CN110956796B

CN110956796B - Wireless switch device, equipment system and power supply on-off operation control method

Info

Publication number: CN110956796B
Application number: CN201911395030.6A
Authority: CN
Inventors: 马建国; 周绍华
Original assignee: Guangdong University of Technology
Current assignee: Guangdong University of Technology
Priority date: 2019-12-30
Filing date: 2019-12-30
Publication date: 2021-05-11
Anticipated expiration: 2039-12-30
Also published as: CN110956796A

Abstract

The invention discloses a wireless switch device, equipment, an equipment system and an equipment power supply on-off operation control method. The wireless switching device is used for being arranged between a power supply and equipment which is in a passive standby state when not being supplied with power, and comprises: a receiving antenna arranged to receive a wireless signal, the wireless signal comprising a wireless energy signal and an instruction data signal; the passive wake-up module is connected with the receiving antenna and is arranged for converting the wireless energy signal received by the receiving antenna into a pulse signal and outputting the pulse signal; the control module is connected with the receiving antenna and is arranged to demodulate the command data signal received by the receiving antenna and output a control signal after the pulse signal output from the passive awakening module is electrically connected with the power supply to supply power; and the controlled module is connected with the control module, the power supply and the equipment and is used for receiving and executing the on-off operation between the equipment and the power supply according to the control signal.

Description

Wireless switch device, equipment system and power supply on-off operation control method

Technical Field

The present invention relates to the field of switch control technology, and in particular, to a wireless switch device, an apparatus system, and an apparatus power supply on-off operation control method.

Background

With the increasing warming of global climate, energy conservation and emission reduction become important in government work of various countries, especially in electrical appliances, electronic industries and the like closely related to daily life and production, the wave tip of the air inlet is pushed down, for example, in the market of europe and america, high efficiency and low power consumption become one of important factors which must be considered in the research and development process of electronic products, and the electronic products have market competitiveness.

The standby power consumption of various electronic devices becomes one of the important problems to be solved for energy conservation and emission reduction, however, many devices adopting wireless remote control technology, such as televisions, air conditioners, and the like, still have some problems and disadvantages in the use process. For example, as shown in fig. 1, when the device 80 is in a remote controllable state, i.e., when waiting for the command data signal S to be sent from the wireless remote controller 90 at the remote control end, the power switch in the device 80 must be in an open state, for example, the active standby watch circuit 810 therein needs to be powered on all the time, so that the power consumption in the standby state becomes an irrevocable problem. According to the test, if 1 watt standby power consumption is taken as an example, the power consumed by a common electric appliance for 1 year is close to 10 kilowatt hours. In addition, according to statistical data, the average standby energy consumption of urban families in China in 2009 reaches about 10%, which is equivalent to that each family uses 15-30W of Changming lantern. It follows that the amount of energy consumed by the existing large number of appliances for this space can reach an amazing level. Therefore, reducing the ubiquitous standby energy consumption of various electrical appliances becomes a major technical problem for building a social conservation and implementing an energy-saving, emission-reducing and environment-friendly strategy.

Although various zero power standby schemes have been proposed to address the standby power consumption problem, these schemes still suffer from a number of problems and require further improvement and sophistication. For example, since the control signal of the existing wireless switch remote control device needs to cover a certain range to achieve convenience in operation, accurate directional transmission cannot be used, and the loss ratio of the wireless energy transmission, reception and conversion process is large, so that the wireless energy transmission efficiency is not high, the ratio of the energy finally absorbed and utilized by the wireless switch device is very low, and most of the energy is radiated to the air and wasted. For another example, the existing wireless switch remote control device needs to consume large wireless energy, and even if the remote control end is powered by a high-price and large-capacity battery, the working life of the remote control device is greatly limited, and the cost is increased. For another example, if it is considered that a certain range of coverage of the remote control signal of the wireless switching device needs to be ensured, and particularly, accurate directional transmission is desired, higher requirements are put on the wireless switching remote control device (especially, two parts of a power amplifier and a transmitting antenna), while the requirements are difficult to be met by the existing common power amplifier and an onboard patch antenna, so that if the wireless switching device is applied, the volume of the remote control end needs to be increased, which brings many adverse effects on daily application, manufacturing cost and the like.

It should be noted that the foregoing description is provided to facilitate a better understanding of the invention and should not be construed as prior art only by virtue of the inclusion in this section or that all such problems or disadvantages noted therein are readily apparent.

Disclosure of Invention

In view of the above, the present invention provides a wireless switching apparatus, a device system, and a device power supply on-off operation control method, which can solve or at least alleviate one or more of the above-mentioned problems and other problems in the prior art.

The present invention also has for its object to provide an alternative solution to the other inventions filed by the same applicant, which applications are filed on the same day as the present application and have the same or similar subject names, which not only overcome the problems of the prior art in their entirety but also in each case in different respects, and which in particular bring about very significant technical advantages and great practical values.

