WO2022104713A1 - 智能设备、智能设备的控制方法及控制系统 - Google Patents

智能设备、智能设备的控制方法及控制系统 Download PDF

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Publication number
WO2022104713A1
WO2022104713A1 PCT/CN2020/130493 CN2020130493W WO2022104713A1 WO 2022104713 A1 WO2022104713 A1 WO 2022104713A1 CN 2020130493 W CN2020130493 W CN 2020130493W WO 2022104713 A1 WO2022104713 A1 WO 2022104713A1
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WIPO (PCT)
Prior art keywords
device body
bluetooth
wifi
signal
mode
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PCT/CN2020/130493
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English (en)
French (fr)
Inventor
林福周
聂创达
周明长
Original Assignee
江门市征极光兆科技有限公司
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Publication of WO2022104713A1 publication Critical patent/WO2022104713A1/zh

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    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W4/00—Services specially adapted for wireless communication networks; Facilities therefor
    • H04W4/06—Selective distribution of broadcast services, e.g. multimedia broadcast multicast service [MBMS]; Services to user groups; One-way selective calling services
    • G—PHYSICS
    • G08—SIGNALLING
    • G08C—TRANSMISSION SYSTEMS FOR MEASURED VALUES, CONTROL OR SIMILAR SIGNALS
    • G08C17/00—Arrangements for transmitting signals characterised by the use of a wireless electrical link
    • G08C17/02—Arrangements for transmitting signals characterised by the use of a wireless electrical link using a radio link
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W4/00—Services specially adapted for wireless communication networks; Facilities therefor
    • H04W4/80—Services using short range communication, e.g. near-field communication [NFC], radio-frequency identification [RFID] or low energy communication
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W76/00—Connection management
    • H04W76/10—Connection setup
    • H04W76/14—Direct-mode setup
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W84/00—Network topologies
    • H04W84/02—Hierarchically pre-organised networks, e.g. paging networks, cellular networks, WLAN [Wireless Local Area Network] or WLL [Wireless Local Loop]
    • H04W84/10—Small scale networks; Flat hierarchical networks
    • H04W84/12—WLAN [Wireless Local Area Networks]

Definitions

  • the present application relates to the technical field of smart devices, and in particular, to smart devices, control methods and control systems for smart devices.
  • the Internet of Things is the "Internet of everything connected", which is an extension and expansion of the Internet based on the Internet. It is a huge network formed by combining various information sensing devices with the Internet. , Anywhere, the interconnection of people, machines and things.
  • the smart device will be connected to the smart phone through Bluetooth, WIFI, ZIGBEE and other communication methods, and more functions can be realized through the mobile APP.
  • it is necessary to use the mobile phone when using it which will not be convenient enough in the occasion of frequent operation, which will cause trouble to the user.
  • the present application mainly provides smart devices, a control method for smart devices, and a control system method, so as to solve the problem that the control of smart devices is not diversified enough in the prior art.
  • the present application provides a control method for a smart device.
  • the smart device includes a device body and a remote control device, the device body includes a multi-mode single chip, and the multi-mode single chip includes a Bluetooth mode and a wifi mode.
  • the control method includes: remote control.
  • the device obtains the operation instruction, processes the operation instruction into a Bluetooth broadcast packet according to a preset format, and sends the Bluetooth broadcast packet to the device body; the device body detects the wireless signal in real time, wherein the wireless signal includes the Bluetooth broadcast packet and the wifi signal; when the device The wireless signal received by the body is a Bluetooth broadcast packet, and the device body parses the Bluetooth broadcast packet through the Bluetooth mode and executes operation instructions; when the wireless signal received by the device body is a WiFi signal, the device body communicates with the device that sends the WiFi signal through the WiFi mode. Establish a wifi channel for bidirectional signal transmission.
  • the present application also provides an intelligent device, including: a remote control device, including a command input unit and a processing chip, the command input unit is used to obtain operation instructions, and the processing chip is used to process the operation instructions according to a preset format. into a Bluetooth broadcast packet, and send the Bluetooth broadcast packet to the device body; the device body includes a multi-mode single chip, and the multi-mode single chip includes a Bluetooth mode and a wifi mode; the device body is used to parse the Bluetooth broadcast packet through the Bluetooth mode. And execute the operation, the device body is used to establish a wifi channel with other devices through the wifi mode to realize two-way signal transmission.
  • a remote control device including a command input unit and a processing chip, the command input unit is used to obtain operation instructions, and the processing chip is used to process the operation instructions according to a preset format. into a Bluetooth broadcast packet, and send the Bluetooth broadcast packet to the device body; the device body includes a multi-mode single chip, and the multi-mode single chip includes a Bluetooth mode and a wifi mode; the
  • the present application also provides a control system for a smart device, including: the above-mentioned smart device; other devices for sending bluetooth signals and/or wifi signals to the smart device to establish a communication channel; and/or It is used to send Bluetooth broadcast packets to smart devices to achieve command control; routers, smart devices connect to the server through the router to obtain the commands on the server.
  • the present application discloses a control method for a smart device, wherein the smart device includes a device body and a remote control device, the device body includes a multi-mode single chip, the multi-mode single chip includes a Bluetooth mode and a wifi mode, and the control method includes: the remote control device obtains an operation instruction, The operation instruction is processed into a Bluetooth broadcast packet according to the preset format, and the Bluetooth broadcast packet is sent to the device body; the device body detects the wireless signal in real time, wherein the wireless signal includes the Bluetooth broadcast packet and the wifi signal; when the device body receives the wireless signal It is a Bluetooth broadcast packet, and the device body parses the Bluetooth broadcast packet through the Bluetooth mode and executes operation instructions; when the wireless signal received by the device body is a WiFi signal, the device body establishes a WiFi channel with the device sending the WiFi signal through the WiFi mode to achieve Two-way signal transmission.
  • the remote control device of the smart device has low power consumption and low cost; the device body can be compatible with both the Bluetooth mode and the wifi mode through the multi-mode single chip, and has both the wifi communication mode and the Bluetooth communication mode; and the multi-mode single chip only includes With one transceiver antenna, the two communication methods will not interfere with each other; no additional receiving device is required, the hardware cost is low, and space is saved, so that the volume of the smart device can be further reduced.
  • FIG. 1 is a schematic flowchart of an embodiment of a method for controlling a smart device of the present application
  • FIG. 2 is a schematic flowchart of another embodiment of the smart device control method of the present application.
  • FIG. 3 is a schematic structural diagram of an embodiment of a smart device of the present application.
  • FIG. 4 is a schematic structural diagram of an embodiment of an intelligent controller of the present application.
  • FIG. 5 is a schematic structural diagram of another embodiment of the smart lighting device of the present application.
  • FIG. 6 is a schematic structural diagram of an embodiment of a remote control device of the present application.
  • FIG. 7 is a schematic structural diagram of an embodiment of an intelligent device control system of the present application.
  • IoT technology With the rapid development of IoT technology, there are more and more ways to connect things. Generally, it can be controlled by a remote control, such as infrared remote control, radio frequency (Radio Frequency, RF) remote control and so on. With the development of the Internet of Things and the popularity of smartphones, more and more control methods have begun to appear. At present, smart devices can communicate through wireless technologies, such as Bluetooth, WIFI, ZIGBEE and other communication technologies, so as to realize the function of smart phones controlling smart devices.
  • wireless technologies such as Bluetooth, WIFI, ZIGBEE and other communication technologies, so as to realize the function of smart phones controlling smart devices.
  • Smart devices use WIFI communication mode with infrared remote control to achieve related functions.
  • Smart devices use WIFI communication mode with RF remote control to achieve related functions.
  • the smart device uses the Bluetooth MESH communication method to realize related functions through the smart bridge.
  • this method connects the infrared receiving head through the WIFI chip port, the infrared remote control sends the infrared signal to the infrared receiving head, and the receiving head converts the infrared signal into digital information to the WIFI chip for decoding.
  • the WIFI chip obtains relevant control commands after decoding to perform corresponding operations.
  • This method requires an infrared receiving head and a peripheral circuit of the receiving head, and requires a certain hardware cost. At the same time, infrared communication is directional and has poor penetration ability.
  • this method is realized by connecting an RF chip to the WIFI chip port.
  • the RF remote control sends wireless signals to the RF chip, and the RF chip converts the wireless signals into digital signals for decoding by the WIFI chip.
  • the WIFI chip obtains relevant control commands after decoding to perform corresponding operations.
  • This method requires an RF chip and a peripheral circuit of the RF chip, and requires higher hardware costs.
  • there are WIFI signals and other RF signals in smart devices which require two kinds of antennas, which increases the layout area and easily interferes with each other.
  • the smart device uses the Bluetooth MESH communication method and realizes related functions through the smart bridge: this method is to make the smart device into Bluetooth MESH communication, the remote control uses Bluetooth MESH to communicate with the smart device, and the smart device communicates with the smart device.
