WO2019084798A1 - 无线信号增强设备、方法、系统和存储介质 - Google Patents

无线信号增强设备、方法、系统和存储介质 Download PDF

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Publication number
WO2019084798A1
WO2019084798A1 PCT/CN2017/108673 CN2017108673W WO2019084798A1 WO 2019084798 A1 WO2019084798 A1 WO 2019084798A1 CN 2017108673 W CN2017108673 W CN 2017108673W WO 2019084798 A1 WO2019084798 A1 WO 2019084798A1
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WIPO (PCT)
Prior art keywords
wireless signal
wireless
processor
module
communication module
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PCT/CN2017/108673
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English (en)
French (fr)
Inventor
万克林
王宋伟
李建平
潘金珠
Original Assignee
深圳市智美达科技股份有限公司
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Application filed by 深圳市智美达科技股份有限公司 filed Critical 深圳市智美达科技股份有限公司
Priority to US15/743,147 priority Critical patent/US20190132043A1/en
Priority to PCT/CN2017/108673 priority patent/WO2019084798A1/zh
Publication of WO2019084798A1 publication Critical patent/WO2019084798A1/zh

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    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04B—TRANSMISSION
    • H04B7/00—Radio transmission systems, i.e. using radiation field
    • H04B7/14—Relay systems
    • H04B7/15—Active relay systems
    • H04B7/155—Ground-based stations
    • H04B7/15528—Control of operation parameters of a relay station to exploit the physical medium
    • H04B7/15535—Control of relay amplifier gain
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04B—TRANSMISSION
    • H04B17/00—Monitoring; Testing
    • H04B17/10—Monitoring; Testing of transmitters
    • H04B17/11—Monitoring; Testing of transmitters for calibration
    • H04B17/12—Monitoring; Testing of transmitters for calibration of transmit antennas, e.g. of the amplitude or phase
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04B—TRANSMISSION
    • H04B17/00—Monitoring; Testing
    • H04B17/30—Monitoring; Testing of propagation channels
    • H04B17/309—Measuring or estimating channel quality parameters
    • H04B17/318—Received signal strength
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04B—TRANSMISSION
    • H04B17/00—Monitoring; Testing
    • H04B17/30—Monitoring; Testing of propagation channels
    • H04B17/382—Monitoring; Testing of propagation channels for resource allocation, admission control or handover
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04B—TRANSMISSION
    • H04B17/00—Monitoring; Testing
    • H04B17/40—Monitoring; Testing of relay systems
    • H04B17/401—Monitoring; Testing of relay systems with selective localization
    • H04B17/402—Monitoring; Testing of relay systems with selective localization using different frequencies
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L12/00—Data switching networks
    • H04L12/66—Arrangements for connecting between networks having differing types of switching systems, e.g. gateways

Definitions

  • the present application relates to the field of communications technologies, and in particular, to a wireless signal enhancement apparatus, method, system, and storage medium.
  • wireless technologies used in wireless communication in smart homes commonly include WIFI (WIreless Fidelity) technology, 433/868/915MHz wireless communication technology, and Z-WAVE technology (a radio frequency-based, low-cost, Low-power, high-reliability, short-range wireless communication technology suitable for networks, etc.
  • WIFI WIreless Fidelity
  • Z-WAVE technology a radio frequency-based, low-cost, Low-power, high-reliability, short-range wireless communication technology suitable for networks, etc.
  • the signal when the node data transmission distance is long, the signal may be weakened or even signalless. 433/868/915MHz wireless communication also has certain defects. When multiple wireless devices transmit data at the same time, the receiving end may leak and receive data packets.
  • a wireless signal enhancement apparatus In accordance with various embodiments of the present application, a wireless signal enhancement apparatus, method, system, and storage medium are provided.
  • a wireless signal enhancement device comprising:
  • At least two different types of wireless communication modules for receiving corresponding wireless signals, and transmitting the wireless signals to the first processor
  • a first processor connected to the wireless communication module, configured to receive the wireless communication module for transmission The wireless signal and parsing the wireless signal to obtain an analysis result;
  • the wireless communication module that receives the wireless signal is further configured to perform enhancement processing on the wireless signal.
  • a wireless signal enhancement method includes:
  • the wireless signal is subjected to enhancement processing by the wireless communication module.
  • a wireless signal augmentation system comprising:
  • At least two different types of wireless communication modules for receiving corresponding wireless signals, and transmitting the wireless signals to the first processor
  • the first processor is connected to the wireless communication module, and configured to receive the wireless signal transmitted by the wireless communication module and parse the wireless signal to obtain an analysis result;
  • a wireless communication module that receives the wireless signal, and is further configured to perform enhancement processing on the wireless signal
  • a mobile device configured to receive an analysis result obtained by the first processor parsing a wireless signal, where the mobile device is connected to the first processor.
  • One or more non-transitory computer readable storage mediums storing computer readable instructions, when executed by one or more processors, cause the one or more processors to perform the following steps :
  • the wireless signal is subjected to enhancement processing by the wireless communication module.
  • FIG. 1 is a schematic structural diagram of a wireless signal enhancement device in an embodiment
  • FIG. 2 is a schematic structural diagram of a wireless signal enhancement device in another embodiment
  • FIG. 3 is an application structural diagram of a wireless signal enhancement device in an embodiment
  • FIG. 4 is an application scenario diagram of a wireless signal enhancement device in an embodiment
  • FIG. 5 is a schematic flow chart of a wireless signal enhancement method in an embodiment
  • FIG. 6 is a schematic structural diagram of a wireless signal augmentation system in an embodiment
  • wireless signal enhancement device 100 includes a first processor 102, at least two different types of wireless communication modules 104, and a wireless communication module 106.
  • the wireless communication module 104 and the wireless communication module 106 are configured to receive a corresponding wireless signal and transmit the wireless signal to the first processor 102.
  • the first processor 102 is connected to the wireless communication module 104 and the wireless communication module 106, respectively, for receiving the wireless signal transmitted by the wireless communication module 104 or the wireless communication module 106.
  • the wireless communication module 104 or the wireless communication module 106 is also used to perform enhancement processing on the wireless signal.
  • the wireless communication module 104 can directly perform enhancement processing on the received wireless signals.
  • the wireless communication module 104 receives the wireless signal transmitted by using the same frequency band and the same protocol by means of modulation and demodulation, transmits the wireless signal to the first processor 102, and the wireless signal received by the first processor 102 and parses the wireless signal.
  • the processing result is obtained, and the analysis result may be an identifier of the sending device, an identifier of the target device, specific content, and the like.
  • Wireless communication module 104 The received wireless signal will be directly processed by modulation and demodulation.
  • the wireless communication module 106 performs enhancement processing on the wireless signal, and the wireless signal must be enhanced according to the analysis result obtained by the first processor 102 analyzing the wireless signal.
  • the wireless communication module 106 receives the wireless signals transmitted using the same frequency band and the same protocol by means of modulation and demodulation, and transmits the wireless signals to the first processor 102.
  • the process 102 receives the wireless signal and analyzes the wireless signal, obtains the analysis result, and transmits the analysis result to the wireless communication module 106.
  • the wireless communication module 106 performs enhancement processing on the wireless signal according to the analysis result.
  • the plurality of wireless communication modules parse the wireless signal in the first processor by receiving different wireless signals, and then perform enhancement processing on the received wireless signal in the corresponding wireless module to enable reception.
  • Wireless signal devices are more likely to receive wireless signals, enabling enhancement of multiple wireless signals.
  • the wireless signal enhancement device 200 includes a first processor 202, a WIFI module 204, a Z-WAVE module 206, and a 433/868/915 MHz transceiver module 208.
  • the WIFI module 204 is connected to the first processor 202.