First, according to a first aspect of the present invention, there is provided a wireless switching apparatus for being provided between a power source and a device which is in a passive standby state when not being powered, comprising:

a receiving antenna arranged to receive a wireless signal, the wireless signal comprising a wireless energy signal and an instruction data signal;

the passive wake-up module is connected with the receiving antenna and is used for converting the wireless energy signal received by the receiving antenna to provide a pulse signal;

a control module connected to the receiving antenna and configured to demodulate the command data signal received by the receiving antenna and output a control signal after being supplied with power by forming an electrical connection between the pulse signal and the power supply; and

and the controlled module is connected with the control module, the power supply and the equipment and is arranged for receiving and executing the on-off operation between the equipment and the power supply according to the control signal.

In the wireless switching device according to the present invention, optionally, the passive wake-up module at least comprises:

a wireless energy receiving and converting unit connected to the receiving antenna and configured to convert a wireless energy signal received from the receiving antenna into the pulse signal; and

the switch is connected with the wireless energy receiving and converting unit to receive the pulse signal, and is also connected with the power supply and the control module to enter a closed state after receiving the pulse signal, so that the control module and the power supply form an electric connection to supply power; and/or

The control module at least comprises:

the signal demodulation unit is connected with the receiving antenna and is arranged to demodulate and convert the instruction data signal received from the receiving antenna into a digital signal after the control module is powered by the power supply; and

the decoding and control unit is connected with the signal demodulation unit, the controlled module and the switch and is used for decoding the digital signal to generate and output the control signal; and/or

The controlled module is a controlled switch that causes the device to be powered by the power source upon entering a closed state, the controlled switch including a monostable switch and a bistable switch; and/or

The power supply includes a battery, an alternating current power supply and a direct current power supply.

In the wireless switch device according to the present invention, optionally, the switch is a monostable switch, and the passive wake-up module further includes a first switch driving unit, which is connected to the output terminal of the wireless energy receiving and converting unit, the control terminal of the switch and the decoding and controlling unit, and is configured to output a driving signal matching the switch to the switch, and is powered by the pulse signal output by the wireless energy receiving and converting unit before and after the switch enters the closed state; and/or

The control module further comprises a second switch driving unit, the second switch driving unit is connected with the output end of the decoding and control unit and the control end of the controlled switch, the input end of the second switch driving unit is connected with the equipment, the second switch driving unit is arranged to output a driving signal matched with the second switch driving unit to the controlled switch, the second switch driving unit receives uniform power supply of the whole control module from the power supply before the controlled switch enters a closed state, and receives specific power supply of the controlled switch from the power supply after the controlled switch enters the closed state.

In the wireless switching device according to the present invention, optionally, when the power source is an alternating current power source, the wireless switching device further comprises a first AC/DC unit disposed between the passive wake-up module and the alternating current power source for converting the alternating current power source into a power form suitable for the control module to use to supply power to the control module after the switch enters the closed state.

In the wireless switching device according to the present invention, optionally, the wireless switching device further comprises a second AC/DC unit connected to the controlled switch, the equipment and the second switch driving unit and configured to convert the power supply into a form of power supply suitable for use by the second switch driving unit to supply power to the second switch driving unit after the controlled switch enters a closed state.

In the wireless switching device according to the present invention, optionally, the wireless energy receiving and converting unit is configured to: the width of the pulse signal is provided at least before the control module outputs the control signal, so that the control module and the power supply are electrically connected; and/or

The decoding and control unit is arranged to perform the following operations: decoding the digital signal to generate a corresponding instruction data signal, carrying out data transmission correctness verification on the instruction data signal, and judging whether the instruction data signal is sent to the wireless switch device: if yes, outputting a corresponding control signal according to the instruction data signal.

Secondly, according to a second aspect of the invention, there is also provided an apparatus comprising a switching device, the switching device being a wireless switching device as claimed in any preceding claim for connecting a power supply for supplying power to the apparatus.

Further, according to a third aspect of the present invention, there is also provided an apparatus system including:

the device according to the above, connected to a power supply for supplying power to the device through the wireless switching means; and

a wireless remote control comprising an antenna and a wireless switch remote control connected to the antenna and arranged to mate with the wireless switch device for transmitting at least a wireless energy signal via the antenna that is receivable by a receiving antenna in the wireless switch device.

Further, according to a fourth aspect of the present invention, there is also provided an apparatus power supply on-off operation control method including the steps of:

A. disposing a wireless switching device according to any one of the above between an appliance and a power source;

B. causing a receiving antenna in the wireless switching device to receive a wireless signal, the wireless signal comprising a wireless energy signal and an instruction data signal;

C. enabling a passive wake-up module in the wireless switching device to generate a pulse signal based on the received wireless energy signal, and enabling a control module in the wireless switching device to form an electric connection with the power supply through the pulse signal so as to be powered; and

D. and enabling the control module to demodulate and generate a control signal based on the received instruction data signal, and executing on-off operation between the equipment and the power supply according to the control signal.