  • Bridge connection the smart bridge contains a WIFI chip, so it can be controlled by the remote control and connected to the server. This method requires an intelligent network bridge, so the system is complicated to use and the hardware cost is high.
  • FIG. 1 is a schematic flowchart of an embodiment of a smart device control method of the present application. In this embodiment, the following steps are mainly included:
  • the remote control device obtains an operation instruction, processes the operation instruction into a Bluetooth broadcast packet according to a preset format, and sends the Bluetooth broadcast packet to the device body.
  • the smart device may include a device body and a remote control device.
  • Smart devices may include smart lighting devices, such as smart light bulbs, smart controllers, etc.; or smart home devices, such as smart sockets, smart curtains, and the like.
  • the device body may include a multi-mode single chip, and the multi-mode single chip may include a Bluetooth mode and a wifi mode.
  • the multi-mode single-chip here may refer to a chip that integrates at least two modes, the Bluetooth mode and the wifi mode, that is, the multi-mode single-chip communication unit may only include the Bluetooth mode and the wifi mode, or the multi-mode single-chip.
  • Other communication modes other than bluetooth mode and wifi mode may also be included.
  • the remote control device may include a command input unit and a processing chip, the command input unit may be used to obtain operation instructions, and the processing chip may be used to process the operation instructions into Bluetooth broadcast packets according to a preset format, and send the Bluetooth broadcast packets to the device body.
  • the command input unit may include virtual keys and/or physical keys, and the user determines the operation instruction by pressing the virtual keys and/or the physical keys.
  • the physical buttons can be mechanical buttons, which can give timely feedback to the user and have a better sense of use;
  • the virtual buttons can be touch buttons, and the touch buttons can maintain the integrity of the remote control device, and the integrated appearance makes the remote control device more beautiful.
  • the remote control device may also be provided with a display screen to display input commands or other information and the like. After the remote control device is powered on, it starts to work, and detects whether there is a button pressed in the command input unit. If not, wait for the next button detection; if there is, it can send a Bluetooth broadcast command according to the key value, and according to the definition content of the key value, according to the format. After sending the packet, wait for the next key detection.
  • the processing chip may utilize Bluetooth Low Energy (BLE) technology.
  • BLE Bluetooth Low Energy
  • Bluetooth low energy technology is a short-range, low-cost, interoperable wireless technology that uses many intelligent means to minimize power consumption.
  • the working mode of BLE technology is very suitable for the application of small amount of data transmission.
  • the amount of data sent and received by this application is very small (usually a few bytes), and the number of times it is sent and received is very small.
  • the processing chip may include a Bluetooth chip or an RF chip to implement BLE.
  • the RF chip can realize BLE by simulating the function of the Bluetooth chip.
  • the processing chip processes the operation instruction into a Bluetooth broadcast packet that can be sent through BLE according to a preset format, and sends the Bluetooth broadcast packet to the device body.
  • the device body detects a wireless signal in real time, wherein the wireless signal includes a Bluetooth broadcast packet and a wifi signal.
  • the device body can detect wireless signals in real time after it is powered on. Since the device body is provided with a multi-mode single chip and the chip includes wifi mode and Bluetooth mode, the device body can detect Bluetooth broadcast packets and wifi signals in real time.
  • the device body can be provided with a common communication antenna, and the device body can use the common communication antenna to send and receive wifi signals, bluetooth signals and/or bluetooth broadcast packets.
  • the device body can parse the Bluetooth broadcast packet through the Bluetooth mode, obtain operation instructions in the Bluetooth broadcast packet, and execute the operation instructions.
  • the operation instruction may include opening and closing of the device body, and the like.
  • the Bluetooth broadcast packet may be sent by a remote control device, or may be sent by other devices.
  • Other devices may include devices with independent operating systems, such as smart phones, smart tablets, and smart watches.
  • the device body When the wireless signal received by the device body is a WiFi signal, the device body establishes a WiFi channel with the device sending the WiFi signal through the WiFi mode, so as to realize two-way signal transmission.
  • the device body can establish a WiFi channel with the device sending the WiFi signal through the WiFi mode to realize two-way signal transmission.
  • the device that sends the wifi signal is a device including a wifi function, which may be the above-mentioned other devices, including a smart phone, a smart tablet, a smart watch, etc.; it may also be a device such as a router.
  • the step of realizing bidirectional signal transmission may include:
  • the device body can receive the operation command sent by the device that establishes the WiFi channel with the device body through the WiFi channel, and execute the corresponding operation according to the operation command; and/or, the device body sends the device information through the WiFi channel to the device that establishes the WiFi channel with the device body. , where the device information includes device status and/or device type.
  • the two can perform signal transmission through the wifi channel.
  • other devices can send operation instructions to the device body through the wifi channel.
  • the wifi channel is bidirectional, the device body can also send device information to other devices through the wifi channel, where the device information can include device status and/or device type. , device version, etc.
  • the device state may refer to the power-on state of the device itself, the state of the switch, or even the working mode state, etc.
  • the device type and device version may refer to information such as the hardware version and software version of the smart device.
  • the device itself such as a smart light bulb
  • a smart phone when the user is in the bedroom, he can use the smart phone to check whether the smart light bulb in the living room is turned off.
  • the smartphone sends an operation command to control the smart light bulb to turn off. In this way, the user does not need to go to the living room to check and turn off the lights, which can improve the user's sense of use.
  • the operation instructions in this embodiment are not limited to the opening and closing of the device body, and different operation instructions can be set according to the difference of the device body. Adjustment, etc.; for the smart socket, the operation instruction may also include the time of automatic opening or automatic closing, etc. Therefore, the specific instruction of the operation instruction is not limited in this embodiment.
  • control method for the smart device may further include step S133, as follows:
  • the device body When the wireless signal received by the device body is a Bluetooth signal, the device body establishes a Bluetooth channel with the device sending the Bluetooth signal through the Bluetooth mode, so as to realize two-way signal transmission.
  • the multi-mode single chip of the device body includes a Bluetooth mode, so the device body can receive Bluetooth signals.
  • the wireless signal received by the device body is a Bluetooth signal
  • the device body can establish a Bluetooth channel with the device sending the Bluetooth signal through the Bluetooth mode to realize two-way transmission.
  • the device that sends the Bluetooth signal is a device including a Bluetooth function, and may be other devices mentioned above, including a smart phone, a smart tablet, a smart watch, and the like.
  • the method for establishing a bluetooth channel between the device body and other devices and realizing bidirectional signal transmission is the same as the method for establishing a wifi channel above, which will not be repeated here.
  • the remote control device when using the remote control device to control the device body, the remote control device does not need to establish a connection with the device body, and can directly send operation commands to the device directly through BLE, that is, by means of Bluetooth broadcasting. device body.
  • the Bluetooth broadcast method is one-way signal transmission, with strong penetration ability and long transmission distance.
  • some devices such as smart phones, can choose to connect with the device body through a Bluetooth channel or through a wifi channel, or send operation instructions to the device body through Bluetooth broadcast. At this time, other devices such as smart phones also There is no need to establish a communication channel with the device itself.
  • it may be a method of using a wifi chip and a bluetooth chip to realize bluetooth communication and wifi communication, that is, the bluetooth remote control device establishes a bluetooth connection with the device body, and the bluetooth chip converts the signal sent by the bluetooth remote control device into a digital signal to the wifi Chip decoding, the wifi chip can obtain relevant control commands after decoding to perform corresponding operations.
  • this form requires a wifi chip, a bluetooth chip and its peripheral circuits, and the hardware cost is high and the volume is large.
  • the device body adopts a multi-mode single-chip method to realize Bluetooth communication and wifi communication; the device body may only include a transceiver antenna, and the two communication methods will not interfere with each other; and no additional receiving device needs to be set.
  • the hardware cost is low and the space is more saved, so that the volume of the smart device can be further reduced.
  • This embodiment provides a control method for a smart device, wherein the smart device includes a device body and a remote control device, the device body includes a multi-mode single chip, the multi-mode single chip includes a Bluetooth mode and a wifi mode, and the control method includes: the remote control device obtains an operation instruction , process the operation instruction into a Bluetooth broadcast packet according to the preset format, and send the Bluetooth broadcast packet to the device body; the device body detects the wireless signal in real time, wherein the wireless signal includes the Bluetooth broadcast packet and the wifi signal; when the device body receives the The wireless signal is a Bluetooth broadcast packet, and the device body parses the Bluetooth broadcast packet through the Bluetooth mode and executes operation instructions; when the wireless signal received by the device body is a WiFi signal, the device body establishes a WiFi channel with the device that sends the WiFi signal through the WiFi mode.
  • the remote control device of the smart device has low power consumption and low cost; the device body can be compatible with both the Bluetooth mode and the wifi mode through a multi-mode single chip, and has both the wifi communication mode and the Bluetooth communication mode, which greatly increases the communication performance; and
  • the multi-mode single chip only includes one transceiver antenna, and the two communication methods will not interfere with each other; no additional receiving devices are required, the hardware cost is low, and the space is more saved, so that the volume of the smart device can be further reduced, so it can be used in a certain For some occasions with strict space requirements, such as small-volume smart devices such as smart bulbs.