  • the WIFI module is configured to be in a wireless relay mode, and is configured to relay and amplify the received WIFI signal and then send the signal through the modulation and demodulation mode.
  • the WIFI module 204 is connected to the first processor 202 through a communication interface, and the communication interface may be a USB (Universal Serial Bus) interface or a SDIO (Secure Digital Input and Output Card). One of an interface and an Inter-Integrated Circuit (IIC) interface.
  • the WIFI module 204 is set to the wireless relay mode, and the wireless relay mode utilizes the wireless relay function of the AP (Wireless Access Point) to transmit the wireless signal from a relay point relay to the next relay point, and forms The new wireless coverage area constitutes a plurality of wireless relay coverage point relay modes, and finally achieves the purpose of extending the coverage of the wireless network.
  • the WIFI module 204 is equivalent to a relay point, and relays and amplifies the received WIFI signal, and then transmits the received wireless signal through a modulation and demodulation method to form a wireless signal coverage.
  • the Z-WAVE module 206 is connected to the first processor 202, and the Z-WAVE module 206 is configured as a control device, configured to receive a node identifier of the target Z-WAVE device obtained by the first processor 202 to parse the wireless signal, according to The node identifier sends the received wireless signal to the radio frequency modulation mode to Target Z-WAVE device.
  • the Z-WAVE module 206 is connected to the first processor 202 through a communication interface, and the communication interface may be one of a USB interface, an SDIO interface, and an IIC interface, and the Z-WAVE module may pass FSK (Frequency-shift keying, ie, Frequency shift keying)
  • the modulation and demodulation method receives and transmits the wireless signal of the Z-WAVE protocol.
  • the Z-WAVE module 206 is configured as a control device. Specifically, there are two basic types of devices in the Z-WAVE protocol, namely a control type device (Controller) and a controlled device (Slave).
  • the control type device can send control commands to other nodes, and the controlled device can respond to the corresponding control commands.
  • the Z-WAVE module 206 receives the node identifier of the target Z-WAVE device that the first processor 202 parses the wireless signal, and sends the received Z-WAVE wireless signal to the target Z through the FSK modulation and demodulation method according to the node identifier. -WAVE device.
  • the target Z-WAVE device is not within the transmission range of the Z-WAVE module, and the Z-WAVE module searches for routing information to the target device in its own routing table. According to the routing information, the Z-WAVE module The wireless signal is sent to the Z-WAVE device in the routing information adjacent to the target Z-WAVE device, and the adjacent Z-WAVE device receives the wireless signal, and the target Z-WAVE device node identifier is parsed, and the adjacent Z-WAVE device will wirelessly The signal is sent to the target Z-WAVE device according to the target Z-WAVE device node identifier, which realizes communication of two Z-WAVE devices that are not within the wireless communication distance, and expands the wireless communication distance of the Z-WAVE device.
  • the 433/868/915MHz transceiver module 208 is connected to the first processor 202, and the 433/868/915MHz transceiver module is set to receive mode for monitoring wireless signals in the 433/868/915 MHz band and receiving wireless signals.
  • the wireless signal is transmitted to the first processor 202, and the number of times of forwarding the wireless signal is determined according to the sending device identifier and the information content obtained by the first processor 202 using the customized communication protocol to analyze the wireless signal, and the wireless device is forwarded according to the number of times of forwarding. signal.
  • the 433/868/915MHz transceiver module 208 is connected to the first processor 202 through a communication interface, and the communication interface may be one of a USB interface, an SDIO interface, and an IIC interface, and the 433/868/915MHz transceiver module 208 is configured.
  • the resident 433/868/915MHz band monitors the wireless signal in the 433/868/915MHz band.
  • the listening frequency band of the 433/868/915 MHz transceiver module 208 is the same as the receiving frequency band of the 433/868/915 MHz communication device that needs to be forwarded.
  • the 433/868/915MHz transceiver module 208 and 433/868/915MHz communication device requiring signal forwarding Communication is carried out using the same communication protocol, ie a customized communication protocol.
  • the 433/868/915MHz transceiver module 208 receives the wireless signal, and transmits the wireless signal to the first processor 202.
  • the first processor 202 parses the wireless signal according to the customized protocol, and obtains the sending device identifier and the information content to determine the wireless The number of times the signal is forwarded, the wireless signal is forwarded according to the number of times of forwarding, and different devices and different information contents are processed differently.
  • the content of the information is only some data content reported by the sending end, data such as temperature and humidity need to be forwarded only once, and alarm information such as smoke and flammable gas sensor is used. Need to be forwarded multiple times, usually three to five times, to ensure that the data content is not lost.
  • the WIFI module in the device enhances the WIFI signal
  • the Z-WAVE module enhances the corresponding wireless signal
  • the 433/868/915 MHz transceiver module enhances the corresponding wireless signal, each independently, respectively different
  • the wireless signal is enhanced to make it easier for a device that is to receive a wireless signal to receive a wireless signal, thereby enhancing the enhancement of multiple wireless signals.
  • the wireless communication module is further configured to detect a signal strength of the received wireless signal, determine a wireless signal strength level of the current wireless signal region according to a signal strength of the wireless signal, and set a wireless signal strength level of the wireless signal region. Transfer to the first processor.
  • the WIFI module, the Z-WAVE module, and the 433/868/915MHz transceiver integrated module each have a signal strength function for detecting the received wireless signal, and determining a wireless signal strength level of the current wireless signal region according to the signal strength of the wireless signal.
  • the wireless signal strength level of the wireless signal area is transmitted to the first processor.
  • an application structure diagram of a wireless signal enhancement device includes a wireless signal enhancement device 300, a communication interface 302, and a mobile device 304.
  • the mobile device may be a mobile robot, a drone, or the like that can carry a wireless signal enhancement device and is movable.
  • the mobile device 304 is equipped with a wireless signal enhancement device 300 via a communication interface 302.
  • the communication interface 302 is connected to the first processor in the wireless signal enhancement device 300.
  • the communication interface 302 can also be connected to the mobile device for using the first processor.
  • the data is transmitted to the mobile device 304 to cause the mobile device 304 to interact with the first processor via the communication interface.
  • the communication interface 302 can be one of a USB interface, an SDIO interface, and an IIC interface.
  • the first processor parses the received wireless signal to obtain a parsed result.
  • the first processor transmits the parsed result to the mobile device 304 through the communication interface, and the mobile device 304 moves according to the parsed result, and performs different movement according to different analysis results. If the alarm information is parsed, the information is sent to the receiver in time. And the mobile device can be moved to the device that sends the alarm information, and if there is a camera loaded on the mobile device, the information at the alarm device can be recorded.
  • the first processor may further receive data of a wireless signal strength level, transmit data of the wireless signal strength level to the mobile device 304 through the communication interface, and the mobile device 304 receives the wireless signal strength level. Data, moving according to the strength of the wireless signal.
  • the communication interface is also coupled to a power source on the mobile device 304 for powering the wireless signal enhancement device 300.
  • the wireless signal enhancement device is mounted on the mobile device through the communication interface, and the mobile device is controlled to move according to the result of the first processor analysis by the data interaction of the first processor in the wireless signal enhancement device. It is also possible to control the movement of the mobile device to enhance the wireless signals of different regions, and solve the problem that the wireless signal strength level of the receiving device is interrupted when the wireless signal strength level is different in one region.
  • an application scenario diagram of a wireless signal enhancement device includes a wireless router 402, a mobile robot 400 equipped with a wireless signal enhancement device, a user 404, and a mobile phone. 406.
  • the mobile robot 400 is equipped with a wireless signal enhancement device.
  • the wireless signal enhancement device receives the wireless signal transmitted by the router 402, and relays and amplifies the wireless signal in the wireless relay mode, and the wireless signal is modulated and demodulated. Send it out.