In the method for controlling on/off operation of power supply to the device according to the present invention, optionally, in step B, the wireless signal is sent to the wireless switch device by operating a wireless remote controller matched with the wireless switch device; and/or

In step D, after the device and the power supply are turned on, sending a signal from the device to the wireless switching apparatus to make a controlled module in the wireless switching apparatus keep performing a turn-on operation between the device and the power supply; and/or

In step D, when the device needs to be shut down, the command data signal is sent out from the wireless remote controller to the wireless switching device or a signal is sent from the device to the wireless switching device, so that the controlled module performs a disconnection operation between the device and the power supply, thereby placing the device in a passive standby state.

The technical scheme of the invention is completely different from the prior art, and the wireless switch device capable of fully utilizing and distributing wireless energy is innovatively designed and provided, the wireless energy received by the wireless switch device is converted into a pulse signal, and the pulse signal is only used for switching on the power supply between a power supply and a control module in the wireless switch device, so that the control module completes signal decoding and control operation after obtaining the power supply, thereby not only completely eliminating the standby power consumption of various types of equipment, but also very conveniently and quickly realizing the on-off operation between the equipment and the power supply, effectively reducing the radio frequency energy consumption of the wireless switch remote control device on the premise of not changing the control distance, and obviously reducing the overall energy consumption of a battery and the power supply in the wireless switch remote control device. The invention can remarkably promote the realization of the goals of energy conservation, emission reduction, environmental protection and the like, particularly avoid the generation of a large amount of wireless energy waste in the air, obviously prolong the service life of the power supply of the wireless switch remote control device, make the structure of the wireless switch remote control device more compact and improve the practicability of a wireless switch system. The invention is very suitable for large-scale popularization and application, and can bring great social benefit and economic benefit.

Drawings

Fig. 1 is a schematic diagram illustrating the operation principle of an active standby mode commonly used in the prior art.

Fig. 2 is a schematic diagram of the principle of operation in a passive standby mode in an embodiment of the device according to the invention.

Fig. 3, 4 and 5 are schematic diagrams of the composition and operation of first, second and third embodiments of the wireless switching device according to the present invention, respectively.

Fig. 6 is a flowchart illustrating an embodiment of a method for controlling power supply on/off operation of a device according to the present invention.

Detailed Description

First, it should be noted that the structures, compositions, steps, features, advantages, etc. of the wireless switching device, the apparatus system, and the apparatus power supply on-off operation control method of the present invention will be specifically described below by way of examples, however, all the descriptions are for illustrative purposes only and should not be construed as forming any limitation on the present invention. In this document, the technical term "connect" and its derivatives mean that a specific component is directly and/or indirectly connected to another component, the technical terms "first" and "second" are used for distinguishing expression purposes only and are not intended to indicate their order, size, relative importance and the like, and the technical term "used" should not be construed as a limiting expression only thereto.

Furthermore, any single feature described or implicit in an embodiment or any single feature shown or implicit in the drawings or shown or implicit in the drawings, may still allow any combination or permutation to continue between the features (or their equivalents) without any technical barriers and thus further embodiments according to the invention should also be considered within the scope of this disclosure.

Reference is first made to fig. 2, in which the general operating principle of the passive standby mode in an example of the device according to the invention is shown only in a schematic way. Specifically, the wireless switch device a according to the present invention is provided in the controlled standby device 80, and may be embedded in the device 80, meanwhile, a wireless switch remote control device B can be embedded in the wireless remote controller 90 as a remote control end, and the wireless switch remote control device B is usually small in size and low in power consumption, the wireless switching remote control B, which is matched to the above-mentioned wireless switching device a, can send out, for example, a wireless switching signal S' (or called wireless energy signal) which is usually of low power to remotely control the wireless switching device a, for switching on and off the power supply 70 (which may take the form of a battery, ac power source, dc power source, etc.) to one, some or all of the device functional modules in the device 80, one such device functional module has been exemplarily labeled in fig. 2 with reference numeral 820.

As shown in fig. 2, when the device 80 is required to start operating, for example, the wireless remote controller 90 can be operated to send out a wireless switch signal S' required to turn on the power supply 70 through the wireless switch remote control device B, and the wireless switch device a will operate to turn on the power supply of the device 80 after receiving the wireless switch signal, and the composition, operation mode, etc. of the wireless switch device a will be described in more detail below. After the controlled device 80 and the controlled power supply 70 are powered on by the wireless switch device a, the wireless remote controller 90 can be used to continuously send various command data signals S to the device 80 to remotely control the device 80 to perform various possible operations, and such command data signals S may be the same or different under different application environments (such as facing different types of devices). Similarly, in the case that the apparatus 80 needs to stop operating (e.g. has been operated, needs to be stopped or suspended suddenly, etc.), the wireless remote controller 90 may be operated to make the wireless switch remote control device B send out a corresponding wireless switch signal S' to instruct the wireless switch device a to operate to cut off the current power supply of the power supply 70 to the apparatus 80, so as to completely implement the zero-power standby of the apparatus 80.

The following description of fig. 3 to 5 will be continued, and a wireless switching device according to the present invention will be better understood by describing embodiments shown in the drawings.