  • the device body of the smart device can also be connected to the server through a router in the form of a wifi channel, thereby realizing long-distance two-way signal transmission. After the device body is connected to the server, it can provide longer-distance communication and more diversified control methods.
  • a smart phone when a user is in the company, a smart phone can be used to connect to the server, so as to send operation instructions to the device body or view the device information of the device body, or, in a smart home system, all smart home devices are connected to the server, and other smart home devices
  • the device can also realize two-way signal transmission with the device body, for example, an operation command can be sent to the device body through a smart speaker or the device information of the device body can be viewed.
  • FIG. 2 is a schematic flowchart of another embodiment of the smart device control method of the present application.
  • the device body may include multiple working states, and under different working states, the device body may receive different types of wireless signals.
  • the method in this embodiment may include the following steps:
  • S210 The device body is powered on, and the Bluetooth broadcast scanning function is enabled.
  • the device body is powered on, starts to work, and turns on the Bluetooth broadcast scanning function in real time.
  • the Bluetooth mode of the multi-mode single chip in the device body can be the BLE mode.
  • the multi-mode single-chip wifi mode can be STA (Station) mode or AP (Access Point) mode, among which, STA mode can provide wireless access services, allowing other wireless devices to access and provide data access; AP mode is similar to wireless terminals. , STA itself does not receive wireless access, it can connect to the AP.
  • the device body can include six working states, as follows:
  • the device body In the first working state, the device body receives the Bluetooth signal and the WiFi signal.
  • the mode of the device body is: AP+BLE, that is, the wifi mode is in AP mode at this time, which can receive wifi signals, and can use other devices such as smartphones to connect to it;
  • the Bluetooth mode is BLE mode, which can receive Bluetooth signal, all smartphones can establish a Bluetooth connection with smart devices.
  • the device body can be configured or controlled by wifi through the Bluetooth mode.
  • the device body receives a specific Bluetooth signal, where the specific Bluetooth signal is a Bluetooth signal sent by the device that obtains the device body information.
  • the mode of the device body is: BLE, that is, the wifi mode is turned off at this time and does not receive wifi signals;
  • the Bluetooth mode is BLE mode, which can receive specific Bluetooth signal, wherein the specific Bluetooth signal is a Bluetooth signal sent by a device that has obtained device body information.
  • only the smart phone that has acquired the device body information can establish a Bluetooth connection with the device body using the Bluetooth mode, and can control and configure the device body.
  • the device body receives a specific Bluetooth signal and a WiFi signal.
  • the mode of the device body is: AP+BLE, that is, the wifi mode is in AP mode at this time, which can receive wifi signals and connect with a smartphone.
  • the Bluetooth mode is BLE mode, which can receive a specific Bluetooth signal, where the specific Bluetooth signal is a Bluetooth signal sent by the device that has obtained the device body information.
  • all smart phones can be connected to the device body through wifi signals; only the smart phones that have obtained the device body information can use the Bluetooth mode to establish a Bluetooth connection with the device body, and can control and configure the device body. .
  • the mode of the device body is: AP, that is, the wifi mode is in the AP mode at this time, which can receive wifi signals and connect with a smartphone; BLE mode is off and does not receive bluetooth signals.
  • the device body In the fifth working state, the device body is connected to the router, and the device body and the router establish a wifi channel to realize bidirectional signal transmission.
  • the state of the device body is: STA.
  • the wifi mode is in the STA mode, which can be connected to the router to connect to the server and the device body.
  • a wifi channel is established with the router to realize two-way signal transmission, and the smart device can be controlled and configured by connecting to the router; the BLE mode is off and does not receive bluetooth signals.
  • the device body In the sixth working state, the device body is connected to the router, and the device body receives a specific Bluetooth signal and an operation instruction sent by the router.
  • the mode of the device body is: STA+BLE, that is, at this time, the wifi mode is in the STA mode, and the router can be connected to realize the intelligent connection of the router to the router.
  • the control and configuration of the device; the Bluetooth mode is the BLE mode, which can receive a specific Bluetooth signal, wherein the specific Bluetooth signal is the Bluetooth signal sent by the device that has obtained the device body information.
  • the wifi mode when the wifi mode is in the STA mode to connect to the router, the user can still connect to the router through a smartphone, so as to realize the control and configuration of the device body by the smartphone.
  • the working state of the device body can use the last working state. For example, when the device body is in the second working state when it is powered off, when the device body is powered on next time, the working state is also directly set to the second working state without starting from the first working state.
  • the six working states can be converted to each other through a certain process.
  • the device body turns on the Bluetooth broadcast scanning function after power-on until the smart device is powered off. Therefore, in the above six working states, the device body is always in a state that can receive Bluetooth broadcast packets.
  • the Bluetooth broadcast scanning function can be turned on and continue to work; and in different working states, the device body can be connected to different devices, such as a server. Or a smart phone, etc. is connected to a wifi channel or a bluetooth channel to realize two-way signal transmission, which can realize a high-efficiency and diversified control method.
  • the present application further includes a smart device.
  • FIG. 3 is a schematic structural diagram of an embodiment of the smart device of the present application.
  • the smart device 100 may include a remote control apparatus 120 and a device body 110 .
  • the remote control device 120 may include a command input unit 121 and a processing chip 122 .
  • the command input unit 121 may be used to obtain an operation instruction
  • the processing chip 122 may be used to process the operation instruction into a Bluetooth broadcast packet according to a preset format, and send the Bluetooth broadcast packet to the device body.
  • the device body 110 may include a multi-mode single chip 111, wherein the multi-mode single chip 111 may include a Bluetooth mode and a wifi mode.
  • the device body 110 can be used to parse the Bluetooth broadcast packet and execute operation instructions through the Bluetooth mode, and/or the device body 110 can be used to establish a wifi channel with other devices through the wifi mode to realize two-way signal transmission.
  • the device body 110 can be used to receive an operation instruction sent by the device 200 that establishes a WiFi channel with the device body through a WiFi channel, and perform corresponding operations according to the operation instruction; and/or be used to send device information to the device through the WiFi channel.
  • the body 110 establishes the device 200 of the wifi channel, wherein the device information includes the device status and/or the device type.
  • the device body 110 can also be used to establish a Bluetooth channel with the device 200 sending the Bluetooth signal through the Bluetooth mode, so as to realize two-way signal transmission.
  • the device body 110 may also include various working states, wherein:
  • the device body 110 can receive bluetooth signals and wifi signals.
  • the device body 110 can receive a specific Bluetooth signal, where the specific Bluetooth signal is a Bluetooth signal sent by the device 200 that obtains the device body information.
  • the device body 110 can receive specific bluetooth signals and wifi signals.
  • the device body 110 can receive wifi signals.
  • the device body 110 can be connected to the router, and the device body 110 and the router establish a wifi channel to realize bidirectional signal transmission.
  • the device body 110 can be connected to the router, and the device body 110 receives a specific Bluetooth signal and an operation command sent by the router.
  • the smart device of the present application may be a smart lighting device, please refer to FIGS. 4-6 , wherein FIG. 4 is a schematic structural diagram of an embodiment of the smart controller of the present application; FIG. 5 is another smart lighting device of the present application. A schematic structural diagram of an embodiment; FIG. 6 is a structural schematic diagram of an embodiment of a remote control device of the present application.
  • An intelligent controller is a type of intelligent lighting equipment, which can be understood as an adapter for a split type intelligent lighting equipment, which can be used with light-emitting components, such as light strips, lamps, etc., and the light-emitting components can be replaced.
  • the intelligent controller includes a device body 410 .
  • the device body 410 may include a housing, a load line 415 , a communication antenna 416 and a power line 417 .
  • the housing may be used to accommodate the circuit board 413 , and the circuit board 413 may be provided with a multi-mode single chip 414 .
  • One end of the load line 415 can be used to connect to the circuit board 413, and the other end of the load line 415 can be connected to the light emitting component.
  • the communication antenna 416 may be provided on the circuit board 413 for sending and receiving signals.
  • the signals may include wifi signals, bluetooth signals, bluetooth broadcast packets, and the like.
  • the power cord 417 can be connected to a power source for supplying power to the device body 410 .
  • the housing may be composed of a surface cover 411 and a bottom case 412. After the surface cover 411 and the bottom case 412 are closed, an accommodating space may be formed to accommodate the circuit board 413.
  • the surface cover 411 and the bottom case 412 may be made of PC, ABS and other plastic materials.
  • the load line 415 may be used to connect the light-emitting component and the circuit board 413, wherein the light-emitting component may be a light strip, a lamp and the like.
  • the access ports at the other end of the load line 415 may be different.
  • the other end of the load line 415 may include multiple access ports for accessing multiple light emitting components at the same time.
  • the circuit board 413 includes a multi-mode single chip 414 and a communication antenna 416 .