  • the mobile robot can implement the enhancement of the wireless signal around the user 404 by following the user 404 through the wireless signal enhancement device, so that the user 404 can use the mobile phone 406 regardless of the place at home.
  • the wireless signal is received, there is no problem that the wireless signal is weak or the wireless signal is interrupted, so that the user 404 can use the mobile phone 406 more conveniently.
  • the Z-WAVE module in the wireless signal enhancement device carried by the mobile robot 400 can also receive the alarm information of the door magnet, send it to the receiving device, and transmit it to the first processor.
  • the first processor receives the alarm information, parses the alarm information to obtain a position where the door magnet is triggered, and transmits the position where the transmission door magnet is triggered to the mobile device through the communication interface, and the mobile device can move to the door magnet The location that was triggered to view the situation. If the mobile device is loaded with a camera, the camera can record the position where the door magnet is triggered. When you are no one at home, knowing what is happening at home can ensure safety at home.
  • the wireless signal augmentation device can also be mounted on a drone that enables a wider range of signal retrieval and enhancement.
  • some people use the 915MHz emergency help device for help.
  • the 433/868/915MHz transceiver module in the wireless signal enhancement device of the unmanned aircraft receives the 915MHz emergency help signal and analyzes the wireless signal.
  • the identifier of the sending device is forwarded to the searcher three to five times, and the searcher can locate the area where the rescuer is located according to the received unintentional signal. Thereby improving the efficiency of search and rescue.
  • the wireless signal enhancement device is combined with the mobile device to implement different functions in different scenarios, and solves the problem that the conventional wireless signal enhancement device can only enhance a single wireless signal in a fixed area at a fixed position.
  • the problem is to make wireless signal enhancement device applications more extensive and flexible.
  • a wireless signal enhancement method including:
  • Step S502 receiving a corresponding wireless signal by using at least two different types of wireless communication modules.
  • the corresponding wireless communication module is used for receiving, and at least two wireless communication modules can receive two different wireless signals, and the wireless signal and the wireless communication module have the same frequency band and use the same communication. protocol.
  • the received wireless signal is transmitted to the first processor through the communication interface.
  • Step S504 parsing the wireless signal received by the wireless communication module to obtain an analysis result.
  • the first processor receives the wireless signal sent by the wireless communication module, and according to different wireless communication modules, the received wireless signal is different, the first processor analyzes the wireless signals, and different wireless signals are parsed. Different analysis results will be obtained.
  • the analysis result may be the identifier of the sending device, the identifier of the target device, and the specific content.
  • the first processor transmits the parsing result to the wireless communication module.
  • Step S506 performing enhancement processing on the wireless signal by using the wireless communication module.
  • the wireless communication module directly enhances the WIFI wireless signal according to the type of the wireless signal, such as the WIFI module.
  • the wireless communication module receives the analysis result sent by the first processor according to the type of the wireless signal, such as the Z-WAVE module, and the 433/868/915 MHz transceiver module, and the wireless signal according to different analysis results. Enhance in different ways.
  • the wireless communication module that receives the wireless signal is a WIFI module
  • the received wireless signal is directly relayed and amplified by the WIFI module, and then the wireless signal is transmitted through the modulation and demodulation method.
  • the node identifier of the target Z-WAVE device obtained by the first processor received by the Z-WAVE module to parse the wireless signal is determined according to the node.
  • the identifier transmits the received wireless signal to the target Z-WAVE device through modulation and demodulation.
  • the wireless communication module that receives the wireless signal is a 433/868/915MHz transceiver module
  • the 433/868/915MHz transceiver module monitors the wireless signal in the 433/868/915 MHz band and receives the wireless signal, and the wireless The signal is transmitted to the first processor, and the number of times of forwarding the wireless signal is determined according to the sending device identifier and the information content obtained by the first processor using the customized communication protocol to analyze the wireless signal, and the wireless signal is forwarded according to the number of times of forwarding.
  • the wireless communication module after performing enhancement processing on the wireless signal by the wireless communication module, including: detecting a signal strength of the received wireless signal, determining a wireless signal strength level of the current wireless signal region according to a signal strength of the wireless signal, The wireless signal strength level of the wireless signal area is transmitted to the first processor.
  • the method includes: when the first processor is connected to the mobile device through the communication interface, transmitting the analysis result and the wireless signal strength level through the communication interface.
  • the mobile device is moved so that the mobile device moves according to the analysis result and the wireless signal strength level. It can be flexibly implemented to enhance the relatively weaker wireless signals in an area, so that the user can use the wireless device better and more conveniently regardless of the place in the area.
  • different wireless communication modules such as a WIFI module, a Z-WAVE module, and a 433/868/915 MHz transceiver module, receive corresponding wireless signals, and transmit wireless signals to the server through the communication interface.
  • the server parses and transmits the wireless signal to the corresponding wireless communication module, and the wireless communication module sends the wireless signal according to the analysis result, thereby realizing various
  • the enhancement of the wireless signal makes it easier for the device to be received to receive the wireless device transmitted by the transmitting device.
  • a wireless signal enhancement system includes:
  • At least two different types of wireless communication modules for receiving corresponding wireless signals, and transmitting the wireless signals to the first processor
  • the first processor is connected to the wireless communication module, and configured to receive the wireless signal transmitted by the wireless communication module and parse the wireless signal to obtain an analysis result;
  • a wireless communication module that receives the wireless signal, and is further configured to perform enhancement processing on the wireless signal
  • the mobile device is configured to receive an analysis result obtained by the first processor to parse the wireless signal and a wireless signal strength level, and move according to the analysis result and the wireless signal strength level, and the mobile device is connected to the first processor.
  • the wireless communication module includes:
  • the WIFI module is connected to the first processor, and the WIFI module is set to a wireless relay mode, and is configured to directly relay and amplify the received wireless signal, and then send the wireless signal by using a modulation and demodulation method.
  • the wireless communication module includes:
  • the Z-WAVE module is connected to the first processor, and the Z-WAVE module is configured as a control device, configured to receive a node identifier of the target Z-WAVE device obtained by parsing the wireless signal by the first processor, and receiving the node identifier according to the node identifier
  • the wireless signal is sent to the target Z-WAVE device through modulation and demodulation.
  • the wireless communication module includes:
  • the 433/868/915MHz transceiver module is connected to the first processor, and the 433/868/915MHz transceiver module is set to receive mode for monitoring wireless signals in the 433/868/915MHz band and receiving wireless signals to transmit wireless signals. Go to the first processor, determine the number of times of forwarding the wireless signal according to the sending device identifier and the information content obtained by parsing the wireless signal by using the customized communication protocol by the first processor, and forwarding the wireless signal according to the number of times of forwarding.
  • the wireless communication module is further configured to detect a signal strength of the received wireless signal, determine a wireless signal strength level of the current wireless signal region according to a signal strength of the wireless signal, and set a wireless signal strength level of the wireless signal region. Transfer to the first processor.
  • the wireless signal enhancement system further includes:
  • the communication interface is also connectable to the mobile device for transmitting data of the first processor to the mobile device, so that the mobile device performs data interaction with the first processor through the communication interface.
  • the mobile device comprises:
  • the second processor is connected to the communication interface, and configured to receive the analysis result transmitted by the first processor and the strength level of the wireless signal, and send a movement instruction to the control component according to the analysis result and the wireless signal strength level;
  • control component configured to receive the movement instruction, and control the movement of the mobile device according to the received movement instruction
  • a power module for powering the wireless signal augmentation system
  • the second processor is also connected to the control component and the power module, respectively.
  • a wireless signal enhancement system 500 including: a first processor 502, a WIFI module 504, a Z-WAVE module 506, and a 433/868/915 MHz transceiver.
  • Module 508 communication interface 510, and mobile device 512.
  • the mobile device 512 includes a second processor 5122, a control component 5124, and a power module 5126.
