10D的所述控制主板19D的一解码及驱动电路12D进行解码,并驱动所述浴霸指令执行器10D实现所述浴霸装置的各功能。所述浴霸指令执行器10D还包括一控制电源18用于为所述控制主板19D所述无线接收电路11D以及所述解码及驱动电路12D供电。
值得一提的是,本发明的三个实施例中的所述防水无源无线控制器的结构和发电原理都可以应用于所述浴霸装置的所述防水无源无线控制器20D,本发明在这一方面并不受此限制。
类似地,如图32所示,本发明的所述防水无源无线控制器被用于浴室中的热水器装置。
具体地,如图32所示,其中所述热水器装置包括一热水器指令执行器10E以及一防水无源无线控制器20E。所述防水无源无线控制器20E可通信地被连接于所述热水器指令执行器10E。所述热水器指令执行器10E用于执行所述热水器装置的例如进行火力调节、水流调节、定时控制、预先加热以及燃气阀门控制等 功能,所述防水无源无线控制器20E通过与所述热水器指令执行器10E为可通信的连接,完成对热水器指令执行器10E的各种功能控制,使得热水器指令执行器10E按照预设的功能完成各项动作。所述防水无源无线控制器20E不需要安装额外的电源,通过机械能转化为电能的形式而自发电为自身提供电源,从而控制所述热水器指令执行器10E实现各种功能。
如图32所示,所述热水器指令执行器10E包括一控制主板19E、一火力调节件13E、一水流调节件14E、一定时控制件15E、一预先加热件16E以及一燃阀门件17E。所述控制主板19E接收所述防水无源无线控制器20E发出的控制指令,并根据控制指令相应地使所述火力调节件13E、所述水流调节件14E、所述定时控制件15E、所述预先加热件16E以及所述燃阀门件17E执行相应的功能或者停止执行相应的功能。所述火力调节件13E能够调节火力,所述水流调节件14E能够调节水流,所述定时控制件15E实现定时控制,所述预先加热件16E提供预先加热功能以及所述燃阀门件17E控制燃气阀门等等。本领域的技术人员可以理解的是,这里的所述火力调节件13E、所述水流调节件14E、所述定时控制件15E、所述预先加热件16E以及所述燃阀门件17E仅仅作为举例,在其他实施例中,还可以根据所述热水器装置其他的功能设置所述热水器装置的其他相应的执行件,本发明在这一方面并不受此限制。
图32还阐释了所述热水器指令执行器10E和所述防水无源无线控制器20E之间的连接方式。所述防水无源无线控制器20E将机械能转化为电能为自身供电以控制所述热水器指令执行器10E。当所述防水无源无线控制器20E受到一按压或者推动的外力的时候,将机械能转化为电能,为自身进行供电。所述防水无源无线控制器20E的通信模块由于被供电,将控制指令无线地通信传递至热水器指令执行器10E的所述控制主板19E的一无线接收电路11E接收传来的控制指令,通过所述热水器指令执行器10E的所述控制主板19E的一解码及驱动电路12E进行解码,并驱动热水器指令执行器10E实现所述热水器装置的各功能。所述热水器指令执行器10E还包括一控制电源18E用于为所述控制主板19E所述无线接收电路11E以及所述解码及驱动电路12E供电。
值得一提的是,本发明的三个实施例中的所述防水无源无线控制器的结构和发电原理都可以应用于所述热水器装置的所述防水无源无线控制器20E,本发明在这一方面并不受此限制。
本领域的技术人员可以理解的是,前面揭露的三个所述防水无源无线控制器应用在浴室的智能马桶、浴霸装置以及热水器,在其他实施例中还可以用于控制厨房的设备。例如粉碎机以及消毒柜等。
本领域的技术人员应理解,上述描述及附图中所示的本发明的实施例只作为举例而并不限制本发明。本发明的目的已经完整并有效地实现。本发明的功能及结构原理已在实施例中展示和说明,在没有背离所述原理下,本发明的实施方式可以有任何变形或修改。

Claims (55)

  1. 一种防水无源无线控制器,其特征在于,包括:至少一防水组件、至少一驱动部、至少一生电装置、至少一通信模块以及至少一壳体,所述防水组件以及所述壳体形成密闭的至少一防水腔,所述生电装置以及所述通信模块被设置于所述防水腔内,所述驱动部能够响应外力运动,且能够隔着所述防水组件驱动各所述生电装置,各所述生电装置被电气性连接于所述通信模块并且将机械能转化为电能为所述通信模块供电,所述通信模块发出至少一无线电信号的控制指令。
  2. 如权利要求1所述的防水无源无线控制器,其中所述壳体包括至少一顶盖和至少一底盖,所述顶盖将所述防水组件的边沿抵压固定于所述底盖的边沿,所述防水组件以及所述底盖之间形成密闭的所述防水腔,所述驱动部设置于所述顶盖。