  • the multi-mode single chip 414 can include a bluetooth mode and a wifi mode.
  • the multi-mode single chip 414 can receive wifi signals, bluetooth signals and bluetooth broadcast packets, and can be controlled by other devices such as remote control devices, routers or smart phones.
  • the communication antenna 416 can be a 2.4G antenna and can receive the above various signals.
  • circuit board 413 may also include basic control circuits such as a driving circuit and a voltage regulator circuit, which will not be described here.
  • the device body 510 may include a lamp cap 511 , a lamp housing 512 , a lamp board 515 , a light-emitting component (not shown) and a lamp cover 516 .
  • the parts of this embodiment that are the same as the above-mentioned embodiments are not repeated here.
  • the lamp cap 511 can be used to connect to the lamp socket to provide power for the device body 510 .
  • the lamp housing 512 can be used for accommodating the circuit board 513 , and the circuit board 513 can be provided with a multi-mode single chip 514 .
  • the light board 515 may be accommodated in the light housing 512 and connected to the circuit board 513, and the light board 515 may be provided with light-emitting components.
  • the lamp cover 516 can be used to cover the light-emitting components, and form an accommodating space with the lamp housing 512 .
  • the lamp housing 512 can be connected to the lamp cap 511, and the lamp housing 512 can be a plastic-coated aluminum structure, which can achieve the purpose of heat dissipation and electrical isolation, and prevent electric shock.
  • the circuit board 513 can be vertically disposed inside the lamp housing 512, and the circuit board 513 can be a driving power board, and can include a multi-mode single chip 514, a communication antenna 517, an ACDC circuit, a transformer and other related devices.
  • the light boards 515 can be connected to the circuit boards 513 in a nested manner, and the light boards 515 and the circuit boards 513 are arranged orthogonally.
  • the lamp housing 512 may be provided with steps, and the lamp board 515 may be fixed in parallel in the lamp housing 512 through the steps, so that the circuit board 513 may be vertically disposed inside the lamp housing 512 .
  • the light board 515 may be provided with light-emitting components, driving circuits, connectors, and the like.
  • the light-emitting components may be LED lamp beads or the like.
  • the multi-mode single chip 514, ACDC circuit, transformer, etc. of the circuit board 513 can be arranged below the light board 515, and the communication antenna 517 can be arranged above the light board 515, which can further improve the communication efficiency.
  • the lampshade 516 can be connected to the lamp housing 512 to form an accommodating space, wherein the lampshade 516 and the lamp housing 512 can be realized by means of screw connection or snap connection.
  • the light is softer and more even.
  • the lampshade 516 can be made of plastic materials such as PC and acrylic.
  • the device body of the smart lighting device in this embodiment is a smart bulb lamp, and the light-emitting components and the circuit board are fixedly connected and cannot be replaced.
  • a new control method is added without increasing the size of the product and saving space; in the above embodiment, the intelligent controller and the light-emitting component are replaceable connections, which can be applied to more types of light-emitting components and have a wider range of applications .
  • the remote control device 600 may include a surface sticker 610 , a bottom case 620 and a circuit board 630 .
  • the face sticker 610 may be provided with a command input unit, and the command input unit has several keys for inputting operation instructions.
  • the bottom case 620 and the surface sticker 610 may form an accommodating space for placing accessories such as the circuit board 630 and the battery.
  • the circuit board 630 may include a processing chip, a communication antenna, a key circuit, and the like.
  • FIG. 7 is a schematic structural diagram of an embodiment of an intelligent device control system of the present application.
  • the control system may include the above-mentioned smart device 710 , other devices 720 , a router 730 , and a server 740 .
  • the smart device 710 may include a device body 711 and a remote control device 712 , which have been described in detail in the above embodiments, and will not be repeated here.