  • the WIFI module 504 is connected to the first processor 502 through a communication interface, and the communication interface may be one of a USB interface, an SDIO interface, and an IIC interface.
  • the WIFI module 504 is set to the wireless relay mode, and the wireless relay mode utilizes the wireless relay function of the AP to transmit the wireless signal from one relay point relay to the next relay point, and forms a new wireless coverage area, thereby forming a plurality of A wireless relay coverage point relay mode ultimately achieves the goal of extending the coverage of the wireless network.
  • the WIFI module 504 is equivalent to a relay point, and relays and amplifies the received WIFI signal, and then transmits the received wireless signal through a modulation and demodulation method to form a wireless signal coverage.
  • the Z-WAVE module 506 is connected to the first processor 502 through a communication interface, and the communication interface can be one of a USB interface, an SDIO interface, and an IIC interface.
  • the Z-WAVE module can receive and transmit Z-WAVE through FSK modulation and demodulation. Protocol wireless signal.
  • the Z-WAVE module 206 is set as a control device, specifically, there are two basic types of devices in the Z-WAVE protocol, which are control type devices. (Controller) and controlled device (Slave).
  • the control type device can send control commands to other nodes, and the controlled device can respond to the corresponding control commands.
  • the Z-WAVE module 506 receives the node identifier of the target Z-WAVE device obtained by parsing the wireless signal by the first processor 202, and sends the received Z-WAVE wireless signal to the target Z through the FSK modulation and demodulation method according to the node identifier. -WAVE device.
  • the 433/868/915MHz transceiver module 508 is connected to the first processor 502 through a communication interface, and the communication interface can be one of a USB interface, an SDIO interface, and an IIC interface, and the 433/868/915MHz transceiver module 208 is set to receive mode. It is resident in the 433/868/915MHz frequency band and monitors the wireless signal in the 433/868/915MHz band.
  • the listening frequency band of the 433/868/915MHz transceiver module 508 should be the same as the receiving frequency band of the 433/868/915 MHz communication device that needs to be forwarded. And the 433/868/915MHz transceiver module 208 communicates with the 433/868/915MHz communication device requiring signal forwarding using the same communication protocol, that is, a customized communication protocol. The 433/868/915MHz transceiver module 208 receives the wireless signal, and transmits the wireless signal to the first processor 202.
  • the first processor 202 parses the wireless signal according to the customized protocol, and obtains the sending device identifier and the information content to determine the wireless
  • the communication interface 510 is connected to the first processor 502.
  • the communication interface 510 is further connected to the mobile device 512 for transmitting data of the first processor 502 to the mobile device 512, so that the mobile device performs the first processor with the communication interface. Data interaction.
  • the communication interface 510 can be any one of a USB interface, an SDIO interface, and an IIC interface.
  • the second processor 5122 in the mobile device 512 receives the analysis result transmitted by the first processor 502 and the wireless signal strength level, and sends a movement instruction to the control component according to the analysis result and the wireless signal strength level.
  • the analysis result may be a node identifier of the target Z-WAVE device parsed from the first processor 502 in the Z-WAVE module and a transmission device identifier and information content obtained from the 433/868/915 MHz transceiver module 508.