  3. 如权利要求1所述的防水无源无线控制器,其中所述驱动部作为所述壳体的至少一顶盖,所述壳体还包括至少一底盖,所述驱动部将所述防水组件的边沿抵压固定于所述底盖的边沿,所述防水组件以及所述底盖之间形成密闭的所述防水腔。
  4. 如权利要求1所述的防水无源无线控制器,其中所述防水组件还包括至少一防水套以及至少一防水墙,所述防水墙延伸于所述防水套,且所述防水墙被紧密贴合地设置于所述壳体的至少一底盖的至少一防水槽内。
  5. 如权利要求4所述的防水无源无线控制器,其中所述防水墙和所述防水套为一体地成型。
  6. 如权利要求4所述的防水无源无线控制器,其中所述底盖设置有至少一防水槽成形件,所述防水槽成形件包括向上地延伸于所述底盖的至少一外侧环板以及至少一内侧环板,所述外侧环板和所述内侧环板之间形成所述防水槽。
  7. 如权利要求4所述的防水无源无线控制器,其中所述底盖凹陷地形成所述防水槽。
  8. 如权利要求4所述的防水无源无线控制器,其中所述防水组件还包括至少一套体外沿,所述套体外沿向外凸出地延伸于所述防水墙以及所述防水套。
  9. 如权利要求8所述的防水无源无线控制器,其中所述壳体还包括至少一顶盖,所述顶盖和所述底盖为卡扣式连接,所述驱动部设置于所述顶盖。
  10. 如权利要求9所述的防水无源无线控制器,其中所述顶盖包括至少一环形框架的顶盖主部以及至少一顶盖压边,所述顶盖压边被连接于所述顶盖主部,所述套体外沿被紧密地压设于所述顶盖压边以及所述底盖之间,且被设置于所述防水腔的外侧。
  11. 如权利要求4所述的防水无源无线控制器,其中所述驱动部设置有至少一驱动部防脱扣,所述驱动部防脱扣能够被卡设于所述壳体,防止所述驱动部脱离。
  12. 如权利要求4所述的防水无源无线控制器,其中所述壳体设置有至少一支轴,所述驱动部能够以所述支轴为轴作枢转运动。
  13. 如权利要求12所述的防水无源无线控制器,其中所述驱动部的内侧面设置有至少一支轴卡扣,所述支轴被卡设于所述支轴卡扣。
  14. 如权利要求4所述的防水无源无线控制器,其中所述驱动部设置有至少一驱动部顶压件,所述防水组件的所述防水套形成有至少一驱动部顶端卡槽,所述驱动部顶压件被设置于驱动部顶端卡槽内。
  15. 如权利要求4至14中任一所述的防水无源无线控制器,其中所述防水无源无线控制器还包括至少一复位元件以及至少一弹性加速件,所述复位元件以及所述弹性加速件设置于密闭的所述防水腔内,所述驱动部隔着所述防水组件驱动所 述弹性加速件,所述弹性加速件被连接于所述生电装置且加速所述生电装置的运动,所述复位元件复位所述驱动部、所述生电装置以及所述弹性加速件。
  16. 如权利要求15所述的防水无源无线控制器,其中所述防水组件的所述防水套的相对于所述防水腔的一侧面设置有至少一弹性加速件顶压件,所述弹性加速件顶压件抵压所述弹性加速件,所述弹性加速件被驱动而带动所述生电装置。
  17. 如权利要求16所述的防水无源无线控制器,其中所述弹性加速件顶压件凸出地延伸于所述防水套的至少一内侧面的表面。
  18. 如权利要求15所述的防水无源无线控制器,其中所述生电装置包括至少一磁组,至少一线圈,以及至少一中柱,其中所述线圈设置在所述中柱周围,所述磁组包括至少一永磁体和位于所述永磁体相反两侧的至少一顶导磁体和至少一底导磁体,其中在所述弹性加速件被连接于所述中柱,且能够驱动所述中柱同步交替地接触所述顶导磁体和所述底导磁体,从而穿过所述线圈的磁感线方向发生改变,使所述线圈中产生至少一感生电流。
  19. 如权利要求15所述的防水无源无线控制器,其中所述壳体形成有至少一通信模块槽以及至少一生电装置安装槽,所述通信模块被设置于所述通信模块槽内,所述生电装置被设置于所述生电装置安装槽内。
  20. 如权利要求19所述的防水无源无线控制器,其中所述壳体设置有至少一生电装置安装件,所述生电装置安装件包括至少一组生电装置安装侧板,各组所述生电装置安装侧板之间形成所述生电装置安装槽。
  21. 如权利要求20所述的防水无源无线控制器,其中各所述生电装置安装件与各所述生电装置为卡扣式连接。
  22. 如权利要求20所述的防水无源无线控制器,其中各生电装置安装侧板的外侧面设置有至少一复位元件安装轴,所述复位元件的两端部被分别连接于所述复位元件安装轴,所述复位元件的被设置于两所述复位元件安装轴之间的部分抵接所述弹性加速件。
  23. 如权利要求15所述的防水无源无线控制器,其中所述复位元件为至少一弹簧,所述弹性加速件为至少一弹片。