  • the other devices 720 may be used to send Bluetooth signals and/or wifi signals to the smart device 710 to establish a communication channel; and/or used to send Bluetooth broadcast packets to the smart device 710 to implement command control.
  • the other device 720 may be a device with an independent operating system, such as a smart phone, a smart tablet, and a smart watch.
  • the router 730 is used to enable the smart device 710 to connect to the server 740 through the router 730 to obtain the instruction on the server 740 .
  • the user can send an instruction to the smart device 710 through the server 740, thereby realizing cloud control.
  • the router 730 can be connected to the server 740 through a network cable/optical fiber/special line or the like.
  • the present application provides a smart device, a control method and system for the smart device, wherein the smart device includes a device body and a remote control device, the device body includes a multi-mode single chip, the multi-mode single chip includes a Bluetooth mode and a wifi mode, and the control method includes: remote control
  • the device obtains the operation instruction, processes the operation instruction into a Bluetooth broadcast packet according to a preset format, and sends the Bluetooth broadcast packet to the device body; the device body detects the wireless signal in real time, wherein the wireless signal includes the Bluetooth broadcast packet and the wifi signal; when the device The wireless signal received by the body is a Bluetooth broadcast packet, and the device body parses the Bluetooth broadcast packet through the Bluetooth mode and executes operation instructions; when the wireless signal received by the device body is a WiFi signal, the device body communicates with the device that sends the WiFi signal through the WiFi mode.
  • the remote control device of the smart device has low power consumption and low cost; the device body can be compatible with the Bluetooth mode and the wifi mode at the same time through the multi-mode single chip, and has both the wifi communication mode and the Bluetooth communication mode; and the multi-mode single chip only includes One transceiver antenna, the two communication methods will not interfere with each other; no additional receiving devices are required, the hardware cost is low, and the space is more saved, so that the volume of the smart device can be further reduced; it can also realize a variety of control methods, such as through Remote control devices, smart phones and other devices, or servers to send operating instructions, in order to achieve the purpose of rich control functions and convenient use.

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Abstract

本申请公开智能设备、智能设备的控制方法及控制系统，其中，智能设备包括设备本体及遥控装置，设备本体包括多模单芯片，多模单芯片包括蓝牙模式和wifi模式，控制方法包括：遥控装置获取操作指令，将操作指令按照预设的格式处理成蓝牙广播包，并将蓝牙广播包发送至设备本体；设备本体实时检测无线信号，其中，无线信号包括蓝牙广播包和wifi信号；当接收到蓝牙广播包，设备本体通过蓝牙模式对蓝牙广播包进行解析并执行操作指令；当接收到wifi信号，设备本体通过wifi模式与发送wifi信号的设备建立wifi通道，以实现双向信号传输。通过上述方式，同时具备wifi通讯方式和蓝牙广播包方式，且不产生干扰，可实现控制的多元化，且成本较低。

Description

智能设备、智能设备的控制方法及控制系统 技术领域
本申请涉及智能设备技术领域，特别是涉及智能设备、智能设备的控制方法及控制系统。
背景技术
随着科技的不断发展，万物互联逐渐成为现实，物联网技术随之快速发展。物联网(IoT，Internet of things)即“万物相连的互联网”，是互联网基础上的延伸和扩展的网络，将各种信息传感设备与互联网结合起来而形成的一个巨大网络，实现在任何时间、任何地点，人、机、物的互联互通。
随着物联网的发展及智能手机的普及，越来越多的控制方式开始出现。为了达到控制功能丰富和使用方便的目的，智能设备会通过蓝牙、WIFI、ZIGBEE等通讯方式与智能手机进行连接，通过手机APP能实现更丰富的功能。但使用时都要通过手机，频繁操作的场合会不够便捷，给用户造成困扰。
发明内容
本申请主要提供智能设备、智能设备的控制方法及控制系统方法，以解决现有技术中智能设备控制不够多元化的问题。
为解决上述技术问题，本申请提供一种智能设备的控制方法，智能设备包括设备本体及遥控装置，设备本体包括多模单芯片，多模单芯片包括蓝牙模式和wifi模式，控制方法包括：遥控装置获取操作指令，将操作指令按照预设的格式处理成蓝牙广播包，并将蓝牙广播包发送至设备本体；设备本体实时检测无线信号，其中，无线信号包括蓝牙广播包和wifi信号；当设备本体接收到的无线信号为蓝牙广播包，设备本体通过蓝牙模式对蓝牙广播包进行解析并执行操作指令；当设备本体接收到的无线信号为wifi信号，设备本体通过wifi模式与发送wifi信号的设备建立wifi通道，以实现双向信号传输。
为解决上述技术问题，本申请还提供一种智能设备，包括：遥控装置，包括命令输入单元和处理芯片，命令输入单元用于获取操作指令，处理芯片用于将操作指令按照预设的格式处理成蓝牙广播包，并将蓝牙广播包发送至设备本体；设备本体，包括多模单芯片，多模单芯片包括蓝牙模式和wifi模式；其中，设备本体用于通过蓝牙模式对蓝牙广播包进行解析并执行操作执行，设备本体用于通过wifi模式与其他设备建立wifi通道，以实现双向信号传输。
为解决上述技术问题，本申请还提供一种智能设备的控制系统，包括：上 述的智能设备；其他设备，用于向智能设备发送蓝牙信号和/或wifi信号，以建立通信通道；和/或用于发送蓝牙广播包至智能设备以实现指令控制；路由器，智能设备通过路由器连接服务器以获得服务器上的指令。
本申请公开智能设备的控制方法，其中，智能设备包括设备本体及遥控装置，设备本体包括多模单芯片，多模单芯片包括蓝牙模式和wifi模式，控制方法包括：遥控装置获取操作指令，将操作指令按照预设的格式处理成蓝牙广播包，并将蓝牙广播包发送至设备本体；设备本体实时检测无线信号，其中，无线信号包括蓝牙广播包和wifi信号；当设备本体接收到的无线信号为蓝牙广播包，设备本体通过蓝牙模式对蓝牙广播包进行解析并执行操作指令；当设备本体接收到的无线信号为wifi信号，设备本体通过wifi模式与发送wifi信号的设备建立wifi通道，以实现双向信号传输。通过上述方式，智能设备的遥控装置功耗低、成本低；设备本体通过多模单芯片可以同时兼容蓝牙模式和wifi模式，同时具备wifi通讯方式和蓝牙通讯方式；并且多模单芯片中只包括一条收发天线，两种通讯方式不会相互干扰；不需要设置额外接收器件，硬件成本低，更加节约空间，以使得智能设备的体积可以进一步缩小。
附图说明