  • the wireless signal strength level can be the strength level of the WIFI wireless signal, which can be the strength level of the Z-WAVE wireless signal, and can be the strength of the wireless signal in the 433/868/915 MHz frequency band. grade.
  • Control component 5124 receives the move command to move in accordance with the move command. For example, if an alarm message is obtained that resolves a wireless signal in the 33/868/915 MHz band, control component 5124 can move to the alarm to enhance the wireless signal at the alarm.
  • the power module 5126 is coupled to the second processor 5122 to power the wireless signal augmentation system 500 to enable the wireless signal enhancement system to operate normally.
  • the mobile device 512 is equipped with a video recording device, and the control component 5124 can be moved to an alarm location for recording.
  • the wireless signal enhancement system transmits the analysis result and the wireless signal strength level analyzed by the first processor to the mobile device, so that the mobile device moves, and the solved conventional wireless signal enhancement device can only be in a fixed position.
  • the problem of single wireless signal enhancement in the fixed area makes the wireless wireless signal augmentation system more suitable for enhancing the wireless signal under different circumstances, so that people can use it more conveniently.
  • the storage medium may be a non-volatile storage medium such as a magnetic disk, an optical disk, a read-only memory (ROM), or a random access memory (RAM).

Abstract

本申请提供了一种无线信号增强设备，包括：至少两个不同类型的无线通信模块，用于接收对应的无线信号，将所述无线信号传输给第一处理器；第一处理器，与所述无线通信模块相连，用于接收所述无线通信模块传输的所述无线信号并对所述无线信号进行解析，得到解析结果；及接收所述无线信号的无线通信模块，还用于根据所述解析结果对所述无线信号进行增强处理。

Description

无线信号增强设备、方法、系统和存储介质 技术领域
本申请涉及通信技术领域，特别是涉及一种无线信号增强设备、方法、系统和存储介质。
背景技术
随着社会的高速发展，在越来越多的场合使用无线通信。比如应用于智能家居中无线通信中使用的无线技术常见的有WIFI(WIreless Fidelity，无线保真)技术、433/868/915MHz无线通信技术和Z-WAVE技术(一种基于射频的、低成本、低功耗、高可靠、适于网络的短距离无线通信技术)等，使用这些技术无线信号在传输过程中会受到多种因素的影响，无线信号会出现减弱，甚至无信号的现象。比如WIFI信号在设备布置环境比较广、需要穿透的障碍物(如墙壁)较多时，会出现WIFI信号变弱、传输速度变慢等问题。对于Z-WAVE技术，当节点数据传输距离较远，会发生信号减弱甚至无信号的现象。433/868/915MHz无线通信也存在一定的缺陷，当多个无线设备同时发送数据时，接收端可能会出现漏接收数据包的现象。
传统的无线信号增强设备一般都只能增强WIFI信号，或者只增强一种类型的无线信号，并不能满足人们的需求。
发明内容
根据本申请的各种实施例，提供一种无线信号增强设备、方法、系统和存储介质。
一种无线信号增强设备，包括：
至少两个不同类型的无线通信模块，用于接收对应的无线信号，将所述无线信号传输给第一处理器；
第一处理器，与所述无线通信模块相连，用于接收所述无线通信模块传输 的所述无线信号并对所述无线信号进行解析，得到解析结果；
接收所述无线信号的无线通信模块，还用于对所述无线信号进行增强处理。
一种无线信号增强方法，包括：
通过至少两个不同类型的无线通信模块接收对应的无线信号；
对无线通信模块接收到的所述无线信号进行解析，得到解析结果；
通过所述无线通信模块对所述无线信号进行增强处理。
一种无线信号增强系统，包括：
至少两个不同类型的无线通信模块，用于接收对应的无线信号，将所述无线信号传输给第一处理器；
第一处理器，与所述无线通信模块相连，用于接收所述无线通信模块传输的所述无线信号并对所述无线信号进行解析，得到解析结果；
接收所述无线信号的无线通信模块，还用于对所述无线信号进行增强处理；及
移动设备，用于接收所述第一处理器解析无线信号得到的解析结果，所述移动设备与所述第一处理器相连。
一个或多个存储有计算机可读指令的非易失性的计算机可读存储介质，所述计算机可读指令被一个或多个处理器执行时，使得所述一个或多个处理器执行以下步骤：
通过至少两个不同类型的无线通信模块接收对应的无线信号；
对无线通信模块接收到的所述无线信号进行解析，得到解析结果；及
通过所述无线通信模块对所述无线信号进行增强处理。
本申请的一个或多个实施例的细节在下面的附图和描述中提出。本申请的其它特征、目的和优点将从说明书、附图以及权利要求书变得明显。
附图说明
为了更清楚地说明本申请实施例或现有技术中的技术方案，下面将对实施 例或现有技术描述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例，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为一个实施例中的无线信号增强设备的结构示意图；
图2为另一个实施例中的无线信号增强设备的结构示意图；
图3为一个实施例中无线信号增强设备的应用结构图；
图4为一个实施例中无线信号增强设备的应用场景图；
图5为一个实施例中的无线信号增强方法的流程示意图；
图6为一个实施例中无线信号增强系统的结构示意图；
具体实施方式
为了使本申请的目的、技术方案及优点更加清楚明白，以下结合附图及实施例，对本申请进行进一步详细说明。应当理解，此处所描述的具体实施例仅仅用以解释本申请，并不用于限定本申请。
如图1所示，在一个实施例中，无线信号增强设备100，包括第一处理器102、至少两个不同类型的无线通信模块104和无线通信模块106。
无线通信模块104和无线通信模块106用于接收对应的无线信号，将无线信号传输给第一处理器102。
第一处理器102分别与无线通信模块104和无线通信模块106相连，用于接收无线通信模块104或无线通信模块106传输的无线信号
无线通信模块104或无线通信模块106还用于对无线信号进行增强处理。
在其中一个无线通信模块104中，无线通信模块104可以直接对接收到的无线信号进行增强处理。无线通信模块104通过调制解调的方式接收到使用相同频段和相同协议传输的无线信号，将无线信号传输给第一处理器102，第一处理器102接收到的无线信号并对无线信号进行解析处理，得到解析结果，解析结果可能是发送设备的标识、目标设备的标识、具体内容等。无线通信模块104 将通过调制解调的方式直接对接收到的无线信号进行增强处理。
在另一个无线通信模块106中，无线通信模块106要对无线信号进行增强处理，必须根据第一处理器102解析无线信号得到的解析结果来对无线信号进行增强处理。无线通信模块106通过调制解调的方式接收到使用相同频段和相同协议传输的无线信号，将无线信号传输给第一处理器102。处理102接收无线信号并对无线信号进行解析处理，得到解析结果并将解析结果传输给无线通信模块106，无线通信模块106根据解析结果对无线信号进行增强处理。
上述实施例中，多个无线通信模块通过接收不同的无线信号，在第一处理器中对无线信号进行解析处理，然后再在对应的无线模块中对接收的无线信号进行增强处理，使所要接收无线信号的设备更容易的接收到无线信号，实现了对多种无线信号的增强。