  24. 如权利要求1至14中任一所述的防水无源无线控制器,其中所述驱动部为多个按键,各按键之间为并排地可拆卸地卡扣式连接。
  25. 如权利要求24所述的防水无源无线控制器,其中所述按键每响应一次外力,所述生电装置产生两次电脉冲,所述通信模块发射两次所述无线电信号的控制指令。
  26. 如权利要求1所述的防水无源无线控制器,其中所述防水组件包括至少一防水套以及至少一防水圈,所述防水圈设置于所述防水套的底部,所述防水圈被紧密贴合地设置于所述壳体的至少一防水槽内,所述防水无源无线控制器还包括设置于所述防水腔内的至少一复位组件,所述驱动部响应于外力的施加而运动,能够隔着所述防水套驱动所述复位组件,所述复位组件带动所述生电装置产生第一次电脉冲之后,复位所述生电装置且所述生电装置再次产生电脉冲。
  27. 如权利要求26所述的防水无源无线控制器,其中各所述驱动部之间通过卡扣方式连接。
  28. 如权利要求26所述的防水无源无线控制器,其中所述防水无源无线控制器还包括至少一底盖,所述生电装置以及所述通信模块被设置于所述底盖,各所述驱动部被作为所述防水无源无线控制器的顶盖,所述驱动部以及所述底盖为卡扣式连接。
  29. 如权利要求28所述的防水无源无线控制器,其中所述驱动部设置有至少一支轴卡扣,所述防水套设置有至少一支轴,所述支轴被卡设于所述支轴卡扣,从而所述驱动部能够以所述支轴为轴作枢转运动。
  30. 如权利要求28所述的防水无源无线控制器,其中所述复位组件包括至少一复位元件以及至少一弹性加速件,所述驱动部的内侧面还设置有至少一驱动部顶 压件,所述驱动部响应外力的施加而运动的时候,所述驱动部顶压件抵压所述防水套的至少一防水能动部的一面,所述防水能动部的另一面的至少一防水套凸点抵压所述弹性加速件,所述弹性加速件的一端被连接于所述生电装置,能够加速所述生电装置的运动,所述弹性加速件的另一端抵压所述复位元件,所述复位元件复位所述驱动部、所述生电装置以及所述弹性加速件。
  31. 如权利要求30所述的防水无源无线控制器,其中所述底盖还形成有至少一生电装置安装槽,所述底盖设置有至少一生电装置安装件,所述生电装置安装件包括至少一组生电装置安装侧板,各组所述生电装置安装侧板之间形成所述生电装置安装槽。
  32. 如权利要求31所述的防水无源无线控制器,其中所述生电装置安装侧板还设置有至少一生电装置卡扣,所述生电装置的设置有相匹配的至少一卡钩,从而各所述生电装置通过所述生电装置卡扣以及所述卡钩被安装于所述生电装置安装侧板形成的所述生电装置安装槽内。
  33. 如权利要求31所述的防水无源无线控制器,其中所述弹性加速件被设置于所述复位元件与所述防水套凸点之间。
  34. 如权利要求30所述的防水无源无线控制器,其中所述生电装置包括至少一磁组,至少一线圈,以及至少一中柱,其中所述线圈设置在所述中柱周围,所述磁组包括至少一永磁体和位于所述永磁体相反两侧的至少一顶导磁体和至少一底导磁体,其中在所述弹性加速件被连接于所述中柱,且能够驱动所述中柱同步交替地接触所述顶导磁体和所述底导磁体,从而穿过所述线圈的磁感线方向发生改变,使所述线圈中产生至少一感生电流。
  35. 如权利要求30所述的防水无源无线控制器,其中所述复位元件为至少一弹簧,所述弹性加速件为至少一弹片。
  36. 如权利要求30所述的防水无源无线控制器,其中防水组件的所述防水套还包括一灯圈部、一防水套主部以及一支轴支撑部,所述防水能动部凸出地设置于所述防水套主部,所述灯圈部凸出于所述防水套主部并形成至少一指示灯孔,所 述支轴支撑部支撑所述支轴,所述防水套主部、所述灯圈部、所述防水套主部以及所述支轴支撑部为一体化成型。
  37. 如权利要求1所述的防水无源无线控制器,其中所述壳体包括至少一顶盖,以及至少一底盖,所述驱动部设置于所述顶盖,所述防水组件包括至少一防水套以及至少一防水墙,所述防水墙设置于所述底盖的边沿并紧密地贴合所述防水套的底部,所述顶盖将所述防水套的边沿抵压固定于所述底盖的边沿,所述防水套以及所述底盖之间形成密闭的所述防水腔。
  38. 如权利要求37所述的防水无源无线控制器,其中所述顶盖形成有至少一驱动盖孔,各所述驱动盖设置于各所述驱动盖孔内。
  39. 如权利要求37所述的防水无源无线控制器,其中所述防水无源无线控制器还包括至少一杠杆、至少一复位元件、至少一弹性加速件以及至少一微动开关,所述杠杆、所述复位元件、所述弹性加速件以及所述微动开关被设置于密闭的所述防水腔内,所述微动开关被电气性连接于所述通信模块,所述通信模块被所述微动开关预先电性接通,所述驱动部隔着所述防水套抵压所述杠杆,所述杠杆抵压所述弹性加速件,所述弹性加速件被连接于所述生电装置且加速所述生电装置的运动,所述复位元件复位所述驱动部、所述杠杆、所述生电装置以及所述弹性加速件。