为了更清楚地说明本申请的技术方案，下面将对实施方式中所需要使用的附图作简单地介绍，显而易见地，下面描述中的附图仅仅是本申请的一些实施方式，对于本领域普通技术人员来讲，在不付出创造性劳动的前提下，还可以根据这些附图获得其他的附图。
图1是本申请智能设备控制方法一实施例的流程示意图；
图2是本申请智能设备控制方法另一实施例的流程示意图；
图3是本申请智能设备一实施例的结构示意图；
图4为本申请智能控制器一实施例的结构示意图；
图5是本申请智能照明设备另一实施例的结构示意图；
图6是本申请遥控装置一实施例的结构示意图；
图7为本申请智能设备控制系统一实施例的结构示意图。
具体实施方式
为使本领域的技术人员更好地理解本申请的技术方案，下面结合附图和具体实施方式对本申请所提供的智能设备、智能设备的控制方法及控制系统进一步详细描述。
物联网技术随之快速发展，因此物物连接的方式也越来越多。一般可以通过遥控器控制，如红外遥控器控制，射频(Radio Frequency，RF)遥控器控制 等等。随着物联网的发展及智能手机的普及，越来越多的控制方式开始出现。现阶段智能设备可以通过无线技术进行通信，例如蓝牙、WIFI、ZIGBEE等通信技术，从而实现智能手机控制智能设备的功能。
为了达到控制功能丰富和使用方便的目的，一般智能设备都有蓝牙、WIFI、ZIGBEE等通讯方式，目的便于与智能手机进行连接，通过手机应用程序(Application,APP)能实现更丰富的功能。但使用时都要通过智能手机，频繁操作的场合会不够便捷，因此也会配备遥控器。通过智能手机与遥控器双控制的方式，以达到功能强大及使用方便的目的。WIFI通讯方式能把智能设备通过路由器连接到服务器，实现智能音箱控制，远程控制等功能，因此智能设备使用WIFI通讯方式与遥控器相结合的方式是较为理想的选择。
发明人研究了如下三种方式：
1、智能设备使用WIFI通讯方式搭配红外遥控器实现相关功能。
2、智能设备使用WIFI通讯方式搭配RF遥控器实现相关功能。
3、智能设备使用蓝牙MESH通讯方式，通过智能网桥实现相关功能。
对于第一种方式，使用WIFI通讯方式搭配红外遥控器：此方式通过WIFI芯片端口接红外接收头，红外遥控器发送红外信号到红外接收头，接收头把红外信号转成数字信息给WIFI芯片解码，WIFI芯片通过解码后得到相关控制命令进行对应的操作。本方式需要红外接收头和接收头外围电路，需要一定的硬件成本。同时红外通信具有方向性，穿透能力差。
对于第二种方式，使用WIFI通讯方式搭配RF遥控器：此种方式通过WIFI芯片端口外接RF芯片来实现。RF遥控器发送无线信号到RF芯片，RF芯片将无线信号转换为数字信号给WIFI芯片解码，WIFI芯片通过解码后得到相关控制命令进行对应的操作。此方式需要RF芯片和RF芯片外围电路，需要更高的硬件成本。同时智能设备存在WIFI信号与另外的RF信号，需要两种天线，增加布板面积，同时容易互相干扰。
对于第三种方式，智能设备使用蓝牙MESH通讯方式，通过智能网桥实现相关功能：此种方式是把智能设备做成蓝牙MESH通讯，遥控器采用蓝牙MESH与智能设备通讯，智能设备再与智能网桥连接，智能网桥含有WIFI芯片，因而达到既能通过遥控器控制也能连接服务器的目的。此方式需要智能网桥，因此系统使用复杂，硬件成本很高。
基于以上情况的考虑，发明人提出了本申请的智能设备、智能设备的控制方法及控制系统，利用多模单芯片解决智能设备在多种控制方式下的兼容性，且成本较低。具体地，请参阅图1，图1是本申请智能设备控制方法一实施例的流程示意图，在本实施例中，主要包括以下步骤：
S110：遥控装置获取操作指令，将操作指令按照预设的格式处理成蓝牙广 播包，并将蓝牙广播包发送至设备本体。
在实施例中，智能设备可以包括设备本体及遥控装置。智能设备可以包括智能照明类设备，例如智能灯泡、智能控制器等；或者智能家居类设备，例如智能插座、智能窗帘等等。
设备本体可以包括多模单芯片，多模单芯片可以包括蓝牙模式和wifi模式。需要说明的是，这里的多模单芯片可以是指至少集成有蓝牙模式和wifi模式两种模式的芯片，即多模单芯片的通信单元可以只包括蓝牙模式和wifi模式，或者多模单芯片还可以包括除了蓝牙模式和wifi模式之外的其他通信模式。
遥控装置可以包括命令输入单元和处理芯片，命令输入单元可以用于获取操作指令，处理芯片可以用于将操作指令按照预设的格式处理成蓝牙广播包，并将蓝牙广播包发送至设备本体。
其中，命令输入单元可以包括虚拟按键和/或实体按键，用户通过按下虚拟按键和/或实体按键确定操作指令。其中，实体按键可以是机械按键，机械按键可以及时给予用户反馈，使用感更佳；虚拟按键可以为触摸按键，触摸按键可以保持遥控装置的完整性，而一体化的外观使得遥控装置更加美观。在一些实施例中，遥控装置还可以设置显示屏以显示输入的指令或其他的信息等。遥控装置上电后开始工作，检测命令输入单元是否有按键按下，没有则重新等待下次按键检测；有则可以根据键值发送蓝牙广播命令，根据键值的定义内容，按照格式发送蓝牙广播包，发送完毕重新等待下次按键检测。
处理芯片可以利用蓝牙低能耗(Bluetooth Low Energy，BLE)技术。其中，蓝牙低能耗技术是短距离、低成本、可互操作性的无线技术，它利用许多智能手段最大限度地降低功耗。BLE技术的工作模式非常适合于少数据量传送的应用场合。这种应用收发的数据量非常少(通常几个字节)，而且收发次数也很少。
可选地，处理芯片可以包括蓝牙芯片或者RF芯片以实现BLE。其中，RF芯片可以通过模拟蓝牙芯片的功能来实现BLE。处理芯片将操作指令按照预设的格式处理成可通过BLE发送的蓝牙广播包，并发送蓝牙广播包至设备本体。
S120：设备本体实时检测无线信号，其中，无线信号包括蓝牙广播包和wifi信号。
设备本体在上电后即可实时检测无线信号，由于设备本体中设置有多模单芯片且芯片中包括wifi模式和蓝牙模式，因此设备本体可以实时检测蓝牙广播包和wifi信号。
并且，设备本体可以设置有共用通信天线，设备本体可以利用共用通信天线以收发wifi信号、蓝牙信号和/或蓝牙广播包。
S131：当设备本体接收到的无线信号为蓝牙广播包，设备本体通过蓝牙模 式对蓝牙广播包进行解析并执行操作指令。
当设备本体接收到的无线信号为蓝牙广播包时，设备本体可以通过蓝牙模式对蓝牙广播包进行解析，获得蓝牙广播包里面的操作指令，并执行操作指令。其中，操作指令可以包括设备本体的开启与关闭等。
其中，蓝牙广播包可以是遥控装置发送的，也可以是由其他设备发送的，其他设备可以包括智能手机，智能平板、智能手表等具有独立操作系统的设备。
S132：当设备本体接收到的无线信号为wifi信号，设备本体通过wifi模式与发送wifi信号的设备建立wifi通道，以实现双向信号传输。
当设备本体接收到的无线信号为wifi信号，设备本体可以通过wifi模式与发送wifi信号的设备建立wifi通道，以实现双向信号传输。其中，发送wifi信号的设备为包括wifi功能的设备，可以是上述的其他设备，包括智能手机，智能平板、智能手表等；也可以是路由器等设备。
其中，实现双向信号传输的步骤可以包括：
设备本体可以通过wifi通道接收与设备本体建立wifi通道的设备发送的操作指令，并根据操作指令执行相应的操作；和/或，设备本体通过wifi通道发送设备信息至与设备本体建立wifi通道的设备，其中，设备信息包括设备状态和/或设备类型。
具体地，在设备本体和其他设备建立wifi通道后，两者可以通过wifi通道进行信号传输。其中，其他设备可以通过wifi通道向设备本体发送操作指令，由于通过wifi通道是双向的，因此设备本体也可以通过wifi通道向其他设备发送设备信息，其中设备信息可以包括设备状态和/或设备类型、设备版本等。
设备状态可以是指设备本体的上电状态、开关的状态、甚至工作模式状态等；设备类型和设备版本可以是指智能设备的硬件版本和软件版本等信息。
举个例子，设备本体，例如智能灯泡，与智能手机建立wifi通道后，当用户处于卧室时，可以利用智能手机查看客厅中的智能灯泡是否关闭，若智能灯泡处于开启状态，用户就可以直接通过智能手机发送操作指令控制智能灯泡关闭。如此一来，用户也无需去客厅查看并关灯，可以提高用户的使用感。
需要说明的是，本实施例中的操作指令并不限于设备本体的开启和关闭，根据设备本体的不同，可以设置不同的操作指令，例如对于智能灯泡而言，还可以包括亮度调节、冷暖光调节等；对于智能插座而言，操作指令还可以包括自动开启或自动关闭的时间等。因此在本实施例中并不对操作指令的具体指令作限制。
在一些实施例中，智能设备的控制方法还可以包括步骤S133，如下：
S133：当设备本体接收到的无线信号为蓝牙信号，设备本体通过蓝牙模式与发送蓝牙信号的设备建立蓝牙通道，以实现双向信号传输。
设备本体的多模单芯片包括有蓝牙模式，因此设备本体可以接收蓝牙信号。当设备本体接收到的无线信号为蓝牙信号时，设备本体可以通过蓝牙模式与发送蓝牙信号的设备建立蓝牙通道，以实现双向传输。其中，发送蓝牙信号的设备为包括蓝牙功能的设备，可以是上述的其他设备，包括智能手机，智能平板、智能手表等。
设备本体与其他设备建立蓝牙通道并实现双向信号传输的方法与上述建立wifi通道的方法相同，在此不再赘述。
需要说明的是，为了节省遥控装置的成本且节省功耗，因此利用遥控装置控制设备本体时，遥控装置无需与设备本体建立连接，可直接通过BLE，即蓝牙广播的方式单向发送操作指令给设备本体。并且，蓝牙广播方式为单向信号发送，穿透能力强，传输距离远。
需要说明的是，有些设备，例如智能手机等可以选择与设备本体通过蓝牙通道连接或者通过wifi通道连接，也可以通过蓝牙广播的方式发送操作指令至设备本体，此时，智能手机等其他设备也无需与设备本体建立通信通道。
在一些实施例中，可能是采用wifi芯片和蓝牙芯片以实现蓝牙通信和wifi通信的方法，即蓝牙遥控装置与设备本体建立蓝牙连接，蓝牙芯片将蓝牙遥控装置发送的信号转换为数字信号给wifi芯片解码，wifi芯片通过解码后可以得到相关控制命令进行对应操作。但这种形式需要wifi芯片和蓝牙芯片及其外围电路，硬件成本高，体积大。同时设备本体存在wifi信号和蓝牙信号，需要设置两种天线，会增加布板面积；并且wifi信号和蓝牙信号同时为2.4G频段，容易相互干扰。
基于此，本实施例中设备本体是采用多模单芯片的方式实现蓝牙通信和wifi通信；设备本体可以只包括一条收发天线，两种通讯方式不会相互干扰；且不需要设置额外接收器件，硬件成本低，更加节约空间，以使得智能设备的体积可以进一步缩小。