如图2所示，在一个实施例中，无线信号增强设备200，包括第一处理器202、WIFI模块204、Z-WAVE模块206和433/868/915MHz收发一体模块208。
其中，WIFI模块204与第一处理器202相连，WIFI模块设置为无线中继模式，用于将接收到的WIFI信号进行中继和放大后通过调制解调方式发送。
具体的，WIFI模块204通过通讯接口与第一处理器202相连，通讯接口可以是USB(Universal Serial Bus，即通用串行总线)接口、SDIO(Secure Digital Input and Output Card，即安全数字输入输出卡)接口和IIC(Inter-Integrated Circuit，集成电路总线)接口中的一种。WIFI模块204设置为无线中继模式，无线中继模式是利用AP(WirelessAccessPoint，无线访问接入点)的无线接力功能，将无线信号从一个中继点接力传递到下一个中继点，并形成新的无线覆盖区域，从而构成多个无线中继覆盖点接力模式，最终达到延伸无线网络的覆盖范围的目的。WIFI模块204就相当于一个中继点，将接收到的WIFI信号进行中继和放大后通过调制解调方式将接收到的无线信号发送出去，形成无线信号覆盖。
其中，Z-WAVE模块206与第一处理器202相连，Z-WAVE模块206设置为控制设备，用于接收第一处理器202对无线信号进行解析得到的目标Z-WAVE设备的节点标识，根据节点标识将接收到的无线信号通过调制解调方式发送给 目标Z-WAVE设备。
具体的，Z-WAVE模块206与第一处理器202通过通讯接口相连，通讯接口可以是USB接口、SDIO接口和IIC接口中的一种，Z-WAVE模块可以通过FSK(Frequency-shift keying，即频移键控)调制解调方式接收和发送Z-WAVE协议的无线信号。Z-WAVE模块206设置为控制设备，具体是说在Z-WAVE协议中有两种基本类型的设备，分别为控制类型设备(Controller)和受控设备(Slave)。控制类型设备可以向其它节点发送控制命令，而受控设备可以对相应的控制命令做出回应。Z-WAVE模块206接收到第一处理器202对无线信号进行解析得到的目标Z-WAVE设备的节点标识，根据节点标识将接收到的Z-WAVE无线信号通过FSK调制解调方式发送给目标Z-WAVE设备。
在一个实施例中，目标Z-WAVE设备不在Z-WAVE模块的发送范围之内，则Z-WAVE模块会在自己的路由表中查找到达目标设备的路由信息，根据路由信息，Z-WAVE模块把无线信号发送给路由信息中临近目标Z-WAVE设备的Z-WAVE设备，临近的Z-WAVE设备接收无线信号，会解析出目标Z-WAVE设备节点标识，临近的Z-WAVE设备会将无线信号根据目标Z-WAVE设备节点标识发送给目标Z-WAVE设备，实现了不在无线通信距离内的两个Z-WAVE设备的通信，扩大了Z-WAVE设备无线通信距离。
其中，433/868/915MHz收发一体模块208与第一处理器202相连，433/868/915MHz收发一体模块设置为接收模式，用于监听433/868/915MHz频段的无线信号并接收无线信号，将无线信号传输到第一处理器202，根据第一处理器202对无线信号采用定制通信协议进行解析后得到的发送设备标识和信息内容来确定对无线信号进行转发的次数，根据转发的次数转发无线信号。
具体的，433/868/915MHz收发一体模块208与第一处理器202通过通讯接口相连，通讯接口可以是USB接口、SDIO接口和IIC接口中的一种，433/868/915MHz收发一体模块208设置为接收模式，常驻433/868/915MHz频段，监听433/868/915MHz频段的无线信号。433/868/915MHz收发一体模块208的监听频段要与需信号转发的433/868/915MHz通信设备的接收频段相同。并且433/868/915MHz收发一体模块208与需信号转发的433/868/915MHz通信设备 采用相同的通信协议进行通信，即定制的通信协议。433/868/915MHz收发一体模块208接收无线信号，将无线信号传输到第一处理器202，第一处理器202根据定制的协议对无线信号进行解析，得到发送设备标识和信息内容来确定对无线信号进行转发的次数，根据转发的次数转发无线信号，对不同的设备和不同的信息内容进行不同的处理。例如，根据信息内容的重要性进行处理，若信息内容只是发送端定时上报的一些数据内容，比如温度、湿度等数据信息就只需要转发一次，对告警信息比如烟感、可燃性气体传感器，就需要转发多次，一般是三到五次，确保数据内容不丢包即可。
上述实施例中，该设备中WIFI模块对WIFI信号进行增强，Z-WAVE模块对对应的无线信号进行增强，433/868/915MHz收发一体模块对对应的无线信号进行增强，各自独立，分别对不同的无线信号进行增强，使使所要接收无线信号的设备更容易的接收到无线信号，实现了对多种无线信号的增强。
在一个实施例中，无线通信模块还用于检测接收到的无线信号的信号强度，根据无线信号的信号强度确定当前无线信号区域的无线信号强弱等级，将无线信号区域的无线信号强弱等级传输给第一处理器。
具体的，WIFI模块、Z-WAVE模块和433/868/915MHz收发一体模块均具有检测接收到的无线信号的信号强度功能，根据无线信号的信号强度确定当前无线信号区域的无线信号强弱等级，将无线信号区域的无线信号强弱等级传输给第一处理器。
如图3所示，在一个实施例中，无线信号增强设备的应用结构图，包括无线信号增强设备300、通讯接口302和移动设备304。
其中，移动设备可以是移动机器人、无人飞机等可以搭载无线信号增强设备且可移动的设备。
移动设备304通过通讯接口302搭载有无线信号增强设备300，通讯接口302，与无线信号增强设备300中的第一处理器相连，通讯接口302还可连接移动设备，用于将第一处理器的数据传输到移动设备304，以使移动设备304通过通讯接口与第一处理器进行数据交互。
具体的，通讯接口302可以是USB接口、SDIO接口和IIC接口中的一种， 第一处理器解析接收到的无线信号，得到解析的结果。第一处理器通过通讯接口将解析的结果传输给移动设备304，移动设备304根据解析的结果进行移动，根据解析结果的不同进行不同的移动，如果解析的是报警信息，及时发送信息给接收方并且移动设备可移动到发送报警信息的设备处，如果移动设备上有装载有摄像头可以记录报警设备处的信息。
在一个实施例中，第一处理器还可以接收到无线信号强弱等级的数据，通过通讯接口将无线信号强弱等级的数据传输给移动设备304，移动设备304接收到无线信号强弱等级的数据，根据无线信号强弱进行移动。
在一个实施例中，通讯接口还与移动设备304上的电源相连，用于给无线信号增强设备300供电。
上述实施例中，无线信号增强设备通过通讯接口搭载在移动设备上，通过无线信号增强设备中第一处理器通过通讯接口的数据交互，可以根据第一处理器解析的结果控制移动设备进行移动，也可以控制移动设备的移动对不同区域的无线信号进行增强，解决了一个区域内无线信号强弱等级不同使接收设备接收无线信号会出现中断的问题。
如图4所示，在一个实施例中，无线信号增强设备的应用场景图中，具体是在家居环境中，包括无线路由器402、搭载有无线信号增强设备的可移动机器人400、用户404和手机406。可移动机器人400上搭载有无线信号增强设备，无线信号增强设备中WIFI模块接收路由器402发送的无线信号，在无线中继模式下对无线信号进行中继和放大，通过调制解调方式把无线信号发送出去。当用户404在使用手机406时，移动机器人可以通过跟随用户404，通过无线信号增强设备实现对用户404周围无线信号的增强，使用户404在使用手机406时，不管在家里的那个地方，都可以接收到无线信号，不会出现无线信号弱或者出现无线信号中断的问题，使用户404能够更加方便的使用手机406。
在本实施例中，移动机器人400搭载的无线信号增强设备中的Z-WAVE模块还可以接收到门磁的报警信息，发送给接收设备，并传输给第一处理器。第一处理器接收到报警信息，对报警信息进行解析得到门磁被触发的位置，通过通讯接口把发送门磁被触发的位置传输给移动设备，移动设备可以移动到门磁 被触发的位置，查看情况。如果移动设备装载有摄像头，可以通过摄像头把门磁被触发的位置的情况录制下来。当家中没人时，知晓家中发生的情况，可以确保家中的安全。
在一个实施例中，无线信号增强设备还可以搭载在无人飞机上，可以实现更大范围的信号检索和增强。比如在一些救灾场景中，有人使用915MHz的紧急求救设备进行求救，无人飞机上无线信号增强设备中的433/868/915MHz收发一体模块接收到915MHz的紧急求救信号，对无线信号进行解析，得到发送设备的标识，再把无线信号向搜救者转发三到五次，搜救者根据接收到的无心信号就能定位到求救者所在的区域。从而提高了搜救的效率。
在上述实施例中，无线信号增强设备与移动设备结合在一起，在不同的场景中能够实现不同的功能，解决了传统无线信号增强设备只能在固定的位置对固定区域的单一的无线信号增强的问题，使无线信号增强设备应用更加的广泛和灵活。
如图5所示，在一个实施例中，还提供了一种无线信号增强方法，包括：
步骤S502，通过至少两个不同类型的无线通信模块接收对应的无线信号。
具体的，根据无线信号的不同，使用对应的无线通信模块进行接收，至少两个无线通信模块能接收两种不同的无线信号，无线信号与无线通信模块之间具有相同的频段和使用相同的通讯协议。将接收到的无线信号通过通讯接口传输给第一处理器。