  40. 如权利要求39所述的防水无源无线控制器,其中所述杠杆包括至少一组杠杆侧翼、至少一杠杆主体以及至少一杠杆顶点,所述杠杆侧翼对称地延伸于所述杠杆主体,所述杠杆顶点凸出于所述杠杆主体,所述驱动部隔着所述防水套抵压所述杠杆主体,所述杠杆顶点同步地抵压所述弹性加速件。
  41. 如权利要求40所述的防水无源无线控制器,其中所述底盖设置有至少一杠杆止位,所述杠杆止位勾住所述杠杆,作为所述杠杆的运动支点。
  42. 如权利要求39所述的防水无源无线控制器,其中所述生电装置包括至少一磁组,至少一线圈,以及至少一中柱,其中所述线圈设置在所述中柱周围,所述磁组包括至少一永磁体和位于所述永磁体相反两侧的至少一顶导磁体和至少一 底导磁体,其中在所述弹性加速件被连接于所述中柱,且能够驱动所述中柱同步交替地接触所述顶导磁体和所述底导磁体,从而穿过所述线圈的磁感线方向发生改变,使所述线圈中产生至少一感生电流。
  43. 如权利要求39所述的防水无源无线控制器,其中所述复位元件为至少一弹簧,所述弹性加速件为至少一弹片。
  44. 如权利要求1所述的防水无源无线控制器,其中各所述生电装置响应于相应的所述驱动部的驱动和复位各产生一次电脉冲。
  45. 一种防水无源无线控制器的无源无线控制方法,其特征在于,所述无源无线控制方法包括以下步骤:每响应于一次驱动操作,所述防水无源无线控制器自发电产生两次电脉冲,并根据产生的所述电脉冲发射出对应于每所述驱动操作的两次无线控制信号。
  46. 如权利要求45所述的防水无源无线控制器的无源无线控制方法,其中进一步包括:在每次的所述驱动操作中,所述防水无源无线控制器的至少一驱动部响应于外力的施加而进行枢转运动。
  47. 如权利要求46所述的防水无源无线控制器的无源无线控制方法,其中进一步包括:所述驱动部的所述枢转运动驱动所述防水无源无线控制器的至少一生电装置产生第一次电脉冲。
  48. 如权利要求47所述的防水无源无线控制器的无源无线控制方法,其中进一步包括:所述驱动部被施加的外力消失,所述驱动部回复至初始位置,所述生电装置产生第二次电脉冲。
  49. 如权利要求47所述的防水无源无线控制器的无源无线控制方法,其中进一步包括:所述驱动部带动连接于所述生电装置的至少一弹性加速件,所述弹性加速件带动所述生电装置产生第一次电脉冲。
  50. 如权利要求49所述的防水无源无线控制器的无源无线控制方法,其中进一 步包括:所述驱动部被施加的外力消失,至少一复位元件复位所述驱动部以及所述弹性加速件复位,所述生电装置产生第二次电脉冲。
  51. 如权利要求45所述的防水无源无线控制器的无源无线控制方法,其中进一步包括:在每次的所述驱动操作中,所述防水无源无线控制器自发电产生两次电脉冲经两路分别被传递至所述防水无源无线控制器的至少一通信模块,其中一路被连接至所述无线通信模块的至少一电源输入端,提供所述防水无源无线控制器的工作电源;其中另一路被连接至所述无线通信模块的至少一电平信号输入端,所述无线通信模块根据电平变化发出预先设定的数据编码。
  52. 一种防水无源无线控制系统,其特征在于,包括如权利要求1至44中的防水无源无线控制器以及至少一指令执行器,所述指令执行器接收所述防水无源无线控制器的控制指令并控制其他功能设备执行和控制指令相匹配的功能。
  53. 一种智能马桶,其特征在于,包括如权利要求1至44中的防水无源无线控制器以及至少一马桶指令执行器,所述指令执行器接收所述防水无源无线控制器的控制指令并控制所述智能马桶的其他执行部件执行和控制指令相匹配的功能。
  54. 一种浴霸装置,其特征在于,包括如权利要求1至44中的防水无源无线控制器以及至少一浴霸指令执行器,所述浴霸指令执行器接收所述防水无源无线控制器的控制指令并控制所述浴霸装置的其他执行部件执行和控制指令相匹配的功能。
  55. 一种热水器装置,其特征在于,包括如权利要求1至44中的防水无源无线控制器以及至少一热水器指令执行器,所述热水器指令执行器接收所述防水无源无线控制器的控制指令并控制所述热水器装置的其他执行部件执行和控制指令相匹配的功能。
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Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN110400453A (zh) * 2019-08-09 2019-11-01 广东易百珑智能科技有限公司 自供电无线控制系统及其自供电发射器和无线发射方法