本实施例提供了智能设备的控制方法，其中，智能设备包括设备本体及遥控装置，设备本体包括多模单芯片，多模单芯片包括蓝牙模式和wifi模式，控制方法包括：遥控装置获取操作指令，将操作指令按照预设的格式处理成蓝牙广播包，并将蓝牙广播包发送至设备本体；设备本体实时检测无线信号，其中，无线信号包括蓝牙广播包和wifi信号；当设备本体接收到的无线信号为蓝牙广播包，设备本体通过蓝牙模式对蓝牙广播包进行解析并执行操作指令；当设备本体接收到的无线信号为wifi信号，设备本体通过wifi模式与发送wifi信号的设备建立wifi通道，以实现双向信号传输。通过上述方式，智能设备的遥控装置功耗低、成本低；设备本体通过多模单芯片可以同时兼容蓝牙模式和wifi模式，同时具备wifi通讯方式和蓝牙通讯方式，极大地增加了通信性能；并且多 模单芯片中只包括一条收发天线，两种通讯方式不会相互干扰；不需要设置额外接收器件，硬件成本低，更加节约空间，以使得智能设备的体积可以进一步缩小，因此可以利用在某些空间要求比较严格的场合，例如智能球泡灯等小体积的智能设备。
此外，为了让智能设备适应更多的应用场景及提高用户的使用感，智能设备的设备本体还可以以wifi通道的形式通过路由器连接服务器，从而实现远距离的双向信号传输。设备本体连接服务器后，可以提供更远距离的通信和更多元化的控制方式。例如，当用户在公司时可以利用智能手机连接服务器，从而向设备本体发送操作指令或者查看设备本体的设备信息，或者，在智能家居系统中，智能家居设备都连接服务器，智能家居设备中的其他设备也可以与设备本体实现双向信号传输，例如可以通过智能音箱向设备本体发送操作指令或者查看设备本体的设备信息等。
请参阅图2，图2是本申请智能设备控制方法另一实施例的流程示意图。在本实施例中，设备本体可以包括多种工作状态，在不同的工作状态下，设备本体可以接收不同类型的无线信号，本实施例中方法可以包括以下步骤：
S210：设备本体上电，开启蓝牙广播扫描功能。
设备本体上电，开始工作，并实时开启蓝牙广播扫描功能。设备本体中多模单芯片的蓝牙模式可以为BLE模式。多模单芯片的wifi模式可以为STA(Station)模式或者AP(Access Point)模式，其中，STA模式可以提供无线接入服务，允许其它无线设备接入，提供数据访问；AP模式类似于无线终端，STA本身并不接收无线的接入，它可以连接到AP。
因此，设备本体可以包括六种工作状态，具体如下：
S220：在第一工作状态时，设备本体接收蓝牙信号和wifi信号。
在第一工作状态时，设备本体的模式为：AP+BLE，即此时wifi模式处于AP模式，可以接收wifi信号，可以使用智能手机等其他设备与之连接；蓝牙模式为BLE模式，可以接收蓝牙信号，所有智能手机都可以与智能设备建立蓝牙连接。此时可以通过蓝牙模式对设备本体进行wifi配网或者控制。
S230：在第二工作状态时，设备本体接收特定蓝牙信号，其中，特定蓝牙信号为获得设备本体信息的设备发出的蓝牙信号。
在第一工作状态的基础上进行设置操作后，可以变为第二工作状态，设备本体的模式为：BLE，即此时关闭wifi模式，不接收wifi信号；蓝牙模式为BLE模式，可以接收特定蓝牙信号，其中，特定蓝牙信号为获得过设备本体信息的设备发出的蓝牙信号。
即在第二工作状态下，只有获取过设备本体信息的智能手机才能使用蓝牙模式与设备本体建立蓝牙连接，并可对设备本体进行控制和配置。
S240：在第三工作状态时，设备本体接收特定蓝牙信号和wifi信号。
在第一工作状态的基础上进行设置操作后，可以变为第三工作状态，设备本体的模式为：AP+BLE，即此时wifi模式处于AP模式，可以接收wifi信号，可以使用智能手机连接；蓝牙模式为BLE模式，可以接收特定蓝牙信号，其中，特定蓝牙信号为获得过设备本体信息的设备发出的蓝牙信号。
即在第三工作状态下，所有智能手机都可以通过wifi信号与设备本体连接；只有获取过设备本体信息的智能手机才能使用蓝牙模式与设备本体建立蓝牙连接，并可对设备本体进行控制和配置。
S250：在第四工作状态时，设备本体接收wifi信号。
在第一工作状态的基础上上进行设置操作后，可以变为第四工作状态，设备本体的模式为：AP，即此时wifi模式处于AP模式，可以接收wifi信号，可以使用智能手机连接；BLE模式处于关闭状态，不接收蓝牙信号。
S260：在第五工作状态时，设备本体与路由器连接，设备本体与路由器建立wifi通道，以实现双向信号传输。
在第一工作状态的基础上进行配网与设置操作后，可以变为第五工作状态，设备本体的状态为：STA，此时wifi模式处于STA模式，可以与路由器连接从而连接服务器，设备本体与路由器建立wifi通道以实现双向信号传输，可以通过连接路由器对智能设备进行控制和配置；BLE模式处于关闭状态，不接收蓝牙信号。
S270：在第六工作状态时，设备本体与路由器连接，设备本体接收特定蓝牙信号，以及由路由器发出的操作指令。
在第一工作状态的基础上进行配网与设置操作后，可以变为第六工作状态，设备本体的模式为：STA+BLE，即此时wifi模式处于STA模式可以连接路由器，实现路由器对智能设备的控制和配置；蓝牙模式为BLE模式，可以接收特定蓝牙信号，其中，特定蓝牙信号为获得过设备本体信息的设备发出的蓝牙信号。
需要说明的是，当wifi模式处于STA模式连接路由器时，用户仍然可以通过智能手机连接路由器，从而实现智能手机对设备本体的控制和配置。
此外，在一些实施例中，设备本体的工作状态可以沿用上一次的工作状态。例如设备本体在掉电时是处于第二工作状态，那么等到设备本体下一次上电时，工作状态也直接设置为第二工作状态，无需从第一工作状态开始设置。六种工作状态可以通过一定的流程相互转换。
需要说明的是，设备本体在上电后即开启蓝牙广播扫描功能直至智能设备掉电后才关闭，因此在上述的六种工作状态中，设备本体一直处于可以接收蓝牙广播包的状态。
在本实施例中公开了设备本体的多种工作状态，设备本体在上电后即可开 启蓝牙广播扫描功能并持续工作；而在不同的工作状态中，设备本体可以跟不同的设备，例如服务器或者智能手机等连接wifi通道或者蓝牙通道以实现双向信号传输，可以实现高效率多元化的控制方法。
基于上述控制方法，本申请还包括智能设备，请参阅图3，图3是本申请智能设备一实施例的结构示意图。本实施例中智能设备100可以包括遥控装置120和设备本体110。
遥控装置120可以包括命令输入单元121和处理芯片122。命令输入单元121可以用于获取操作指令，处理芯片122可以用于将操作指令按照预设的格式处理成蓝牙广播包，并将蓝牙广播包发送至设备本体。
设备本体110可以包括多模单芯片111，其中多模单芯片111可以包括蓝牙模式和wifi模式。
其中，设备本体110可以用于通过蓝牙模式对蓝牙广播包进行解析并执行操作指令，和/或设备本体110可以用于通过wifi模式与其他设备建立wifi通道，以实现双向信号传输。
具体地，设备本体110可以用于通过wifi通道接收与设备本体建立wifi通道的设备200发送的操作指令，并根据操作指令执行相应的操作；和/或用于通过wifi通道发送设备信息至与设备本体110建立wifi通道的设备200，其中，设备信息包括设备状态和/或设备类型。
进一步地，设备本体110还可以用于通过蓝牙模式与发送蓝牙信号的设备200建立蓝牙通道，以实现双向信号传输。
设备本体110还可以包括多种工作状态，其中：
在第一工作状态时，设备本体110可以接收蓝牙信号和wifi信号。
在第二工作状态时，设备本体110可以接收特定蓝牙信号，其中，特定蓝牙信号为获得设备本体信息的设备200发出的蓝牙信号。
在第三工作状态时，设备本体110可以接收特定蓝牙信号和wifi信号。
在第四工作状态时，设备本体110可以接收wifi信号。
在第五工作状态时，设备本体110可以与路由器连接，设备本体110与路由器建立wifi通道，以实现双向信号传输。
在第六工作状态时，设备本体110可以与路由器连接，设备本体110接收特定蓝牙信号，以及与路由器发出的操作指令。
举个例子，本申请的智能设备可以为智能照明设备，请参阅图4-图6，其中，图4为本申请智能控制器一实施例的结构示意图；图5是本申请智能照明设备另一实施例的结构示意图；图6是本申请遥控装置一实施例的结构示意图。
智能控制器是智能照明设备的一种，可以理解为分体式的智能照明设备的适配件，可以配合发光部件，例如灯带、灯具等使用，并且发光部件可更换。 如图4所示，智能控制器包括设备本体410。设备本体410可以包括壳体，负载线415，通信天线416和电源线417。
其中，壳体可以用于容置电路板413，电路板413可以设置有多模单芯片414。负载线415的一端可以用于连接电路板413，负载线415的另一端可以连接发光部件。通信天线416可以设置在电路板413上，用于接发信号。其中，信号可以包括wifi信号、蓝牙信号和蓝牙广播包等。电源线417可以连接电源，用于给设备本体410供电。
具体地，壳体可以由面盖411和底壳412组成，面盖411和底壳412盖合后可以形成容置空间以容置电路板413，面盖411和底壳412可以采用PC、ABS等塑料材料。负载线415可以是用于连接发光部件和电路板413，其中，发光部件可以为灯带，灯具等。对应不同的发光部件，负载线415的另一端的接入端口可以不相同。并且，为了提高发光效率，负载线415的另一端可以包括多个接入端口，用于同时接入多个发光部件。
电路板413包括多模单芯片414和通信天线416。多模单芯片414可以包括蓝牙模式和wifi模式，多模单芯片414可以接收wifi信号、蓝牙信号和蓝牙广播包，可以藉由遥控装置、路由器或者智能手机等其他设备进行控制。通信天线416可以是2.4G天线，可以接收以上的多种信号。
此外，电路板413还可以包括驱动电路、稳压电路等基础控制电路，在此不多介绍。
如图5所示，在本实施例中，设备本体510可以包括灯头511、灯壳512、灯板515、发光部件(图未标)和灯罩516。在本实施例与上述实施例相同的部分，在此不再赘述。
其中，灯头511可以用于连接灯座，为所述设备本体510提供电力。灯壳512可以用于容置电路板513，电路板513可以设置有多模单芯片514。灯板515可以容置于灯壳512中且与电路板513连接，灯板515设置可以有发光部件。灯罩516可以用于覆盖发光部件，并与灯壳512形成容置空间。
具体地，灯壳512可以连接灯头511，灯壳512可以为塑包铝结构，可以实现散热和电隔离的目的，防止触电。电路板513可以垂直设置于灯壳512的内部，电路板513可以为驱动电源板，可以包括多模单芯片514、通信天线517、ACDC电路、变压器等相关器件。
灯板515可以通过嵌套的方式连接电路板513，灯板515和电路板513呈正交设置。在一些实施例中，灯壳512中可以设置有台阶，灯板515可以通过台阶平行固定于灯壳512内，以使得电路板513可以垂直设置于灯壳512的内部。