Referring to fig. 3, the general composition of a first embodiment of a wireless switching device according to the present invention is schematically illustrated. In this embodiment, the wireless switching device 100 may include a receiving antenna 10, a passive wake-up module 20, a control module 30, and a controlled module 40, wherein the power source 70 may be, for example, a battery or a dc power source for supplying power to the apparatus 80.

As will be appreciated by those skilled in the art, the receiving antenna 10 is configured to receive wireless signals, such as wireless power signals, command data signals, etc., which may typically be transmitted by a user operating a wireless remote control 90, such as that shown in fig. 2, located at a remote end.

For the passive wake-up module 20, it is connected to the receiving antenna 10 for recovering the pulse signal from the wireless energy signal received by the receiving antenna 10, and the power supply 70 is connected to supply power to the control module 30 according to the pulse signal. Because the pulse signal is different from the common level signal, the pulse signal is a discrete signal and has the characteristics of periodic repeated change and the like, the scheme of the invention adopts a pulse signal mode which can be different from other modes such as a direct current signal and the like, thereby more fully meeting various actual requirements possibly existing in different application occasions. In a specific application, the pulse signal can be continuously supplied or supplied only within a preset time range according to needs, and specific parameters (such as width, amplitude and the like) of the pulse signal also allow flexible setting according to specific application requirements.

In an alternative scenario, the passive wake-up module 20 may be configured with a wireless energy receiving and converting unit 210, a first switch driving unit 220 and a switch 230. The first switch driving unit 220 is an optional configuration, and in practical applications, whether the first switch driving unit 220 needs to be used or not can be selectively determined according to specific operating conditions of the switch 230. If the first switch driving unit 220 is used, one end thereof may be connected to the wireless energy receiving and converting unit 210 as shown in fig. 3, and the other end thereof may be connected to a control end of the switch 230 (e.g., using a monostable switch, etc.) for outputting a driving signal matched to the switch.

Referring to fig. 3, one end of the wireless energy receiving and converting unit 210 is connected to the receiving antenna 10, and the other end is connected to the switch 230 or the first switch driving unit 220 (if selected), and the wireless energy receiving and converting unit 210 is used to receive the wireless energy and convert it into a pulse signal. The first switch driving unit 220 can be powered by the pulse signal generated by the wireless energy receiving and converting unit 210 before and after the switch 230 enters the closed state, which is schematically indicated by a reference sign a in fig. 3.

In some embodiments, the wireless energy receiving and converting unit 210 may be optionally configured to enable the width of the provided pulse signal to ensure that the control module 30 maintains an electrical connection with the power supply before outputting the control signal, which may be achieved, for example, by the decoding and control unit 320 in the control module 30 providing a feedback signal to the passive wake-up module 20, which will be described below. Of course, in other embodiments, the wireless energy receiving and converting unit 210 may provide the pulse signal at all times during the operation of the apparatus 80.

The switch 230 may be implemented by using any suitable component, unit or module, such as a monostable switch, and its control terminal may be connected to the wireless energy receiving and converting unit 210, or alternatively, the first switch driving unit 220, and the other two terminals of the switch 230 are connected to the power supply 70 and the control module 30, respectively. When the control terminal of the switch 230 receives the pulse signal generated by the conversion of the wireless energy receiving and converting unit 210, it enters a closed state to allow the power supply 70 to supply power to the control module 30.

The control module 30 is a component of the wireless switch device 10, and is configured to perform demodulation processing according to the command data signal received by the receiving antenna 10, so as to generate and output a control signal matched with the controlled module 40. As an exemplary case only, the control module 30 may be provided with a signal demodulation unit 310, a decoding and control unit 320, and a second switch driving unit 330. The second switch driving unit 330 is an optional configuration, and in practical applications, whether the second switch driving unit 330 needs to be used or not can be selectively determined according to specific configuration conditions of the controlled module 40. If a second switch driving unit 330 is used, it may be connected at one end to the decoding and control unit 320 and at the other end to the controlled module 40 as shown in fig. 3, for outputting a driving signal matched to the controlled module 40. The second switch driving unit 330 receives a unified power supply from the power supply 70 to the whole control module 30 before the controlled module 40 enters the closed state, and receives an exclusive power supply from the power supply 70 to the second switch driving unit 330 after the controlled module 40 enters the closed state, which is schematically indicated by reference sign c in fig. 3.

The signal demodulation unit 310 is configured to receive the modulated command data signal and convert it into a digital signal after the switch 230 of the passive wake-up module 20 enters a closed state. The decoding and control unit 320 has one end connected to the signal demodulation unit 310, the other end connected to the controlled module 40 or connected to the second switch driving unit 330 that has been selectively configured, and another end connected to the switch 230 or the first switch driving unit 220 in the passive wake-up module 20 (if selected), and after the switch 230 has been turned into the closed state and the signal demodulation unit 310 converts a digital signal, the decoding and control unit 320 decodes the digital signal to generate a specific instruction data signal.