步骤S504，对无线通信模块接收到的无线信号进行解析，得到解析结果。
具体的，第一处理器接收到无线通信模块发送的无线信号，根据无线通信模块的不同，接收到的无线信号也会不同，第一处理器对这些无线信号进行解析，不同的无线信号进行解析会得到不同的解析结果，解析结果可能是发送设备的标识、目标设备的标识、具体内容等。
在一个实施例中，第一处理器会将解析结果传输给无线通信模块。
步骤S506，通过无线通信模块对无线信号进行增强处理。
具体的，无线通信模块会根据无线信号的类型如WIFI模块会直接对WIFI无线信号进行增强处理。
在一个实施例中，无线通信模块会根据无线信号的类型如Z-WAVE模块、433/868/915MHz收发一体模块会接收到第一处理器发送的解析结果，根据解析结果的不同，对无线信号进行不同方式的增强。
在一个实施例中，接收无线信号的无线通信模块是WIFI模块时，通过WIFI模块将接收到的无线信号直接进行中继和放大后通过调制解调方式发送无线信号。
在一个实施例中，接收无线信号的无线通信模块是Z-WAVE模块时，通过Z-WAVE模块接收到的第一处理器对无线信号进行解析得到的目标Z-WAVE设备的节点标识，根据节点标识将接收到的无线信号通过调制解调方式发送给目标Z-WAVE设备。
在一个实施例中，接收无线信号的无线通信模块是433/868/915MHz收发一体模块时，通过433/868/915MHz收发一体模块监听433/868/915MHz频段的无线信号并接收无线信号，将无线信号传输到第一处理器，根据第一处理器对无线信号采用定制通信协议进行解析后得到的发送设备标识和信息内容来确定对无线信号进行转发的次数，根据转发的次数转发无线信号。
在一个实施例中，在通过无线通信模块对无线信号进行增强处理之后，包括：检测接收到的无线信号的信号强度，根据无线信号的信号强度确定当前无线信号区域的无线信号强弱等级，将无线信号区域的无线信号强弱等级传输给第一处理器。
在一个实施例中，在通过无线通信模块对所述无线信号进行增强处理之后，包括：当第一处理器通过通讯接口与移动设备连接时，将解析结果和无线信号强弱等级通过通讯接口传输给移动设备，以使移动设备根据解析结果和无线信号强弱等级进行移动。可以灵活的实现对一个区域内的无线信号相对较弱处进行增强，使用户不管在区域中的那个地方，都可以更好更方便的使用无线设备。
在上述实施例中，在不同的无线通信模块，例如WIFI模块、Z-WAVE模块和433/868/915MHz收发一体模块，会接收到相对应的无线信号，通过通讯接口把无线信号传输给服务器，服务器将无线信号进行解析又传输给相对应的无线通信模块，无线通信模块根据解析结果就把无线信号发送出去，实现了对多种 无线信号的增强，使所要接收的设备更容易的接收到发送设备发送的无线设备。
在一个实施例中，一种无线信号增强系统，包括：
至少两个不同类型的无线通信模块，用于接收对应的无线信号，将所述无线信号传输给第一处理器；
第一处理器，与所述无线通信模块相连，用于接收所述无线通信模块传输的所述无线信号并对所述无线信号进行解析，得到解析结果；
接收所述无线信号的无线通信模块，还用于对所述无线信号进行增强处理；及
移动设备，用于接收第一处理器解析无线信号得到的解析结果和无线信号强弱等级，根据解析结果和无线信号强弱等级进行移动，移动设备与第一处理器相连。
在一个实施例中，无线通信模块包括：
WIFI模块，与第一处理器相连，WIFI模块设置为无线中继模式，用于将接收到的无线信号直接进行中继和放大后通过调制解调方式发送无线信号。
在一个实施例中，无线通信模块包括：
Z-WAVE模块，与第一处理器相连，Z-WAVE模块设置为控制设备，用于接收第一处理器对无线信号进行解析得到的目标Z-WAVE设备的节点标识，根据节点标识将接收到的无线信号通过调制解调方式发送给目标Z-WAVE设备。
在一个实施例中，无线通信模块包括：
433/868/915MHz收发一体模块，与第一处理器相连，433/868/915MHz收发一体模块设置为接收模式，用于监听433/868/915MHz频段的无线信号并接收无线信号，将无线信号传输到第一处理器，根据第一处理器对无线信号采用定制通信协议进行解析后得到的发送设备标识和信息内容来确定对无线信号进行转发的次数，根据转发的次数转发无线信号。
在一个实施例中，无线通信模块还用于检测接收到的无线信号的信号强度，根据无线信号的信号强度确定当前无线信号区域的无线信号强弱等级，将无线信号区域的无线信号强弱等级传输给第一处理器。
在一个实施例中，无线信号增强系统还包括：
通讯接口，与所述第一处理器相连；及
所述通讯接口还可连接移动设备，用于将第一处理器的数据传输到移动设备，以使移动设备通过通讯接口与所述第一处理器进行数据交互。
在一个实施例中，所述移动设备包括：
第二处理器，与通讯接口相连，用于接收到第一处理器传输的解析结果和无线信号强弱等级，根据解析结果和无线信号强弱等级向控制组件发送移动指令；
控制组件，用于接收所述移动指令，根据接收到的所述移动指令控制所述移动设备移动；
电源模块，用于给所述无线信号增强系统供电；及
所述第二处理器还分别与所述控制组件和电源模块相连。
具体的，如图6所示，在一个实施例中，提供了一种无线信号增强系统500，包括：第一处理器502、WIFI模块504、Z-WAVE模块506、433/868/915MHz收发一体模块508、通讯接口510和移动设备512。其中，移动设备512包括：第二处理器5122、控制组件5124和电源模块5126。
WIFI模块504通过通讯接口与第一处理器502相连，通讯接口可以是USB接口、SDIO接口和IIC接口中的一种。WIFI模块504设置为无线中继模式，无线中继模式是利用AP的无线接力功能，将无线信号从一个中继点接力传递到下一个中继点，并形成新的无线覆盖区域，从而构成多个无线中继覆盖点接力模式，最终达到延伸无线网络的覆盖范围的目的。WIFI模块504就相当于一个中继点，将接收到的WIFI信号进行中继和放大后通过调制解调方式将接收到的无线信号发送出去，形成无线信号覆盖。
Z-WAVE模块506与第一处理器502通过通讯接口相连，通讯接口可以是USB接口、SDIO接口和IIC接口中的一种，Z-WAVE模块可以通过FSK调制解调方式接收和发送Z-WAVE协议的无线信号。Z-WAVE模块206设置为控制设备，具体是说在Z-WAVE协议中有两种基本类型的设备，分别为控制类型设备 (Controller)和受控设备(Slave)。控制类型设备可以向其它节点发送控制命令，而受控设备可以对相应的控制命令做出回应。Z-WAVE模块506接收到第一处理器202对无线信号进行解析得到的目标Z-WAVE设备的节点标识，根据节点标识将接收到的Z-WAVE无线信号通过FSK调制解调方式发送给目标Z-WAVE设备。433/868/915MHz收发一体模块508与第一处理器502通过通讯接口相连，通讯接口可以是USB接口、SDIO接口和IIC接口中的一种，433/868/915MHz收发一体模块208设置为接收模式，常驻433/868/915MHz频段，监听433/868/915MHz频段的无线信号。433/868/915MHz收发一体模块508的监听频段要与需信号转发的433/868/915MHz通信设备的接收频段相同。并且433/868/915MHz收发一体模块208与需信号转发的433/868/915MHz通信设备采用相同的通信协议进行通信，即定制的通信协议。433/868/915MHz收发一体模块208接收无线信号，将无线信号传输到第一处理器202，第一处理器202根据定制的协议对无线信号进行解析，得到发送设备标识和信息内容来确定对无线信号进行转发的次数，根据转发的次数转发无线信号，对不同的设备和不同的信息内容进行不同的处理。例如，根据信息内容的重要性进行处理，若信息内容只是发送端定时上报的一些数据内容，比如温度、湿度等数据信息就只需要转发一次，对告警信息比如烟感、可燃性气体传感器，就需要转发多次，一般是三到五次，确保数据内容不丢包即可。
通讯接口510，与第一处理器502相连，通讯接口510还连接移动设备512，用于将第一处理器502的数据传输到移动设备512，以使移动设备通过通讯接口与第一处理器进行数据交互。
通讯接口510可以是USB接口、SDIO接口和IIC接口中的任意一种。
移动设备512中第二处理器5122接收到第一处理器502传输的解析结果和无线信号强弱等级，根据解析结果和无线信号强弱等级向控制组件发送移动指令。其中，解析结果可以是从Z-WAVE模块中第一处理器502解析得到的目标Z-WAVE设备的节点标识和从433/868/915MHz收发一体模块508得到发送设备标识和信息内容。无线信号强弱等级可以是WIFI无线信号的强弱等级，可以是Z-WAVE无线信号的强弱等级，可以是433/868/915MHz频段的无线信号的强弱 等级。控制组件5124接收到移动指令根据移动指令进行移动。例如，如果接收到的是解析33/868/915MHz频段的无线信号得到的报警信息，控制组件5124可以移动到报警处，增强报警处的无线信号。电源模块5126连接第二处理器5122对无线信号增强系统500进行供电，以使无线信号增强系统能够正常运行。
在一个实施例中，移动设备512上搭载有录像设备，控制组件5124就可以移动到报警处进行录像。