其中，灯板515上可以设置有发光部件、驱动电路和连接件等。其中，发光部件可以为LED灯珠等。电路板513的多模单芯片514、ACDC电路，变压 器等可以设置在灯板515的下方，通信天线517可以设置在灯板515的上方，可以进一步提高通信效率。
灯罩516可以连接灯壳512以形成容置空间，其中，灯罩516和灯壳512可以通过螺纹连接或者卡扣连接的方式实现，灯罩可以设置于发光部件的上方，覆盖发光部件，让发光部件发出的光更加柔和均匀。灯罩516可以采用PC、亚克力等塑料材料。
本实施例与上述实施例相比，本实施例的智能照明设备的设备本体为智能球泡灯，发光部件和电路板已固定连接不可更换，并且与现有技术的球泡灯相比，在增加了新的控制方式的同时没有增加产品的尺寸，节省空间；而在上述实施例中，智能控制器和发光部件是可更换的连接，可适用于更多种类的发光部件，应用范围更广。
如图6所示，遥控装置600可以包括面贴610、底壳620和电路板630。其中，面贴610上可以设置有命令输入单元，命令输入单元有若干按键，用于输入操作指令。底壳620和面贴610可以形成容置空间以放置电路板630、电池等配件。电路板630可以包括处理芯片、通信天线和按键电路等。
基于上述的智能设备及智能设备的控制方法，本申请还提出一种智能设备的控制系统。如图7所示，图7为本申请智能设备控制系统一实施例的结构示意图。在本实施例中，控制系统可以包括上述的智能设备710，其他设备720、路由器730以及服务器740。
其中，智能设备710可以包括设备本体711和遥控装置712，具体在上述实施例中已详细介绍，在此不再赘述。
其他设备720可以是用于向智能设备710发送蓝牙信号和/或wifi信号，以建立通信通道；和/或用于发送蓝牙广播包至智能设备710以实现指令控制。在本实施例中，其他设备720可以为智能手机、智能平板、智能手表等具有独立操作系统的设备。
路由器730用于使智能设备710可以通过路由器730连接服务器740以获得服务器上740的指令。智能设备710连接上服务器740之后，用户可以通过服务器740向智能设备710发送指令，从而实现云控制。具体地，路由器730可以通过网线/光纤/专门线路等连接服务器740。
本申请提供了智能设备、智能设备的控制方法及系统，其中，智能设备包括设备本体及遥控装置，设备本体包括多模单芯片，多模单芯片包括蓝牙模式和wifi模式，控制方法包括：遥控装置获取操作指令，将操作指令按照预设的格式处理成蓝牙广播包，并将蓝牙广播包发送至设备本体；设备本体实时检测无线信号，其中，无线信号包括蓝牙广播包和wifi信号；当设备本体接收到的无线信号为蓝牙广播包，设备本体通过蓝牙模式对蓝牙广播包进行解析并执行 操作指令；当设备本体接收到的无线信号为wifi信号，设备本体通过wifi模式与发送wifi信号的设备建立wifi通道，以实现双向信号传输。通过上述方式，智能设备的遥控装置功耗低、成本低；设备本体通过多模单芯片可以同时兼容蓝牙模式和wifi模式，同时具备wifi通讯方式和蓝牙通讯方式；并且多模单芯片中只包括一条收发天线，两种通讯方式不会相互干扰；不需要设置额外接收器件，硬件成本低，更加节约空间，以使得智能设备的体积可以进一步缩小；还可以实现了多种控制方法，例如可以通过遥控装置、智能手机等其他设备、或者服务器来发送操作指令，以达到达到控制功能丰富和使用方便的目的。
可以理解的是，此处所描述的具体实施例仅用于解释本申请，而非对本申请的限定。另外为了便于描述，附图中仅示出了与本申请相关的部分而非全部结构。文中所使用的步骤编号也仅是为了方便描述，不对作为对步骤执行先后顺序的限定。基于本申请中的实施例，本领域普通技术人员在没有作出创造性劳动前提下所获得的所有其他实施例，都属于本申请保护的范围。
本申请中的术语“第一”、“第二”等是用于区别不同对象，而不是用于描述特定顺序。此外，术语“包括”和“具有”以及它们任何变形，意图在于覆盖不排他的包含。例如包含了一系列步骤或单元的过程、方法、系统、产品或设备没有限定于已列出的步骤或单元，而是可选地还包括没有列出的步骤或单元，或可选地还包括对于这些过程、方法、产品或设备固有的其它步骤或单元。
在本文中提及“实施例”意味着，结合实施例描述的特定特征、结构或特性可以包含在本申请的至少一个实施例中。在说明书中的各个位置出现该短语并不一定均是指相同的实施例，也不是与其它实施例互斥的独立的或备选的实施例。本领域技术人员显式地和隐式地理解的是，本文所描述的实施例可以与其它实施例相结合。
以上所述仅为本申请的实施方式，并非因此限制本申请的专利范围，凡是利用本申请说明书及附图内容所作的等效结构或等效流程变换，或直接或间接运用在其他相关的技术领域，均同理包括在本申请的专利保护范围内。

Claims (14)

  1. 一种智能设备的控制方法，其特征在于，所述智能设备包括设备本体及遥控装置，所述设备本体包括多模单芯片，所述多模单芯片包括蓝牙模式和wifi模式，所述控制方法包括：
    所述遥控装置获取操作指令，将所述操作指令按照预设的格式处理成蓝牙广播包，并将所述蓝牙广播包发送至所述设备本体；
    所述设备本体实时检测无线信号，其中，所述无线信号包括所述蓝牙广播包和wifi信号；
    当所述设备本体接收到的所述无线信号为所述蓝牙广播包，所述设备本体通过所述蓝牙模式对所述蓝牙广播包进行解析并执行所述操作指令；
    当所述设备本体接收到的所述无线信号为所述wifi信号，所述设备本体通过所述wifi模式与发送所述wifi信号的设备建立wifi通道，以实现双向信号传输。
  2. 根据权利要求1所述的智能设备的控制方法，其特征在于，所述设备本体通过所述wifi模式与发送所述wifi信号的设备建立wifi通道之后，包括：
    所述设备本体通过所述wifi通道接收与所述设备本体建立wifi通道的设备发送的操作指令，并根据所述操作指令执行相应的操作；和/或，
    所述设备本体通过所述wifi通道发送设备信息至所述与设备本体建立wifi通道的设备，其中，所述设备信息包括设备状态和/或设备类型。
  3. 根据权利要求1所述的智能设备的控制方法，其特征在于，所述方法还包括：
    当所述设备本体接收到的所述无线信号为所述蓝牙信号，所述设备本体通过所述蓝牙模式与发送所述蓝牙信号的设备建立蓝牙通道，以实现双向信号传输。
  4. 根据权利要求3所述的智能设备的控制方法，其特征在于，所述设备本体包括多种工作状态，其中：
    在第一工作状态时，所述设备本体接收所述蓝牙信号和所述wifi信号；
    在第二工作状态时，所述设备本体接收特定蓝牙信号，其中，所述特定蓝牙信号为获得所述设备本体信息的设备发出的蓝牙信号；
    在第三工作状态时，所述设备本体接收所述特定蓝牙信号和所述wifi信号；
    在第四工作状态时，所述设备本体接收所述wifi信号。
  5. 根据权利要求4所述的智能设备的控制方法，其特征在于，所述设备本体的工作状态还包括第五工作状态和第六工作状态，其中：
    在所述第五工作状态时，所述设备本体与路由器连接，所述设备本体与所述路由器建立wifi通道，以实现双向信号传输；
    在所述第六工作状态时，所述设备本体与所述路由器连接，所述设备本体接收所述特定蓝牙信号，以及由所述路由器发出的操作指令。
  6. 根据上述权利要求1-5任一项所述的智能设备的控制方法，其特征在于，所述设备本体共用通信天线，所述实时检测无线信号，包括：
    所述设备本体利用所述通信天线以收发所述wifi信号、所述蓝牙信号和/或所述蓝牙广播包。
  7. 一种智能设备，其特征在于，所述智能设备包括：
    遥控装置，包括命令输入单元和处理芯片，所述命令输入单元用于获取操作指令，所述处理芯片用于将所述操作指令按照预设的格式处理成蓝牙广播包，并将所述蓝牙广播包发送至设备本体；
    所述设备本体，包括多模单芯片，所述多模单芯片包括蓝牙模式和wifi模式；
    其中，所述设备本体用于通过所述蓝牙模式对所述蓝牙广播包进行解析并执行所述操作指令，所述设备本体用于通过所述wifi模式与其他设备建立wifi通道，以实现双向信号传输。
  8. 根据权利要求7所述的智能设备，其特征在于，所述设备本体还用于通过所述wifi通道接收与所述设备本体建立wifi通道的设备发送的操作指令，并根据所述操作指令执行相应的操作；和/或用于通过所述wifi通道发送设备信息至所述与设备本体建立wifi通道的设备，其中，所述设备信息包括设备状态和/或设备类型。
  9. 根据权利要求7所述的智能设备，其特征在于，所述设备本体用于通过所述蓝牙模式与发送所述蓝牙信号的设备建立蓝牙通道，以实现双向信号传输。
  10. 根据权利要求9所述的智能设备，其特征在于，所述设备本体包括多种工作状态，其中：
    在第一工作状态时，所述设备本体接收所述蓝牙信号和所述wifi信号；
    在第二工作状态时，所述设备本体接收特定蓝牙信号，其中，所述特定蓝牙信号为获得所述设备本体信息的设备发出的蓝牙信号；
    在第三工作状态时，所述设备本体接收所述特定蓝牙信号和所述wifi信号；
    在第四工作状态时，所述设备本体接收所述wifi信号；
  11. 根据权利要求10所述的智能设备，其特征在于，所述设备本体还包括第五工作状态和第六工作状态，其中：
    在所述第五工作状态时，所述设备本体与路由器连接，所述设备本体与所述路由器建立wifi通道，以实现双向信号传输。
    在所述第六工作状态时，所述设备本体与所述路由器连接，所述设备本体接收所述特定蓝牙信号，以及与所述路由器发出的操作指令。
  12. 根据权利要求7-11任一项所述的智能设备，其特征在于，所述设备本体还包括通信天线，所述设备本体共用所述通信天线，所述通信天线用于收发所述wifi信号、所述蓝牙信号和/或所述蓝牙广播包。
  13. 一种智能设备的控制系统，其特征在于，所述控制系统包括：
    上述权利要求7-12任一项所述的智能设备；
    其他设备，用于向所述智能设备发送所述蓝牙信号和/或所述wifi信号，以建立通信通道；和/或用于发送所述蓝牙广播包至所述智能设备以实现指令控制。
  14. 根据权利要求13所述的控制系统，其特征在于，所述控制系统还包括：
    所述路由器，所述智能设备通过所述路由器连接服务器以获得所述服务器上的操作指令。
PCT/CN2020/130493 2020-11-17 2020-11-20 智能设备、智能设备的控制方法及控制系统 WO2022104713A1 (zh)

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