In an alternative scenario, the decoding and control unit 320 may be arranged to perform the following operations on the resulting digital signal: firstly, decoding the digital signal to generate a corresponding instruction data signal (for example, usually demodulating an identification code, a control code and a check code carried in the digital signal), and then, performing data transmission correctness check on the obtained instruction data signal so as to confirm that no error exists in the transmission process; secondly, it is determined whether the obtained command data signal is sent to the wireless switching device, and if yes, a corresponding control signal is output according to the command data signal, and such control signal can be used for being transmitted to the controlled module 40 to complete a corresponding control operation.

The controlled module 40 may employ any suitable components or units, such as monostable switches, bistable switches, etc., for specific applications. For the monostable switch, various types of NPN transistors, MOS transistors and the like can be adopted, and for the bistable switch, for example, DS1E-ML-DC1.5V and DS1E-ML2-DC1.5V and the like of the DS series of Panasonic can be adopted. When the controlled module 40 employs a monostable switch, the device 80 usually needs to output a signal to the monostable switch or a second switch driving unit (if selected) in the control module after being powered to maintain the on state of the power supply line, and when the controlled module 40 employs a bistable switch, the device 80 usually does not need to output any control signal to the bi-monostable switch or the second switch driving unit after being powered, because the bistable switch can maintain the high-impedance output state at this time, and the power supply line will automatically maintain the on state. It should be noted, of course, that the various types of switching components or modules, etc., referred to throughout this document are permissible to be various other types of monostable switches, bistable switches, etc., such as magnetic switches, micromechanical (MEMS) switches, MOS switches, etc.

As shown in fig. 3, the controlled module 40 has an input terminal connected to the control module 30 for receiving the control signal, and other output terminals connected to the power source 70 and the device 80, respectively, so that the power line between the device 80 and the power source 70 can be switched on or off according to the control signal. Wherein, the device 80 can be connected to an input terminal of the controlled module 40 or the second switch driving unit 330 (if selected), when the controlled module 40 is, for example, in the form of a controlled switch (e.g., a monostable switch, a bistable switch, etc.) and is closed, the device 80 is powered by turning on the power supply 70, and then the control module 30 can output a control signal to the controlled module 40 or the second switch driving unit 330 (if selected) to control the power supply on/off operation as required.

Having described the general composition of the wireless switching device 100 by reference to fig. 3, the basic operating principle thereof will now be described by way of example. First, the receiving antenna 10 waits for receiving wireless signals including wireless energy signals. If the receiving antenna 10 receives a wireless energy signal sent from, for example, the wireless remote controller 90 (which may be provided with the wireless switch remote control device B) shown in fig. 2, the wireless energy receiving and converting unit 210 in the passive wake-up module 20 converts the wireless energy signal into a pulse signal, and the pulse signal can directly (or after performing, for example, signal amplification processing via the optional first switch driving unit 220) drive the switch 230 to enter the closed state. When the switch 230 in the passive wake-up module 20 enters the closed state, the power supply 70 may start to supply power to the control module 30 through the connection line b via the switch 230, and may also supply power to the control module through the connection line d associated with the first switch driving unit 220, the signal demodulating unit 310 in the control module 30 may start to convert the command data signal received from the receiving antenna 10 into a digital signal, the decoding and control unit 320 may receive the digital signal and decode a specific command data signal therefrom, and may output a corresponding control signal according to the command data signal, and the control signal may directly (or after performing, for example, signal amplification processing via the optional second switch driving unit 330) drive the controlled module 40 to enter the closed state. Thus, the power supply 70 may supply power (if optional) to the second switch driving unit 330 through the controlled module 40 via the connection line c. If controlled module 40 employs a monostable switch, device 80 may output a valid signal to maintain controlled module 40 in a closed state, and if controlled module 40 employs a bistable switch, device 80 may output a high impedance state. To this end, the wireless remote controller 90 may stop sending the wireless energy signal, so that the switch 230 in the passive wake-up module 20 may be turned off, and the power supply 70 stops supplying power to the control module 30; when the device 80 needs to be shut down, such as when it is done, a disconnect command may be sent from the wireless remote control 90 to disconnect the power supply 70, thereby causing the device 80 to return to a zero power consumption standby state (i.e., a passive standby state). Of course, in some applications, it is also possible to actively output a signal from the device 80 to the controlled module 40 or the second switch driving unit 330 (if selected) to disconnect the power supply, thereby returning itself to the zero power consumption standby state.

For a better understanding of the inventive solution, the following also describes a second and a third embodiment of the wireless switching device according to the invention, namely a wireless switching device 200 and a wireless switching device 300, with continuing reference to fig. 4 and 5. To avoid repetition, the following descriptions of the two different embodiments, which are the same as or similar to the embodiment of fig. 3 discussed above, may be directly referred to the detailed description of the corresponding parts, and will not be repeated herein, unless otherwise specified.

Referring to fig. 4, in the wireless switching device 200 shown, the power supply 70 may adopt an AC power supply, and the wireless switching device 200 includes a receiving antenna 10, a passive wake-up module 20, a control module 30, and a controlled module 40, and a first AC/DC unit 50 and a second AC/DC unit 60 are additionally provided therein.