JP2020147918A (ja) * 2019-03-11 2020-09-17 Toto株式会社 リモコン装置

Families Citing this family (11)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN107046783B (zh) * 2017-01-19 2023-04-18 广东易百珑智能科技有限公司 防水无源无线控制器和控制系统及其应用
CN109157151B (zh) * 2018-11-06 2024-02-23 厦门卫鹰科技有限公司 一种免电池信号发射装置和坐便器
CN113162476A (zh) * 2019-01-16 2021-07-23 罗洁洁 一种压电陶瓷发电装置和方法
DE102019106868A1 (de) * 2019-03-18 2020-09-24 Minimax Viking Research & Development Gmbh Trägerkomponente eines Gehäuses einer Gefahrenmelderzentrale und eine Gefahrenmelderzentrale, vorzugsweise einer Einbruch-, Brandmelder- und/oder Löschsteuerzentrale
USD898683S1 (en) * 2019-07-24 2020-10-13 Hung-Wei LAN Key of controller
USD928729S1 (en) * 2020-02-28 2021-08-24 Enerlites, Inc. Duplex paddle switch with changeable LED module
USD928730S1 (en) * 2020-02-28 2021-08-24 Enerlites, Inc. Triple paddle switch with changeable LED module
USD931238S1 (en) * 2020-03-30 2021-09-21 Wenzhou Mtlc Electric Appliances Co., Ltd. Butterfly dimmer
CN114423191B (zh) * 2020-10-28 2023-11-24 启碁科技股份有限公司 防水装置
CN113983545B (zh) * 2021-11-11 2022-09-06 三力泰实业(深圳)股份有限公司 一种用于智能家居的在线灯控系统
GB2623445A (en) * 2023-12-08 2024-04-17 Yongxin Min A method for controlling a terminal device using a magnetoelectric converter

Citations (9)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN104733202A (zh) * 2015-03-13 2015-06-24 广东欧珀移动通信有限公司 一种防水按键结构和电子设备
CN204705832U (zh) * 2015-05-22 2015-10-14 苏州伊福尔电子有限公司 自发电无线开关
JP2016005140A (ja) * 2014-06-17 2016-01-12 Toto株式会社 トイレ装置用のリモコン装置
CN205159138U (zh) * 2015-11-18 2016-04-13 深圳市微动能源科技有限公司 一种自发电无线开关
CN107046783A (zh) * 2017-01-19 2017-08-15 深圳市无电通科技有限公司 防水无源无线控制器和控制系统及其应用
CN206430258U (zh) * 2017-01-19 2017-08-22 深圳市无电通科技有限公司 浴霸装置
CN206430379U (zh) * 2017-01-19 2017-08-22 深圳市无电通科技有限公司 热水器装置
CN206467738U (zh) * 2017-01-19 2017-09-05 深圳市无电通科技有限公司 马桶装置