上述实施例中，无线信号增强系统通过第一处理器解析得到的解析结果和无线信号强弱等级传输给移动设备，使移动设备进行移动，解决的传统无线信号增强设备只能在固定的位置对固定区域的单一的无线信号增强的问题，使无线无线信号增强系统更加的适用于在不同的情况下对无线信号进行增强处理，使人们能够更加方便的使用。
本领域普通技术人员可以理解实现上述实施例方法中的全部或部分流程，是可以通过计算机程序来指令相关的硬件来完成，所述的程序可存储于一计算机可读取存储介质中，该程序在执行时，可包括如上述各方法的实施例的流程。其中，所述的存储介质可为磁碟、光盘、只读存储记忆体(Read-Only Memory，ROM)等非易失性存储介质，或随机存储记忆体(Random Access Memory，RAM)等。
以上所述实施例的各技术特征可以进行任意的组合，为使描述简洁，未对上述实施例中的各个技术特征所有可能的组合都进行描述，然而，只要这些技术特征的组合不存在矛盾，都应当认为是本说明书记载的范围。
以上所述实施例仅表达了本申请的几种实施方式，其描述较为具体和详细，但并不能因此而理解为对申请专利范围的限制。应当指出的是，对于本领域的普通技术人员来说，在不脱离本申请构思的前提下，还可以做出若干变形和改进，这些都属于本申请的保护范围。因此，本申请专利的保护范围应以所附权利要求为准。

Claims (20)

  1. 一种无线信号增强设备，包括：
    至少两个不同类型的无线通信模块，用于接收对应的无线信号，将所述无线信号传输给第一处理器；
    第一处理器，与所述无线通信模块相连，用于接收所述无线通信模块传输的所述无线信号并对所述无线信号进行解析，得到解析结果；及
    接收所述无线信号的无线通信模块，还用于对所述无线信号进行增强处理。
  2. 根据权利要求1所述的设备，其特征在于，所述无线通信模块包括：
    WIFI模块，与所述第一处理器相连，所述WIFI模块设置为无线中继模式，用于将接收到的无线信号直接进行中继和放大后通过调制解调方式发送所述无线信号。
  3. 根据权利要求1所述的设备，其特征在于，所述无线通信模块包括：
    Z-WAVE模块，与所述第一处理器相连，所述Z-WAVE模块设置为控制设备，用于接收所述第一处理器对无线信号进行解析得到的目标Z-WAVE设备的节点标识，根据所述节点标识将接收到的所述无线信号通过调制解调方式发送给所述目标Z-WAVE设备。
  4. 根据权利要求1所述的设备，其特征在于，所述无线通信模块包括：
    433/868/915MHz收发一体模块，与所述第一处理器相连，所述433/868/915MHz收发一体模块设置为接收模式，用于监听433/868/915MHz频段的无线信号并接收所述无线信号，将所述无线信号传输到所述第一处理器，根据所述第一处理器对所述无线信号采用定制通信协议进行解析后得到的发送设备标识和信息内容来确定对所述无线信号进行转发的次数，根据所述转发的次数转发所述无线信号。
  5. 根据权利要求1所述的设备，其特征在于，所述无线通信模块还用于检测接收到的所述无线信号的信号强度，根据所述无线信号的信号强度确定当前无线信号区域的无线信号强弱等级，将所述无线信号区域的无线信号强弱等级传输给第一处理器。
  6. 根据权利要求5所述的设备，其特征在于，还包括：
    通讯接口，与所述第一处理器相连；及
    所述通讯接口还可连接移动设备，用于将第一处理器的数据传输到移动设备，以使移动设备通过通讯接口与所述第一处理器进行数据交互。
  7. 根据权利要求6所述的设备，其特征在于，所述通讯接口还与移动设备上的电源相连，用于给所述设备供电。
  8. 根据权利要求6所述的设备，其特征在于，所述第一处理器用于将所述解析结果和所述无线信号强弱等级通过所述通讯接口传输给移动设备，以使所述移动设备根据所述解析结果和所述无线信号强弱等级进行移动。
  9. 一种无线信号增强方法，包括：
    通过至少两个不同类型的无线通信模块接收对应的无线信号；
    对无线通信模块接收到的所述无线信号进行解析，得到解析结果；及
    通过所述无线通信模块对所述无线信号进行增强处理。
  10. 根据权利要求9所述的方法，其特征在于，通过所述无线通信模块对所述无线信号进行增强处理，包括：
    当接收所述无线信号的无线通信模块是WIFI模块时，通过所述WIFI模块将接收到的无线信号直接进行中继和放大后通过调制解调方式发送所述无线信号；
    当接收所述无线信号的无线通信模块是Z-WAVE模块时，通过所述Z-WAVE模块接收到的所述第一处理器对无线信号进行解析得到的目标Z-WAVE设备的节点标识，根据所述节点标识将接收到的所述无线信号通过调制解调方式发送给所述目标Z-WAVE设备；及
    当接收所述无线信号的无线通信模块是433/868/915MHz收发一体模块时，通过所述433/868/915MHz收发一体模块监听433/868/915MHz频段的无线信号并接收所述无线信号，将所述无线信号传输到所述第一处理器，根据所述第一处理器对所述无线信号采用定制通信协议进行解析后得到的发送设备标识和信息内容来确定对所述无线信号进行转发的次数，根据所述转发的次数转发所述无线信号。
  11. 根据权利要求9所述的方法，其特征在于，在通过所述无线通信模块 对所述无线信号进行增强处理之后，包括：检测接收到的所述无线信号的信号强度，根据所述无线信号的信号强度确定当前无线信号区域的无线信号强弱等级，将所述无线信号区域的无线信号强弱等级传输给所述第一处理器。
  12. 根据权利要求9所述的方法，其特征在于，在通过所述无线通信模块对所述无线信号进行增强处理之后，包括：
    当所述第一处理器通过通讯接口与移动设备连接时，将所述解析结果和所述无线信号强弱等级通过所述通讯接口传输给移动设备，以使所述移动设备根据所述解析结果和所述无线信号强弱等级进行移动。
  13. 一种无线信号增强系统，包括：
    至少两个不同类型的无线通信模块，用于接收对应的无线信号，将所述无线信号传输给第一处理器；
    第一处理器，与所述无线通信模块相连，用于接收所述无线通信模块传输的所述无线信号并对所述无线信号进行解析，得到解析结果；
    接收所述无线信号的无线通信模块，还用于对所述无线信号进行增强处理；及
    移动设备，用于接收所述第一处理器解析无线信号得到的解析结果和所述无线信号强弱等级，根据所述解析结果和所述无线信号强弱等级进行移动，所述移动设备与所述第一处理器相连。
  14. 根据权利要求13所述的系统，其特征在于，所述无线通信模块包括：
    WIFI模块，与所述第一处理器相连，所述WIFI模块设置为无线中继模式，用于将接收到的无线信号直接进行中继和放大后通过调制解调方式发送所述无线信号。
  15. 根据权利要求13所述的系统，其特征在于，所述无线通信模块包括：
    Z-WAVE模块，与所述第一处理器相连，所述Z-WAVE模块设置为控制设备，用于接收所述第一处理器对无线信号进行解析得到的目标Z-WAVE设备的节点标识，根据所述节点标识将接收到的所述无线信号通过调制解调方式发送给所述目标Z-WAVE设备。
  16. 根据权利要求13所述的系统，其特征在于，所述无线通信模块包括：
    433/868/915MHz收发一体模块，与所述第一处理器相连，所述433/868/915MHz收发一体模块设置为接收模式，用于监听433/868/915MHz频段的无线信号并接收所述无线信号，将所述无线信号传输到所述第一处理器，根据所述第一处理器对所述无线信号采用定制通信协议进行解析后得到的发送设备标识和信息内容来确定对所述无线信号进行转发的次数，根据所述转发的次数转发所述无线信号。
  17. 根据权利要求13所述的系统，其特征在于，所述无线通信模块还用于检测接收到的所述无线信号的信号强度，根据所述无线信号的信号强度确定当前无线信号区域的无线信号强弱等级，将所述无线信号区域的无线信号强弱等级传输给第一处理器。
  18. 根据权利要求13所述的系统，其特征在于，还包括：
    通讯接口，与所述第一处理器相连；及
    所述通讯接口还可连接移动设备，用于将第一处理器的数据传输到移动设备，以使移动设备通过通讯接口与所述第一处理器进行数据交互。
  19. 根据权利要求13所述的系统，其特征在于，所述移动设备包括：
    第二处理器，与所述通讯接口相连，用于接收到所述第一处理器传输的所述解析结果和所述无线信号强弱等级，根据所述解析结果和所述无线信号强弱等级向控制组件发送移动指令；
    控制组件，用于接收所述移动指令，根据接收到的所述移动指令控制所述移动设备移动；
    电源模块，用于给所述无线信号增强系统供电；及
    所述第二处理器还分别与所述控制组件和电源模块相连。
  20. 一个或多个存储有计算机可读指令的非易失性的计算机可读存储介质，所述计算机可读指令被一个或多个处理器执行时，使得所述一个或多个处理器执行以下步骤：
    通过至少两个不同类型的无线通信模块接收对应的无线信号；
    对无线通信模块接收到的所述无线信号进行解析，得到解析结果；及
    通过所述无线通信模块对所述无线信号进行增强处理。
PCT/CN2017/108673 2017-10-31 2017-10-31 无线信号增强设备、方法、系统和存储介质 WO2019084798A1 (zh)

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