In the wireless switching device 200, the first AC/DC unit 50 is optionally configured to be connected at one end thereof to the power source 70 and at the other end thereof to the switch 230 of the passive wake-up module 20, for converting the power source 70 into a power form suitable for the control module 30 (e.g., performing a transformation rectification process, etc.) so that the control module 30 is supplied with power through the first AC/DC unit 50 via the connection line e after the switch 230 of the passive wake-up module 20 is brought into a closed state, and it is also possible to supply power to the unit when the configuration has been selected through the connection line d associated with the first switch driving unit 220. That is, in using the wireless switching device 200, after the passive wake-up module 20 converts the wireless energy signal received by the receiving antenna 10 into a pulse signal and drives the switch 230 to be closed directly (or via the optional first switch driving unit 220) therethrough, the power supply 70 may be voltage-rectified via the first AC/DC unit 50 to supply power to the control module 30, which is denoted by reference symbol b in fig. 4 as a connection line therebetween.

The second AC/DC unit 60 is also an optional configuration, which can be used simultaneously with the second switch driving unit 330 in the control module 30. The second AC/DC unit 60 is connected to the controlled module 40 and the device 80 at one end, and connected to the second switch driving unit 330 in the control module 30 at the other end, and is used to convert the power source 70 (e.g., performing transformation rectification processing, etc.) into a power source form suitable for the second switch driving unit 330 in the control module 30, so that power can be supplied to the second switch driving unit 330 in the control module 30 through the second AC/DC unit 60 after the controlled module 40 enters the closed state.

Referring again to fig. 5, the wireless switching device 300 shown in the figure will be described, which may include the receiving antenna 10, the passive wake-up module 20, the control module 30, the controlled module 40, the first AC/DC unit 50 and the second AC/DC unit 60, and in this case, the power supply 70 may employ an AC power supply.

In the wireless switch device 300, the first AC/DC unit 50 is optionally configured to be connected with the switch 230 of the passive wake-up module 20 at one end and the control module 30 at the other end, so as to convert (e.g., perform the transformer rectification process, etc.) the power source 70 into a power source form suitable for the control module 30 when the switch 230 is in the closed state, i.e., the power source 70 can perform, e.g., the transformer rectification process via the first AC/DC unit 50 and then supply power to the control module 30 via the connection line e.

The second AC/DC unit 60 is also an optional configuration, which can be used simultaneously with the second switch driving unit 330 in the control module 30. As for the second AC/DC unit 60 in the present embodiment, it may adopt the same arrangement as the second AC/DC unit 60 in the embodiment of fig. 4 discussed above, and have the same or similar functions and actions in the entire wireless switchgear, and thus, a repetitive description will not be made.

The wireless switching device according to the invention has been described above by way of example in connection with the different embodiments shown in fig. 3, 4 and 5. It will be appreciated that when the device 80 is in the standby remote controlled state, the physical connection between its interior and the power supply 70 for supplying electrical energy is broken, and the device 80 is now in a completely power-free state, thus ensuring that the current standby power consumption of the overall system, including the wireless switching device, is zero. According to statistics, the generated energy of the whole three gorges can be offset only by the energy consumed by various national household appliances in standby mode every year, so that the popularization and the application of the scheme of the invention can save considerable energy consumption, and great social and economic benefits can be generated.

It should be noted that, as mentioned above, when the device 80 is in the passive standby state, the wireless energy signal received by the

wireless switching device

100, 200 or 300 is only used to control the on/off of the switch 230 in the passive wake-up module 20 (i.e. to control when the power supply 70 supplies power to the control module 30), for example, a monostable switch built by an NPN tube is used as the switch 230, only a voltage of 0.7 volts and a current in the order of microamperes are required to drive the NPN tube closed, if conventional germanium transistors are used, only 0.3 volts and microampere levels of current are required, although many types of switches with lower power consumption are available for use with the present invention, therefore, the wireless switch device can work only with low radio frequency energy consumption and can use accurate directional transmission, therefore, a large amount of wireless energy is saved, and the waste caused by the radiation of a large amount of wireless energy to the air is avoided.

It will be appreciated that even if a conventional size 5 battery, for example, is used in a wireless switch remote control unit which cooperates with the present wireless switch unit, the battery will have a desirable operating life, thereby not only facilitating the application, but also being capable of saving considerable operating costs in the case of large-scale applications. Meanwhile, the radio frequency energy consumption of the wireless switch remote control device can be effectively reduced, so that parts of a transmitting power amplifier, a transmitting antenna and the like of the wireless switch remote control device can obtain larger design space, and the miniaturization, integration and low cost can be realized more conveniently, so that the practicability of the whole system is obviously enhanced.