CN207011159U (zh) * 2017-01-19 2018-02-13 深圳市无电通科技有限公司 防水无源无线控制器

Family Cites Families (9)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO2012132457A1 (ja) * 2011-03-30 2012-10-04 パナソニック株式会社 電子キー
WO2013100324A1 (en) * 2011-12-28 2013-07-04 Coway Co., Ltd. Force sensor-based input device and bidet having the same
KR20150024134A (ko) * 2013-08-26 2015-03-06 삼성전자주식회사 버튼을 이용하는 제어 장치 및 그 제어 방법
DE102014209192A1 (de) * 2014-05-15 2015-11-19 Zf Friedrichshafen Ag Schaltvorrichtung für einen Funktaster, Funktaster und Verfahren zum Erzeugen eines Schaltsignals eines Funktasters
JP6406538B2 (ja) * 2014-06-17 2018-10-17 Toto株式会社 トイレ装置用のリモコン装置
CN108133858B (zh) * 2015-07-31 2019-07-26 武汉领普科技有限公司 电源自给式多按键开关装置
CN205003493U (zh) * 2015-08-18 2016-01-27 刘远芳 无线动能开关模组
CN205017048U (zh) * 2015-08-28 2016-02-03 武汉领普科技有限公司 自发电控制装置
CN205883021U (zh) * 2016-07-21 2017-01-11 刘远芳 带有电能产生装置的开关

Patent Citations (9)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2016005140A (ja) * 2014-06-17 2016-01-12 Toto株式会社 トイレ装置用のリモコン装置
CN104733202A (zh) * 2015-03-13 2015-06-24 广东欧珀移动通信有限公司 一种防水按键结构和电子设备
CN204705832U (zh) * 2015-05-22 2015-10-14 苏州伊福尔电子有限公司 自发电无线开关
CN205159138U (zh) * 2015-11-18 2016-04-13 深圳市微动能源科技有限公司 一种自发电无线开关
CN107046783A (zh) * 2017-01-19 2017-08-15 深圳市无电通科技有限公司 防水无源无线控制器和控制系统及其应用
CN206430258U (zh) * 2017-01-19 2017-08-22 深圳市无电通科技有限公司 浴霸装置
CN206430379U (zh) * 2017-01-19 2017-08-22 深圳市无电通科技有限公司 热水器装置
CN206467738U (zh) * 2017-01-19 2017-09-05 深圳市无电通科技有限公司 马桶装置
CN207011159U (zh) * 2017-01-19 2018-02-13 深圳市无电通科技有限公司 防水无源无线控制器

Non-Patent Citations (1)

* Cited by examiner, † Cited by third party
Title
See also references of EP3573437A4 *

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2020147918A (ja) * 2019-03-11 2020-09-17 Toto株式会社 リモコン装置
JP7297197B2 (ja) 2019-03-11 2023-06-26 Toto株式会社 リモコン装置
CN110400453A (zh) * 2019-08-09 2019-11-01 广东易百珑智能科技有限公司 自供电无线控制系统及其自供电发射器和无线发射方法

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