Compared with the technical scheme of the invention, the common characteristics of the existing various wireless switch devices are as follows: all the energy consumption required for implementing decoding and control, including before the power supply line between the controlled power supply and the controlled standby device is switched on, needs to be provided by the wireless energy transmitted by the existing wireless remote control. Because the control signal of the wireless remote control device covers a certain range to realize the convenience in operation, the loss of the wireless energy transmission, reception and conversion process is larger, and finally, the proportion of the wireless energy which can be effectively absorbed and utilized to the total transmitted wireless energy is very low. Assuming that a certain wireless switch device needs 10 milliwatts of power for each decoding and control operation, if all the wireless energy transmitted by the wireless remote control device is provided, because the transmission efficiency of the wireless energy is not high, the wireless remote control device may need to use 10 to 100 times of transmission power, i.e. 0.1 to 1 watt of wireless transmission power, so a high-price and large-capacity battery is usually needed, however, most of the transmitted wireless energy is still radiated to the air and wasted. The above situations cause the defects and shortcomings of the existing wireless remote control device in aspects such as battery service life, use cost, space volume optimization, component improvement, realization of accurate directional transmission and the like.

In addition, it should be noted that in many areas, such as home houses, office buildings, factory buildings, etc., the wireless switch device according to the present invention does not or substantially does not accidentally switch on the power supply and the equipment due to external interference. This is because the amplitude of the pulse signal recovered by the wireless energy receiving and converting unit in the wireless switch device is usually required to reach a certain level (for example, above 0.1 volt), and it is only possible to wake up the power supply to supply power to the control module in the wireless switch device, which is completely difficult to reach by the remote control signal. After a lot of practical tests, even if the mobile phone in the call state (or the networking state) is 0.1 meter away from the wireless switch device, the wireless switch device cannot recover the direct current of more than 0.1 volt at this time. In practical application, the wireless energy receiving and converting unit in the wireless switch device can be set to only absorb and process wireless energy signals within a certain frequency range according to different application requirements. In addition, since different appliances are often placed in different rooms, directions and heights, for example, the probability of placing two or more televisions (or refrigerators, air conditioners, etc.) in the same room, in the same direction and at the same height is very small, and therefore if the probability is slightly noticed, the probability of waking up multiple devices to decode at the same time in practical application is not only quite low, but can also be completely avoided.

According to another technical scheme of the invention, the invention also provides a method for controlling the power supply on-off operation of the equipment. An example of a method for controlling the power supply on/off operation of a device is given in fig. 6, which may include the following steps:

as shown in fig. 6, the wireless switch device provided according to the present invention may be disposed between the device and the power source in step S11, for example, the wireless switch device may be directly integrated into the device, or may be used as an external device to be connected to both the device and the power source.

Then, in step S12, a receiving antenna in the wireless switch device may be used to receive a wireless signal from the outside, such a wireless signal may include, but is not limited to, for example, a wireless energy signal, a command data signal, etc., so that in the following step S13, the wireless energy signal therein may be used to generate a pulse signal as described above, and the pulse signal may be used to power a passive wake-up module in the wireless switch device, which, once powered, will cause the power supply to be turned on to power a control module in the wireless switch device.

With continued reference to fig. 6, in a subsequent step S14, the command data signal received from the receiving antenna may be demodulated using the wireless switching device to generate a specific control signal, and then a corresponding on or off operation between the power supply and the device may be performed according to such control signal.

The above is only an exemplary description of the power supply on-off operation control method of the present device, and it should be understood that it fully allows a flexible application of the method according to the actual situation, without departing from the gist of the present invention, so as to be able to better satisfy the various requirements that may be different.

For example, in the step S12, a wireless remote controller matched with the wireless switch device may be provided, and the wireless remote controller is manipulated to transmit wireless signals such as wireless energy signals, command data signals, and the like. For example, such a wireless remote control may be configured only by the wireless switching remote control device as described above, and may generate the pulse signal in the wireless switching device by only transmitting the wireless energy signal, or may have a function of transmitting a plurality of signals such as the wireless energy signal and the command data signal.

In addition, it should be noted that, in some applications, the wireless switching device is also allowed to be configured to be specifically used for receiving wireless signals automatically transmitted by some devices, apparatuses, systems or the like periodically or aperiodically, so as to realize the automatic operation of the controlled apparatus periodically or aperiodically.

As another example, in the above step S14, a signal may be sent from the device to the wireless switch device after the device and the power supply are turned on, so that the controlled module in the wireless switch device may keep performing the turn-on operation between the device and the power supply.

Further, in an optional case, in the above step S14, in a case where the device needs to stop operating, for example, an instruction data signal may be sent towards the wireless switching apparatus, for example, through a wireless remote controller or the like, so as to cause a controlled module in the wireless switching apparatus to perform an operation of disconnecting the device from the power supply, thereby causing the device to be in the passive standby state, or the above process may also implement the device to return to the passive standby state by sending a signal from the device to the wireless switching apparatus. With regard to the above alternative specific control modes, the method of the invention allows flexible setting selection according to different application occasions so as to better meet various actual requirements.

According to the design concept of the present invention, there is also provided a device, which can be provided with a wireless switch device, such as that exemplarily described above, so that the power supply on-off state between the device and the power supply can be controlled through the wireless switch device, thereby better solving the problems existing in the prior art, such as mentioned above, and obtaining the outstanding technical advantages of the present invention over the prior art, which are discussed above, and achieving a significant benefit. It should be understood that devices according to the present invention may include, but are not limited to, various types of electronic devices, devices in which such electronic devices are integrated, and the like, such as numerous types of electromechanical devices and the like available for use in the home, office, business, or manufacturing, and the like.

In addition, the present invention also provides an equipment system which may include the above-mentioned equipment designed according to the present invention and a wireless remote controller matched therewith, in which a wireless switch remote control device such as that discussed in the foregoing can be provided, which is matched with the wireless switch device according to the present invention, so that a wireless signal can be transmitted through an antenna provided in the wireless remote controller, and such a wireless signal can be received by a receiving antenna in the wireless switch device.

Generally, the wireless remote controller in the equipment system of the present invention can be realized by installing the above wireless switch remote controller in various existing wireless remote controllers. Of course, in some application occasions, the wireless remote controller in the equipment system may also be implemented only by a wireless switch remote control device, that is, the wireless remote controller is only used for sending a wireless switch signal (i.e., a wireless energy signal) to control the power supply on-off operation of the power supply to the equipment at this time, and for other operations of the equipment, the operation may be completed by continuously using a common existing wireless remote control device to send a corresponding instruction data signal to the wireless remote control device.

The wireless switching device, the apparatus system and the apparatus power supply on-off operation control method according to the present invention have been explained in detail by way of examples only, and these examples are only for illustrating the principles of the present invention and the embodiments thereof, and are not to be construed as limiting the present invention, and various modifications and improvements can be made by those skilled in the art without departing from the spirit and scope of the present invention. Accordingly, all equivalents are intended to be included within the scope of this invention and defined in the claims which follow.

Claims

1. A wireless switching apparatus for placement between a power source and a device that is in a passive standby state when not powered, comprising:

the control module is connected with the receiving antenna and is used for demodulating the instruction data signal received by the receiving antenna and outputting a control signal after power supply; and

a controlled module connected to the control module, the power supply and the device and arranged to receive and perform an on-off operation between the device and the power supply in dependence on the control signal,

it is characterized in that the preparation method is characterized in that,

the wireless switching device further comprises a passive wake-up module, the passive wake-up module comprises a wireless energy receiving and converting unit and a switch,

wherein the wireless energy receiving and converting unit of the passive wake-up module is connected with the receiving antenna and is configured to convert the wireless energy signal received by the receiving antenna to provide a pulse signal,

the control end of the switch of the passive awakening module is connected with the wireless energy receiving and converting unit to receive the pulse signal, the other two ends of the switch are respectively connected with the power supply and the control module, and the switch is set to be in a closed state when the control end of the switch receives the pulse signal generated by conversion of the wireless energy receiving and converting unit, so that the power supply supplies power to the control module of the wireless switch device.

2. The wireless switching device of claim 1,

the control module further comprises:

3. The wireless switching device according to claim 2, wherein the switch is a monostable switch, and the passive wake-up module further comprises a first switch driving unit connected to the output terminal of the wireless energy receiving and converting unit, the control terminal of the switch and the decoding and control unit, and configured to output a driving signal matching therewith to the switch, and powered by the pulse signal output by the wireless energy receiving and converting unit before and after the switch enters the closed state; and/or

4. The wireless switching device of claim 3, further comprising a first AC/DC unit disposed between the passive wake-up module and the AC power source for converting the AC power source into a form of power suitable for use by the control module to power the control module when the switch is brought into a closed state when the power source is an AC power source.

5. A wireless switching device according to claim 3 or 4, further comprising a second AC/DC unit connected to the controlled switch, the apparatus and the second switch driving unit and arranged to convert the power supply into a form suitable for use by the second switch driving unit to supply power to the second switch driving unit after the controlled switch has been brought into a closed state.

6. The wireless switching device according to claim 2, 3 or 4, wherein the wireless energy receiving and converting unit is configured to: the width of the pulse signal is provided at least before the control module outputs the control signal, so that the control module and the power supply are electrically connected; and/or

7. An apparatus comprising a switching device, characterized in that the switching device is a wireless switching device according to any of claims 1-6 for connecting a power supply for supplying power to the apparatus.

8. An appliance system, characterized in that the appliance system comprises:

the apparatus of claim 7, connected to a power source that supplies power to the apparatus through the wireless switching device; and

9. A method for controlling power supply on-off operation of equipment is characterized by comprising the following steps:

A. disposing the wireless switching device of any of claims 1-6 between an appliance and a power source;

C. enabling a wireless energy receiving and converting unit of a passive wake-up module in the wireless switching device to generate a pulse signal based on the received wireless energy signal, and enabling a switch of the passive wake-up module to enter a closed state through the pulse signal, so that the power supply supplies power to a control module of the wireless switching device; and

10. The method for controlling power supply on-off operation of equipment according to claim 9, wherein in step B, the wireless signal is sent to the wireless switching device by operating a wireless remote controller matched with the wireless switching device; and/or